Welcome to Amplify Science!

On this page, you’ll find resources to help you get started with Amplify Science and have a great first year. Use the menu on the left side of your screen to quickly jump from section to section. Let’s dig in.

A child wearing safety goggles performs a science experiment with a cup and stirrer, surrounded by science-related graphics including molecules, a circuit board, a wave, and a robotic arm.

Program introduction

Onboarding: what to expect

Welcome to Amplify Science! To help you know what’s coming next, we created the following outline of the steps of the on-boarding process. You can use it as a reference.

Admin tools

Administrators please see the following tools to help you support your staff in implementing Amplify Science:

CPS Implementation Rubric

Pre-launch Checklist for Teachers

Five things to consider (and share with teachers) as you being to implement Amplify Science

Elementary school resources (grades K–5)

To ensure your first day using Amplify Science in the classroom is as seamless and smooth as possible, we recommend reviewing the following checklist before the first day of school.

What’s coming to my school?
Each unit of Amplify Science comes with a hands-on materials kit. Each hands-on materials kit arrives in one to three boxes and contains:

  • Consumable materials for two uses of 25 or 36 students (depending on school purchase)
  • Non-consumable materials.
  • Classroom wall materials.
  • Premium print materials (card sorts, vocabulary rings, etc.).
  • 18 copies of each Student Book (5 titles each unit)  (K–1 will receive 5 big books/unit)
  • A blackline master of the Student Investigation Notebook
  • One set of Student Investigation Notebooks (25 or 36)

You can find complete materials lists for each unit in the following PDF. This information is also available in the digital Teacher’s Guide within the program.

On-boarding videos
Our team has created a series of short videos to help get you started with Amplify Science:

Planning guides
As you prepare to plan for a unit, download our planning guides to help walk you through the most important resources to locate in either the print or digital Teacher’s Guide to help you plan:

Additional resources
If you’re interested in learning more about each unit’s anchor phenomena, the Student Books in each unit, and more program features, download the resources below:

Middle school resources (grades 6–8)

To ensure your first day using Amplify Science in the classroom is as seamless and smooth as possible, we recommend reviewing the following checklist before the first day of school.

What’s coming to my school?
Each unit of Amplify Science comes with a hands-on materials kit. Each hands-on materials kit arrives in one to three boxes and contains:

  • Consumable materials for five uses of 40 students
  • Non-consumable materials.
  • Classroom wall materials.
  • Premium print materials (cards, maps, etc.).
  • A blackline master of the Student Investigation Notebook

You can find complete materials lists for each unit in the following PDF. This information is also available in the digital Teacher’s Guide within the program.

Onboarding videos
Our team has created a series of short videos to help get you started with Amplify Science:

Planning guide
As you prepare to plan for a unit, download our planning guide to help walk you through the most important resources to locate in either the print or digital Teacher’s Guide to help you plan.

Additional resources
If you’re interested in learning more about each unit’s anchor phenomena, the Student Books in each unit, and more program features, download the resources below:

Looking for help?

Timely technical, program, and pedagogical support
Our technical and program support is included and available from 8 a.m. to 7 p.m. ET, Monday through Friday, through a variety of channels, including a live chat program that enables teachers to get immediate help in the middle of the school day. As a part our support, Amplify also has an Educational Support Team of former teachers and administrators who provide instructional support for every Amplify curriculum, assessment, and intervention program.

For your most urgent questions:

  • Use our live chat within your program
  • Call our toll-free number: 1 888 850 0945

For less urgent questions:

Reach out to our support team at: help@amplify.com

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Daily math routines that spark student curiosity

It’s the educator’s eternal question: How do I keep students engaged?

When designing daily math practice, teachers are always working to make real-world math problems fresh and relevant, find new entrance points for concepts, or simply come up with surprises. All of these approaches can be very effective.

And though it may seem counter-intuitive, so can routines.

The power of instructional routine

The word routine can connote a sense of doing something mechanically, even without thinking. But teachers know that well-placed classroom routines can open opportunities for creative thought.

Routines provide a way for you and your students to build and maintain a sense of familiarity and structure throughout the school year. They also free up time teachers would otherwise spend giving directions. When students know exactly how a certain activity should run, and understand all instructions and expectations, everything goes more smoothly.

That’s why a core set of shared routines can be a powerful, practical force for establishing an effective classroom learning community..

Bringing math routine into the classroom

We know routines can be effective in any classroom. Now, we also have research offering direct evidence that certain routines are particularly effective in math classrooms.

Think-pair-share

Do you want your students to have more time to think before solving and sharing about a problem? 

GOAL: Provides opportunities to identify, compare, and contrast multiple strategies

TIP: During partnered discussion, consider displaying sentence frames such as, “ First they… Next they…” “Their strategy was to…” or “I see a/an… in both strategies.”.

How to do it:

  • Invite students to solve a problem that can be solved with multiple strategies. Then, display two or more different responses representing different strategies.
  • Give students time to analyze the strategies on their own and then invite them to discuss them with a partner.
  • Facilitate a class discussion to describe, compare, contrast, and connect the different strategies. Utilize open-ended questions like, “Why did different strategies lead to the same outcome?” or, “What was helpful about each strategy?”

Where to learn more

We worked with our curriculum team to develop routine cards for math teachers, so you can implement routines that are part of our math program in your classroom. Most of the routines you’ll find throughout Amplify Desmos Math have been specifically proven effective in math classrooms. All of them have been adapted from established teaching practices.

We invite you to access a sample set of some of our most popular routines and decide which ones to try out in your classroom!

Resources

Download free math instructional routine cards.

Explore Desmos Classroom.

Learn more about Amplify Desmos Math.

The Reading Rope: Breaking it all down

What do pipe cleaners have to do with learning to read?

In the late 1990s, reading and literacy expert Hollis Scarborough, Ph. D., used pipe cleaners to create a model of the intertwined skills that make up the process of learning to read.

That model is the iconic Reading Rope, the visualization that helps us understand the essential strands of reading and how they work together.

In this post, we’ll examine the components of the Rope both individually and together, then explore how the Rope aligns with the Science of Reading and the five foundational reading skills.

What is the Reading Rope?

The human brain is wired to do many things, but reading is not one of them. The brain does not automatically know that certain marks on a page or screen are designed to represent sounds, or meaning. That’s why we have to teach reading, explicitly and systematically.

And when we teach reading using what science—the Science of Reading—tells us, the brain wires itself to start recognizing and understanding those letters, syllables, and words.

The Reading Rope provides a visual representation of that process and all its essential, interrelated components.

Why is the Reading Rope important for the Science of Reading?

The Reading Rope emphasizes the need for a comprehensive, deliberate approach to reading instruction. It recognizes that reading is not a singular skill, but rather a set of interwoven processes.

By understanding and addressing each of these processes (known in the Rope as strands), educators can provide the targeted instruction that helps readers succeed.

How does the Simple View of Reading connect to the Reading Rope?

One of the research-based frameworks used in the Science of Reading is the Simple View of Reading

According to the Simple View, two cognitive capacities are required for proficient reading: (1) word recognition and (2) language comprehension. 

“Reading comprehension is the product, not the sum, of those two components. If one of them is zero, then overall reading ability is going to be zero,” says Jane Oakhill, Ph.D., professor of experimental psychology at the University of Sussex.

Those two skills make up the two meta-strands of the Rope. But, as Oakhill explains further on her episode of Science of Reading: The Podcast, each strand contains its own subset of distinct skills and processes.

What are the strands of the Reading Rope?

Let’s take a look:

  1. Word recognition encompasses the ability to accurately and swiftly decode printed words. Phonological awareness, phonics, and sight word recognition contribute to this strand.
    1. Phonological awareness is the ability to recognize and manipulate the individual sounds (phonemes) within spoken words. It includes skills such as identifying rhymes, segmenting words into syllables, and manipulating sounds within words. Phonological awareness provides the foundation for phonics instruction.
    2. Phonics describes the systematic relationship between letters and the sounds they represent. It includes understanding letter-sound correspondences, decoding unfamiliar words by applying sound-symbol relationships, and blending sounds to form words. Phonics instruction gives students the tools to decode printed words.
    3. Sight word recognition is the ability to recognize and read words automatically, without decoding. Building a repertoire of sight words boosts fluency.
  2. Language comprehension is the understanding of spoken and written language, including vocabulary, grammar, syntax, and the ability to make inferences and draw conclusions. Language comprehension allows readers to extract meaning from text.
    1. Vocabulary refers to the words one knows and understands, both orally and in writing. A robust vocabulary enhances comprehension and communication.
    2. Grammar and syntax are the rules and structures that govern language. Understanding and applying grammatical rules helps students comprehend and construct sentences, enhancing their ability to make meaning from text.
    3. Inference and conclusion skills describe the abilities of drawing conclusions, making predictions, and deriving implicit meaning. These skills require readers to combine their background knowledge with information in the text to make guesses and reach conclusions.

How do the strands combine to form a process? 

These strands are interconnected and mutually supportive. Strong word recognition skills enable efficient decoding, which frees up cognitive resources for language comprehension. Similarly, robust language comprehension skills facilitate deeper word understanding and contextualized reading.

That’s how the Rope represents not just the elements of learning to read, but also the process toward fluency. As students progress, their word recognition becomes increasingly automatic, and their language comprehension becomes increasingly strategic.

  • In the word recognition strand, readers focus on decoding individual words, relying on phonological awareness and phonics. With practice and instruction, word recognition becomes more efficient and effortless. This automaticity frees up cognitive resources for comprehension and higher-level thinking.
  • In the language comprehension strand, readers learn to engage actively with the text, ask questions, make connections and predictions, and monitor understanding. Strategic readers use comprehension strategies—summarizing, visualizing, self-questioning, and more—to deepen their understanding of what’s on the page. 

Those two processes are intertwined and interdependent. The Rope shows that, as readers progress, they get better at combining automatic word recognition with strategic reading skills.

They can effortlessly recognize words, allowing them to focus on comprehending the text and performing higher-level thinking. By strategically applying language comprehension skills, readers construct meaning, make connections, and analyze the text.

This combination of automatic and strategic skills supports reading and facilitates engagement with more complex and challenging texts.

How does the Rope relate to the five foundational skills of reading? 

The Rope is made of a lot more than the five foundational skills of reading (phonics, phonemic awareness, vocabulary, fluency, and comprehension). How does it all add up?

While the Reading Rope does not explicitly mention these five skills as a distinct set, the strands do align with them. Here’s how:

  1. Phonological awareness (and phonemic awareness) is represented in the Rope’s word recognition strand.
  2. Phonics is also a critical aspect of word recognition.
  3. Fluency—often considered a combination of accuracy, rate, and prosody—is not represented as its own strand, but it’s closely related to the word recognition strand. As students develop automaticity in word recognition, their reading fluency improves.
  4. Vocabulary aligns with the language comprehension strand. The development of a robust vocabulary enhances reading comprehension by enabling students to understand and infer the meaning of words encountered in the text.
  5. Comprehension is built into the language comprehension strand. It includes skills such as understanding sentence structure, making inferences, drawing conclusions, and connecting prior knowledge. These skills help the reader get meaning from the text and connect to higher-level thinking.

The Reading Rope is a game-changing tool, clarifying a complex process and helping teachers target instruction. When the strands come together, they weave the strongest possible foundation for student reading success.

Top 5 back-to-school tips for math teachers

Math teachers: What’s the formula for a successful year? As you know, there are plenty of variables, but here’s one constant: being prepared for back-to-school season. 

We’re here to help! 

From fun math activities to positive tone-setting to professional learning opportunities and more, our strategies are designed to help you enter your math classroom for the new school year feeling energized, inspired, and supported by your math community.

1. First-day fun: Plan interactive math classroom activities.

Before launching into back-to-school math lessons, how about a few rounds of Icebreaker Bingo? Create a Bingo card inviting students to find classmates who can answer “yes” to math-related descriptions (e.g., “Enjoys cooking or baking,” “Plays a musical instrument,” “Likes to play board games”). Activities like these motivate students by helping them uncover common interests and reminding them that math is an integral part of “real life.”

2. Student success: Work with school colleagues and leadership toward shared goals. 

Review what systems may already be in place and consider adding more. You might: 

  • Schedule regular team meetings to set and work toward common goals.
  • Establish a professional learning community to share math resources for teachers. For example: Consider hosting a Learning Lab to encourage collaborative professional learning from within the classroom.
  • Amp up the use of data to inform decisions. Ask your team: What student performance data and assessment results can we use to see where improvements are needed?

3. Set the tone for the year: We are here to make mistakes.

As Math Teacher Lounge podcast co-host Dan Meyer says, “Students spend the majority of their learning in class [being] wrong.” That’s not only normal, it’s actually good—as long as students know that. Start the year by reminding them that making mistakes is not only inevitable, but also essential. Normalizing being “wrong” encourages students to overcome fear of failure, take risks, and build confidence—in school math activities and beyond.

4. Grow together: Establish a math community.

Build a math ecosystem connecting students to one another and creating a continuum between the classroom and their everyday lives. You might: 

  • Establish math routines in your classroom to build a classroom community focused on collaborative learning. 
  • Collaborate with students on writing a weekly math blog or math newsletter with classroom updates.
  • Create simple but engaging math challenges for students and caregivers to do together, such as building toothpick towers or budgeting for a fantasy birthday party.

5. Use free professional learning opportunities for teachers from the math team at Amplify.

Explore our upcoming math webinars, designed to support you—along with your schools and districts—in using collaborative, effective, and engaging math practices in the classroom.

You can also check out our on-demand math webinar library on your own time. From quick tips to longer continuing education (CE) credit options, our library is sure to have just what you need.

Finally, our free toolkit of math resources will:

  • Help you craft a dynamic math curriculum during the crucial first weeks of school.
  • Support student engagement and spark new inspiration in your classroom practices and activities.
  • Offer learning opportunities you can access now or on demand whenever you need them.
  • Make it even easier for you to implement the tips above setting math students up for success from day one of the school year!

Hello, Alaska teachers and leaders!

The Alaska Department of Education and Early Development (DEED) has selected Amplify’s mCLASS® DIBELS® 8th Edition as the statewide literacy screener to help with the early identification of students with required additional reading support.  mCLASS is a foundational literacy assessment based on the Science of Reading.

As the approved screening tool for the AK Reads Act, mCLASS DIBELS 8th Edition should be administered three times each school year. Together, Amplify and DEED will strategically and confidently support teachers and families to help students improve their reading skills with mCLASS DIBELS 8th Edition.

Log in to access your mCLASS program and hundreds of resources at learning.amplify.com.

Want advice and answers from the Amplify team?

Three classroom scenes: A teacher watches as a young girl writes on a whiteboard; children sit at desks drawing and writing, with teachers assisting them.

Introduction to mCLASS DIBELS 8th Edition

mCLASS DIBELS 8th Edition is an English universal screener and progress monitoring reading assessment tool. It measures foundational literacy skills, creates instant groups, and includes targeted teacher-led instructional plans.

Precise one-minute measures based on predictive data allow mCLASS to provide individualized instruction.

Intuitive reporting for teachers and administrators supports data-driven decisions to achieve student growth.

Universal and dyslexia screening in one validated assessment tool identifies your at-risk students at the earliest levels.

Receive the analytical tools and resources needed to deliver targeted, staff-led intervention to students.

Don’t miss out!

What’s new:

  • Download the 2025-26 EOY checklist, and be prepared to administer the end-of-year benchmark assessments.
  • New mCLASS DIBELS 8th Edition professional development sessions are now available! Register below for available sessions.
  • Click here to learn more about the Alaska mCLASS DIBELS 8th Edition Calibration Module. Anyone administering mCLASS assessments must complete the Alaska mCLASS DIBELS 8th Edition Calibration Module with a passing score.
  • Each participating district will receive mCLASS DIBELS 8th Edition Assessment kits. One kit, per grade, K-3 will be shipped. Materials can also be downloaded for free. If you would like to purchase additional kits, please email Kristen Rockstrah or Alicia O’Neil.

Technical onboarding

Visit our Technical Onboarding hub for information and resources to help guide you through setting up digital access to your Amplify products.

Enrolling with multiple Amplify programs?

For additional support in enrolling when using multiple Amplify programs, contact support.

Professional learning

There are many exciting learning opportunities available for Alaska teachers and leaders. Access session recordings, training resources, and more.

For more information, please reach out to your Amplify PD representative:

Erin Replogle
Professional Development Strategist, Literacy
ereplogle@amplify.com

About mCLASS DIBELS 8th Edition initial training

Districts have been registering for district-specific initial training. If you’re unable to make your district’s scheduled session, you can register for another district’s training.  Seats are limited in these sessions, so please sign up early if you are interested in attending.

In addition, anyone administering mCLASS assessments must complete the Alaska mCLASS DIBELS 8th Edition Calibration Module with a passing score.

Initial training

Initial mCLASS DIBELS 8th Edition training

New to mCLASS DIBELS 8th Edition? This session will prepare educators to administer the mCLASS DIBELS 8th Edition measures and help them use this data to enhance their classroom instruction.

April 1st & April 8th: 1 pm – 4 pm
April 6th: 8:30 am – 3:30 pm
April 11th: 8:30 am – 3:30 pm
April 15th: 8:30 am – 3:30 pm

Assessing with fidelity for teachers—1 hour

Already trained in mCLASS DIBELS 8th Edition but want to brush up on your administration practices? Join us for this 1-hour session to review assessment administration information and practice assessing students on PSF or NWF.

New sessions coming soon!

Strengthening

Creating a data-driven classroom for teachers—3 hours

This three-hour training session is geared toward teachers who have completed at least one mCLASS DIBELS 8th Edition benchmark administration and are ready to begin analyzing student data to make instructional decisions.

New sessions coming soon!

Progress monitoring to drive student outcomes for teachers—1 hour

This one-hour training session is geared toward teachers who have completed at least one mCLASS DIBELS 8th Edition benchmark administration and are ready to implement mCLASS progress monitoring and MTSS best practices to track student progress and accelerate growth.

New sessions coming soon!

Data conversations

Understanding and communicating mCLASS DIBELS 8th Edition results with stakeholders—1 hour

This session is designed to extend educators’ understanding of norm-referenced and criterion-referenced assessments, how they apply to their student’s mCLASS DIBELS 8th Edition results, and how to facilitate and support parent communication.

New sessions coming soon!

Instructional leaders

mCLASS DIBELS 8th Edition data walkthrough for leaders—1 hour

Cultivate a school-wide culture of data-driven practices. Use mCLASS reports to drill into key school-level data and leave with a systems-level action plan to drive stronger student and teacher outcomes.

New sessions coming soon!

mCLASS DIBELS 8 Reporting Basics for Leaders – 1 hour

Examine your school-level mCLASS benchmark assessment data to identify key levers for improving student outcomes

New sessions coming soon!

Professional development opportunities are added frequently.

*Please note that sessions require a minimum number of participants. Sessions that do not have sufficient registration may be canceled. Please encourage your colleagues and administrators to promote sessions you believe would be helpful to fellow educators.

Coming soon!

Access help articles, videos, and tutorials to support your mCLASS onboarding and implementation.

Benchmark and reporting

Table showing which Alaska mCLASS reading measures are assessed at each grade level, from kindergarten to grade 5, with checkmarks indicating assessed skills per grade.

Beginning-of-year (BOY): August 18, 2025—September 26, 2025
Middle-of-year (MOY): December 1, 2025–January 26, 2026
End-of-year (EOY): April 30, 2026–May 15, 2026

If you need to change your benchmark window, please contact support.

We at Amplify and the team at the University of Oregon are here to provide continued guidance and support around collecting and using mCLASS data.

mCLASS can be administered in many ways, including remotely. This site will give guidance on the options to best support your students in any learning environment.

A student wearing headphones looks at a laptop screen and uses the touchpad while seated at a desk in a classroom.

mCLASS gives you detailed insight into your students’ reading development across foundational literacy skills, empowering educators with instructional recommendations specific to each student’s unique needs.

Access the mCLASS Reporting Guide to find a wealth of valuable reporting information that mCLASS provides for everyone, from classroom teachers and literacy specialists to principals and district leaders, as well as parents and guardians at home.

In addition to the Reporting Guide, please view the following help and tutorial resources.

A measure should be invalidated, or deleted, when an interruption or mistake occurs that undermines the validity of the score. Examples include the following:

  • The wrong student was assessed.
  • There were interruptions, such as from intercom announcements or fire drills.
  • There were scoring errors that cannot easily be corrected.
Screenshot of an mCLASS dashboard showing class reading summary data, with student performance categorized by color-coded benchmark levels.

Explore more programs.

A flowchart showing five steps: mCLASS Assessment, Amplify CKLA, Boost Reading, mCLASS Intervention, and Science of Reading professional development.

We are the gold standard in early literacy. Our proven early literacy suite of assessment, instruction, and intervention is more powerful than ever. Unlock the power of our full literacy suite with programs designed to enable every student to build robust foundational skills and grow at all reading levels. Learn more about our related programs.

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mCLASS Intervention

Follow a research-based, targeted skills progression and use mCLASS benchmark and progress monitoring data to create groups and daily lesson plans for 10-day cycles.

Learn more

Two boys sitting at desks in a classroom talk to each other, with a paper cutout of a light bulb placed between them on the desk.

Amplify CKLA

Built on the Science of Reading, Amplify CKLA features an explicit, systematic approach that leverages multisensory instruction and provides instruction for students from all walks of life.

Learn more

Students learning Boost Reading lesson

Boost Reading

Delivers adaptive instruction, practice, and intervention support through highly engaging games and activities, freeing educators up to work with small groups.

Learn more

Students in a classroom focus on reading and writing tasks. An orange badge with the text "Built on the Science of Reading" is displayed.

Science of Reading

Discover how the Science of Reading is for everyone! All students—from multilingual/English learners to middle schoolers to your most confident young readers—benefit from the research-based, proven literacy instruction indicated by the Science of Reading.

Learn more

Need more help?

Log in at learning.amplify.com, and click the gray chat button in the bottom right corner to chat live with our support team.

Our Help Center contains searchable articles and resources to answer many of your questions.

Contact us at (877)-810-4919 for dedicated account support.

If you need additional support, please contact our support team.

mCLASS® with DIBELS® 8th Edition is Oregon approved!

mCLASS with DIBELS 8th Edition and mCLASS Rapid Automatic Naming (RAN) helps teachers identify COVID-related learning loss and literacy needs firsthand through a quick, five-minute assessment that can be done virtually or in person. What’s more, it helps teachers take immediate instructional action that’s right for each and every student.

A teacher helps a young student with a tablet; below, a girl listens attentively. Icons of a book and a puzzle piece appear on colored backgrounds.

What is mCLASS?

mCLASS® with DIBELS® 8th Edition and mCLASS RAN is an integrated, gold standard literacy system for grades K–6.

The mCLASS comprehensive system includes efficient one-minute measures, a built-in Enhanced Early Learning Measures screener, teacher-led and student-driven instruction, intervention, and robust reports for teachers and administrators.

With mCLASS, you can say goodbye to cobbling together tools and second guessing the results of other screeners.

A girl sits at a desk reading and writing, with educational words in the background; text highlights mCLASS as a gold standard in early literacy.

University of Oregon

Together with the University of Oregon, we have made the DIBELS® (Dynamic Indicators of Basic Early Literacy Skills) assessment that you know and love more powerful and user-friendly than ever before.

As the only licensed provider of the digital DIBELS 8th Edition assessment, we make it faster and easier to understand where every student is in their early literacy journey.

Why mCLASS?

It’s a single solution that meets all of the state’s requirements for Early Screening of Dyslexia.

  • It’s a universal early literacy screener, dyslexia screener, and a diagnostic tool in one.
  • It allows for real-time assessment and instant scoring as well as offline assessment capabilities.
  • It includes explicit literacy instruction and intervention strategies based on student performance.
  • It’s flexible and can be implemented in a variety of scenarios, including in-person, remote, and hybrid learning environments.
  • It includes a variety of parent notification resources and at-home reading strategies.
  • It’s continually enhanced with new features and regular updates that are made available to our entire user community.

Amplify Reading is the proven, adaptive skills practice and remediation companion for mCLASS. Try it for free for the remainder of the school year with a no-cost trial.

Request a free trial today!
Tablet displaying a student performance table. Columns for assessment times; rows for performance levels. Percentages and student counts are provided in each assessment area and level.

Instant data and action

Quick and actionable reports provide detailed insight into students’ reading development across foundational literacy skills for classroom teachers and literacy specialists, principals and district leaders, and parents and guardians at home.

What’s more, mCLASS® with DIBELS® 8th Edition and mCLASS RAN gives you instant results and clear next instructional steps for each and every student.

Dyslexia screener

Early intervention is critical. That’s why we help you meet state dyslexia legislation with one single powerful tool—no additional assessment system required.

Our additional measures in vocabulary, spelling, and rapid automatic naming (RAN) address the full range of skills associated with dyslexia risk and help identify students at varying levels of risk for reading difficulties, including dyslexia.

A child sits at a desk using a laptop. Next to the desk is a bookshelf with books, a fishbowl, and a soccer ball.

Assess anywhere

mCLASS has created a collection of resources to help you plan for a variety of assessment scenarios.

Whether your school is engaged in in-person, hybrid, or remote instruction, we know how important it is for teachers and administrators to have a full (and firsthand!) picture of every student’s literacy development.

Personalized practice

Amplify Reading is the practice and remediation companion to mCLASS. At its heart, there are three main areas that make Amplify Reading a unique and essential supplemental learning program.

  • The program meets all students where they are with powerful individualized instruction and practice.
  • Age-appropriate narratives create a learning experience that leaps off the screen.
  • Research shows Amplify Reading improves student performance–particularly among English Learners–reducing the overall percentage of students at risk of reading difficulty.

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Funding

Schools may utilize Early Literacy Grants or federal CARES Act funds to purchase assessments to meet Oregon’s screening legislation.

Get in touch

Ready to discuss how mCLASS can support your specific needs? A brief 30-minute call is all we need to determine if mCLASS with DIBELS 8th Edition is the right fit for you.

Simply fill out the form below and we’ll be in touch.

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Patric Momsen

District Manager

A man with short dark hair wearing a dark blazer and light-colored collared shirt, smiling at the camera against a plain white background.

Jonathan Cohen

Account Executive

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Immanuel Moon

Field Manager

Amplify Science releases substantial, free enhancements based on teacher feedback

Brooklyn, NY (September 26, 2019) Amplify, a publisher of next-generation curriculum and assessment programs, announced substantial new enhancements to Amplify Science, its core science program authored by the University of California, Berkeley’s Lawrence Hall of Science. Teachers can now prepare and present lessons with Classroom Slides for grades K–5; review and grade student work with an intuitive Classwork tool in grades 6–8; and use new digital Spanish-language resources, accessibility supports, and additional hands-on activities. In addition, Amplify rolled out Amplify Science Transitional Kindergarten, a new program designed to introduce young students to real-world phenomena and jumpstart a lifelong love of science. 

Based on feedback from teachers, which the Amplify team gathers on a regular basis through a variety of channels, the new elements available as part of Amplify Science this 2019-2020 school year include:

  • Classroom Slides, fully editable time-saving supports for teachers, with lesson visuals, activity instructions, animations, investigation setup videos, technology support and more.
  • Classwork, a feedback and grading tool that gives teachers easy access to unreviewed work, student portfolios and groups based on student performance.
  • New digital Spanish-language supports (available as purchased add-on licenses) that enable educators to toggle between English versions online. Educators can also select which resources students can see. 
  • New accessibility supports, including screen-readable content, keyboard navigation improvements and read-aloud support for assessments.
  • Hands-on Flextensions, new additional investigations that give teachers the flexibility to incorporate more hands-on focused activities into select units, if time permits.

The company also debuted Amplify Science Transitional Kindergarten, a new program from UC Berkeley’s Lawrence Hall of Science that is developmentally and pedagogically appropriate and designed to foster a lifelong love of science in young students.

Looking ahead to Back to School 2020, Amplify is already hard at work on Classroom Slides for grades 6–8 and more enhancements to the digital platform that make planning and delivering instruction even easier.

“One of the best parts about working with K–8 educators is listening to how they actually use our program, taking their feedback seriously, and doing something with it,” said Steven Zavari, senior vice president and general manager of science curriculum at Amplify. “We are already hearing great things about the Classroom Slides and other new features available this school year, and we can’t wait to share more details with educators soon about what’s coming next year.”

Amplify Science is a breakthrough K–8 curriculum designed from the ground up for the Next Generation Science Standards by the curriculum experts at UC Berkeley’s Lawrence Hall of Science. In each Amplify Science unit, students inhabit the role of a scientist or engineer to investigate a real-world problem, using relevant, 21st-century contexts to investigate scientific phenomena. Educators who adopt Amplify Science receive a comprehensive curriculum that includes literacy-rich activities, hands-on investigations, digital simulations, embedded assessments and robust teacher supports. Amplify Science for grades 6–8 was the only program to receive all-green ratings on EdReports.org in 2019. The K-5 program is currently in review by EdReports.

Currently in use by more than two million students, Amplify Science has been adopted by the New York City Department of Education, Chicago Public Schools, Denver Public Schools, San Francisco Unified School District, Seattle Public Schools, the KIPP charter network, and hundreds of other districts across the country.

About Amplify

A pioneer in K–12 education since 2000, Amplify is leading the way in next-generation curriculum and assessment. Our captivating core and supplemental programs in ELA, math, and science engage all students in rigorous learning and inspire them to think deeply, creatively, and for themselves. Our formative assessment products turn data into practical instructional support to help students at every skill level build a strong foundation in early reading and math. Our programs provide teachers with powerful tools that help them understand and respond to the needs of all their students. Today, Amplify serves five million students in all 50 states. 

For more information, visit Amplify.com.

Contact: media@amplify.com

Review Materials

Teacher Reference Guides

It’s important that your committee sees the full breadth and depth of our instruction. For that reason, we provided a copy of each of our unit-specific Teacher Reference Guides. Before you panic, rest assured that teachers do not use these robust reference guides for day-to-day teaching. For that, we have a hands-free TG!

Amplify Science lesson slides

  • Teacher Reference Guide: Unlike a typical TG that requires a series of supplemental books to support it, our encyclopedic reference guide is chock-full of everything a teacher needs to fully implement our program and the NGSS.
  • Ready-to-Teach Digital Lessons: For daily instruction, teachers need their hands free. That’s why we created ready-to-teach lesson slides for every single lesson What’s more, they are editable and include suggested teacher talk and point-of-use differentiation and other instructional tips. Read this help article to learn more.

Hands-on kits

Every unit of our program includes a dedicated hands-on materials kit. Due to the amount of materials involved, we provided your committee two sample kits per grade level. Our unit-specific kits make material management easy for teachers—they grab the tub they need and then put it all back with ease. Plus, items needed for multiple units are duplicated and found in each tub.

Amplify Science hands-on kits

Our unit-specific kits:

  • Include more materials — We give you enough non-consumable materials to support 200 student uses.
  • Are more manageable — Unlike other programs that require large groups of students to share limited sets of materials, our kits include enough to support small groups of 4–5 students.
  • Include supportive videos — Each hands-on activity provides clear instructions for the teacher, with more complex activities supported by video demonstrations and illustrations.

Overview

Developed by UC Berkeley’s Lawrence Hall of Science, our program features:

  • A phenomena-based approach where students construct a more complex understanding of each unit’s anchor phenomenon.
  • A blend of cohesive storylines, hands-on investigations, rich discussions, literacy-rich activities, and digital tools.
  • Cohesive units, chapters, lessons, and activities designed to deliver true 3-dimensional learning.
  • An instructional design that supports all learners in accessing all standards.

 

Hands-on investigations

Literacy integration

Simulations and modeling tools

Classroom discussions

EdReports All-Green

Amplify Science for grades K–8 has been rated all-green by EdReports.

Read the review on EdReports.

Program structure

Our cyclical lesson design ensures students receive multiple exposures to concepts through a variety of modalities.

As they progress through the lessons within a unit, students build and deepen their understanding, increasing their ability to develop and refine complex explanations of the unit’s phenomenon. It’s this proven program structure and lesson design that enables Amplify Science to address 100% of the NGSS in fewer days than other programs.

Navigating an Engineering Internship (Part 2)

This Part 2 video demonstrates how to use the Futura Workspace to manage the immersive experience of the Engineering Internship units. This includes guidance on how to create student groups, how to review student work, and how to send students targeted feedback on their designs.

Unit sequence

Our lessons follow a structure that is grounded in regular routines while still being flexible enough to allow for a variety of learning experiences.

In fact, our multi-modal instruction offers more opportunities for students to construct meaning, and practice and apply concepts than any other program. What’s more, our modular design means our units can be flexibly arranged to support your instructional goals.

Unit 1

Microbiome

Domain: Life Science

Unit type: Launch

Student role: Microbiological researchers

Phenomenon: The presence of 100 trillion microorganisms living on and in the human body may keep the body healthy.  

Unit 2

Metabolism

Domain: Life Science

Unit type: Core

Student role: Medical researchers

Phenomenon: Elisa, a young patient, feels tired all the time.  

See how this unit works

Unit 3

Metabolism Engineering Internship

Domains: Life Science, Engineering Design

Unit type: Engineering internship

Student role: Food engineers

Phenomenon: Designing health bars with different molecular compositions can effectively meet the metabolic needs of patients or rescue workers.  

Unit 4

Traits and Reproduction

Domain: Life Science

Unit type: Core

Student role: Biomedical students

Phenomenon: Darwin’s bark spider offspring have different silk flexibility traits, even though they have the same parents.  

See how this unit works

Unit 5

Thermal Energy

Domain: Physical Science

Unit type: Core

Student role: Thermal scientists

Phenomenon: One of two proposed heating systems for Riverdale School will best heat the school.  

See how this unit works   

Unit 6

Ocean, Atmosphere, and Climate

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Climatologists

Phenomenon: During El Niño years, the air temperature in Christchurch, New Zealand is cooler than usual.  

Unit 7

Weather Patterns

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Forensic meteorologists

Phenomenon: In recent years, rainstorms in Galetown have been unusually severe.  

See how this unit works

Unit 8

Earth’s Changing Climate

Domains: Earth and Space Science, Life Science

Unit type: Core

Student role: Climatologists

Phenomenon: The ice on Earth’s surface is melting.  

See how this unit works

Unit 9

Earth’s Changing Climate Engineering Internship

Domains: Earth and Space Science, Engineering Design

Unit type: Engineering internship

Student role: Civil engineers

Phenomenon: Designing rooftops with different modifications can reduce a city’s impact on climate change.  

Unit 1

Geology on Mars

Domain: Earth and Space Science

Unit type: Launch

Student role: Planetary geologists

Phenomenon: Analyzing data about landforms on Mars can provide evidence that Mars may have once been habitable.  

Unit 2

Plate Motion

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Mesosaurus fossils have been found on continents separated by thousands of kilometers of ocean, even though the Mesosaurus species once lived all together.  

See how this unit works

Unit 3

Plate Motion Engineering Internship

Domains: Earth and Space Science, Engineering Design

Unit type: Engineering internship

Student role: Mechanical engineering interns

Phenomenon: Patterns in earthquake data can be used to design an effective tsunami warning system.    

Unit 4

Rock Transformations

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Rock samples from the Great Plains and from the Rocky Mountains — regions hundreds of miles apart — look very different, but have surprisingly similar mineral compositions.   

See how this unit works

Unit 5

Phase Change

Domains: Physical Science, Earth and Space Science

Unit type: Core

Student role: Chemists

Phenomenon: A methane lake on Titan no longer appears in images taken by a space probe two years apart.  

See how this unit works

Unit 6

Phase Change Engineering Internship

Domains: Engineering Design, Physical Science

Unit type: Engineering internship

Student role: Chemical engineering interns

Phenomenon: Designing portable baby incubators with different combinations of phase change materials can keep babies at a healthy temperature.  

Unit 7

Chemical Reactions

Domains: Physical Science, Life Science, Earth and Space Science

Unit type: Core

Student role: Forensic chemists

Phenomenon: A mysterious brown substance has been detected in the tap water of Westfield.  

See how this unit works

Unit 8

Populations and Resources

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Biologists

Phenomenon: The size of the moon jelly population in Glacier Sea has increased.  

See how this unit works  

Unit 9

Matter and Energy in Ecosystems

Domains: Life Science, Earth and Space Science, Physical Science

Unit type: Core

Student role: Ecologists

Phenomenon: The biodome ecosystem has collapsed.  

See how this unit works 

Unit 1

Harnessing Human Energy

Domains: Physical Science, Earth and Space Science, Engineering Design

Unit type: Launch

Student role: Energy scientists

Phenomenon: Rescue workers can use their own human kinetic energy to power the electrical devices they use during rescue missions.   

Unit 2

Force and Motion

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: The asteroid sample-collecting pod failed to dock at the space station as planned.  

See how this unit works

Unit 3

Force and Motion Engineering Internship

Domains: Engineering Design, Physical Science

Unit type: Engineering internship

Student role: Mechanical engineering interns

Phenomenon: Designing emergency supply delivery pods with different structures can maintain the integrity of the supply pods and their contents.  

Unit 4

Magnetic Fields

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: During a test launch, a spacecraft traveled much faster than expected.  

Unit 5

Light Waves

Domains: Physical Science, Life Science, Earth and Space Science

Unit type: Core

Student role: Spectroscopists

Phenomenon: The rate of skin cancer is higher in Australia than in other parts of the world.  

See how this unit works

Unit 6

Earth, Moon, and Sun

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Astronomers

Phenomenon: An astrophotographer can only take pictures of specific features on the Moon at certain times.  

Unit 7

Natural Selection

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Biologists

Phenomenon: The newt population in Oregon State Park has become more poisonous over time.  

See how this unit works

Unit 8

Metabolism Engineering Internship

Domains: Life Science, Engineering Design

Unit type: Engineering internship

Student role: Food engineers

Phenomenon: Designing health bars with different molecular compositions can effectively meet the metabolic needs of patients or rescue workers.  

Unit 9

Evolutionary History

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Paleontologists

Phenomenon: A mystery fossil at the Natural History Museum has similarities with both wolves and whales.    

See how this unit works

Access program

Watch the video to the right plus the ones below showing you how to navigate our digital platform. When you’re ready, follow the instructions below to log into our live demo account.

  • Click the orange button below to access the platform.
  • To explore as a teacher, enter this username (t1.washoemssci@demo.tryamplify.net) and this password ( Amplify1-washoemssci).
  • To explore as a student, enter this username (s1.washoemssci@demo.tryamplify.net) and this password ( Amplify1-washoemssci).
  • Choose your grade level from the drop-down menu.

 

Access the digital platform now

Navigating an Engineering Internship (Part 1)

This Part 1 video demonstrates how Engineering Internship units invite students to design solutions for real-world problems as interns for a fictional company called Futura. In the process, they apply and deepen their learning from Core units.

Navigating an Engineering Internship (Part 2)

This Part 2 video demonstrates how to use the Futura Workspace to manage the immersive experience of the Engineering Internship units. This includes guidance on how to create student groups, how to review student work, and how to send students targeted feedback on their designs.

Navigating our reporting tools

Teachers of Amplify Science grades 6–8 have access to a feature called Reporting. When unit assessments are administered digitally, the Reporting tool enables teachers to analyze student performance on the unit assessments.

Differentiation post-assessment

Every core unit of Amplify Science 6–8 features a formal formative assessment opportunity at the mid-way point, or Critical Juncture, of the unit, which provides an important opportunity for differentiation.

Resources

S1-01: The journey from student to SpaceX engineer: Juan Vivas

Illustration of Earth with text about a podcast episode featuring Juan Vivas, discussing the journey from student to SpaceX engineer. Includes a photo of a smiling person in a suit.

In this episode, we join Eric Cross as he talks to supply chain engineer Juan Vivas of SpaceX about his experiences growing up as a Latino in STEM. Juan shares his story of moving to the United States to study engineering and becoming successful in his career as a scientist. Juan openly discusses the experiences that made a difference in his life and the teachers that inspired him along the way. He also shares his experience as an engineer in different fields, as well as what it’s like to work in the supply chain during COVID.

Explore more from Science Connections by visiting our main page.

Download Transcript

Juan Vivas (00:00):

But to me, based on my experience so far, I think the best way to put it: An engineer is a technical problem-solver.

Eric Cross (00:28):

Welcome to Science Connections. I’m your host, Eric Cross. My guest today is Juan Vivas. Juan is a supply chain engineer for SpaceX. His career in STEM has pivoted from chemical engineering to working on foods like Cinnamon Toast Crunch to his current role at SpaceX, where he’s responsible for his work on Starlink, a technology that uses low-orbit satellites to provide internet access across the world. In this episode, Juan shares his story of how he became an engineer and how a thoughtful teacher used robotics to inspire him. I hope you enjoy this great conversation with Juan Vivas. Juan, thanks for being here.

Juan Vivas (01:14):

Yeah, yeah, of course! Super-excited to be here.

Eric Cross (01:19):

Hey, and starting off, I kind of like to ask your origin story. We were talking earlier about Marvel, and your journey of one working for…what I consider the closest thing that we have to SHIELD in the Marvel stories is SpaceX. Like with my own students, we talk about SpaceX like it’s a fictional thing, and we watch the rocket launches together and we watch the recovery and it’s so cool.

Juan Vivas (01:45):

Yeah.

Eric Cross (01:46):

And so when I knew that we were gonna be able to talk to you, I was excited. Like, I felt like I was a kid.

Juan Vivas (01:51):

<Laugh>

Eric Cross (01:51):

So I’d love to hear your origin story of you ultimately landing at SpaceX. And begin wherever kind of seems most natural to you.

Juan Vivas (01:59):

Yeah, yeah, of course. You know, I wasn’t one of those kids at from a young age I said “Oh, I’m gonna be an engineer.” Right? “I want to go and build all these things.” Where I grew up, and the social circle that I had, a lot of people were like doctors or lawyers. Just figured, you know, I’ll go to med school and go down the same path that 90% of like everyone else was gonna take. But in high school, I actually got into robotics. And, kind of like I mentioned, I wanted to do med school, that is what I figured I would end up doing. And then I got into robotics in high school. And I think that was what really kind of like changed my perspective of what I wanted to do, because basically these competitions were just—it was full-on driven by students. So we designed, programmed, and manufactured, like, the entire robot itself. And so through that I ended up doing a summer engineering program at the University of Maryland, the summer before going into my senior year in high school. And there we worked on a competition with underwater robots. And so we spent the entire summer, kind of similar scenario, designing a robot, manufacturing it, programming it. And then in the end it was like a competition in the buoyancy tank with different teams. And, you know, I think one thing that was really neat about that experience is that I got to hear Dr. John C. Mathers, who is a Nobel Prize physicist, speak to us in a room with, like, only 10 high school students. And just hearing his experience of where he started and the accomplishment that he’s been able to do, down in the STEM path, was really neat. And that summer was my final decision that I’m “OK, I know I want to be an engineer.” What’s interesting is I ended up choosing chemical engineering, instead of mechanical, which a lot of people, you know, based on all the experience that led me up to be an engineer, they asked me why I didn’t choose mechanical engineering. And I think one of the reasons why I chose chemical engineering is it’s very process-based. So one thing needs to happen, and there’s different inputs to that one step, and that step has an end-to-end reaction to it, right? So certain things need to happen in step one in order for step two to occur. And however the inputs happen in step one, it’s gonna affect the rest of the process. Honestly, very different than what I thought it was really gonna be. But what’s neat about chemical engineering is that it’s one of the most versatile engineering majors that you can have. Chemical engineering, because you work with a lot of process bases. Everything has a process, right? Everything needs to start with step one, and with, you know, step 10, whatever. And it’s all about optimization and improvement along those processes. So you can really take chemical engineering principles and apply ’em to different areas of a career, which is essentially the experience that I had in college. I had three internships with Dow Chemical where I did environmental health and safety, production, and supply-chain improvement. I then did research and development with Clorox. And then I did manufacturing engineering with General Mills. So really different job roles, different aspects, but same methodology applied.

Eric Cross (05:36):

I feel like there’s so much that you just said, <laugh> and I was trying to always, “I wanna ask him about that!” And in there, what I heard was there was a real pivotable, pivot moment in your life. Was the club…or was it a club, the robotics program? Or was that a class?

Juan Vivas (05:53):

You know, it was actually…it was VEX Robotics, specifically.

Eric Cross (05:56):

It was VEX! OK. Yeah, yeah. Really popular. And they still have it; I think we actually have some downstairs. So it was a club, and not necessarily a formal environment, where you were able to build. And it’s both collaborative and competitive, right? Like, there’s both aspects.

Juan Vivas (06:11):

Yep. Yep.

Eric Cross (06:11):

And, and then you had access to one of the only two facilities in the country that have these…were they buoyancy tanks?

Juan Vivas (06:20):

Buoyancy tanks, yep.

Eric Cross (06:21):

And there’s this book, Malcolm Gladwell’s Outliers, and then another similar book called Balance. It talks about how some of these innovators, like Steve Jobs and, and Bill Gates, they had access to things that other people didn’t. So, like, Bill Gates, I think at the University of Washington, had a computer that, you know, no one else did. And Jobs had one at, like, Hewlett-Packard. So it gave you this awesome headstart, where you’re able to test things in a real-life environment that kind of transfers into real-world skills. And then a few internships, so like, internships and mentors. So you had these people in the industry or people who were front-runners that were able to pour into you and give you these opportunities. And so it’s really neat to see how a program that starts as a club, kind of a competitive thing that introduced you to it and hooked you, then led to unfolding all of these opportunities that ultimately led you up to being here. And there’s one part—in looking at your LinkedIn profile, there’s a couple of really cool things that stand out. There’s a lot of cool things, but there’s two that really stood out. So one, working at SpaceX, and we’ll talk more about that, but I wanna go to General Mills and Cinnamon Toast Crunch. Because Cinnamon Toast Crunch is amazing.

Juan Vivas (07:39):

Yeah.

Eric Cross (07:39):

And you were part of the supply chain for that. In my head, I’m thinking, OK, like, what is he like responsible for? Like, getting the cinnamon and sugar?

Juan Vivas (07:51):

<Laugh>

Eric Cross (07:51):

What was, what did your job entail, when you were running that?

Juan Vivas (07:55):

There, I didn’t even know what I was gonna be doing until my first day. It was just, whatever the business need is, that’s where you’re gonna be put. So this was actually a high-priority plan for General Mills. And the production line that made Cinnamon Toast Crunch was split up into processes. So you have, they call it the process-process side, which is like literally raw materials, like making the cereal from scratch, baking it, adding the sugar, and then sending it to be packaged. And then you have the packaging-process side. so I was then placed as a packaging process lead, for the packaging side of that production line. So I was accountable for two packaging lines that packed out Cinnamon Toast Crunch. And that is where—that was actually my first real, you know, call it “real job,” like graduated college, going straight into the industry. I was a process lead for the packaging side of Cinnamon Toast Crunch.

Eric Cross (08:54):

So you went from cereal to rockets, <laugh>, which which is an amazing trajectory to have.

Juan Vivas (09:03):

Yeah. Yeah.

Eric Cross (09:04):

And when you kind of mentioned, back in your story about medical school, and, you know, it’s kinda like, what you see people doing, and you’re “OK, this is what I think I wanna do.” And then we have a perception in our mind about what a certain job’s gonna be like. And then reality hits. I think a lot of—when I ask my students, “What do you wanna do?” They think, like, “lawyer!” and when they think “lawyer!” they’re like, “I’m good at arguing!” Right? And until they find—until they talk to some lawyers and they find out like what that career can look like.

Juan Vivas (09:28):

Yeah.

Eric Cross (09:28):

You’re not just in the courtroom showing off your arguing skills. But, like, an engineer, when I talk to my students about what does it mean to be an engineer, often it’s very linear. It’s “I build bridges,” or, you know, maybe cars, but you’re a supply chain engineer. And, and that’s something that I think, now more than ever, it’s probably an incredibly critical role, especially considering that all of these supply constraints. Can you—what is a supply chain engineer? And what does it look like in your day-to-day? How is engineering rolled into that?

Juan Vivas (10:03):

Yeah, yeah. I think that’s an excellent question. I, too, once thought that engineering was just “I’m gonna be actually making something physical,” and like being super engineer-y about it. But, to me, based on my experience so far, I think the best way to put it: An engineer is a technical problem solver. As a supply chain engineer, specifically right now in my role at SpaceX…you know, as you can guess, the supply chain in the entire world is crazy. There’s no raw materials anywhere, and nothing can ever get on time. And so what I work on is I help our suppliers develop processes to meet the design criteria that we set up for like a specific part. As my job as a supply chain engineer, it’s “Can I take this design and make it manufacturable?” Right? “Can I go to any supplier and can they actually make this to the tolerance that the design engineer set them to be?” Nine out of 10 cases, the answer is no, essentially, is the best high-level way to put it.

Eric Cross (11:10):

When you’re solving these problems, is it this iterative process of going back and forth? Or is it just this aha-moment when you finally figure things out? ‘Cause I imagine they’re coming up with a design; you’re going back and saying, “Can this be manufactured?” or “Can it be done?” They’re saying no 90% of the time. And then are you the one responsible for kind of iterating on this, or changing it and then going back to them and telling them, asking them, until you get a yes? Is that—

Juan Vivas (11:33):

Yep. Yep, yep. Exactly. So we go through a process called Design for Manufacturing, DFMing. And where I essentially take, you know, the design engineer’s proposal, and then I have conversations with the suppliers, and then, that’s where the iteration begins. Where we go back and forth, back and forth, until we kind of meet in the middle to have something that can be manufacturable. Most of the times, in my experience, suppliers will always tell you no, just because they always want something that is manufactured really easily. And so you just gotta learn through experience. Like, when are they actually telling you something that’s a fact, versus when they’re just trying to you know, get out of a tolerance, or that “all right, all right, they mentioned that would just like make their jobs a little bit more difficult.”

Eric Cross (12:17):

So I’m hearing like there’s soft skills that are woven into the technical skills that you also need to be able to have.

Juan Vivas (12:23):

Oh, yes, absolutely. Yeah. I think, you know, as an engineer—and this is something, again, that I feel like you can only learn through experience—you’re gonna see that it’s not just you working to solve this one problem. Especially for a supply chain engineer. You’re talking with marketing; you’re talking with an industrial design team; you’re talking with logistics; you’re talking with procurement, materials management—just a whole set of people that don’t necessarily have technical background. Right? So sometimes, depending on the audience that I’m targeting, I’m always very, very peculiar on what is my target audience, right? How can I—how deep in my technical knowledge do I need to go? Because if I just, you know, talk straight Engineer, they either don’t care or they’re gonna be really confused about what I’m saying. So there is a stronghold of soft skills that definitely go into engineering, which I think are really important to communicate, you know, to, let’s say, students that are really interested in engineering. So you can be extremely smart and intelligent and really good at problem-solving, but if you don’t have those soft skills that you apply in the real world—’cause in the real world, you’re never only gonna be working with engineers, no matter like where you’re at—so having those soft skills to be able to manage with different backgrounds and different sort of people and different ways of thinking, it’s, I feel, really critical, for, for an engineer in the real world.

Eric Cross (13:50):

No, I think that’s a great point. It reminds me of teaching! And so many other professions where your ultimate goal is to really pour into this person in front of you and help develop them and create a sense of inquiry and wonder and personal growth and inspiration. But you’re also working within constraints and people and relationships. You know, you have your other teachers, you have parents, you have administrators, you have a district, you have communities, stakeholders. You have all of these different dynamics that you have to kind of navigate in order to ultimately help this child thrive. Versus just, like, being in the classroom: “OK, I just got <laugh>, the hundred or 200 students, just you and me. That’s it.” But that’s not the real world. And there’s this report that came out, I think Google ran it, Project Oxygen and Project Aristotle, and they asked the question, “What are the most effective traits of a good team and a manager?” And the top seven skills were all soft skills. So it is like exactly what you’re saying, where, yeah, it’s great that you have this technical aptitude, but if you’re not able to work with other people, problem-solve together, work with people of different backgrounds and perspectives, then you’re gonna run into some roadblocks. And that kind of dovetails, like, looking at things like if you looked at education from the perspective of an engineer. So you’re all about optimizing, right? Optimizing, working with what you got. When you look at education, are there any things that you would optimize to help improve the experience of students? Like, looking back, that you would fine-tune, that you think could provide better outcomes in the classroom?

Juan Vivas (15:28):

You know, I feel…I don’t know. Obviously I’m not a teacher. And I’m sure teachers just have so much stuff going on. But I think just like, finding…giving a chance to those students that you see a lot of potential in and really taking the time to mold them. You know, I did have a teacher who was able to mold me and give me that kind of one-on-one personal experience, right? I think honestly to me it just comes down to mentorship, and motivating students on what, you know, they’re passionate for. Like, putting them in front of engineers, right? Like finding engineers to come volunteer and explain to them. I genuinely believe it just takes one spark to really get a student on a trajectory where they can make an impact in the future. So to me, it comes down to, really, exposure. How much are you really exposing your students to…you know what, something I’ve learned, when I joined SpaceX, is that Elon doesn’t believe—well, you know, there there’s a lot of things that Elon believes and not believes in; there’s a whole different type of conversation!—but he doesn’t think that you can just take a curriculum, let’s say, and just apply it massively to everyone and expect like everyone to be it. That’s just naturally not how it works, right? Students learn at different paces; they have different sort of interests. This is actually why he created his own school for his kids in LA, called Ad Astra. You know, if you take that mentality, what that school is doing is that they’re working at the students’ pace and at the student’s interests, right? And I actually have a coworker who has his kids in that school. And I mean, these are one of the most brilliant kids I’ve ever known. Like, they are taking differential equations in the eighth grade. And I didn’t know what differential equations was until I was in college already and they told me, “This is a class you have to take.” <Laugh>. But it’s finding that crossway where, where is the curiosity of the student? What are they really interested in? and exposing them to that.

Eric Cross (17:51):

Yeah. And what I’m hearing of that is, in teacher-speak, a lot of personalized learning. Like you were talking about…is it Ad Astra?

Juan Vivas (17:59):

Ad Astra? Yep.

Eric Cross (18:01):

Ad Astra. You know, every student learns in their own way and they develop knowledge in their own way. And being able to personalize learning according to the students’ abilities and needs, and then accelerate or slow down, really produces some amazing effects. I know this is something that we as teachers try to do with the classroom. Scaling it is the challenge. But it’s great because even with people who are in charge of policy or people who have decision-making ability, hearing people from the top down saying, “Hey, look, this is what worked for me. This is how I was able to become successful. I had a teacher that was able to be a mentor to me because they knew me, they had a relationship with me, they were able to tap into my passions and use those passions to drive me to do or put me in programs that I might not have known about because they, they knew who I was.” And it’s not one-size-fits-all for everyone. So having—maybe it’s curriculum or learning experiences that are kind of modular, where students are able to maybe try on different things and get that exposure, I’m a big, big believer, like you are, in mentorship. That was a huge, huge thing in my life. Having mentors. It’s the reason why I became a science teacher. In seventh grade, I had a mentor who had us doing college-level science, you know, at UC San Diego. And it completely changed the trajectory of my life, in a direction that I wouldn’t have had without him. So I think that’s great. And it’s something that we as teachers would appreciate hearing. Going back to what you said…earlier you said your wife is a supply chain engineer as well. And so that means that there’s two people who are process-minded in the household. And this is kind of a lighter question, but I gotta wonder, do you have the most optimized flow for grocery shopping? <Laugh> Because…

Juan Vivas (19:49):

Yeah, I think we don’t spend more than like 20 minutes at a grocery store. Mind you, we only shop at Trader Joe’s and we have a very specific list before going in. And if you ever shop at Trader Joe’s, you just know where everything is ’cause it’s always there and it’s small, right? But yeah, like we’re, we’re in and out in like 15, 20 minutes. It’s great.

Eric Cross (20:11):

I love it. I love it. I feel like I’m that way by design. I go in with a purpose and this is exactly what I want. I know where the cookie butter is, <laugh>, I know where my coffee is, and then, OK, I’m in and out. Apple Pay or whatever I’m using. And then we’re good to go. Do you think…so as someone listening to this or some people even just becoming aware of supply chain engineering, what advice would you give someone that’s interested in pursuing this career path? If you maybe reverse-engineered your process, knowing what you know now, you were gonna give advice, you were that mentor, what are just some kind of tips or ideas or thoughts or trajectories that you’d think that they should aim for? I’m assuming like robotics….

Juan Vivas (20:56):

Yeah. You know, I think I would say definitely finding some sort of program that exposes you to a lot of things that you won’t be exposed to, like on a day-to-day basis, or something that you just can’t be exposed to naturally at school. And mentorship, honestly. I was born in Colombia and my parents were both—they’re still both professionals, but they were both professionals in Colombia. And when we moved to this country, this was like December of 1999. My parents started from scratch, and so they didn’t really grow up in the States, right? So when it was my time to go to college and do all of this stuff, it was just like me on my own figuring this stuff out. And, you know, they definitely made some mistakes when it came to college applications and whatnot. But once I was in college, I knew that the best way for my success was gonna be through mentorship. And that’s when I joined the, Society of Hispanic Professional Engineers, which is a nationwide organization. And each college, well, most college campuses, have their own chapter. In joining that, I was exposed to resume workshops, mock interviews—basically how do you even talk to a recruiter? Which is so critical, right? And personally that that organization was really what molded my actual professional career.

Eric Cross (22:19):

There’s this theme that I’m hearing, kind of weaving through this. And in addition to—as we’re talking about STEM and technical skills, in addition to that, there’s this thread that I’m receiving of…being able to form relationships with other people, for our students, is an important skill to teach and should be taught explicitly. Which isn’t…it’s not really a curriculum, right? Like, you don’t get tested on your ability to….conflict resolution or how to write an email or how to develop a relationship. And then the other part in I think what you just said is the aspect of community. Through this organization, you learned kind of some of these hidden rules, maybe I would call it.

Juan Vivas (23:04):

Yep.

Eric Cross (23:04):

It’s not that you didn’t have the…you had the aptitude. You had the drive. But there were these kind of hidden rules, and from moving to the US, you needed a community to be able to show you, so that you can kind of go through the proper steps.

Juan Vivas (23:16):

Exactly.

Eric Cross (23:17):

And so that created a lot of value for you.

Juan Vivas (23:19):

Yep.

Eric Cross (23:20):

Well, the last question that I have is, is just kind of a wondering. You have this awesome story, and the story continues to unfold. I gotta say, <laugh> I’m gonna be following your LinkedIn profile, because I think you just have kind of the coolest trajectory of going from, you know, General Mills, working in chemical engineering, and then ultimately it’s SpaceX. And every time I see the rocket taking off and landing, I’m gonna be thinking, thinking about you. So cool!

Juan Vivas (23:47):

Yeah. Yeah.

Eric Cross (23:49):

And personally, I have a hope that one day, one of my students will be at a company, you know, like SpaceX or Tesla or wherever, and one day I get to interview them and talk to them and see what they say. But the last question I want to ask is, is there, is there a teacher who inspired you, or a memorable experience that you have that made an impact on you?

Juan Vivas (24:16):

Yeah, yeah, of course. It was kind of you know, middle school going into high school. The way my school worked, everything was divided from pre-kindergarten, whatever, first to sixth grade, and then seventh grade to 12th grade. So I had a high school science teacher, Ms. Brown, Ms. Velda Brown, who, came from a small little island town on the east coast of Canada. Somehow landed, in the high school that I went to, to teach science. Going back to the beginning of the story where I mentioned that I figured whatever, I’ll go to med school. I played soccer, basketball, and, you know, I said, “I’ll figure it out once I graduate.” It might have been like life science in the eighth grade or something like that. But then she went on to teach me chemistry and physics as well. And when I was in the 10th grade, she approached me and she asked me if I wanted to join the robotics club. And I remember saying robotics? I don’t know. You know, naturally, in school, it’s different sorts of crowds: people that play sports and people that are like in like STEM clubs or whatever. And I was, “Ah, I don’t know; I don’t know how I feel about robotics; not really my thing….” But somehow she convinced me to join robotics. It’s me, coming into this group of kids that already knew each other, and they were all working on robotics. And I’m, “Yeah, I mean, I guess I’m just here to try this thing out.” It was a thing where we met every single Saturday at like seven in the morning. And there were times where I literally had to choose, “Do I go to like a soccer game or do I go to you help my team with robotics?” And I completely loved it. Like, I fell in love with the aspect of building something from scratch, and just making it operative. And she ended up just being a huge mentor for me in high school, actually. With her, with the help of her, I ended up opening the robotics club at my school. And before I left, we opened it up to middle schoolers. And then, you know, later, years later down the road when I was in college, I found out that it was now a whole-school thing. So there was an elementary robotics club at the school, the middle school one, and then the high school one were still a thing like years after I left. And that was like just so amazing to hear. But yeah, it was Ms. Velda Brown, my high school science teacher, that really took her time to mold me and get me into robotics, and really mentor me. And honestly, I’m sure you as teachers, you guys probably hear about it a lot, but you can have a lot of power in shaping a kid by just telling—believing in them, right? She believed in me so much that I would go on to be a successful engineer. And I’m. “OK, yeah, yeah, you’re just saying it.” But she spoke life into her students up to this day. I still speak about it with my wife, and when I’m in conversations about this, that if it wasn’t for my high school science teacher, I would not—well, no, I would probably not be an engineer right now.

Eric Cross (27:38):

Wow. Shout out to Ms. Velda Brown <laugh>. Would you say she spoke…I think one thing that just resonated with me is when you said she “spoke life” into you.

Juan Vivas (27:46):

Yeah.

Eric Cross (27:46):

That was really powerful. And I think we as teachers have that power and we don’t realize it. Because, you know, we get so we’re so familiar and living day-to-day, but we do have the power of life, speaking life, into our young people. And, yeah, that was—

Juan Vivas (28:03):

Absolutely, yeah. You know, I think obviously people grew up with different backgrounds, different communities, life situations, right? So imagine having like a student that is similar in that environment and then they just hear someone at their school, like, “Hey, you’re really good at this. why don’t you consider doing this?” And that’s when I feel teachers have that power. Where like they don’t necessarily know the background, but they can make that opportunity, or make that decision in the moment, to really shape a student’s life.

Eric Cross (28:37):

And we need to hear that. And I think, I hope that other teachers listening to this will be reminded that many times we don’t get to reap the harvest. We don’t get to see the <laugh> Juan Vivases at SpaceX. They just kind of go, and they disappear, and we hope for the best, and we get a new group. But every once in a while they come back, and we get to see what our watering or seed-planting was able to produce. And so, just know that you sharing your story for educators, and for definitely Ms. Brown, makes a huge difference and is a huge encouragement. So.

Juan Vivas (29:11):

You know, I think we touched on earlier, you know, how do I end up going from cereal to rockets, right? And I think it ties along with what I mentioned earlier of just taking—as an engineer, you’re really a critical problem solver, right? And you think that methodology. And if you find a way, you can apply it to different sectors. When I was doing a lot of like the packaging process stuff at General Mills, being a lead on a high-volume manufacturing line, what I do for SpaceX specifically, right now, I’m actually on the Starlink project. So if you’re up to date with Starlink, it’s, it’s essentially high reliable, fast internet that we’re providing to areas where usually people don’t have access to internet, right? Or maybe they do, but it’s extremely expensive. Because to an internet provider company, the benefit is not there, if they extend an entire internet fiber line out to their place because it’s only directed to them, right? So that’s, that’s essentially what Starlink is trying to solve. And this is the first time that SpaceX is facing a consumer packaging scenario. Before it was just rockets. And now they’re selling a product to consumers. They had never done that before, especially in a high-volume manufacturing setting. And so I am the supplier development engineer for all the consumer-facing packaging for the Starlink product itself. And that’s essentially how all those thoughts connected, where I had this experience coming from General Mills and packaging high-volume manufacturing. And then when Starlink started, they’re all, “Right, well, who knows anything about packaging?” Right? “We know so much about rockets, we need someone with this technical background.” And that’s essentially how I bridge over to SpaceX.

Eric Cross (31:11):

And so while you’re working at SpaceX, you’re working on Starlink, which I know you mentioned that—you said that it’s providing internet globally, which in and of itself, we—especially those of us that live in major cities—we kind of take for granted. Internet is like a utility. But we don’t maybe realize that in many parts of the world, internet is not reliable or even accessible.

Juan Vivas (31:33):

Right. Right.

Eric Cross (31:34):

I see every once in a while, I think, the StarlinK satellites sometimes are visible?

Juan Vivas (31:38):

Yep.

Eric Cross (31:39):

Low orbit?

Juan Vivas (31:39):

Yeah. Yeah. You can go—they’ll kind of be like a little train of bright stars that move along together. Yep.

Eric Cross (31:46):

And that must—that must feel…I mean, we all have jobs and we’re all doing different things, but you’re working on a project and you’re engineering something that actually can provide a lot of opportunities or close a gap in some parts of the world where they don’t have access to internet. They’re gonna be able to have access and be connected all over. I dunno, the word would be “existential.” Existential value. Like, what you’re doing is actually providing a service for people. Humanity. Like, addressing a critical need in many, many places around the world.

Juan Vivas (32:26):

Yeah. We’ve had stories where we have sent Starlink kids to a small school in a village in rural Chile, right in South America. And for the first time ever, they’ve had internet. We have supported disaster relief in Europe. I think this past summer, Europe had really bad floods. We sent Starlink kits out there. You know, the vision of working at an Elon Musk company and SpaceX and Starlink—this is all stuff that is being done for the first time in history. We have never, ever done anything like this before until now. And to be able to provide those that don’t have the access to—to your point, it’s kind of wild, right? Like we, we just take it for granted. “Oh yeah, I just have internet. Let me log on.” There are people on Earth right now that have never been on the internet. Or don’t even know what the internet is. And that’s essentially the, the gap that Startlink is starting to close.

Eric Cross (33:26):

Yeah. We think about that while my students are doing TikTok dances. <Laugh> And there are people who, you know, never, never been connected. And, it kind of makes me more like, just inside, if I can ask: What’s it like working at SpaceX? I showed my students what it’s like working at some of the Silicon Valley companies. ‘Cause just to show them there’s slides and food and, you know, they kind developed this ecosystem inside so that it’s really kind of homey to kind of keep you there, you know. When you’re working and there’s bikes and things like that. And that’s a very Silicon Valley type of thing. But, you know, in listening to you talk about SpaceX and Elon, you know, you’re with a really visionary kind of company, and when I hear you talk about it, there’s I can hear this passion, this, “we’re doing something.” Is that culture, like, pervasive everywhere? Are you around folks that kind of are on that same wavelength? Because I definitely get it from you as you talk about what you do.

Juan Vivas (34:28):

Yeah, yeah. Definitely. I think, as an engineer, you know, going to SpaceX and working at SpaceX, it’s essentially—personally, I believe right now in the US it’s like the mecca of engineering, right? Like, it is where engineering in this most, you know, shape and manner, it’s being applied. I think what’s really interesting is that the way that Elon looks at it is just iterate, and iterate fast, right? Like, fail and fail fast. I think as an engineer, you always want to have things perfect, right? And so you spend a lot of time in making a decision or investigating something or whatever. And working at SpaceX is the complete opposite. It’s just you know, “Assume, state your assumptions—like, what are you assuming right now? What are the risk at it? And just make a decision and then see what the result is.” You know, so it’s an environment where you learn, really quick.

Eric Cross (35:28):

You said something that I think was powerful and I hope, I think <laugh>, this is definitely, I’m gonna get a clip of this <laugh> of you saying it. Because it speaks directly to, I think, what a lot of students struggle with in the classroom, is there’s this competition or feeling that you always need to be right. And you need to be right the first try, on the first time. And a lot of times it’s because students will compare themselves to each other, or there’s a tremendous amount of pressure to be successful. But you said, “Fail and fail fast, iterate, state your assumptions.” And it sounds like this critical part of being an engineer or in what you do, like there’s no room for ego or attaching your identity or your sense of value or worth or ability to whether you’re able to solve a problem in the first try.

Juan Vivas (36:13):

Yep.

Eric Cross (36:14):

Like, you have to be OK with the cycle, is kind of what I’m hearing from you. Is that, is that right?

Juan Vivas (36:19):

Yep. Exactly. It only took six months to develop the product from scratch and launch it to the public, which is insane. Nowhere in the world will any company ever iterate that fast and come up with a brand-new project. But it’s because of that mentality—like you’re saying, it’s not about like just trying to make it perfect and have all this information. And I think Elon has learned this personally, you know, through Tesla and the beginning of SpaceX. It’s, “I can wait to have all this information, and most likely I’m still gonna be wrong after I make the decision.” So it’s, “Might as well take the risk, do the decision, and then just see where you learn from it, right?” And then you keep applying that, applying that. So it’s like you iterate, iterate, iterate, iterate until you get what you want.

Eric Cross (37:00):

I think this is even, like, great advice. I’m taking this personally because I get paralysis by analysis <laugh>.

Juan Vivas (37:06):

Yep.

Eric Cross (37:07):

You know, I’ll research something to death but then not actually execute. Like, I need to make a decision and do it and then course-correct along the way. Somebody once told me it’s a lot easier to turn a moving car than it is a car that’s sitting still. And so as you’re kind of flowing, you’re just making these adjustments along the way until you end up on the path that you want to be. So I think that there’s so many gems in the things that you’re saying right now. What I’m thinking through the lens of my seventh graders that want to work in any STEM field—I mean, really, any field in general, but especially engineering, especially the STEM fields—knowing that, pick it, make a decision, move forward, and then course-correct along the way. That’s what science looks like in the real world.

Juan Vivas (37:49):

Yep. Exactly. Yep. And definitely most important—and I feel like this is sometimes where, not necessarily education in general, but it’s just, we want students to, “OK, you need to get it right the perfect time, right?” But it’s like, every student is gonna think differently. A student is gonna take a different assumption based on their background and experiences. And I mean, you know, we can go a lot deeper in that, but the way a student is shaped, they’re gonna take certain assumptions. So that’s where it gets interesting. OK, why are you assuming that? Where’s your thought process in this?

Eric Cross (38:25):

And we all come from different backgrounds and mindsets and filters and biases that cause us to look at something a certain way. And it’s not just like calling it out, just going, “Hey look, this is what it is.” Like autopsy without blame, this is what I’m working with. Let’s discuss it openly. Right? And if we started that process earlier, you know, younger, in classrooms, we can de-stigmatize the right answer being the best answer more, as opposed to focusing on process as opposed to outcome. And then you kinda get used to wanting to go through the process. I look at it like video games and I talk to my students. I say, “You know, you don’t pick up a video game that’s brand-new and then play it and then you die once and you’re ‘Ah, I’m never gonna play this game again.’ You know, it just doesn’t work that way. You’re going through this iterative process, and no matter what you play, you’re trying things differently. You’re data collecting. And then you’re making new decisions based on the data that you collected.” And for some of my kids, they’ll just raise their hands, say, “No, I just get mad and throw the controller across the room.” <Laugh> But I go, “Yeah, and then you’ll try it again.”

Juan Vivas (39:33):

The best way to know how not to do something is to fail. And so you already…I mean, what is that famous quote? I think that’s why Thomas Edison’s, “Oh, I, did not fail 99 times. Right? I only found 99 times…” I mean, that is that is true. And I feel like at work in a SpaceX, that is something that probably the core of it comes from there. It’s you know, any failure, quote unquote, that you may take it as a failure, it’s really not. You’re just “OK, we, we tried that. It didn’t work. Like what are we gonna do next?” So it’s just like taking that learning and like moving off with it quickly.

Eric Cross (40:09):

I heard a couple of teachers say, “Things fail: First Attempt In Learning: F A I L.” And then another teacher, one of my mentor teachers, she said, “There’s no such thing as failure, just data, in science.”

Juan Vivas (40:20):

Mm-hmm. <affirmative>. Exactly. Yep.

Eric Cross (40:23):

And so I’ve always taken that to heart. And I share that with my own students, just, “A ‘no,’ a lot of times, will tell you more information than a ‘yes.’” ‘Cause if something works in the first try, you may not exactly know why it worked. It just did.

Juan Vivas (40:34):

Yeah. Yep.

Eric Cross (40:37):

So yeah. Well, I went on your time, brother. Dude. <laugh>. The time flew. It was…

Juan Vivas (40:46):

Yeah.

Eric Cross (40:47):

There were so many things I was trying to write out as you were talking, that I just felt like, “This guy is sharing so many gems!” But yeah, I want to thank you for taking time outta your day and for sharing that information for your passion for what you do. And, I don’t know, I think that students and teachers that listen to this will get an insight from a perspective that really matters. ‘Cause ultimately we’re, we’re trying to really prepare our students for real life. Maybe I’ll email you privately if I order a Tesla, if you can move me higher up the Cybertruck line. <laugh>

Juan Vivas (41:22):

Yeah. No promises.

Eric Cross (41:24):

<laugh>

Juan Vivas (41:25):

Yeah. No, I appreciate you guys having me, having me here, and be able to speak on my experience. And hopefully it sparks a couple, one, even if it’s just one teacher that will spark another student, that is already success there. So.

Eric Cross (41:42):

Well I know, I know what you said resonates with me and it fills my cup. And I’m excited. So I’m already thinking of some ideas of things that I can do, just because of this conversation, and I know other people will as well. And, again, this is Juan Vivas, who’s a supply development engineer at SpaceX. He’s worked at some amazing places. And someone who believes deeply in not only the power of the technical skills, but the heart skills, and how community makes a huge impact in his life. It made a huge impact in him ultimately becoming a scientist, and now working on a project at SpaceX, Starlink, that is going to provide access to the world, to the web. And that’ll ultimately help us solve more problems and innovate and create some solutions that will benefit everybody. Thank you, sir. Appreciate you.

Juan Vivas (42:30):

Yeah, thank you. Thank you so much, Eric. Appreciate it.

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What Juan Vivas says about engineering

“Based on my experience so far, I think the best way to put it… an engineer is a technical problem solver.”

– Juan Vivas

Supplier development engineer, SpaceX

Meet the guest

Juan Vivas is a chemical engineer currently working as a Supplier Development Engineer at SpaceX. Juan got his start at the University of Florida, where he led the Society of Hispanic Engineers (SHPE) as vice president. He’s worked for companies like Clorox, Dow Chemical, and General Mills. Juan lives in Los Angeles, California with his wife and two dogs.

Man in a suit and tie smiling at the camera with a blurred green background.

About Science Connections: The podcast

Welcome to Science Connections: The Podcast! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher.

S1-04: Connecting with students and caregivers in the science classroom: Ryan Rudkin

Promotional graphic for "science connections", season 1, episode 4, featuring a smiling woman named Ryan Rudkin, themed with science illustrations like atoms and a globe, highlighting how to engage students

In this special episode, our host Eric Cross sits down with veteran middle school teacher Ryan Rudkin. Ryan shares her expertise after almost two decades in the classroom, discussing ways to incorporate aspects of problem-based learning into the K–8 science classroom. Eric and Ryan talk about how to increase parent engagement, involve community members, and add excitement to lessons.

Explore more from Science Connections by visiting our main page.

Download Transcript

Ryan Renee Rudkin (00:00):

I know there’s other goals in mind, you know, standards and test scores. But at the end of the day, I wanna come back and I want them to come back.

Eric Cross (00:35):

My name’s Eric Cross, host of our science podcast, and I am with Ryan Rudkin, middle-school teacher out here in California just to the north up near Sacramento? El Dorado Hills?

Ryan Renee Rudkin (00:46):

Yeah. 20 miles east of Sacramento.

Eric Cross (00:49):

Nice. And I am down here in San Diego. And so Ryan, to start off, what I wanna do is ask you about your origin story, like a superhero. So how did you become a middle-school science teacher to become part of this elite profession of science folks that get to do awesome things with kids?

Ryan Renee Rudkin (01:08):

I would agree with you that it is definitely an elite profession. I got my credential and I thought I was gonna teach third or fourth grade elementary school. And the second day I got called for a sub job for middle school. And I just thought, “We’ll take it,” you know? And by second period, I knew: This is where I belong. The kids, middle school, students are just a species of their own. And you have to appreciate them. And if you do appreciate them, then you’re in the right spot. And I quickly looked at my coursework and I was able to get authorizations in science, history, and English, and I love science. So I chose science. And the rest is history. It’s been a wild ride and I wouldn’t have changed or asked for anything different. I love it.

Eric Cross (02:02):

I definitely agree with you. So, your history—you’ve been in various middle-school classrooms. Can you tell us a little bit about that? What classrooms have you been in? What disciplines of science have you taught or are currently teaching?

Ryan Renee Rudkin (02:14):

I was hired for seventh grade life science, and then I did that for a few years and then I got moved into eighth physical science, and I was there for 12 years. Love eighth grade science. I love eighth graders. Chemistry and physics are my favorite. There’s just so much opportunity for just awesome labs, great conversations, student discourse, all of that. And then the past three years I’ve been in sixth grade and now we’re integrated. So,a sixth grade integrated science and I also teach social studies and a technology design class.

Eric Cross (02:52):

Oh, nice. What do you do in your technology design class? That sounds cool.

Ryan Renee Rudkin (02:56):

Right now it’s mostly internet media and we use WeVideo, it’s an editing-video program, and we produce and put on our school weekly news bulletin. And then we weave in other projects. We do some interdisciplinary projects. Right now my students are working on a mythology God, Goddess, and Monster project that relates to our social studies curriculum. And we’re learning about Greece. So yeah, we just try to give them added projects and they’re using the WeVideo platform. By sixth grade, they’re coming to us now with wonderful skills with all the tech. I mean, if I need help, I ask them like, “How do you do something on Google Docs?” Or, “How do you do something on Drive?” The kids are definitely tech-savvy.

Eric Cross (03:49):

They must love being the teacher in the classroom. They get to—it kind of switches power roles, where they get to teach the teacher something.

Ryan Renee Rudkin (03:56):

Yes. And especially WeVideo, sometimes we’ve had some hiccups, and the kids show everybody, and that’s part of the design class. They’re trying to solve—we’re teaching them how to solve their own problems. So if there’s any kind of issue with anything with the technology, honestly, I usually tell them, “Go ask a friend,” or we kind of shout out, “Hey, who knows how to troubleshoot this?” And the kids are eager to help each other, which is nice.

Eric Cross (04:21):

And they have this authentic experience where they’re actually doing real problem-solving, as opposed to something that we manufactured. Like, those are real things that we have to deal with in life. And that’s exactly like how we solve it, right? We just go ask people! We look it up, and the ahas are genuine too. Throughout!

Ryan Renee Rudkin (04:36):

Yes, especially thinking on the fly. Especially yesterday, I was in the middle of teaching and my laptop froze, and it’s like, “OK, everybodytake a couple minutes, you know, work on this, this, or that while I switch out laptops!” And so I’m modeling, too, how to solve my own problems. And I think it teaches the kids how to do that too.

Eric Cross (04:59):

I’ve always thought it was interesting that when teachers get to teach in real time, how do we handle stress and frustration when it’s really happening? And I think the tech—at times, failure is the real one where you feel this chill or this sweat that kind of comes over you and you’re trying to present or cast or the video won’t play and things like that. I think I’ve done enough times in my years of teaching where now my students know what to do, or they want to come up and help, and we’re good with it. But I remember in the beginning when those things would kind of glitch or go wrong or the wifi goes down, and you’re like, OK, what do we need now?

Ryan Renee Rudkin (05:33):

I think it’s honestly, after the fact, when I think in the moment, I’m not thinking of feeling stressed, but just afterwards, then I’m like, “Oh my gosh, this has just been a wild day.” But yeah, you just have to kind of go with it. And that’s just the beast of middle school. I just added to the list of why we love it.

Eric Cross (05:53):

You said something about interdisciplinary work, and I wanna kind of ask about that. Because it sounds like you’ve had your hand in several different areas of science and grade levels. Working, doing design courses, working with tech. Are there certain lessons that are your favorites to teach? The ones that you really enjoy, or that no matter what, you’re like, “We need to do this; this is such a rich experience for students”?

Ryan Renee Rudkin (06:17):

Yeah. I definitely try to do lessons or activities along the way. I like to do projects at the end of my units. When I taught physics, we did a project and it was mainly an assessment tool called the Wheeling and Dealing. The kids, they would all get a different car. And then they to sell their car. And so they had to pretend to be a car salesman, and they did that with their knowledge of the physics unit. So everything we did on forces and speed and motion. So I like doing culminating projects like that. And you’re kind of tricking them into assessing them.

Eric Cross (06:57):

When I think about your car salesman project, I’m thinking of a bunch of students, but they’re like on Shark Tank, but they’re just littler versions. And they’re doing these sales pitches, but they’re speaking in scientific terms as they’re trying to do it. Do you record these or do they just exist in the classroom?

Ryan Renee Rudkin (07:12):

No…And that was a long time ago, when I taught eighth grade. I wish I had; I wish I had recorded. That was definitely—it was fun, ’cause the kids, they would get their little piece of paper and they—some of ’em didn’t know what car it was. And so they’re like “A Boo… A Boo-gatti? What’s a Boo-gatti?” And then someone from across the room would be like, “Ooh, I want it! Here, I’ll trade you my Ford Focus!” And <laugh> so they would kind of wheel-and-deal which car they would…and then once they got their choice, then they would do the project.

Eric Cross (07:44):

So they’re really embodying this persona of a car salesman. The wheeling and doing back-and-forth and trying to trade a Bugatti for a Ford Focus. <Laugh>

Ryan Renee Rudkin (07:53):

I know. <Laugh> I like to make my class, my learning environment, enjoyable. You know, I gotta be there; they gotta be there. So I know there’s other goals in mind—you know, standards and test scores—but at the end of the day, I wanna come back, and I want them to come back. And I just have that as a priority.

Eric Cross (08:18):

Well, based on the projects that you’re doing and the way that you approach education with students, I can see why middle-school students would want to come back, even if they had the option not to. Just because of the cool things that you’re doing. Now we’re on this—hopefully, fingers crossed—tail end of COVID in the classroom and schools, and I know it’s impacted all of us differently. Has student engagement changed since COVID and if so, how, and what have you done in these last two years to maybe adjust your approach, to continue that engagement and that richness that you provide for your kids?

Ryan Renee Rudkin (08:57):

I definitely—I think for me, I recognize that when the students are in my classroom, I want them to, I dunno, for lack of a better word, just escape the noise at home. And I know we’ve always had students that are going through divorce situations or their dog died, other things, but I think with COVID, it’s definitely been compounded. And just creating a safe place for the kids to want to be and…it’s hard. We’ve had a lot of students that have been out, absent, for various reasons and on quarantine. And they’re struggling with doing work from home, ’cause their parents are stressed and their parents are dealing with their work issues. And so I think just having grace for the kids and just keeping…I don’t know, I guess like I said, I’ve always had student engagement as top of my list.

Eric Cross (10:06):

It sounds like—the things I hear you say really have to do with who these students are as people.

Ryan Renee Rudkin (10:12):

Yeah.

Eric Cross (10:13):

And then as a second, who they are as students. How do relationships fit into your engagement? ‘Cause I’m hearing this connection that you seem to be making with kids as you’re talking about things that are beyond academics: their home life, how they’re impacted.

Ryan Renee Rudkin (10:28):

Yes.

Eric Cross (10:28):

Is there anything that you do to build these relationships, or to connect with your students, to make them feel wanted or feel connected to the classroom or to you?

Ryan Renee Rudkin (10:37):

Yeah, I do. I do a few things to build those connections. And again, this timeframe in their life is so out of their control, their peer relationships, relationships with their parents. And when they’re in my classroom, I want them to feel loved and appreciated. Something I do it’s called Phone Fridays. And in one of the social media groups, someone posted about it, and I’ve been doing it for over a year now, actually. So on Fridays I call parents and give good news. And so I’ll pick maybe one or two students. And it could be academic reasons. It could be behavior, I’ve seen a slight improvement of behavior. Maybe a role model in the classroom. And my goal is to get everybody every trimester. So everybody gets a phone call by the end of the trimester. And it’s funny ’cause sometimes the parents are a little like “Uh-oh”! When they pick up, they see the caller ID, and their school’s calling. ‘Cause Some kids don’t get good calls. So it’s a really—I would say every single parent that I’ve called, I usually get a follow-up email, either to me or my admin, just saying it’s such a cool idea I do this; thank you so much. And yeah, I just call and give good news and just put ’em on the spot. And usually the kids are a little embarrassed, but you can tell, even though they’re kind of—I think they’re faking it, that they’re embarrassed! ‘Cause You know that they got the Phone Friday, and everybody’s like, “Who’s gonna get the phone Friday?!” And so it’s a very big deal in my class.

Eric Cross (12:07):

What a great way to—I mean, it seems like that hits on so many levels. You’re making these positive calls home. You’re praising publicly, which a lot of times can happen where students can get criticized or redirected publicly and then praised privately, which is a lot of times the reverse what we should be doing. But here you are praising them publicly. And then you’re not only building a relationship with yourself, but you’re also connecting them with their parent or whoever is caring for them, because now when they go home, there’s this, “Hey, your teacher called; you’re doing awesome!” So it’s this kind of triangle that’s forming there. I think that’s super-cool and a great thing for teachers to do.

Ryan Renee Rudkin (12:45):

It takes, you know, the last five minutes of my class. I do it every class. And then I have a system. Like I said, I keep track of all the kids. That way, by the end of the trimester I’ve gotten everybody. Sometimes I let the students, whoever I call first, then I let them pick a peer and I tell them, “OK, we have to have a solid reason. Why are we calling?” And a couple times they’ll have a student, like one of my energized ones, they’ll raise their hand. “How About me? How about me?” And I and the kids kind of laugh a little and I said, “Well, how about this? Let’s make a goal. How about next week we’re gonna make a goal and we’re gonna have a reason to call home.” So just working on the kids that need a little push in the right direction. That’s other reasoning to it. But yeah, it’s fun. I love it.

Eric Cross (13:33):

And you have the community. You have this goal setting. We were talking a little earlier about this transition—so you’re becoming this…your school’s going through the IB process, is that right?

Ryan Renee Rudkin (13:44):

Yes.

Eric Cross (13:44):

And we were talking about the ATL skills and one of them is goal-setting management. You already kind of organically do this in your classroom, which is really neat. I know being an IB teacher, a lot of times I find the things that I’ve already been doing and find, “Oh, this is actually an approach to learning!” or “This is something that has a title!” I just thought it was just being helpful! Ah…So the kids are connected. You have this process where you’re calling parents; it’s working; students are involved, so it’s building this community. Now you’re engaging students. Do you have any favorite student engagement tools that you use in your classroom or when you’re teaching that you feel like you get a lot of bang for your buck? There’s so many things out there these days. And so many approaches, tools, web apps. Do you have any favorites that you use?

Ryan Renee Rudkin (14:40):

No. Nothing comes up top of my mind right now. Mostly just projects, like I said. And being excited. I think having my students see me excited about something…and I’m honest when we’re doing something that’s not quite my favorite, then I’m honest about that too. But just having my—like, we just started thermal energy this week and I told my students, I said, “OK guys, I’m gonna weave in some chemistry in there. I’m gonna weave in some particle motion,” and they’re like, “Oh! That’s when you taught eighth grade, huh!” Cause I talk a lot about when I taught eighth grade before. I don’t know, just showing my own enthusiasm, I think, is a good payoff to me. That’s a bang for your buck. Other things…I try to give ’em cool videos and Mark Grober, he’s definitely a favorite of mine I like to show my students. I like to bring in guest speakers from our community. When I taught eighth grade for physics, I always brought in a local CHP officer and they would bring in the radar and lidar guns and the kids would mark off the parking lot and they would calculate their speed. And then they would verify it with the radar gun. Two years ago when I taught math, I brought in a local landscaper company, a father-and-son outfit, and they showed the kids how they would do bids on jobs. And so, relate it to our chapter on volume and area. So just making that connection with real life. Plus it’s just a nice opportunity, too, for the community to come in. With our design class, put on our newscast. And then one of our units in our sixth grade curriculum is weather. And so I brought in a local weatheruh, chief meteorologist. And he actually talked to the students about his job as a meteorologist and then also being on the news and putting on a newscast. So we got him on our green screen and did a little like Mark Finan, you know, little cameo on our newscast for the week for school. So that was kind of cool.

Eric Cross (16:45):

They must have been excited.

Ryan Renee Rudkin (16:47):

Yeah. They’re pretty starstruck by him. So that was pretty fun.

Eric Cross (16:51):

This person was on their local news? So they would know him?

Ryan Renee Rudkin (16:56):

Yeah, he’s on Channel 3 out of Sacramento. Yeah. KCRA Channel 3, Mark Finan.

Eric Cross (17:00):

So all these guest speakers that you have…how do you reach out to these people? And you sound like you get a lot of success. Do you ever get nos? Like if I’m sitting here listening and that inspires me, but you’re getting celebrities and you see a few people…like, how do you reach out to them? And does everybody say yes? How does it go?

Ryan Renee Rudkin (17:21):

Well, usually at my back-to-school night, I always ask the parents if they have a career or hobby that could lend itself to the curriculum. And so sometimes I’ll hear about—students will talk about, like, “My mom’s a doctor.” And so I’ll reach out to parents and just say, “Hey, you know, your kiddo said, you’re a doctor. May I ask what type?” And most of the time the nos that I’ve received are just because of schedule conflicts. You just have to get creative! Look in your community and see what you have. People want to come and talk to kids. I’ve had some presentations that the person is so intelligent and amazing, but they just, weren’t very kid-friendly. I mean, that happens. Butsomeone knows someone. And just ask! I mean, it doesn’t hurt to ask to have ’em come out, come hang out for the day, with my students. Andone time I had a nurse practitioner she was in the cardiac unit. And so she brought in hearts and led a heart dissection with my students. And we did a station set-up. I’ve had elaborate ones like that, or just a mom come in to tell my students about her job as a nutritionist and relate it to our unit on metabolism. And so just did like a little 15-minute Q&A with the kids on nutrition. And I would just say, look at your community and/or post on social media. I always do that. Post in your school’s PTA groups. So the parents know someone, that’s for sure. Or someone’s retired. One time I had—I think he was a grandfather of one of the kids—he was into rocks. And he had a bunch of meteorites <laugh> and brought in his meteorites.

Eric Cross (19:15):

Bring in your rocks!

Ryan Renee Rudkin (19:15):

I know! Right? And he <laugh> just brought in his meteorite collection! I was like, sure, come on in!

Eric Cross (19:23):

That’s one of the things I love about being a middle-school teacher is that my students have such varied interests and I’ll get the Rock Kid every once in a while and he’ll come in and he’ll have all these rocks and crystals. And a lot of times there’s a grandfather that’s responsible for this inherited geologic treasure that they have.

Ryan Renee Rudkin (19:45):

Yeah, something like that—I mean rocks are not my favorites, but I don’t really tell the kids that. I was like, “Sure, yeah, come on in! We can have a whole-day lesson on rocks!”

Eric Cross (19:55):

<Weakly> “This is great!”

Ryan Renee Rudkin (19:58):

Just utilizing your resources. That’s all it’s about.

Eric Cross (20:02):

Well, I think the back-to-school night was really helpful. That’s something that’s super doable. You have a bunch of parents and you just simply ask, “Who do you know? What do you do?” And then just collecting that and then just asking people to come in. I’ve I’ve been reluctant to do it more often than I’ve wanted to, because I haven’t figured out—and maybe you can help me with this—I have three class periods a day plus other class periods that are not necessarily science. And I don’t want to dominate a person’s schedule. Do they tend to be willing to stay all day? Or do you do, one class gets it, and you record it? Like, how do you balance out the speakers with your school schedule?

Ryan Renee Rudkin (20:39):

Mostly they’ll they’ll just come for the whole day. When I taught eighth grade, I had five classes, so that was easy. That was an all-day thing. And then usually I’ll offer to call lunch, have lunch delivered, or snacks during the day. I mean—

Eric Cross (20:53):

Feeding them is key.

Ryan Renee Rudkin (20:54):

Yeah. Just something kind of nice. Donuts in the morning. I mean, you’d be very surprised. Most people that are in the field or retired, like I said, they’re more than willing to come. And even if they have to wait an hour, while you teach another class that doesn’t pertain to it, then they’ll either leave or come back or just hang out in the back and pretend to be a student during that history class that you have.

Eric Cross (21:20):

It’s my own limiting belief where I feel guilty. I don’t think about it. I need to think about it through the perspective that you do, that these people WANT to talk. I just assume everybody’s so busy. But I do know, the times I’ve had speakers come out, at the end of the day, they’re so energized or they’re so happy or they’re so grateful. ‘Cause They’re like, “This is what it’s like to teach every day?” I’m like, “Yeah, this is what it’s like.”

Ryan Renee Rudkin (21:42):

I think too, a lot of parents…usually being being in the stops at elementary. A Lot of parents don’t get the opportunity to come help out in the classroom, because the middle school kids, you know, it’s not very cool or it’s just not needed like in the elementary classes. So a lot of times, like I said, you’d be surprised. A lot of the parents they’re more than happy to come and hang out. And again, some students, they don’t want their mom or dad to be there, but then I talk it up. I’m like, “Everyone’s gonna be so like impressed that your dad’s a doctor,” or “your mom’s a doctor” or —so then I kind of like downplay it. Like, “Oh, whatever, you’re you’re faking it. It’ll be fine. Don’t be embarrassed.” Leading up to their parent coming into the classroom.

Eric Cross (22:36):

Right. Kind of redirect that energy toward something positive. With guest speakers, projects, pacing, all these awesome things that you have going on, how do you find balance as a teacher, as a person? And what encouragement would you give to new or aspiring teachers? We work in a profession that will take as much as you give it. And you fall asleep at night worrying about other people’s kids and we love it. And teachers by personality can just give and give and give and give. But in order for us to last—I’m thinking about those new teachers who are going into it, who are gonna go in and be there before the sun gets up and stay after the sun gets down. How do you maintain balance, taking care of yourself? You’ve been in education for—how long have you been teaching for?

Ryan Renee Rudkin (23:29):

Sixteen. This is my 16th year.

Eric Cross (23:31):

Enough to be that veteran. So how do you find balance? And then, what encouragement would you give to new or aspiring teachers?

Ryan Renee Rudkin (23:39):

I would say each year, pick one or two things to add on. You can’t add on 10 things, even though you’re gonna find 10 things that are awesome. But just make a little list, put ’em in a file, and every year, just get good at what you do and then just add on one or two things. And reflect on what’s not going well that you can get rid of to make room to add something else. Try to be patient with yourself. And don’t reinvent the wheel. There’s so many things out there that you can borrow and make it your own. Again, I think that’s a time-saver, just leaning on your colleagues. And take lots of notes, because then when you do it again next year, you can refresh yourself and, “Oh yeah, this lesson, wasn’t the best…” What can you add in to make it a little bit better? And yeah, I would say just take on one or two things each year. And then by the time you get to, you know, being a veteran, you can do all these awesome things and it’ll feel natural ’cause you’ve been practicing and just adding in one thing at a time. I coached Science Olympiad a bunch of years ago, and Science Olympiad is so rewarding. It’s just so amazing.

Eric Cross (24:59):

What is Science Olympiad, for the people who’ve never heard of it?

Ryan Renee Rudkin (25:03):

Oh, Science Olympiad is so awesome. Google it. I think it’s just ScienceOlympiad.org. It’s 23 different events across all disciplines of science, different topics. And then you have a team of 15 students. And so your 15 students have to cover the 23 events. So for example, if the student’s on the anatomy team, usually there’s a team of two kids they’re gonna study and learn. They provide all the rules and the guidelines. So the students learn and study whatever the parameters are for that year. And then they take a test. And then they compete against other schools. And there’s build events, the engineering events, they can build things like trebuchets matchbox cars or mousetrap cars. Oh gosh, there’s all kinds of things. There’s like a Rube Goldberg device. It changes every year. And it’s so rewarding to see the kids; they pick their area of science that they love. And sometimes you have to put them on an event that they don’t know, and then they end up loving it. It’s so rewarding as a teacher to see these kids that are just on fire and you know that one day they’re gonna go off and do amazing things. They just commit. They commit to their event. And then they blow it outta the water and they win medals and just the recognition…it’s super, it’s just an amazing program.

Eric Cross (26:42):

One of the competitions that’s really low-tech that I’ve taken into my classroom is Write It, Do It. Have you done that one before?

Ryan Renee Rudkin (26:50):

Oh, yes. Yeah. That’s one. Yep.

Eric Cross (26:52):

It’s such a low-tech, simple one to do, but it teaches such great skills. And for those people who haven’t heard of the Write It, Do It project, you create kinda some abstract art out of random crafts. That’s very difficult to describe. You have pipe cleaners and foam and balls and you know, all these different things. And you make it. And then one person on the team is the writer, and they look at it and they write the procedures, and then their teammate, who’s in a different room and doesn’t get to see it, gets all the materials to build it and the procedures, and they have to rebuild it as closely as possible to the actual original. Even though they don’t get to see the original. So they have to rely on their partner’s ability to write procedures step-by-step. And it was fun to watch my students become teammates in that. And they learned how to communicate in a really fun competition. So I expanded it to do it with all of my students as an activity, just to teach them how write descriptively, to write procedurally, to be technical writers. And it’s, it’s fun! It’s fun to see what they build based on what the students say. <Laugh> And it’s also fun to watch them interact with each other, which for seventh graders, usually it’s conflict. <Laugh> But, like, playful conflict. <Laugh> It’s pretty funny to see what they build.

Ryan Renee Rudkin (28:11):

They’re like, “Man, what are you talking about? That doesn’t mean this; it means this!”

Eric Cross (28:16):

<Laugh> I know part of me feels guilty, but not enough to stop the project. ‘Cause I know for some of ’em, it’s gonna be a really trial by fire being able to practice their skills with writing procedures.

Ryan Renee Rudkin (28:27):

But they’re learning among themselves how to provide more details and to be more thorough with their writing and and their thoughts, put their thoughts onto paper. So yeah, that’s a funny event. Definitely.

Eric Cross (28:41):

Earlier you had mentioned something about connecting your kids with kids and students outside of your classroom. What is it that you do with that? Because I thought that was a really cool project. Can you speak to that a little bit?

Ryan Renee Rudkin (28:57):

Yes, I’ve done—they haven’t had it in a few years, but there’s something called the Pringles Challenge. And if you Google that, I’m sure it’s on the Internet still. So you sign your class up, or your classes, and you get partnered with another school somewhere in the U.S., someplace else. And you decide individually teams, whatever they build. And they make a package to ship a single Pringle chip through the mail. And then you actually mail a Pringle chip through the mail. And then your partner team or partner school, they send their chips to you and then you open everything and then you can take pictures and video. And then there was a whole scoring process where you would score when you receive the chips. And then you input all the data on the website so you can see like how your—and most schools would trade pictures, so that the kids found out how their chip survived. March Mammal Madness is so much fun. Again, Google that.

Eric Cross (30:01):

Did you say March Mammal Madness?

Ryan Renee Rudkin (30:02):

Yes.

Eric Cross (30:03):

Like March Madness, with mammals?

Ryan Renee Rudkin (30:05):

Yes.

Eric Cross (30:05):

  1. What is this?

Ryan Renee Rudkin (30:06):

It starts up in March. And you can sign your students up. And that one—it’s not too interactive with other schools, but this is opportunity to get the kids interacting within your site or within your district. Or if you have teacher friends at other schools. There’s like 60…I think it’s 64 animals? And they have this massive bracket that they post. And then you can have the students, I did it—it would be very time-consuming to have the kids individually research each animal. So I just gave one animal per student and so as a class we researched all the animals and then, I think it’s every three days or so, they have these bouts. And it’s all posted on YouTube. Google it. It’s kind of fun.

Eric Cross (30:56):

I’ve already got the website up, ready to go! Folks, everybody who needs to Google this: <articulates carefully> March Mammal Madness. And is it Arizona State University? Is that the main site, ASU?

Ryan Renee Rudkin (31:04):

Yes.

Eric Cross (31:04):

So people, listen to this. Check it out. March Mammal Madness. Look, I’m doing this! I’m already,—you’ve already sold me on this.

Ryan Renee Rudkin (31:14):

It is so much fun, oh my gosh. And then, then the kids—each round, they pick their pick, just like basketball. They do their picks and then you wait for the video. And they do it live on—I think it’s live on Instagram, or the next day on YouTube. And then the kids get all excited. And then usually the kids, whatever animal they got as their research animal, they’re rooting for that one to win, the whole thing.

Eric Cross (31:42):

But we still have time; we still have time to—

Ryan Renee Rudkin (31:45):

You can jump in anytime. Even if it’s already started, you can jump into it. It usually lasts—I believe it’s a two-week from beginning to end. When they do the first round, the wild card, and then all the way to the winner, I believe it’s a two-week process. Oh, maybe three, actually.

Eric Cross (31:59):

I’m already seeing this lead-up to the video being watched in class to see…I’m already thinking about like, “How do I prevent my students from finding the video?” Or like, “When does it go live so that I could be the one to show them so they didn’t go find it early?”

Ryan Renee Rudkin (32:13):

It takes time out of the class, but I believe it’s one of those things where you have to just…it takes 10 minutes out of the class, but it’s important. So when they each round and then the next day, they release the YouTube video. Last year, when it got down to the final round, we were on spring break. And so I told my students, “You guys, let’s do some optional Zooms. And so I had a bunch of kids log on and we all watched the videos together. So that was kind of fun. And then this year, the other thing, the first time I’ve ever done this and it’s going really well is—on social media, I was talking with one of the teachers from Ohio who teaches science and she and I decided we’re gonna do penpals for our students this year. Paper-And-Pen penpals. So that’s been a lot of fun. We just partnered up all the students, her students and my students, and once a month we send and receive the letters to each other. So that’s been a really cool experience.

Eric Cross (33:14):

If you keep doing that, and you need more teachers to be involved, can my students be penpals with your students?

Ryan Renee Rudkin (33:20):

Yeah!

Eric Cross (33:20):

If you open it up to more people? I think that, to get a letter, old-school? Letter in the mail? It would be so exciting.

Ryan Renee Rudkin (33:28):

It is. We mail them, the teacher and I, we just put them all together in one package. But yeah, it’s an actual handwritten letter.

Eric Cross (33:37):

The only letters I feel like I get in the mail now are bills.

Ryan Renee Rudkin (33:42):

Right? Exactly.

Eric Cross (33:42):

But I feel like the digital version of that is if someone calls me, it’s probably bad news. I don’t know if I’m the only one that’s like that, but I’m like, “Who’s calling me? Why aren’t you texting me? What’s going on? Text me first, then call! I need to know who’s going on, and if you’re unknown, you’re going to voicemail.

Ryan Renee Rudkin (34:00):

Exactly. The penpals has been a lot of fun.

Eric Cross (34:03):

You’ve been in education for a while. You’re on the other side of what it’s like to be a student in the classroom. Which can be surreal in itself, when we think about our own experiences as being a student. Is there a teacher or a learning experience that’s had an impact on you while you were a student in school that really stands out to you? And you can interpret the question however you want. But is there someone that’s memorable or an experience that’s memorable that you still carry with you today?

Ryan Renee Rudkin (34:32):

Definitely. My favorite teacher, and we actually still keep in contact on social media is Mrs. Sheldon. She was my fifth and sixth grade teacher. I had the pleasure when I was in elementary school, I was in an all-day contained GATE class—Gifted and Talented Education class. I vividly remember doing so many amazing projects. We built this big, giant—she brought in a big ol’, like, TV box. It was big, big, big. And you could stick like three kids inside there, standing up shoulder-to-shoulder. And we built this big dragon. The head, and we had the whole rest of the class in a big sheet behind us, and we would do a little parade around the school. And she had that thing for years after. They had to repair it every year, and they would do the little parade around school. She did a lot of traveling and when we would go on vacation and then come back, that was always the big deal: “Where did Mrs Sheldon go?” And she had sand from Egypt and pictures from the rainforest. And later when I became a teacher and then I looked her up and we reconnected I did ask her, “Did you go to those places? Or did you, like, lie about it? <Laugh> To get us engaged?

Eric Cross (35:52):

You went for the real questions!

Ryan Renee Rudkin (35:54):

I did. And she laughed and thought that was funny. And she did travel for real. But yeah, she’s an amazing woman. We still keep in contact. And I remember, you know, little things…like we would be out there doing our PE time and she’d have her long skirt, you know, dress on, with her tennies, and she’s out there playing kickball with us. Just a very kindhearted, smart, amazing woman. I’m very fortunate and I’m grateful that we are able to keep in contact. Love social media for that reason. So.

Eric Cross (36:33):

Yeah. And that’s Miss Sheldon?

Ryan Renee Rudkin (36:35):

Mrs. Sheldon. Marlene Sheldon. Yeah.

Eric Cross (36:37):

Shout-Out to Marlene Sheldon influencing the next generation of teachers, with engagement with your world travels and all those different things.

Eric Cross (37:04):

Ryan, thank you so much for one, serving our students. And in the classroom, our middle-school students who need us. I think that middle school especially, elementary school, those years are when students are really starting to decide, “What am I good at?” And the experiences that we create for our students really shape what they believe they can do. These really cool, engaging experiences, these projects that you’re giving them, whether they’re doing these car sales, Shark Tanks, or they’re doing penpals, or you have guest speakers, or they’re designing planets. These are things that students don’t forget. And then when they move on to higher grades, they remember more than anything, I think, how they felt about something. And it sounds like you’re crafting these awesome experiences. And so I just wanna thank you for your time. I know as a teacher it’s very short. And I thank you for being on the podcast with us.

Ryan Renee Rudkin (38:04):

Thank you. This has been a great experience. I just—I really enjoy my students. And I feel very, very grateful and very blessed for finding where I belong.

Stay connected!

Join our community and get new episodes every other Tuesday!

We’ll also share new and exciting free resources for your classroom every month.

What Ryan Rudkin says about science

“I like to make my class and my learning environment enjoyable. I know there’s other goals in mind… but at the end of the day, I want to come back and I want [students] to come back. It’s so rewarding as a teacher to see these kids that are just on fire… and you know that one day they’re going to go off and do amazing things. ”

– Ryan Renee Rudkin

Middle school science teacher

Meet the guest

Ryan Rudkin is a middle school science educator near Sacremento, California. Although she originally thought she would teach elementary students, Ryan connected with middle school and never looked back. Now in her 16th year in the classroom, Ryan also supports teachers in her district with professional development. Ryan’s favorite part of teaching science is seeing students grapple with concepts and explore phenomena.

A woman with shoulder-length blonde hair smiles at the camera, wearing earrings and a dark top. The background is blurred green and gray.

About Science Connections: The podcast

Welcome to Science Connections: The Podcast! Science is changing before our eyes, now more than ever. So…how do we help kids figure that out? We will bring on educators, scientists, and more to discuss the importance of high-quality science instruction. In this episode, hear from our host Eric Cross about his work engaging students as a K-8 science teacher.

Two books titled "The Knowledge Gap" and "The Writing Revolution" by Natalie Wexler, beside a portrait of a woman with short, curly hair and a blue top.

Leadership and literacy brunch with Natalie Wexler

with Amplify and Riverside USD 

Thursday, February 27, 2020

9:30–11:30 a.m. PST

Location:
Benjamin Franklin Elementary School – Library
19661 Orange Terrace Parkway
Riverside, CA 92508

Registration deadline: Space is limited at this free event! RSVP by February 20 to secure your spot. 

Who should attend: Supervisors, ELA and reading directors, curriculum coordinators, and principals. 

About the event

Join us for a free brunch, author talk, and book signing with education writer and author Natalie Wexler on February 27 from 9:30–12 a.m.

During our time together, Natalie will discuss the latest research around reading, writing, and engagement in elementary school, along with the key findings of her book The Knowledge Gap: The Hidden Cause of America’s Broken Education System—and How to Fix It (2019).

As our guest, you’ll:

  • Meet and hear from education writer and author Natalie Wexler.
  • Mingle with other district leaders from Riverside USD and surrounding areas.
  • Enjoy a delicious brunch with colleagues.
  • Leave with a signed copy of Natalie Wexler’s book The Knowledge Gap: The Hidden Cause of America’s Broken Education System—and How to Fix It (2019).

Agenda:

9:30 a.m.: Arrive, check in, and visit our brunch buffet.
10–11 a.m.: Hear from Natalie Wexler
11–11:15 a.m.: Q&A with Natlie Wexler
11:15–11:30 a.m.: Book signing

Banquet room set up for an event with round tables, black chairs, floral centerpieces, and place settings, next to large windows and doors overlooking an outdoor patio.
A woman with short curly blonde hair is smiling next to the cover of the book "The Knowledge Gap" against a background with blue, yellow, and orange curved stripes.

Natalie Wexler

Natalie Wexler is an education writer and the author of The Knowledge Gap: The Hidden Cause of America’s Broken Education System—and How to Fix It (2019). She is also the co-author, with Judith C. Hochman, of The Writing Revolution: A Guide to Advancing Thinking Through Writing in All Subjects and Grades (2017) and a senior contributor to Forbes. Her articles and essays have appeared in The New York Times, The Washington Post, The Atlantic, and other publications. Before turning to education, Wexler worked as a freelance writer and essayist on a variety of topics, and as a lawyer and legal historian. She lives in Washington, D.C.

Submit this form to register for the event!

Two books titled "The Knowledge Gap" and "The Writing Revolution" by Natalie Wexler, beside a portrait of a woman with short, curly hair and a blue top.

Leadership and literacy brunch with Natalie Wexler

with Amplify and Riverside USD 

Thursday, February 27, 2020

9:30–11:30 a.m. PST

Location:
Benjamin Franklin Elementary School – Library
19661 Orange Terrace Parkway
Riverside, CA 92508

Registration deadline: Space is limited at this free event! RSVP by February 20 to secure your spot. 

Who should attend: Supervisors, ELA and reading directors, curriculum coordinators, and principals. 

About the event

Join us for a free brunch, author talk, and book signing with education writer and author Natalie Wexler on February 27 from 9:30–12 a.m.

During our time together, Natalie will discuss the latest research around reading, writing, and engagement in elementary school, along with the key findings of her book The Knowledge Gap: The Hidden Cause of America’s Broken Education System—and How to Fix It (2019).

As our guest, you’ll:

  • Meet and hear from education writer and author Natalie Wexler.
  • Mingle with other district leaders from Riverside USD and surrounding areas.
  • Enjoy a delicious brunch with colleagues.
  • Leave with a signed copy of Natalie Wexler’s book The Knowledge Gap: The Hidden Cause of America’s Broken Education System—and How to Fix It (2019).

Agenda:

9:30 a.m.: Arrive, check in, and visit our brunch buffet.
10–11 a.m.: Hear from Natalie Wexler
11–11:15 a.m.: Q&A with Natlie Wexler
11:15–11:30 a.m.: Book signing

Natalie Wexler

Natalie Wexler is an education writer and the author of The Knowledge Gap: The Hidden Cause of America’s Broken Education System—and How to Fix It (2019). She is also the co-author, with Judith C. Hochman, of The Writing Revolution: A Guide to Advancing Thinking Through Writing in All Subjects and Grades (2017) and a senior contributor to Forbes. Her articles and essays have appeared in The New York Times, The Washington Post, The Atlantic, and other publications. Before turning to education, Wexler worked as a freelance writer and essayist on a variety of topics, and as a lawyer and legal historian. She lives in Washington, D.C.

Submit this form to register for the event!

Welcome, Texas educators!

mCLASS® Texas Edition has been selected as the Texas Education Agency (TEA)–approved alternative free Reading Diagnostic Tool for Kindergarten and as one of the free options for grades 1–2, as legislated by HB3.

mCLASS Texas Edition provides a full K–6 assessment solution, enabling you to leverage and connect valuable student data from the beginning of their literacy journey to later grades, reflecting a reliable and valid view of every student’s progression.

Introducing mCLASS Lectura!  This revolutionary Spanish assessment ensures complete parity between English and Spanish-speaking students.  

*For mCLASS Texas Edition customers who have already opted into the program, please visit our onboarding site to learn how to get started. 

A teacher sits at a table with three young students, holding a tablet. Phonetic symbols /r/, /d/, and /e/ appear around them.
Flowchart showing five components of a reading program: assessment suite, core instruction, skill boosting, intervention, and professional development, arranged in sequential steps.

What is mCLASS Texas Edition?

mCLASS Texas Edition is an integrated, gold standard literacy system that offers teacher-administered assessment and holistic instruction for grades K–6. Teachers often complain about the need to cobble together a number of different tools. They don’t trust their screener so they use something else to monitor progress.

The mCLASS comprehensive system includes efficient one-minute measures, a built-in dyslexia screener, teacher-led and student-driven instruction, intervention, and robust reports for teachers and administrators. It’s all you’ll need to monitor and support every type of student learner in your classroom.

We’re excited to introduce mCLASS Lectura! mCLASS Lectura works with mCLASS’s DIBELS 8th Edition to deliver universal and dyslexia screening in both languages. This powerful tool is the only assessment to offer a dual language instructional report that shows how a student is reading in each language.

Built for Texas educators

TEA has established a bold vision for teaching and learning by:

  1. Enabling universal, multidimensional assessment.
  2. Supporting differentiated instruction based on diagnostics.
  3. Making the resulting data useful for teachers and parents.

mCLASS Texas Edition is built on decades of research at the Center on Teaching and Learning at the University of Oregon, a national center for early childhood assessment and instruction. The measures are already in use in hundreds of districts in Texas.

CLICK HERE to explore a walkthrough of mCLASS Texas Edition and mCLASS Lectura (or click the image to the right).

A promotional graphic for mclass literacy suite describing benefits for grades k-6, featuring text and images of children engaging in classroom activities.
Tablet displaying a student performance table. Columns for assessment times; rows for performance levels. Percentages and student counts are provided in each assessment area and level.

mCLASS® Texas Edition and mCLASS Lectura Reporting

Quick and actionable reports provide detailed insight into students’ reading development across foundational literacy skills for classroom teachers and literacy specialists, principals and district leaders, and parents and guardians at home.

mCLASS Texas Edition gives you instant results and clear next steps for each student. 

When mCLASS Texas Edition is used in tandem with the brand new, mCLASS Lectura, educators will have access to a dual language instructional report that shows how a student is reading in each language.

Personalized learning for every student

Boost Reading (formerly Amplify Reading) is a K–8 student-driven literacy program that provides both remediation and enrichment for all students, leveraging the power of compelling storytelling to engage students in personalized reading instruction and practice.

At its heart, there are 3 main areas that make Boost Reading a unique supplemental learning program:

  • The program meets all students where they are with powerful individualized instruction and practice
  • Age-appropriate narratives create a learning experience that leaps off the screen
  • Research shows Boost Reading improves student performance–particularly among English Learners–reducing the overall percentage of students at risk of reading difficulty.
A laptop screen displays a colorful cartoon map with various buildings and character icons, including a school, store, and several avatars on a green landscape.
A screen shows a syllable segmentation exercise for "húmedo," with a timer at the top reading 0:21 and a "Salir" button.

Introducing mCLASS Lectura: Dual Language assessment and instruction for K-6!

Here’s what mCLASS Lectura delivers to help teachers know what instruction to prioritize:

  • An authentic dual language assessment that works in tandem with mCLASS Texas Edition to deliver universal and dyslexia screening in both languages.
  • The only assessment to offer a dual language instructional report that shows how a student is reading in each language.  This helps the teacher tailor instructional recommendations for each student based on the identified transferable skills from one language to another.
  • Complete parity between English and Spanish solutions at all levels, with full coverage of the key foundational skills required by Texas

Click here to learn more about mCLASS Lectura.

Dyslexia screening: Catch at-risk students early

Early intervention is critical. mCLASS Texas with DIBELS 8th Edition aligns to the state’s rigorous requirements around dyslexia screening as outlined in the Texas Dyslexia Handbook.

Check out mCLASS Texas measures for DIBELS and Lectura here.

Get universal and dyslexia screening in one single powerful tool—no additional assessment system required.

Emergency Rules Related to Dyslexia Screening are available that address the 2019-20 school year kindergarten end-of-year dyslexia screening and have implications for the 2020/2021 school year 1st grade BOY administration of Commissioner-approved or LEA designated reading instrument. This new screening requirement applies to 1st grade students who were not screened for dyslexia at EOY of their kindergarten year.

Download our dyslexia toolkit to learn more.

Icons of a red open book, yellow puzzle piece, blue ear, and blue eye on a black background.
A smiling girl with dark hair in pigtails sits at a desk, looking to the side. She is wearing a light blue shirt and has an open book in front of her.

mCLASS Texas Alignment with the Texas Essential Knowledge and Skills (TEKS)

mCLASS Texas Edition includes multiple measures. In English, it includes DIBELS 8th Edition and screeners of vocabulary, spelling, and oral language. In Spanish, it includes IDEL, screeners of vocabulary, oral language, and spelling. 

Curious about required kindergarten beginning-of-year measures for ECDS Texas? Check out more details here!

Complete K–6 solution

Amplify also provides additional top-rated literacy programs that connect with mCLASS Texas Edition to give educators a robust, comprehensive package that covers all of their instructional needs. 

  • mCLASS Intervention is a staff-led reading intervention for K–6 that performs data analysis and lesson sequencing with Tier 2 and Tier 3 small-group intervention to get struggling readers back on track.
  • Text Reading and Comprehension (TRC) for K–6 provides teachers with additional comprehension measures within the mCLASS platform, featuring a digital reading record and connected book sets.
  • mCLASS Math offers universal screening and progress monitoring with diagnostic interviews to provide a rich view of at-risk students and gauge the effectiveness of math instruction.
Young student in blue shirt writing in a notebook while sitting at a desk in a classroom, looking forward with focus.
Yellow speech bubble with three dots inside, indicating a message or conversation in progress.

Frequently asked questions

Interested in learning more? Read this FAQ we’ve put together based on questions we’ve received about mCLASS Texas Edition.

Remote and hybrid assessment and learning guide

mCLASS® Texas Edition has created a collection of resources to help users plan for a variety of scenarios for the 2020–2021 school year.

*The TEA has offered a a one-time waiver to school districts for the 2020-2021 school year. They continue to encourage LEAs to adopt a kindergarten screener, as districts will still need to meet dyslexia screening requirements for grades K and 1 for the 2020–21 school year.

Cover of a remote and hybrid learning guide showing application icons, and images of diverse students engaged with digital devices.

Contact your Texas representative

Looking to speak directly with an mCLASS Texas Edition representative? Get in touch with the mCLASS Texas team to learn more about using the program:

Email: texas@amplify.com

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Raymundo Rodriguez, M.Ed.

Vice President, South Central

Portrait of a woman with white hair, smiling, wearing a black blazer against a light brown background.

Marty Pitts

Senior Account Executive

A woman with shoulder-length blonde hair, wearing a black blazer and a silver necklace, smiles at the camera against a light background.

Mindi Jones

District Manager, South Central

Portrait of a smiling woman with long brown hair, wearing a red top and earrings, set against a white background.

Carla Small

Senior Account Executive

Woman with long black hair, wearing hoop earrings and a red top, smiling at the camera with a blurred indoor background.

Mary Brown

Senior Account Executive

Smiling woman with short blonde hair wearing a dark top, posed against a light-colored, textured background.

Katie Gentry-Funk

Senior Account Executive

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Hector Gomez

Account Executive

Smiling man with short dark hair and a beard, wearing a red textured sweater, standing in an outdoor setting with buildings in the background.

Mark Ramos

Account Executive, Inside Sales

A person with short, brown hair wearing a maroon shirt and black cardigan is shown in a circular portrait with a blurred nature background.

Melanie Ferry

Senior Account Executive, Inside Sales

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Kelley Simpson

Account Executive, Inside Sales

Opt in today

Fill out the form to sign up for mCLASS/mCLASS Lectura! If you have any questions as you complete the form, you can reach our Texas team at texas@amplify.com.

Flowchart outlining steps to utilize mCLASS Texas Edition: opt in, determine programs, enroll staff and students, receive materials, attend training, and utilize the edition.

Data’s essential role in your Science of Reading implementation

Support teachers and students in working toward literacy goals by leading with data as you shift to the Science of Reading. With tools like ongoing progress monitoring and a robust Multi-Tiered System of Supports, we’ll show you how data can give your students the literacy instruction they deserve.

Building buy-in for change—with data

You can use literacy data to harness buy-in for a paradigm shift, monitor student progress, and support your transition to the Science of Reading. But which data measures best identify areas for growth and reveal the path to student achievement?

Our free ebook, The Story That Data Tells, will help you take the first steps in using data to guide your journey toward impactful change..

“I had to dig into and learn: What is [the Science of Reading] all about? How are we gonna be using this data instructionally, and then take that data and use it with our kids? So that’s really how we got the ball rolling.”

—Corey Beil, Interventionist and Instructional Coach

Quaker Community School District, Pennsylvania

Getting started with a data-driven literacy implementation

As any experienced educator can agree, change is not straightforward in the classroom. This is especially true when it comes to shifting to the Science of Reading, a process that requires meticulous planning, open communication, and—most importantly—data.

Discover which data to focus on throughout the school year, and how to use it to direct your implementation—whether you’re just starting the shift, or already implementing the Science of Reading.

Align your MTSS to the Science of Reading

Learn more about MTSS in literacy principles and how to align it with the Science of Reading.

The five guiding principles for an effective MTSS

To provide your students with literacy instruction that meets their needs, you need seamless planning and plenty of forethought. Deliver the instruction, assessment, and personalized learning your students deserve with a Multi-Tiered System of Supports grounded in data and the Science of Reading.

Read about the five guiding principles that can help you align your MTSS with the Science of Reading in our free ebook Systems of Success: Getting Started With a Multi-Tiered System of Supports Aligned to the Science of Reading.

Review the five guiding principles

An effective MTSS framework requires collaboration from all stakeholders (such as teachers, administrators, and caregivers) to ensure students have access to the right instructional support at the right time.

Frequent collection and interpretation of high-quality data is essential to identifying student needs, monitoring progress, and guiding decision-making. Universal screening and progress monitoring data are used to evaluate the effectiveness of all tiers in an MTSS, and to identify students at risk.

An MTSS provides increasing levels of support for students when they need it. It also focuses on prevention first to reduce the need for intervention later.

Implementing evidence-based instruction and interventions with fidelity improves outcomes for all students. A focus on all students, not just those in need of additional support, ensures that all students can access high-quality instruction.

In an MTSS framework, decisions are based on research and the constantly evolving needs of all students and schools.

Season 5, Episode 5: Implementing Multi-Tiered Systems of Supports

Hear from educator Brittney Bills, Ed.D., as she discusses her districts’ experience learning to use data, avoid burnout, and sustain ongoing improvements.

Listen now

What Does Data Tell Us? Building Buy-In and Determining Areas of Need With Data

Data can paint a clear picture of where your students are, where they need to go, and how the Science of Reading can get them there. Hear from Amplify Executive Director of Learning Science Danielle Damico about the story that data tells, how to use data to build buy-in, and the kind of data you should be collecting to ensure a successful implementation.

Watch now 

Starting Your Science of Reading Shift With Screening: How to Use Assessment Data as a Building Block of MTSS

Screening and assessment data can drive MTSS-aligned change management in your district, supporting you as you navigate and sustain lasting transformation. Learn more about the importance of universal screening in your literacy implementation.

Watch now 

Amplify Desmos Math New York

Amplify Desmos Math New York supports teachers in building students’ lifelong math proficiency. The program:

  • Supports social classrooms, invites mathematical creativity, and evokes wonder, creating a welcoming learning space where students are empowered to see themselves and their classmates as having brilliant mathematical ideas.
  • Provides math teachers with clear step-by-step moves to build systematically from students’ prior knowledge to grade-level learning. 
  • Connects students to each other’s thinking and to an understanding that they can use math to make sense of the world.
  • Enables access to grade-level understanding for every student, every day.

Math that motivates

Picture a classroom where students are so engaged in a math lesson that they protest when the teacher pauses their work on a problem. A classroom is buzzing with the sounds of natural curiosity. This is what we regularly see with Amplify Desmos Math. This is math that motivates.

Three colorful educational posters showing different math concepts being taught in classrooms across New York, each with a distinct age group and activity setting.

Review program samplers (Grades K–5)

Experience the beautiful, easy-to-use print components that add to the power of Desmos Classroom technology and instruction by downloading the print samplers below. The samplers include print pages from Amplify Desmos Math New York lessons.

Grade 1

Grade 3

Grade 5

Review program samplers (Grades 6–8)

Experience the beautiful, easy-to-use print components that add to the power of Desmos Classroom technology and instruction by downloading the print samplers below. The samplers include print pages from Amplify Desmos Math New York lessons.

Grades 6–8
Mini-Lesson sampler

Grade 6
Teacher Edition sampler
Student Edition sampler
Assessment Guide sampler

Grade 7
Teacher Edition sampler
Student Edition sampler
Assessment Guide sampler

Grade 8
Teacher Edition sampler
Student Edition sampler
Assessment Guide sampler

A set of six colorful educational book covers titled "Amplify Desmos Math New York," each featuring stylized math-themed illustrations and different pastel accent colors.

Experience Amplify Desmos Math New York

Explore our digital program to review content from grades K–8. Watch our quick walkthrough videos for helpful navigation tips: Grades K–5 and Grades 6–8.

To log in, click the orange “Review now” button below, select “Log in with Amplify” and use the following login credentials:
Username: t1.ny-state-adm@demo.tryamplify.net
Password: Amplify1-ny-state-adm

Illustration of the New York math digital learning platform, featuring a laptop displaying a math game and vibrant posters of classroom scenes with diverse students.
Educational software interface featuring a New York math problem about measuring platform heights using a 9-inch tube, illustrated with a playful, colorful design.


Standards

Once you’ve logged in to your reviewer account, download the documents correlating Amplify Desmos Math New York to the New York State Next Generation Math Learning Standards.

Personalized learning

Amplify Desmos Math includes digital, adaptive practice that provides the personalized support a student needs to access grade-level math every day. Boost Personalized Learning activities target a skill or concept aligned to the day’s core lesson, with each student receiving personalized scaffolds based on what they already know. This technology complements daily learning and provides another layer of support to the in-lesson differentiation and instructional guidance provided to teachers. Try out free Boost Personalized Learning activities.

The Fluency Practice of Amplify Desmos Math uses an evidence-based approach to memory retention—spaced repetition—for the basic operations. Students around the world have answered more than 120 million multiplication questions within our application. Try it now! 

Educational software on a laptop screen showing a student activity to complete a bar graph by categorizing dragonflies, designed for the New York math curriculum.
Two women smiling while working together at a computer on New York math in a bright office setting.

Help

Support is always within reach. Our team is dedicated to supporting you throughout your review and can be reached by email or phone 7 a.m. to 7 p.m. ET.

  • Live chat: Once logged into the program, click the orange icon to get immediate help.
  • Phone: Call our toll-free number: (888) 960-0380.
  • Email: Send an email to help@amplify.com. In the message body, please include your name and question. Provide as much detail as possible, so we can more quickly help you find a solution.

Be a changemaker for science.

Profound science learning experiences have the power to transcend classroom walls—cultivating students’ curiosity, fostering critical thinking and creativity, building knowledge about the real world, and supporting students on their pathway to college and beyond. Unfortunately, science continues to fight for sufficient instructional time and resources.

The good news? Intentional shifts, combined with evidence-based practices and effective high-quality instructional materials, can help teachers make the most of the time they do have—transforming students into concerned global citizens ready to take on the world.

Science instruction designed for all students

K–8 science instruction is the crucial foundation that prepares students for high school learning. Our change management playbook details manageable and realistic changes to your process and practice that will make your K–8 instruction even more powerful.

Establishing high-quality teaching and learning

Access to high-quality instructional materials (HQIM) is a vital piece of the change management puzzle. Support the leaders who are on a mission to identify HQIM and set up the best possible conditions for implementation success.

Connecting science and literacy

Want to make every instructional moment count? Integrate science and literacy more deeply—and witness the transformation in student learning. Find out how with this resource pack.

The foundation for long-lasting and sustainable change

Change is more likely to stick and get results when you take a systemic approach. Partner with us to do just that by developing a learning plan that will drive your program implementation, enrich your instructional practices, and increase student impact. Amplify’s high-quality programs make it easier for you to teach inspiring, impactful lessons that celebrate and develop the brilliance of your students.

Science free resource library

Find free K–8 activities, posters, and guides to engage all students in science.

LEARN MORE 

2024 Science Symposium

Access best practices and tips from science leaders through our on-demand Science Symposium.

LEARN MORE 

Science Connections archives

Hear more strategies from educator Eric Cross and other experts in this podcast.

LEARN MORE 

Ready to champion science in your school? We’re here to help!

Connect with our Amplify Science experts to see how we can help create change in your school or district.

The English language arts program designed to prepare Arkansas middle schoolers for high school and beyond.

Amplify ELA is a blended English language arts curriculum designed specifically to support students in grades 6–8 and prepare them for high school and beyond. With Amplify ELA, students learn to tackle any complex text and make observations, grapple with interesting ideas, and find relevance for themselves.

  • An illustration from Amplify ELA
  • A student reading "Summer of the Mariposas"
  • students collaborating and using laptops
  • An illustration of the Space Race from Amplify ELA

Built for middle school teachers and students

Built specifically for middle school, Amplify ELA is an interactive core curriculum that brings complex texts to life. Amplify ELA’s 100-Day Pathway is a built-in guide to covering required content for each grade level while allowing teachers time to add supplemental lessons and activities.

Circular logo of edreports featuring "read the ELA report review year 2020" with a partial bar graph and a book symbol in yellow and blue.

All-green rating on EdReports

The results are in! Amplify ELA received a near-perfect score by the independent review group.

Our approach

Amplify ELA is the ELA program designed for middle school. It offers rich texts that are a delight to teach, better connections with your students through powerful differentiation and assessment tools, and step-by-step instructional guides that save you time and simplify your day.

Explore more research behind the program

We empower students to become critical thinkers.

With text always at the center, students are encouraged to make meaning for themselves. Rather than focusing on right or wrong answers, they develop ideas and opinions on relevant, real-world, texts.

Una mujer joven que usa atentamente una tableta para acceder al programa Amplify ELA en una habitación iluminada por el sol, con el cabello castaño recogido.
A student using a laptop

We provide six levels of differentiation.

Multiple entry points and differentiated supports allow every student, regardless of fluency or ability level, to engage deeply with the same complex texts and rigorous curriculum.

We assess while you instruct.

Formative assessment reports provide a continually updated picture of how each student is progressing with key skills and standards. Each learning moment provides a small piece of data, allowing you to keep teaching while building a clear understanding of student performance.

A teacher assists two students with a laptop in a classroom, one wearing a hijab, conveying a supportive educational environment.
guide icon

Download a free white paper

Beyond “make it fun”: Four principles of true engagement in middle school ELA

Download the white paper

What’s included

Amplify ELA is a rigorous core curriculum that empowers teachers and engages middle school students.

Student edition

Available digitally and in print, the student materials guide middle schoolers through complex texts and writing by:

  • engaging students with high-quality narrative and informational texts
  • providing videos, audio supports, and digital experiences that capture their attention
  • keeping all of their writing in one place with a personal writing journal

Teacher Edition

Available digitally and in print, the Teacher Edition contains all the information teachers need to facilitate classroom instruction, including:

  • detailed lesson plans
  • video teacher tips embedded in the lesson
  • standards alignment and exit tickets
  • real-time differentiation strategies
  • robust reporting

Interactive Quests

Quests are fun, week-long immersions into a specific, multilayered topic. They enable students to practice analytical reading, writing, speaking, and listening skills—all while building a strong classroom community.

Digital library for independent reading

The expansive Amplify Library includes more than 650 digital fiction, nonfiction, classic, and contemporary titles.

ELA_teacher_resources_1

Amplify ELA makes teachers’ lives easier

We help teachers make sure the standards are covered, the skills are taught, your students are scaffolded and encouraged, and the test is prepped.

  • Embedded differentiation to support all readers.
  • Informative and streamlined assessment system.
  • Robust reporting that tracks progress.
  • Powerful feedback tools.

1. Scope

These Customer Terms and Conditions are a legal agreement between Amplify Education, Inc. (“Amplify”) and the local education agency or authority, school district, school network, independent school, or other regional education system (“Customer”) for the license and use of one or more of Amplify products or services (the “Products”), as specified in the receipt, price quote, proposal, renewal letter, or other ordering document containing the details of this purchase (the “Quote”). These Customer Terms and Conditions, all addenda, attachments, and the Quote, as applicable (together, the “Agreement”), constitute the entire agreement between the parties relating to the subject matter hereof. The provisions of this Agreement will supersede any conflicting terms and conditions in any Customer purchase order, other correspondence or verbal communication, and will supersede and cancel all prior agreements, written or oral, between the parties relating to the subject matter hereof.

2. Agreement Acceptance

This Agreement becomes effective at the earliest of the following: (i) issuing a purchase order, shipment request, or payment against the Quote; (ii) accessing, downloading, or using the Products; or (iii) otherwise accepting this Agreement. This term of the Agreement will be as specified in the Quote and may be renewed or extended by mutual agreement of the parties. Customer represents and warrants that: (1) Customer is of legal age to accept this Agreement; (2) Customer is authorized to accept this Agreement and to access and use the Products; and (3) Customer’s use of the Products will comply at all times with Amplify’s Acceptable Use Policy available at amplify.com/acceptable-use (“AUP”). The Customer may not access, download, or use the Products if the Customer does not agree to this Agreement.

3. License

Subject to the terms and conditions of the Agreement, Amplify grants to Customer a non-exclusive, non-transferable, non-sublicensable license to access and use, and permit Authorized School Users, as defined below, to access and use the Products in accordance with the AUP, for the duration specified in the Quote (the “Term”), and for the number of Authorized School Users specified in the Quote for whom Customer has paid the applicable fees to Amplify. “Authorized School User” means the K–12 students registered or authorized for instruction with Customer and the educators, agents and staff members who use the Products as authorized by Customer who Customer permits to access and use the Products subject to the terms and conditions of the Agreement, solely while such individual is so employed or so registered. Each Authorized School User’s access and use of the Products will be subject to the AUP in addition to the terms and conditions of the Agreement. Violations of this Agreement or the AUP may result in suspension or termination of the applicable account.

4. Restrictions

Customer may access and use the Products solely for non-commercial instructional and administrative purposes. Guidelines for such purposes may be set forth at
https://amplify.com/amplify-program-usage-guidelines/ and additional guidelines may be detailed in materials associated with the Product the Customer is accessing. Further, Customer may not, except as expressly authorized by Amplify: (a) copy, modify, translate, distribute, disclose, or create derivative works based on the contents of, sell, or otherwise exploit, the Products, or any part thereof; (b) decompile, disassemble, reverse engineer the Products, or otherwise use the Products to develop functionally similar products or services; (c) modify, alter, or delete any of the copyright, trademark, or other proprietary notices in or on the Products; (d) rent, lease, or lend the Products or use the Products for the benefit of any third party; (e) avoid, circumvent, or disable any security or digital rights management device, procedure, protocol, or mechanism in the Products; (f) use any content from the Products, including but not limited to text, images, videos, assessments, lesson plans, or code, as input or training material for any machine learning or artificial intelligence system, including large language models, neural networks, or other algorithmic models, for any purposes, commercial or non-commercial; or (g) permit any Authorized School User or third party to do any of the foregoing. Customer also agrees that any works created in violation of this section are derivative works, and, as such, Customer agrees to assign, and hereby assigns, all right, title, and interest in such works to Amplify. The Products and derivatives thereof may be subject to export control laws, restrictions, regulations, and orders of the U.S. and other jurisdictions (together, “Export Laws”). Customer agrees to comply with all applicable Export Laws, and will not, and will not permit Authorized School Users to, export, or transfer for the purpose of re-export, any Product to any prohibited or embargoed country in violation of any U.S. export law or regulation. Further, Customer represents that it is not a party subject to sanctions by the U.S. Office of Foreign Assets Control or included on any restricted party list maintained by the U.S. Bureau of Industry and Security. The software and associated documentation portions of the Products are “commercial items” (as defined at 48 CFR 2.101), comprising “commercial computer software” and “commercial computer software documentation,” as those terms are used in 48 CFR 12.212. Accordingly, if Customer is the U.S. Government or its contractor, Customer will receive only those rights set forth in this Agreement in accordance with 48 CFR 227.7201-227.7204 (for Department of Defense and their contractors) or 48 CFR 12.212 (for other U.S. Government licensees and their contractors).

5. Reservation of Rights

SUBSCRIPTION PRODUCTS ARE LICENSED, NOT SOLD. Subject to the limited rights expressly granted hereunder, all rights, title, and interest in and to all Products, including all related IP Rights, are and will remain the sole and exclusive property of Amplify or its third-party licensors. “IP Rights” means, collectively, rights under patent, trademark, copyright, and trade secret laws, and any other intellectual property or proprietary rights recognized in any country or jurisdiction worldwide. Customer must promptly notify Amplify of any violation of Amplify’s IP Rights in the Products, and will reasonably assist Amplify as necessary to remedy any such violation. Amplify Products are protected by patents (see amplify.com/virtual-patent-marking). Amplify reserves the right to update or modify the Products at any time and to discontinue the Products upon reasonable notice.

6. Payments

In consideration of the Products, Customer will pay to Amplify (or other party designated on the Quote) the fees specified in the Quote in full within 30 days of the date of invoice, except as otherwise agreed by the parties or for those amounts that are subject to a good faith dispute of which Customer has notified Amplify in writing. Customer will be responsible for all state or local sales, use or gross receipts taxes, and federal excise taxes unless Customer provides a then-current tax exemption certificate in advance of the delivery, license, or performance of any Product, as applicable.

7. Shipments

Unless otherwise specified on the Quote, physical Products will be shipped FOB origin in the US (Incoterms 2010 EXW outside of the US) and are deemed accepted by Customer upon receipt. Upon acceptance of such Products, orders are non-refundable, non-returnable, and non-exchangeable, except in the case of defective or missing materials reported to Amplify by Customer within 60 days of receipt. In such case, Customer may not return Products without Amplify’s written authorization.

8. Account Information

For subscription Products, the authentication of Authorized School Users is based in part upon information supplied by Customer or Authorized School Users, as applicable. Customer will and will cause its Authorized School Users to (a) provide accurate information to Amplify or a third-party service as applicable, and promptly report any changes to such information, (b) not share login credentials or otherwise allow others to use their account, (c) maintain the confidentiality and security of their account information, and (d) use the Products solely via such authorized accounts. Customer agrees to notify Amplify immediately of any unauthorized use of its or its Authorized School Users’ accounts or related authentication information. Amplify will not be responsible for any losses arising out of the unauthorized use of accounts created by or for Customer and its Authorized School Users. 

9. Confidentiality

Customer acknowledges that, in connection with this Agreement, Amplify has provided or will provide to Customer and its Authorized School Users certain sensitive or proprietary information, including software, source code, assessment instruments, research, designs, methods, processes, customer lists, training materials, product documentation, know-how, or trade secrets, in whatever form (“Confidential Information”). Customer agrees (a) not to use Confidential Information for any purpose other than use of the Products in accordance with this Agreement and (b) to take all steps reasonably necessary to maintain and protect the Confidential Information of Amplify in strict confidence. Confidential Information shall not include information that, as evidenced by Customer’s contemporaneous written records: (i) is or becomes publicly available through no fault of Customer; (ii) is rightfully known to Customer prior to the time of its disclosure; (iii) has been independently developed by Customer without any use of the Confidential Information; or (iv) is subsequently learned from a third party not under any confidentiality obligation. 

10. Student Data

The parties acknowledge and agree that in the course of providing the Products to the Customer, Amplify may collect, receive, or generate information that directly relates to an identifiable student of Customer (“Student Data”). Student Data may include personal information from a student’s “educational records,” as defined by the Family Educational Rights and Privacy Act of 1974 (“FERPA”). Student Data is owned and controlled by the Customer and Amplify receives Student Data as a “school official” under Section 99.31 of FERPA for the purpose of providing the Products hereunder. Individually and collectively, Amplify and Customer agree to uphold our obligations, as applicable, under FERPA, the Children’s Online Privacy Protection Act (“COPPA”), the Protection of Pupil Rights Amendment (“PPRA”), and applicable state laws relating to student data privacy. Amplify’s Customer Privacy Policy at amplify.com/customer-privacy (“Privacy Policy”) will govern collection, use, and disclosure of Student Data collected or stored on behalf of Customer under this Agreement. In addition, Amplify has entered into the data privacy agreements listed at amplify.com/privacy-security aligned with state and national templates to facilitate compliance with applicable state laws and help expedite Customer’s student data privacy documentation process. Customer is responsible for providing notice and obtaining appropriate consents under applicable laws to authorize Authorized School Users’ use of the Products, including making a copy of the Privacy Policy available to the parents or guardians of users who are under the age of 13.  

11. Customer Materials and Requirements

Customer represents, warrants, and covenants that it has all the necessary rights, including consents and IP Rights, in connection with any data, information, content, and other materials provided to or collected by Amplify on behalf of Customer or its Authorized School Users using the Products or otherwise in connection with this Agreement (“Customer Materials”), and that Amplify has the right to use such Customer Materials as contemplated hereunder or for any other purposes required by Customer. Customer is solely responsible for the accuracy, integrity, completeness, quality, legality, and safety of such Customer Materials. Customer is responsible for meeting hardware, software, telecommunications, and other requirements listed at amplify.com/customer-requirements

12. Warranty Disclaimer

PRODUCTS ARE PROVIDED “AS IS” AND WITHOUT WARRANTY OF ANY KIND BY AMPLIFY. AMPLIFY EXPRESSLY DISCLAIMS ALL WARRANTIES, EXPRESS OR IMPLIED, INCLUDING ANY WARRANTY AS TO TITLE, NON-INFRINGEMENT, MERCHANTABILITY, OR FITNESS FOR A PARTICULAR PURPOSE OR USE. CUSTOMER ASSUMES RESPONSIBILITY FOR SELECTING THE PRODUCTS TO ACHIEVE CUSTOMER’S INTENDED RESULTS AND FOR THE ACCESS AND USE OF THE PRODUCTS, INCLUDING THE RESULTS OBTAINED FROM THE PRODUCTS. WITHOUT LIMITING THE FOREGOING, AMPLIFY MAKES NO WARRANTY THAT THE PRODUCTS WILL BE ERROR-FREE OR FREE FROM INTERRUPTIONS OR OTHER FAILURES OR WILL MEET CUSTOMER’S REQUIREMENTS. AMPLIFY IS NEITHER RESPONSIBLE NOR LIABLE FOR ANY THIRD-PARTY CONTENT OR SOFTWARE INCLUDED IN PRODUCTS, INCLUDING THE ACCURACY, INTEGRITY, COMPLETENESS, QUALITY, LEGALITY, USEFULNESS, OR SAFETY OF, OR IP RIGHTS RELATING TO, SUCH THIRD-PARTY CONTENT AND SOFTWARE. ANY ACCESS TO OR USE OF SUCH THIRD-PARTY CONTENT AND SOFTWARE MAY BE SUBJECT TO THE TERMS AND CONDITIONS AND INFORMATION COLLECTION, USAGE, AND DISCLOSURE PRACTICES OF THIRD PARTIES.

13. Limitation of Liability

 TO THE EXTENT SUCH LIMITATION IS NOT PROHIBITED BY APPLICABLE LAW, IN NO EVENT WILL AMPLIFY BE LIABLE TO CUSTOMER OR TO ANY AUTHORIZED SCHOOL USER FOR ANY INCIDENTAL, SPECIAL, CONSEQUENTIAL, PUNITIVE, RELIANCE, OR COVER DAMAGES, DAMAGES FOR LOST PROFITS, LOST DATA OR LOST BUSINESS, OR ANY OTHER INDIRECT DAMAGES, EVEN IF AMPLIFY HAS BEEN ADVISED OF THE POSSIBILITY OF SUCH DAMAGES. TO THE EXTENT SUCH LIMITATION IS NOT PROHIBITED BY APPLICABLE LAW, AMPLIFY’S ENTIRE LIABILITY TO CUSTOMER OR ANY AUTHORIZED USER ARISING OUT OF PERFORMANCE OR NONPERFORMANCE BY AMPLIFY OR IN ANY WAY RELATED TO THE SUBJECT MATTER OF THIS AGREEMENT, REGARDLESS OF WHETHER THE CLAIM FOR SUCH DAMAGES IS BASED IN CONTRACT, TORT, STRICT LIABILITY, OR OTHERWISE, MAY NOT EXCEED THE AGGREGATE OF CUSTOMER’S OR ANY AUTHORIZED USER’S DIRECT DAMAGES UP TO THE FEES PAID BY CUSTOMER TO AMPLIFY FOR THE AFFECTED PORTION OF THE PRODUCTS IN THE PRIOR 12-MONTH PERIOD. UNDER NO CIRCUMSTANCES WILL AMPLIFY BE LIABLE FOR ANY CONSEQUENCES OF ANY UNAUTHORIZED USE OF THE PRODUCTS BY AN AUTHORIZED SCHOOL USER THAT VIOLATES THIS AGREEMENT OR ANY APPLICABLE LAW OR REGULATION.

14. Termination

Without prejudice to any rights either party may have under this Agreement, in law, equity, or otherwise, a party will have the right to terminate this Agreement if the other party (or in the case of Amplify, an Authorized School User) materially breaches any term, provision, warranty, or representation under this Agreement and fails to correct the breach within 30 days of its receipt of written notice thereof. Upon termination, Customer will: (a) cease using the Products, (b) return, purge, or destroy (as directed by Amplify) all copies of any Products and, if so requested, certify to Amplify in writing that such surrender or destruction has occurred, (c) pay any fees due and owing hereunder, and (d) not be entitled to a refund of any fees previously paid, unless otherwise specified in the Quote. Customer will be responsible for the cost of any continued use of the Products following termination. Upon termination, Amplify will return or destroy any Student Data provided to Amplify hereunder. Notwithstanding the foregoing, nothing will require Amplify to return or destroy any data that does not include Student Data, including de-identified information or data that is derived from access to Student Data but which does not contain Student Data. Sections 3–14 will survive the termination of this Agreement.

15. Miscellaneous

This Agreement may not be modified except in writing signed by both parties. All defined terms in this Agreement will apply to their singular and plural forms, as applicable. The word “including” means “including without limitation.” For United States-based Customers, this Agreement will be governed by  and construed and enforced in accordance with the laws of the U.S., state, commonwealth, or territory in which Customer resides based on the address set forth in the Quote, without regard to that state’s, commonwealth’s, or territory’s choice of law rules. For Customers based outside of the United States, this Agreement will be governed by the laws of the U.S., state of New York, without giving effect to the choice of law rules thereof. This Agreement will be binding upon and inure to the benefit of the parties and their respective successors and assigns. The parties expressly understand and agree that their relationship is that of independent contractors. Nothing in this Agreement will constitute one party as an employee, agent, joint venture partner, or servant of another. Each party is solely responsible for all of its employees and agents and its labor costs and expenses arising in connection herewith. Neither this Agreement nor any of the rights, interests or obligations hereunder may be assigned or delegated by Customer or any Authorized School User without the prior written consent of Amplify. If one or more of the provisions contained in this Agreement will for any reason be held to be unenforceable at law, such provisions will be construed by the appropriate judicial body to limit or reduce such provision or provisions so as to be enforceable to the maximum extent compatible with applicable law. Amplify will have no liability to Customer or to third parties for any failure or delay in performing any obligation under this Agreement due to circumstances beyond its reasonable control, including acts of God or nature, fire, earthquake, flood, epidemic, pandemic, strikes, labor stoppages or slowdowns, civil disturbances or terrorism, national or regional emergencies, supply shortages or delays, action by any governmental authority, or interruptions in power, communications, satellites, the Internet, or any other network. Each party represents and warrants that it has all necessary right, power, and authority to enter into this Agreement and to comply with the obligations hereunder.

Last Modified: February 2, 2026

Amplify acquires K–12 mathematics education innovator Mathigon

(Brooklyn, NY – October 13, 2021): Amplify, a publisher of next-generation curriculum and assessment programs, announced today that it has acquired K–12 mathematics online learning company Mathigon. The London-based edtech startup develops and publishes unique, highly interactive, and visually compelling tools, activities, and courses that enable students to explore the beauty and power of mathematics.

Since 2016, Mathigon has provided free content and tools to teachers, students, and parents in more than 20 languages. Polypad is a “mathematical playground” that features best-in-class virtual manipulatives and other tools to enable exploration, creativity, and problem-solving. Mathigon’s interactive courses for middle and high school cover topics such as algebra, geometry, fractals, graph theory, and cryptography. Every course contains dozens of simulations, animations, games, and interactives, along with a virtual tutor that provides hints and encouragement. Storytelling, real-life applications, and historical content show students why what they’re learning is important and meaningful. Mathigon is used by more than 600,000 students and teachers every month around the world.

Polypad and other Mathigon resources will continue to be freely available, as Amplify is committed to removing barriers to high-quality math instruction and supporting all students in becoming creative problem-solvers. Polypad and other Mathigon tools also will be integrated into Amplify’s in-development math programs, inspiring students to explore and discover mathematics and empowering teachers to see students’ thinking and facilitate meaningful dialogue between students.

“I have almost never seen a product that inspires such pure intellectual delight in children and adults. Delight may be the hardest outcome to achieve in education. Mathigon achieves it over and over again,” said Larry Berger, chief executive officer of Amplify. “When we saw the beautiful, easy-to-use tools that the Mathigon team had built, we knew we wanted to help bring them to even more teachers and students across the world. We also knew we wanted the Mathigon technology and team to be part of our journey of creating the highest quality and most delightful math programs available.”

Mathigon Founder and CEO Philipp Legner will join the Amplify team as vice president, Mathigon Studio, overseeing enhancements to Mathigon’s offerings and integration of key elements into Amplify’s programs. Legner will help spur innovation and power up the company’s already robust product design and engineering teams. His contributions will boost Amplify’s ability to deliver high-quality, student-empowering instructional tools in K–12 mathematics.

“From the very beginning, my goal with Mathigon was to make online learning more interactive and engaging than ever before. Rather than just watching a video and ‘consuming information,’ students should explore, discover, and be creative,” said Philipp Legner, founder and chief executive officer of Mathigon. “Mathematics is both incredibly powerful and surprisingly beautiful, and I want every student to enjoy learning. I’m incredibly excited to work with Amplify to reach even more students.”

About Amplify
A pioneer in K–12 education since 2000, Amplify is leading the way in next-generation curriculum and assessment. Our captivating core and supplemental programs in ELA, math, and science engage all students in rigorous learning and inspire them to think deeply, creatively, and for themselves. Our formative assessment products turn data into practical instructional support to help all students build a strong foundation in early reading and math. All of our programs provide teachers with powerful tools that help them understand and respond to the needs of every student. Today, Amplify serves more than ten million students in all 50 states. For more information, visit www.amplify.com.

About Mathigon
Mathigon is an award-winning platform for learning mathematics, and completely free to use. It’s apps and website contain games, puzzles, activities, virtual manipulatives, and interactive textbooks, allowing students to explore, be creative, learn problem-solving and critical thinking. A unique new content format lets abstract concepts come to life, a virtual personal tutor provides real-time support, and storytelling and real applications make learning more fun and engaging. Mathigon has been used by more than six million students and teachers from all over the world. For more information, visit www.mathigon.org.

Contact:
Molly McCue
media@amplify.com

Intro to Activity Building

Thursday, 6:30pm ET

“Looking to start building your own lessons in Amplify Classroom? Join us at our next webinar to learn all about our free lesson building tool, Activity Builder (AB).
Learn how to use AB to create and edit your own dynamic lessons to engage students.”

Intro to Polypad

Wednesday, 7PM ET

Interested in incorporating free virtual manipulatives into your classroom? Learn how you can model a variety of mathematical concepts using Polypad, incorporate a Polypad screen into your Amplify Classroom activities, and explore our newest feature (letter tiles) to use in a variety of language arts contexts.

Getting Started with Amplify Classroom

Thursday, 7pm ET

New to Amplify Classroom? In our free introductory webinar, you’ll learn how to navigate the platform, set up your first class, teach a pre-made Amplify Classroom lesson to your students, and make use of our delightful facilitation tools to support student learning.

Math IS a Language: Creating Productive Math Discourse Using Technology

Monday, 2pm ET

Featuring Oscar Perales

Kids communicate with their digital devices constantly. We can help them use those same devices to communicate mathematically as well. We’ll learn how math language routines and free digital technology can take your students from speaking and thinking to fluency and understanding.

Amplify ELA Educator Panel

Thursday, 4pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA.

Improving Middle School Reading Comprehension With Amplify ELA

Tuesday, 3pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA.

Amplify ELA Overview: Grades 6–8

Wednesday, 3pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA

mCLASS DIBELS 8th Edition Educator Panel

Tuesday, 4pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA.

Providing Strong Intervention With mCLASS DIBELS 8th Edition

Tuesday, 3pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA

mCLASS DIBELS 8th Edition Overview: Grades K–8

Thursday, 3pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA.

Amplify CKLA Educator Panel

Thursday, 4pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA

Providing Strong Writing Instruction with Amplify CKLA

Thursday, 3pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA.

CKLA Overview: Grades K-5

Tuesday 3pm ET

Join our Science of Reading program webinars, Reading Comprehension in Action!

Register for our free webinars to discover how to foster strong reading comprehension and literacy outcomes with Amplify CKLA, mCLASS, and Amplify ELA

Intro to Polypad

Wednesday, 7pm ET

Interested in incorporating free virtual manipulatives into your classroom? Learn how you can model a variety of mathematical concepts using Polypad, incorporate a Polypad screen into your Amplify Classroom activities, and explore our newest feature (letter tiles) to use in a variety of language arts contexts.

Intro to Activity Building

Thursday, 6:30pm ET

Looking to start building your own lessons in Amplify Classroom? Join us at our next webinar to learn all about our free lesson building tool, Activity Builder (AB). Learn how to use AB to create and edit your own dynamic lessons to engage students.

Intro to Polypad

Wednesday, 7pm ET

Interested in incorporating free virtual manipulatives into your classroom? Learn how you can model a variety of mathematical concepts using Polypad, incorporate a Polypad screen into your Amplify Classroom activities, and explore our newest feature (letter tiles) to use in a variety of language arts contexts.

Getting Started with Amplify Classroom

Monday, 7pm ET

New to Amplify Classroom? In our free introductory webinar, you’ll learn how to navigate the platform, set up your first class, teach a pre-made Amplify Classroom lesson to your students, and make use of our delightful facilitation tools to support student learning.

Getting Started with Amplify Classroom

Monday, 7pm EST

New to Amplify Classroom? In our free introductory webinar, you’ll learn how to navigate the platform, set up your first class, teach a pre-made Amplify Classroom lesson to your students, and make use of our delightful facilitation tools to support student learning.

Intro to Polypad

Wednesday, 7pm EST

Interested in incorporating free virtual manipulatives into your classroom? Learn how you can model a variety of mathematical concepts using Polypad, incorporate a Polypad screen into your Amplify Classroom activities, and explore our newest feature (letter tiles) to use in a variety of language arts contexts.

Getting Started with Amplify Classroom

Monday, 7pm EST

New to Amplify Classroom? In our free introductory webinar, you’ll learn how to navigate the platform, set up your first class, teach a pre-made Amplify Classroom lesson to your students, and make use of our delightful facilitation tools to support student learning.

mCLASS DIBELSⓇ 8th Edition and mCLASS Lectura

Thursday, 12pm ET

As the new school year approaches, we invite you to join us for our free back-to-school webinars hosted by Amplify experts. Whether you’re brand new to Amplify or looking to deepen your expertise, this is a great opportunity to dive in and learn how to get the most out of your Amplify program(s)

Save my spot

Can’t attend live? No problem! Register anyway, and we’ll make sure you receive the recordings and relevant links after the event.

We can’t wait to “see” you soon!

Boost Reading and Boost Lectura

Wednesday, 4pm ET

As the new school year approaches, we invite you to join us for our free back-to-school webinars hosted by Amplify experts. Whether you’re brand new to Amplify or looking to deepen your expertise, this is a great opportunity to dive in and learn how to get the most out of your Amplify program(s)

Save my spot

Can’t attend live? No problem! Register anyway, and we’ll make sure you receive the recordings and relevant links after the event.

We can’t wait to “see” you soon!

—The Amplify team

Amplify CKLA (2nd Edition) and Amplify Caminos (Grades K–5)

Wednesday, 12pm ET

As the new school year approaches, we invite you to join us for our free back-to-school webinars hosted by Amplify experts. Whether you’re brand new to Amplify or looking to deepen your expertise, this is a great opportunity to dive in and learn how to get the most out of your Amplify program(s).

Register to save your spot in one session for each of the programs you use. We can’t wait to see you there! 

Can’t make the live events? Don’t worry! Register to receive resources from each session, including the recording.

Save my spot

Can’t attend live? No problem! Register anyway, and we’ll make sure you receive the recordings and relevant links after the event.

We can’t wait to “see” you soon!

—The Amplify team 

Amplify ELA (Grades 6–8)

Tuesday, 4pm ET

As the new school year approaches, we invite you to join us for our free back-to-school webinars hosted by Amplify experts. Whether you’re brand new to Amplify or looking to deepen your expertise, this is a great opportunity to dive in and learn how to get the most out of your Amplify program(s).

Save my spot

Can’t attend live? No problem! Register anyway, and we’ll make sure you receive the recordings and relevant links after the event.

We can’t wait to “see” you soon!

—The Amplify team 

Amplify Desmos Math including mCLASS® Math and Boost Math™

Tuesday, 12 pm ET

As the new school year approaches, we invite you to join us for our free back-to-school webinars hosted by Amplify experts. Whether you’re brand new to Amplify or looking to deepen your expertise, this is a great opportunity to dive in and learn how to get the most out of your Amplify program(s).

Save my spot

Can’t attend live? No problem! Register anyway, and we’ll make sure you receive the recordings and relevant links after the event.

We can’t wait to “see” you soon!

—The Amplify team 

Amplify Science

Monday, 12 pm ET

As the new school year approaches, we invite you to join us for our free back-to-school webinars hosted by Amplify experts. Whether you’re brand new to Amplify or looking to deepen your expertise, this is a great opportunity to dive in and learn how to get the most out of your Amplify program(s). 

Save my spot

Can’t attend live? No problem! Register anyway and we’ll make sure you receive the recordings and relevant links after the event.

We can’t wait to “see” you soon!

—The Amplify team 

Be a changemaker for science.

Profound science learning experiences have the power to transcend classroom walls—cultivating students’ curiosity, fostering critical thinking and creativity, building knowledge about the real world, and supporting students on their pathway to college and beyond. Unfortunately, science continues to fight for sufficient instructional time and resources.

The good news? Intentional shifts, combined with evidence-based practices and effective high-quality instructional materials, can help teachers make the most of the time they do have—transforming students into concerned global citizens ready to take on the world.

Science instruction designed for all students

K–8 science instruction is the crucial foundation that prepares students for high school learning. Our change management playbook details manageable and realistic changes to your process and practice that will make your K–8 instruction even more powerful.

Establishing high-quality teaching and learning

Access to high-quality instructional materials (HQIM) is a vital piece of the change management puzzle. Support the leaders who are on a mission to identify HQIM and set up the best possible conditions for implementation success.

Connecting science and literacy

Want to make every instructional moment count? Integrate science and literacy more deeply—and witness the transformation in student learning. Find out how with this resource pack.

The foundation for long-lasting and sustainable change

Change is more likely to stick and get results when you take a systemic approach. Partner with us to do just that by developing a learning plan that will drive your program implementation, enrich your instructional practices, and increase student impact. Amplify’s high-quality programs make it easier for you to teach inspiring, impactful lessons that celebrate and develop the brilliance of your students.

Ready to champion science in your school? We’re here to help

Connect with our Amplify Science experts to see how we can help create change in your school or district.

Get Started

A closer look at grades K–2

Amplify Science California is based on the latest research on teaching and learning and helps teachers deliver age-appropriate, high-quality, literacy-rich instruction that enables students to take on the roles of scientists and engineers to solve real-world phenomena every day.

In the K–2 classroom, this looks like students:

  • Collecting evidence from a variety of sources.
  • Making sense of evidence in a variety of ways.
  • Formulating convincing scientific arguments.
A collage of four images: building a toothpick structure, a boy reading a book to a girl, two children conducting a water experiment, and a light projection setup.
Graphic showing a research process with four steps: spark intrigue with a real-world problem, explore evidence, explain and elaborate, and evaluate claims, connected in a cycle with arrows.

Program structure

Our cyclical lesson design ensures students receive multiple exposures to concepts through a variety of modalities. As they progress through the lessons within a unit, their understanding gradually builds and deepens, ultimately leading to their ability to develop and refine increasingly complex explanations of the unit’s phenomenon.

It’s this proven program structure and lesson design that enables Amplify Science California to teach less, but achieve more. Rather than asking teachers to wade through unnecessary content, we designed our K–2 program to address 100% of the California NGSS in just 66 days.

Scope and sequence

Every year of our K–2 consists of 3 units and 66 total lessons. Said another way, each unit contains 20 lessons plus two dedicated assessment days (a Pre-Unit Assessment and End-of-Unit Assessment).

Lessons at grades K–1 are written for a minimum of 45-minutes, and grade 2 lessons are written for a minimum of 60-minutes—though teachers can expand or contract the timing to meet their needs.

Educational curriculum chart showcasing a progression of amplify science lessons from kindergarten to grade 5, categorized by grade and subject areas like plants, animals, weather, and energy.

Unit types

While every unit delivers three-dimensional learning experiences and engages students in gathering evidence from a rich collection of sources, each unit also emphasizes a particular science and engineering practice.

In each grade K–2:

  • One unit emphasizes the practice of investigation.
  • One unit emphasizes the practice of modeling.
  • One unit emphasizes the practice of engineering design.
Investigation Units

Investigation units focus on the process of strategically developing investigations and gathering data to answer questions. Students are first asked to consider questions about what happens in the natural world and why, and are then involved in designing and conducting investigations that produce data to help answer those questions.

Modeling Units

Modeling units provide extra support to students engaging in the practice of modeling. Students use physical models, investigate with computer models, and create their own diagrams to help them visualize what might be happening on the nanoscale.

Engineering Design Units

Engineering design units provide opportunities for students to solve complex problems by applying science principles to the design of functional solutions, and iteratively testing those solutions to determine how well they meet preset criteria.

Units at a glance

An illustration from Needs of Plants and Animals unit
Needs of Plants and Animals

Domains: Life Science, Earth and Space Science, Engineering Design

Unit type: Investigation

Student role: Scientists

Phenomenon: There are no monarch caterpillars in the Mariposa Grove community garden since vegetables were planted. 

Download unit guide

Download lesson planner

An illustration from the Pushes and Pulls unit
Pushes and Pulls

Domains: Physical Science, Engineering Design

Unit type: Engineering design

Student role: Pinball engineers

Phenomenon: Pinball machines allow people to control the direction and strength of forces on a ball.  

Download unit guide

Download lesson planner

Silhouette of a playground structure against a blue sky with clouds and three yellow suns.
Sunlight and Weather

Domains: Earth and Space Science, Life Science, Engineering Design

Unit type: Modeling

Student role: Weather scientists

Phenomenon: Students at Carver Elementary School are too cold during morning recess, while students at Woodland Elementary School are too hot during afternoon recess.  

Download unit guide

Download lesson planner

Illustration of sea turtles swimming among seaweed in the ocean, with a large shark in the background.
Animal and Plant Defenses

Domain: Life Science

Unit type: Modeling

Student role: Marine scientists

Phenomenon: Spruce the Sea Turtle lives in an aquarium and will soon be released back into the ocean, where she will survive despite ocean predators.  

Download unit guide

Download lesson planner

Two hands holding a paper with a drawing of a pyramid and a tree, illuminated by a flashlight, projecting another shadow of the image on the wall.
Light and Sound

Domains: Physical Science, Engineering Design

Unit type: Engineering design

Student role: Light and sound engineers

Phenomenon: A puppet show company uses light and sound to depict realistic scenes in puppet shows.  

Download unit guide

Download lesson planner

An illustration from the Spinning Earth unit
Spinning Earth

Domain: Earth and Space Science

Unit type: Investigation

Student role: Sky scientists

Phenomenon: The sky looks different to Sai and his grandma when they talk on the phone.  

Download unit guide

Download lesson planner

An elephant standing next to a tree uses its trunk to pick a fruit from a branch while more fruit hangs above.
Plant and Animal Relationships

Domains: Life Science, Engineering Design

Unit type: Investigation

Student role: Plant scientists

Phenomenon: No new chalta trees are growing in the fictional Bengal Tiger Reserve in India.  

Download unit guide

Download lesson planner

A hand holds a red bean on a table, while a wooden stick spreads white glue and scattered beans. Also on the table are a white cup and a yellow pen.
Properties of Materials

Domains: Physical Science, Engineering Design

Unit type: Engineering design

Student role: Glue engineers

Phenomenon: Different glue recipes result in glues that have different properties.  

Download unit guide

Download lesson planner

Illustration of a coastline with cliffs, a recreation center building with a red roof and a sign, evergreen trees, a blue flag, and a sandy beach below.
Changing Landforms

Domain: Earth and Space Science

Unit type: Modeling

Student role: Geologists

Phenomenon: The cliff that Oceanside Recreation Center is situated on appears to be receding over time.  

Download unit guide

Download lesson planner

A closer look at grades 6–8

Amplify Science California is based on the latest research on teaching and learning and helps teachers deliver rigorous and riveting lessons through hands-on investigations, literacy-rich activities, and interactive digital tools that empower students to think, read, write, and argue like real scientists.

In the 6–8 classroom, this looks like students:

  • Collecting evidence from a variety of sources.
  • Making sense of evidence in a variety of ways.
  • Formulating convincing scientific arguments.

Is your school implementing the domain model? Click here.

Collage of four images showing children engaged in educational activities such as conducting experiments and crafting in a classroom setting.
A four-step process diagram with icons: spark a real-world problem, explore sources, explain and elaborate, and evaluate claims, all linking to engage with cohesive storylines.

Program structure

Our cyclical lesson design ensures students receive multiple exposures to concepts through a variety of modalities. As they progress through the lessons within a unit, students build and deepen their understanding, increasing their ability to develop and refine complex explanations of the unit’s phenomenon.

It’s this proven program structure and lesson design that enables Amplify Science California to teach less, but achieve more. Rather than asking teachers to wade through unnecessary content, we designed our 6–8 program to address 100% of the California NGSS in fewer lessons than other programs.

Scope and sequence

Every year our grades 6–8 sequence consists of 9 units, with each unit containing 10–19 lessons. Lessons are written to last a minimum of 45-minutes, though teachers can expand or contract the timing to meet their needs.

Chart displaying educational science topics for grades 6 to 8, categorized by grade level, duration in days, and number of classes. Includes subjects like microbiome, geology, and natural selection.

Unit types

Each unit delivers three-dimensional learning experiences and engages students in gathering evidence from a rich collection of sources, while also serving a unique purpose.

In grades 6–8, there are three types of units:

  • One unit is a launch unit.
  • Three units are core units.
  • Two units are engineering internships.
Launch units

Launch units are the first units taught in each year of Amplify Science California. The goal of the Launch unit is to introduce students to norms, routines, and practices that will be built on throughout the year, including argumentation, active reading, and using the program’s technology. For example, rather than taking the time to explain the process of active reading in every unit in a given year, it is explained thoroughly in the Launch unit, thereby preparing students to read actively in all subsequent units.

Core units

Core units establish the context of the unit by introducing students to a real-world problem. As students move through lessons in a Core unit, they figure out the unit’s anchoring phenomenon, gain an understanding of the unit’s disciplinary core ideas and science and engineering practices, and make linkages across topics through the crosscutting concepts. Each Core unit culminates with a Science Seminar and final writing activity.

Engineering Internship units

Engineering Internship units invite students to design solutions for real-world problems as interns for a fictional company called Futura. Students figure out how to help those in need, from tsunami victims in Sri Lanka to premature babies, through the application of engineering practices. In the process, they apply and deepen their learning from Core units.

Units at a glance

Abstract art with vibrant colors featuring a yellow silhouette of a person holding a book against a background of geometric shapes, swirling patterns, and bold textures.
Microbiome

Domain: Life Science

Unit type: Launch

Student role: Microbiological researchers

Phenomenon: The presence of 100 trillion microorganisms living on and in the human body may keep the body healthy.  

Abstract artwork of a person's side profile with geometric shapes and colorful patterns flowing from the head, holding a small sledgehammer. A vision chart is visible in the corner.
Metabolism

Domain: Life Science

Unit type: Core

Student role: Medical researchers

Phenomenon: Elisa, a young patient, feels tired all the time.  

Download unit guide

Orange abstract background with hexagonal shapes featuring icons of a bar chart, plant, safety vest, test tube, peach, and stethoscope.
Metabolism Engineering Internship

Domains: Life Science, Engineering Design

Unit type: Engineering internship

Student role: Food engineers

Phenomenon: Designing health bars with different molecular compositions can effectively meet the metabolic needs of patients or rescue workers.  

Imagen que muestra un gráfico de arañas de diferentes colores con patrones distintos de patas y cuerpo, incluidas variaciones de color marrón, amarillo y azul. El fondo es una superficie oscura y texturizada.
Traits and Reproduction

Domain: Life Science

Unit type: Core

Student role: Biomedical students

Phenomenon: Darwin’s bark spider offspring have different silk flexibility traits, even though they have the same parents.  

Download unit guide

Illustration of a person in a red hat and fur-lined coat with eyes closed, surrounded by large orange circles on a dark background.
Thermal Energy

Domain: Physical Science

Unit type: Core

Student role: Thermal scientists

Phenomenon: One of two proposed heating systems for Riverdale School will best heat the school. 

Download unit guide

Abstract artwork depicting a bright sun with blue and orange swirling patterns next to green hills under a sky with shades of blue, orange, and red.
Ocean, Atmosphere, and Climate

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Climatologists

Phenomenon: During El Niño years, the air temperature in Christchurch, New Zealand is cooler than usual.  

An illustration from the Weather Patterns unit
Weather Patterns

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Forensic meteorologists

Phenomenon: In recent years, rainstorms in Galetown have been unusually severe.  

Download unit guide

An illustration from the Earth's Changing Climate unit
Earth’s Changing Climate

Domains: Earth and Space Science, Life Science

Unit type: Core

Student role: Climatologists

Phenomenon: The ice on Earth’s surface is melting.  

Download unit guide

Abstract geometric design in shades of blue and purple featuring a hexagon with icons of a building, wrench, molecules, sun, paint can, and screwdriver.
Earth’s Changing Climate Engineering Internship

Domains: Earth and Space Science, Engineering Design

Unit type: Engineering internship

Student role: Civil engineers

Phenomenon: Designing rooftops with different modifications can reduce a city’s impact on climate change.  

A barren, rocky desert landscape with rover tracks leading to a distant vehicle on a hill under a hazy sky.
Geology on Mars

Domain: Earth and Space Science

Unit type: Launch

Student role: Planetary geologists

Phenomenon: Analyzing data about landforms on Mars can provide evidence that Mars may have once been habitable. 

Two prehistoric reptiles with long snouts and tails are near the shore, one on land and one in water, with plants, rocks, and an island in the background.
Plate Motion

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Mesosaurus fossils have been found on continents separated by thousands of kilometers of ocean, even though the Mesosaurus species once lived all together.  

Download unit guide

Geometric design featuring a telescope, mountain, sound waves, and cosmic elements on a purple hexagonal background.
Plate Motion Engineering Internship

Domains: Earth and Space Science, Engineering Design

Unit type: Engineering internship

Student role: Mechanical engineering interns

Phenomenon: Patterns in earthquake data can be used to design an effective tsunami warning system.  

Illustration of a cross-section of Earth showing a volcano near the ocean. Trees, mountains, and clouds are visible above, with subterranean layers below.
Rock Transformations

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Rock samples from the Great Plains and from the Rocky Mountains — regions hundreds of miles apart — look very different, but have surprisingly similar mineral compositions.  

Download unit guide

Ilustración que muestra las etapas de fusión de una paleta de naranja: entera, parcialmente derretida, más derretida y casi derretida por completo, con palitos de madera, sobre un fondo morado.
Phase Change

Domains: Physical Science, Earth and Space Science

Unit type: Core

Student role: Chemists

Phenomenon: A methane lake on Titan no longer appears in images taken by a space probe two years apart

Download unit guide

Green geometric background with a hexagonal emblem containing a parachute icon, ruler, bandage, and stacked layers on a gradient pattern.
Force and Motion Engineering Internship

Domains: Engineering Design, Physical Science

Unit type: Engineering internship

Student role: Mechanical engineering interns

Phenomenon: Designing emergency supply delivery pods with different structures can maintain the integrity of the supply pods and their contents.  

An illustration from the Chemical Reactions unit
Chemical Reactions

Domains: Physical Science, Life Science, Earth and Space Science

Unit type: Core

Student role: Forensic chemists

Phenomenon: A mysterious brown substance has been detected in the tap water of Westfield.  

Download unit guide

An illustration of a whale with jellyfish and turtles from Amplify Science
Populations and Resources

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Biologists

Phenomenon: The size of the moon jelly population in Glacier Sea has increased. 

Download unit guide

Low-poly landscape with trees and mushrooms. A fox sniffs the ground, a rabbit sits nearby, and mountains and sun are in the background.
Matter and Energy in Ecosystems

Domains: Life Science, Earth and Space Science, Physical Science

Unit type: Core

Student role: Ecologists

Phenomenon: The biodome ecosystem has collapsed.  

Download unit guide

Two people climbing rocky terrain; illustrations show a hiking boot and a belt with gear.
Harnessing Human Energy

Domains: Physical Science, Earth and Space Science, Engineering Design

Unit type: Launch

Student role: Energy scientists

Phenomenon: Rescue workers can use their own human kinetic energy to power the electrical devices they use during rescue missions.  

Illustration of a futuristic space station with large solar panels, orbiting in deep space, emitting a blue glow from its propulsion system.
Force and Motion

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: The asteroid sample-collecting pod failed to dock at the space station as planned.

Download unit guide

Green geometric graphic featuring icons: a baby, thermometer, layers, medical alert, and a flame.
Phase Change Engineering Internship

Domains: Engineering Design, Physical Science

Unit type: Engineering internship

Student role: Chemical engineering interns

Phenomenon: Designing portable baby incubators with different combinations of phase change materials can keep babies at a healthy temperature.  

Illustration of a roller coaster filled with people, hands raised, going down a steep track against a bright blue sky with clouds.
Magnetic Fields

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: During a test launch, a spacecraft traveled much faster than expected.  

An illustration from the Light Waves unit
Light Waves

Domains: Physical Science, Life Science, Earth and Space Science

Unit type: Core

Student role: Spectroscopists

Phenomenon: The rate of skin cancer is higher in Australia than in other parts of the world.

Download unit guide

A city skyline at night with a prominent full moon, stars in the sky, and a bridge silhouette on the left.
Earth, Moon, and Sun

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Astronomers

Phenomenon: An astrophotographer can only take pictures of specific features on the Moon at certain times.  

Download unit guide

Four low-poly dinosaurs with missing body sections are standing in a row; one is yellow, and the others are green. They have purple spikes and red patches on their bodies.
Natural Selection

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Biologists

Phenomenon: The newt population in Oregon State Park has become more poisonous over time.  

Download unit guide

Red geometric background with icons including a mosquito, DNA strand, bar chart, and world map inside a hexagon.
Natural Selection Engineering Internship

Domains: Engineering Design, Life Science

Unit type: Engineering internship

Student role: Clinical engineers

Phenomenon: Designing malaria treatment plans that use different combinations of drugs can reduce drug resistance development while helping malaria patients.  

Two giant tortoises with long necks stand near water; one tortoise feeds on leaves from a tree while the other is near dense vegetation.
Evolutionary History

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Paleontologists

Phenomenon: A mystery fossil at the Natural History Museum has similarities with both wolves and whales.    

Download unit guide

A teacher assists two students working at a table with a laptop and books, surrounded by colorful illustrations of a cyclist, a bird, and a dinosaur.

Join us for an Oklahoma Amplify Science workshop

These fun and informative workshops will give you a sneak peak into Amplify Science for grades K-8. Enjoy dinner with your colleagues and Amplify Science team, preview the program, walk away with free samples, and maybe even a door prize!

Space is limited—register today!

In-person workshops

Agenda

4:00 p.m. Registration
4:30 p.m. Workshop
5:30 p.m. Dinner and door prizes

Tuesday, September 29

Stride Bank Center
301 S. Independence Street
Enid, OK 73701

Wednesday, September 30

Hampton Inn & Suites Stillwater West
615 S. Country Club Road
Stillwater, OK 74074

Thursday, October 1

Science Museum

2020 Remington Place

Oklahoma City, OK 73111

Tuesday, October 20

Oklahoma Aquarium

300 Aquarium Drive

Jenks, OK 74037

Thursday, October 22

Sam Noble Museum 

University of Oklahoma

2401 Chautauqua Avenue

Norman, OK 73072

Virtual workshops

Agenda 

4:00 p.m. Workshop begins
4:45 p.m. Q&A
5:00 p.m. Dinner gift card and door prizes

Wednesday, October 21

4:00 p.m. CDT

Tuesday, October 27

4:00 p.m. CDT

Wednesday, October 28

4:00 p.m. CDT

Thursday, October 29

4:00 p.m. CDT

Submit the form to register for an event!

The fine print

While we’ve made every effort to ensure that this invitation is consistent with the gift and ethics rules adopted by most jurisdictions, we recognize that many public officials are subject to rules that do not permit acceptance of this offer or require approval of other officials at your agency. If you do plan to attend our event, please ensure that acceptance of our invitation is fully compliant with your local rules regarding travel, lodging, and meals for events with vendors. Please let us know if we can provide any additional information to support your determination.

A closer look at grades 6–8 (domain)

Amplify Science is based on the latest research on teaching and learning and helps teachers deliver rigorous and riveting lessons through hands-on investigations, literacy-rich activities, and interactive digital tools that empower students to think, read, write, and argue like real scientists.

In the 6–8 classroom, this looks like students:

  • Collecting evidence from a variety of sources.
  • Making sense of evidence in a variety of ways.
  • Formulating convincing scientific arguments.

Is your school implementing the domain model? Click here.

Collage of four images showing children engaged in educational activities such as conducting experiments and crafting in a classroom setting.
A four-step process: Spark intrigue, Explore evidence, Explain and elaborate, and Evaluate claims, leading to ongoing engagement and building complexity.

Program structure

Our cyclical lesson design ensures students receive multiple exposures to concepts through a variety of modalities. As they progress through the lessons within a unit, students build and deepen their understanding, increasing their ability to develop and refine complex explanations of the unit’s phenomenon.

It’s this proven program structure and lesson design that enables Amplify Science to teach less, but achieve more. Rather than asking teachers to wade through unnecessary content, we designed our 6–8 program to address 100% of the NGSS in fewer lessons than other programs.

Scope and sequence

Every year our grades 6–8 sequence consists of 9 units, with each unit containing 10–19 lessons. Lessons are written to last a minimum of 45-minutes, though teachers can expand or contract the timing to meet their needs.

A grid of educational icons, each representing a different science topic, such as earth and space science, life science, and physical science, with titles and lesson counts.

Unit types

Each unit delivers three-dimensional learning experiences and engages students in gathering evidence from a rich collection of sources, while also serving a unique purpose.

In grades 6–8, there are three types of units:

  • One unit is a launch unit.
  • Three units are core units.
  • Two units are engineering internships.
Launch units

Launch units are the first units taught in each year of Amplify Science. The goal of the Launch unit is to introduce students to norms, routines, and practices that will be built on throughout the year, including argumentation, active reading, and using the program’s technology. For example, rather than taking the time to explain the process of active reading in every unit in a given year, it is explained thoroughly in the Launch unit, thereby preparing students to actively read in all subsequent units.

Core units

Core units establish the context of the unit by introducing students to a real-world problem. As students move through lessons in a Core unit, they figure out the unit’s anchoring phenomenon, gain an understanding of the unit’s disciplinary core ideas and science and engineering practices, and make linkages across topics through the crosscutting concepts. Each Core unit culminates with a Science Seminar and final writing activity.

Engineering Internship units

Engineering Internship units invite students to design solutions for real-world problems as interns for a fictional company called Futura. Students figure out how to help those in need, from tsunami victims in Sri Lanka to premature babies, through the application of engineering practices. In the process, they apply and deepen their learning from Core units.

Units at a glance

A rover sits on a rocky, reddish hill under a hazy sky, leaving visible tire tracks across the barren landscape.
Geology on Mars

Domain: Earth and Space Science

Unit type: Launch

Student role: Planetary geologists

Phenomenon: Analyzing data about landforms on Mars can provide evidence that Mars may have once been habitable.    

Two prehistoric marine reptiles with long snouts are near a rocky shoreline, one on land and one in the water, with an island and clouds in the background.
Plate Motion

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Mesosaurus fossils have been found on continents separated by thousands of kilometers of ocean, even though the Mesosaurus species once lived all together.    

A geometric badge with a mountain, telescope, and audio wave icons on a purple background with polygonal shapes.
Plate Motion Engineering Internship

Domain: Earth and Space Science

Unit type: Engineering internship

Student role: Mechanical engineering interns

Phenomenon: Patterns in earthquake data can be used to design an effective tsunami warning system.    

Illustration of a volcano by the sea with smoke, trees, mountains, and a cross-section showing a fault line beneath the ground.
Rock Transformations

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Rock samples from the Great Plains and from the Rocky Mountains — regions hundreds of miles apart — look very different, but have surprisingly similar mineral compositions.    

Illustration of a city skyline at night with buildings, a bridge, and a large full moon in a starry sky.
Earth, Sun, and Moon

Domain: Earth and Space Science

Unit type: Core

Student role: Astronomers

Phenomenon: An astrophotographer can only take pictures of specific features on the Moon at certain times.    

Abstract digital painting of a landscape with green hills, a red-orange horizon, and a large yellow sun surrounded by blue and orange swirling shapes on the right.
Ocean, Atmosphere, and Climate

Domain: Earth and Space Science

Unit type: Core

Student role: Climatologists

Phenomenon: During El Niño years, the air temperature in Christchurch, New Zealand is cooler than usual.    

Illustration of a town with houses and fields under a sky with large clouds and swirling wind patterns, set against a backdrop of hills and mountains.
Weather Patterns

Domain: Earth and Space Science

Unit type: Core

Student role: Forensic meteorologists

Phenomenon: In recent years, rainstorms in Galetown have been unusually severe.    

A polar bear stands on a small ice floe surrounded by water and floating ice under a red sun in an Arctic landscape.
Earth’s Changing Climate

Domain: Earth and Space Science

Unit type: Core

Student role: Climatologists

Phenomenon: The ice on Earth’s surface is melting.    

Hexagonal badge with icons including a wrench, building, sun, screwdriver, paint can, and molecules on a purple geometric background.
Earth’s Changing Climate Engineering Internship

Domain: Earth and Space Science

Unit type: Engineering internship

Student role: Civil engineers

Phenomenon: Designing rooftops with different modifications can reduce a city’s impact on climate change.    

Colorful abstract digital artwork featuring a yellow figure holding a device, with blue and red shapes and textured patterns in the background.
Microbiome

Domain: Life Science

Unit type: Launch

Student role: Microbiological researchers

Phenomenon: The presence of 100 trillion microorganisms living on and in the human body may keep the body healthy.    

An abstract illustration of a person having their mouth and throat examined with a tongue depressor, surrounded by colorful shapes, with an eye chart in the background.
Metabolism

Domain: Life Science

Unit type: Core

Student role: Medical researchers

Phenomenon: Elisa, a young patient, feels tired all the time.    

Geometric orange background with a hexagon icon displaying symbols for statistics, farming, healthcare, safety vest, chemistry, and agriculture.
Metabolism Engineering Internship

Domain: Life Science

Unit type: Engineering internship

Student role: Food engineers

Phenomenon: Designing health bars with different molecular compositions can effectively meet the metabolic needs of patients or rescue workers.    

Six spiders with different colors and stripe patterns are arranged in a grid pattern on a dark background, showing variations in leg and body color.
Traits and Reproduction

Domain: Life Science

Unit type: Core

Student role: Biomedical students

Phenomenon: Darwin’s bark spider offspring have different silk flexibility traits, even though they have the same parents.    

An underwater scene shows a whale surrounded by jellyfish, sea turtles, and fish, with sunlight filtering through the water.
Populations and Resources

Domain: Life Science

Unit type: Core

Student role: Biologists

Phenomenon: The size of the moon jelly population in Glacier Sea has increased.    

A low-poly landscape with trees, mushrooms, a rabbit sitting, and a fox bending down near another rabbit under a sunny sky with mountains in the background.
Matter and Energy in Ecosystems

Domain: Life Science

Unit type: Core

Student role: Ecologists

Phenomenon: What caused the mysterious crash of a biodome ecosystem?    

Three green dinosaurs and one yellow dinosaur stand in a row on grass, each with purple spikes and a red spot on their backs. The sky is blue with light clouds.
Natural Selection

Domain: Life Science

Unit type: Core

Student role: Biologists

Phenomenon: The newt population in Oregon State Park has become more poisonous over time.    

Red-toned graphic with hexagonal badge featuring a world map, a mosquito, a DNA strand, charts, cubes, and circular icons. Geometric background pattern.
Natural Selection Engineering Internship

Domain: Life Science

Unit type: Engineering internship

Student role: Clinical engineers

Phenomenon: Designing malaria treatment plans that use different combinations of drugs can reduce drug resistance development while helping malaria patients.  

Two giant tortoises are near a river; one is by the water and the other is standing on land and stretching its neck toward a leafy tree.

Evolutionary History

Domain: Life Science

Unit type: Core

Student role: Paleontologists

Phenomenon: A mystery fossil at the Natural History Museum has similarities with both wolves and whales.    

Two people climb over rocky terrain strewn with electronic waste, with illustrated insets showing a hiking boot, a solar-powered device, and a person adjusting a belt-like gadget.
Harnessing Human Energy

Domain: Physical Science

Unit type: Launch

Student role: Energy scientists

Phenomenon: Rescue workers can use their own human kinetic energy to power the electrical devices they use during rescue missions.    

A spacecraft approaches a modular space station with large solar panels, set against a backdrop of outer space.
Force and Motion

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: The asteroid sample-collecting pod failed to dock at the space station as planned.    

Green geometric background with a hexagonal badge showing a parachute, a box, a ruler, a bandage, and stacked layers.
Force and Motion Engineering Internship

Domain: Physical Science

Unit type: Engineering internship

Student role: Mechanical engineering interns

Phenomenon: Designing emergency supply delivery pods with different structures can maintain the integrity of the supply pods and their contents. 

Illustration of a roller coaster car full of people with raised arms, speeding down a loop against a blue sky with clouds.
Magnetic Fields

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: During a test launch, a spacecraft traveled much faster than expected.    

Illustration of a person in a red coat and hat with arms crossed, eyes closed, surrounded by large orange and brown circles, possibly representing snow or lights.
Thermal Energy

Domain: Physical Science

Unit type: Core

Student role: Thermal scientists

Phenomenon: One of two proposed heating systems for Riverdale School will best heat the school.    

An orange popsicle gradually melts, shown in four stages from solid to completely melted, with wooden sticks visible, against a purple background.
Phase Change

Domain: Physical Science

Unit type: Core

Student role: Chemists

Phenomenon: A methane lake on Titan no longer appears in images taken by a space probe two years apart.    

A green background with a picture of a person and a sandwich.
Phase Change Engineering Internship

Domain: Physical Science

Unit type: Engineering internship

Student role: Chemical engineering interns

Phenomenon: Designing portable baby incubators with different combinations of phase change materials can keep babies at a healthy temperature.    

Digital illustration showing red and blue molecules on a blue background transitioning to a lighter background, representing molecular diffusion across a boundary.
Chemical Reactions

Domain: Physical Science

Unit type: Core

Student role: Forensic chemists

Phenomenon: A mysterious brown substance has been detected in the tap water of Westfield.    

Illustration of Earth with yellow arrows and colored waves approaching from the left, representing incoming solar or cosmic radiation.
Light Waves

Domain: Physical Science

Unit type: Core

Student role: Spectroscopists

Phenomenon: The rate of skin cancer is higher in Australia than in other parts of the world.    

A closer look at grades 6–8

Amplify Science is based on the latest research on teaching and learning and helps teachers deliver rigorous and riveting lessons through hands-on investigations, literacy-rich activities, and interactive digital tools that empower students to think, read, write, and argue like real scientists.

In the 6–8 classroom, this looks like students:

  • Collecting evidence from a variety of sources.
  • Making sense of evidence in a variety of ways.
  • Formulating convincing scientific arguments.

Is your school implementing the domain model? Click here.

Collage of four images showing children engaged in educational activities such as conducting experiments and crafting in a classroom setting.
A four-step process diagram: Spark intrigue, Explore evidence, Explain and elaborate, and Evaluate claims, connected by arrows, with an engagement statement below.

Program structure

Our cyclical lesson design ensures students receive multiple exposures to concepts through a variety of modalities. As they progress through the lessons within a unit, students build and deepen their understanding, increasing their ability to develop and refine complex explanations of the unit’s phenomenon.

It’s this proven program structure and lesson design that enables Amplify Science to teach less, but achieve more. Rather than asking teachers to wade through unnecessary content, we designed our 6–8 program to address 100% of the NGSS in fewer lessons than other programs.

Scope and sequence

Every year our grades 6–8 sequence consists of 9 units, with each unit containing 10–19 lessons. Lessons are written to last a minimum of 45-minutes, though teachers can expand or contract the timing to meet their needs.

A grid of educational icons, each representing a different science topic, such as earth and space science, life science, and physical science, with titles and lesson counts.

Unit types

Each unit delivers three-dimensional learning experiences and engages students in gathering evidence from a rich collection of sources, while also serving a unique purpose.

In grades 6–8, there are three types of units:

  • One unit is a launch unit.
  • Three units are core units.
  • Two units are engineering internships.
Launch units

Launch units are the first units taught in each year of Amplify Science. The goal of the Launch unit is to introduce students to norms, routines, and practices that will be built on throughout the year, including argumentation, active reading, and using the program’s technology. For example, rather than taking the time to explain the process of active reading in every unit in a given year, it is explained thoroughly in the Launch unit, thereby preparing students to read actively in all subsequent units.

Core units

Core units establish the context of the unit by introducing students to a real-world problem. As students move through lessons in a Core unit, they figure out the unit’s anchoring phenomenon, gain an understanding of the unit’s disciplinary core ideas and science and engineering practices, and make linkages across topics through the crosscutting concepts. Each Core unit culminates with a Science Seminar and final writing activity.

Engineering Internship units

Engineering Internship units invite students to design solutions for real-world problems as interns for a fictional company called Futura. Students figure out how to help those in need, from tsunami victims in Sri Lanka to premature babies, through the application of engineering practices. In the process, they apply and deepen their learning from Core units.

Units at a glance

Abstract digital artwork featuring a yellow human figure, red shapes, and a blue-toned screen, with vibrant, multicolored patterns and textures in the background.
Microbiome

Domain: Life Science

Unit type: Launch

Student role: Microbiological researchers

Phenomenon: The presence of 100 trillion microorganisms living on and in the human body may keep the body healthy.  

An abstract illustration of a person receiving an oral examination, with colorful geometric shapes and an eye chart in the background.
Metabolism

Domain: Life Science

Unit type: Core

Student role: Medical researchers

Phenomenon: Elisa, a young patient, feels tired all the time.  

Abstract orange background with geometric shapes, featuring icons of a vest, bar chart, leaf, beaker, fruit, medical stethoscope, and an envelope within a hexagonal frame.
Metabolism Engineering Internship

Domains: Life Science, Engineering Design

Unit type: Engineering internship

Student role: Food engineers

Phenomenon: Designing health bars with different molecular compositions can effectively meet the metabolic needs of patients or rescue workers.  

Six spiders with varying body colors (brown, yellow, blue, and red) and patterns are arranged on a dark, textured background, seemingly in a diagram or chart formation.
Traits and Reproduction

Domain: Life Science

Unit type: Core

Student role: Biomedical students

Phenomenon: Darwin’s bark spider offspring have different silk flexibility traits, even though they have the same parents.  

Illustration of a person with closed eyes in a red winter coat and hat, surrounded by falling snow and orange circles on a dark background.
Thermal Energy

Domain: Physical Science

Unit type: Core

Student role: Thermal scientists

Phenomenon: One of two proposed heating systems for Riverdale School will best heat the school. 

Abstract illustration of a sun with blue and orange rays over a colorful landscape featuring green hills and a vibrant sky.
Ocean, Atmosphere, and Climate

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Climatologists

Phenomenon: During El Niño years, the air temperature in Christchurch, New Zealand is cooler than usual.  

Illustration of clouds above a small town and farmland, with wind currents depicted swirling through the landscape under a blue sky.
Weather Patterns

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Forensic meteorologists

Phenomenon: In recent years, rainstorms in Galetown have been unusually severe.  

A polar bear stands on a small floating ice sheet in the ocean, surrounded by melting ice, with a red sun in the sky.
Earth’s Changing Climate

Domains: Earth and Space Science, Life Science

Unit type: Core

Student role: Climatologists

Phenomenon: The ice on Earth’s surface is melting.  

A purple hexagonal graphic with icons including a building, wrench, screwdriver, sun, molecules, paint bucket, and tiles on a geometric patterned background.
Earth’s Changing Climate Engineering Internship

Domains: Earth and Space Science, Engineering Design

Unit type: Engineering internship

Student role: Civil engineers

Phenomenon: Designing rooftops with different modifications can reduce a city’s impact on climate change.  

A robotic rover sits on a hill in a rocky, reddish landscape, with visible tracks in the dust leading to its current position under a hazy sky.
Geology on Mars

Domain: Earth and Space Science

Unit type: Launch

Student role: Planetary geologists

Phenomenon: Analyzing data about landforms on Mars can provide evidence that Mars may have once been habitable. 

Two green prehistoric reptiles with long snouts are near the shore; one is on land while the other swims in blue water, with plants, rocks, and an island in the background.
Plate Motion

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Mesosaurus fossils have been found on continents separated by thousands of kilometers of ocean, even though the Mesosaurus species once lived all together.  

A purple geometric background featuring a hexagonal badge with a telescope, mountain, audio wave, and star symbols inside.
Plate Motion Engineering Internship

Domains: Earth and Space Science, Engineering Design

Unit type: Engineering internship

Student role: Mechanical engineering interns

Phenomenon: Patterns in earthquake data can be used to design an effective tsunami warning system.  

Illustration showing an ocean, forest, and mountains with a smoking volcano, plus a cross-section of underground tectonic plates.
Rock Transformations

Domain: Earth and Space Science

Unit type: Core

Student role: Geologists

Phenomenon: Rock samples from the Great Plains and from the Rocky Mountains — regions hundreds of miles apart — look very different, but have surprisingly similar mineral compositions.  

Four stages of an orange popsicle melting on a stick, from fully frozen on the left to completely melted on the right, against a plain background.
Phase Change

Domains: Physical Science, Earth and Space Science

Unit type: Core

Student role: Chemists

Phenomenon: A methane lake on Titan no longer appears in images taken by a space probe two years apart

Green geometric background with an outlined hexagon containing icons: a parachute, ruler, letter "A," bandage, stacked blocks, and a folded corner paper.
Force and Motion Engineering Internship

Domains: Engineering Design, Physical Science

Unit type: Engineering internship

Student role: Chemical engineering interns

Phenomenon: Designing portable baby incubators with different combinations of phase change materials can keep babies at a healthy temperature. Domains: Engineering Design, Physical Science

Abstract illustration showing red and blue circles on a split blue and light background, representing molecular movement across a membrane or barrier.
Chemical Reactions

Domains: Physical Science, Life Science, Earth and Space Science

Unit type: Core

Student role: Forensic chemists

Phenomenon: A mysterious brown substance has been detected in the tap water of Westfield.  

An underwater scene with a large whale surrounded by turtles, jellyfish, and various fish swimming in different directions.
Populations and Resources

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Biologists

Phenomenon: The size of the moon jelly population in Glacier Sea has increased. 

Low-poly digital illustration of a fox hunting a rabbit in a forest with pine trees, mushrooms, mountains, and the sun in the background. Another rabbit sits near the trees.
Matter and Energy in Ecosystems

Domains: Life Science, Earth and Space Science, Physical Science

Unit type: Core

Student role: Ecologists

Phenomenon: The biodome ecosystem has collapsed.  

Two people climb over rocks filled with electronic devices; inset illustrations show a boot, a belt of batteries, and a radio.
Harnessing Human Energy

Domains: Physical Science, Earth and Space Science, Engineering Design

Unit type: Launch

Student role: Energy scientists

Phenomenon: Rescue workers can use their own human kinetic energy to power the electrical devices they use during rescue missions.  

A spacecraft approaches and docks with a modular space station featuring large blue solar panels, set against a black space background.
Force and Motion

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: The asteroid sample-collecting pod failed to dock at the space station as planned.

Green graphic with hexagonal emblem showing an infant, a thermometer, layered materials, a medical symbol, and a flame icon.
Force and Motion Engineering Internship

Domains: Engineering Design, Physical Science

Unit type: Engineering internship

Student role: Chemical engineering interns

Phenomenon: Designing emergency supply delivery pods with different structures can maintain the integrity of the supply pods and their contents.

Illustration of a roller coaster car with passengers raising their arms as they descend a steep track against a blue sky with clouds.
Magnetic Fields

Domain: Physical Science

Unit type: Core

Student role: Physicists

Phenomenon: During a test launch, a spacecraft traveled much faster than expected.  

Illustration of the Earth with arrows representing radiation or energy entering the atmosphere from space, focused on the Asia-Pacific region.
Light Waves

Domains: Physical Science, Life Science, Earth and Space Science

Unit type: Core

Student role: Spectroscopists

Phenomenon: The rate of skin cancer is higher in Australia than in other parts of the world.

A city skyline at night with illuminated windows, a large full moon, stars in the sky, and a bridge visible on the left side.
Earth, Moon, and Sun

Domains: Earth and Space Science, Physical Science

Unit type: Core

Student role: Astronomers

Phenomenon: An astrophotographer can only take pictures of specific features on the Moon at certain times.  

Four polygonal dinosaurs walking in a row, three green and one yellow, each with a rock and purple spikes on their backs, set against a grassy background with a blue sky.
Natural Selection

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Biologists

Phenomenon: The newt population in Oregon State Park has become more poisonous over time.  

Red geometric background featuring a hexagonal emblem with icons of a world map, mosquito, DNA strand, bar chart, and interconnected blocks.
Natural Selection Engineering Internship

Domains: Engineering Design, Life Science

Unit type: Engineering internship

Student role: Clinical engineers

Phenomenon: Designing malaria treatment plans that use different combinations of drugs can reduce drug resistance development while helping malaria patients.  

Two tortoises with long necks are by a river; one is browsing leaves from a bush while the other is walking near the water's edge.
Evolutionary History

Domains: Life Science, Earth and Space Science

Unit type: Core

Student role: Paleontologists

Phenomenon: A mystery fossil at the Natural History Museum has similarities with both wolves and whales.    

A closer look at grades 3–5

Amplify Science is based on the latest research on teaching and learning and helps teachers deliver age-appropriate, high-quality, literacy-rich instruction that enables students to take on the roles of scientists and engineers to solve real-world phenomena every day.

In the 3–5 classroom, this looks like students:

  • Collecting evidence from a variety of sources.
  • Making sense of evidence in a variety of ways.
  • Formulating convincing scientific arguments.
Un collage de cuatro imágenes que muestran a estudiantes realizando experimentos científicos: secando estructuras, trabajando con plantas, vertiendo la mezcla en un vaso de precipitados y regando plantas en contenedores.
A four-step process diagram: Spark, Explore, Explain and elaborate, and Evaluate, each with an icon and description, connected by arrows, ending with a summary statement below.

Program structure

Our cyclical lesson design ensures students receive multiple exposures to concepts through a variety of modalities. As they progress through the lessons within a unit, students build and deepen their understanding, increasing their ability to develop and refine complex explanations of the unit’s phenomenon.

It’s this proven program structure and lesson design that enables Amplify Science to teach less, but achieve more. Rather than asking teachers to wade through unnecessary content, we designed our 3–5 program to address 100% of the NGSS in just 88 days.

Scope and sequence

Every year of our grades 3–5 sequence consists of 4 units and 88 lessons. Said another way, each unit contains 20 lessons plus two dedicated assessment days (a Pre-Unit Assessment and End-of-Unit Assessment).

Lessons for grades 3–5 are written to last a minimum of 60 minutes, though teachers can expand or contract the timing to meet their needs.

Grid of nine educational lesson cards, each featuring a different science topic like "balancing forces" and "weather systems" with grade levels and lesson durations listed.

Unit types

Each unit delivers three-dimensional learning experiences and engages students in gathering evidence from a rich collection of sources, while also emphasizing a particular science and engineering practice.

In grades 3–5:

  • One unit emphasizes the practice of investigation.
  • One unit emphasizes the practice of modeling.
  • One unit emphasizes the practice of engineering design.
  • One unit emphasizes the practice of argumentation.
Investigation Units

Investigation units focus on the process of strategically developing investigations and gathering data to answer questions. Students are first asked to consider questions about what happens in the natural world and why, and are then involved in designing and conducting investigations that produce data to help answer those questions.

Modeling Units

Modeling units provide extra support to students engaging in the practice of modeling. Students use physical models, investigate with computer models, and create their own diagrams to help them visualize what might be happening on the nanoscale.

Engineering Design Units

Engineering design units provide opportunities for students to solve complex problems by applying science principles to the design of functional solutions, and iteratively testing those solutions to determine how well they meet preset criteria.

Argumentation units

Argumentation units provide students with regular opportunities to explore and discuss available evidence, time and support to consider how evidence may be leveraged in support of claims, and independence that increases as they mount written arguments in support of their claims.

Units at a glance

Illustration of a high-speed train traveling on an elevated track with a red light on the front, set against a blue sky and green landscape.
Balancing Forces

Domain: Physical Science

Unit type: Modeling

Student role: Engineers

Phenomenon: The town of Faraday is getting a new train that floats above its tracks.  

Illustration of wolves in the foreground, quail perched on a branch, a bear, and elk in a grassy, wooded landscape with hills in the background.
Inheritance and Traits

Domains: Life Science

Unit type: Investigation

Student role: Wildlife biologists

Phenomenon: An adopted wolf in Graystone National Park (“Wolf 44”) has some traits that appear similar to one wolf pack in the park and other traits that appear to be similar to a different wolf pack. 

A bird stands on the ground, looking down at a yellow snail near some green grass against a blue background.
Environments and Survival

Domains: Life Science, Engineering Design

Unit type: Engineering design

Student role: Biomimicry engineers

Phenomenon: Over the last 10 years, a population of grove snails has changed: The number of grove snails with yellow shells has decreased, while the number of snails with banded shells has increased.  

An orange orangutan climbs a vine in a dense green jungle with tall trees and the sun visible in the background.
Weather and Climate

Domains: Earth and Space Science, Engineering Design

Unit type: Argumentation

Student role: Meteorologists

Phenomenon: Three different islands, each a contender for becoming an Orangutan reserve, experience different weather patterns.  

City buildings at night with lit windows, a full moon, stars in the sky, and a person standing by a window on the left.
Energy Conversions

Domains: Physical Science, Earth and Space Science, Engineering Design

Unit type: Engineering design

Student role: System engineers

Phenomenon: The fictional town of Ergstown experiences frequent blackouts.  

A streetlight shines at night; arrows show its light reflecting off a cricket to a gecko, illustrating how the gecko sees its prey.
Vision and Light

Domain: Physical Science, Life Science, Engineering Design

Unit type: Investigation

Student role: Conservation biologists

Phenomenon: The population of Tokay geckos in a rain forest in the Philippines has decreased since the installation of new highway lights.  

Illustration of rocky cliffs with reddish and brown tones beside a flowing blue river under a clear sky.
Earth’s Features

Domain: Earth and Space Science

Unit type: Argumentation

Student role: Geologists

Phenomenon: A mysterious fossil is discovered in a canyon within the fictional Desert Rocks National Park.  

Two dolphins are facing each other underwater against a blue background.
Waves, Energy, and Information

Domains: Physical Science, Life Science, Earth and Space Science, Engineering Design

Unit type: Modeling

Student role: Marine scientists

Phenomenon: Mother dolphins in the fictional Blue Bay National Park seem to be communicating with their calves when they are separated at a distance underwater.

Earth orbits the Sun in space, shown by a dashed blue line; an arrow on Earth indicates its rotation direction.
Patterns of Earth and Sky

Domains: Physical Science, Earth and Space Science

Unit type: Investigation

Student role: Astronomers

Phenomenon: An ancient artifact depicts what we see in the sky at different times — the sun during the daytime and different stars during the nighttime — but it is missing a piece.  

Red blood cells scattered over a swirling red and white background, creating an abstract representation of blood flow.
Modeling Matter

Domain: Physical Science

Unit type: Modeling

Student role: Food scientists

Phenomenon: Chromatography is a process for separating mixtures. Some solids dissolve in a salad dressing while others do not. Oil and vinegar appear to separate when mixed in a salad dressing.  

Illustration of wind carrying particles from the ocean, over a coastal town, and up a steep, green mountain slope under a clear blue sky.
The Earth System

Domains: Earth and Space Science, Physical Science, Engineering Design

Unit type: Engineering Design

Student role: Water resource engineers

Phenomenon: East Ferris, a city on one side of the fictional Ferris Island, is experiencing a water shortage, while West Ferris is not.  

Illustration of a cheetah standing on the ground and a sloth hanging from a tree surrounded by various plants and mushrooms in a jungle scene.
Ecosystem Restoration

Domains:Physical Science, Life Science, Earth and Space Science, Engineering Design

Unit type: Argumentation

Student role: Ecologists

Phenomenon: The jaguars, sloths, and cecropia trees in a reforested section of a Costa Rican rain forest are not growing and thriving.  

A closer look at grades K–2

Amplify Science is based on the latest research on teaching and learning and helps teachers deliver age-appropriate, high-quality, literacy-rich instruction that enables students to take on the roles of scientists and engineers to solve real-world phenomena every day.

In the K–2 classroom, this looks like students:

  • Collecting evidence from a variety of sources.
  • Making sense of evidence in a variety of ways.
  • Formulating convincing scientific arguments.
A collage shows science activities: toothpick structure, two kids reading, two kids pouring liquid into cups, and a light experiment with shadows.
A four-step process diagram: Spark, Explore, Explain and elaborate, and Evaluate, connected by arrows, with a summary below about engaging through cohesive storylines.

Program structure

Our cyclical lesson design ensures students receive multiple exposures to concepts through a variety of modalities. As they progress through the lessons within a unit, their understanding gradually builds and deepens, ultimately leading to their ability to develop and refine increasingly complex explanations of the unit’s phenomenon.

It’s this proven program structure and lesson design that enables Amplify Science to teach less, but achieve more. Rather than asking teachers to wade through unnecessary content, we designed our K–2 program to address 100% of the NGSS in just 66 days.

Scope and sequence

Every year of our K–2 consists of 3 units and 66 total lessons. Said another way, each unit contains 20 lessons plus two dedicated assessment days (a Pre-Unit Assessment and End-of-Unit Assessment).

Lessons at grades K–1 are written for a minimum of 45-minutes, and grade 2 lessons are written for a minimum of 60-minutes—though teachers can expand or contract the timing to meet their needs.

Grid of nine educational subject cards for kindergarten, grade 1, and grade 2, each listing curriculum topics like "needs of plants and animals" and "engineering design" with lesson durations.

Unit types

While every unit delivers three-dimensional learning experiences and engages students in gathering evidence from a rich collection of sources, each unit also emphasizes a particular science and engineering practice.

In each grade K–2:

  • One unit emphasizes the practice of investigation.
  • One unit emphasizes the practice of modeling.
  • One unit emphasizes the practice of engineering design.
Investigation Units

Investigation units focus on the process of strategically developing investigations and gathering data to answer questions. Students are first asked to consider questions about what happens in the natural world and why, and are then involved in designing and conducting investigations that produce data to help answer those questions.

Modeling Units

Modeling units provide extra support to students engaging in the practice of modeling. Students use physical models, investigate with computer models, and create their own diagrams to help them visualize what might be happening on the nanoscale.

Engineering Design Units

Engineering design units provide opportunities for students to solve complex problems by applying science principles to the design of functional solutions, and iteratively testing those solutions to determine how well they meet preset criteria.

Units at a glance

Needs of Plants and Animals

Domains: Life Science, Earth and Space Science, Engineering Design

Unit type: Investigation

Student role: Scientists

Phenomenon: There are no monarch caterpillars in the Mariposa Grove community garden since vegetables were planted. 

Pushes and Pulls

Domains: Physical Science, Engineering Design

Unit type: Engineering design

Student role: Pinball engineers

Phenomenon: Pinball machines allow people to control the direction and strength of forces on a ball.  

Sunlight and Weather

Domains: Earth and Space Science, Life Science, Engineering Design

Unit type: Modeling

Student role: Weather scientists

Phenomenon: Students at Carver Elementary School are too cold during morning recess, while students at Woodland Elementary School are too hot during afternoon recess.  

Animal and Plant Defenses

Domain: Life Science

Unit type: Modeling

Student role: Marine scientists

Phenomenon: Spruce the Sea Turtle lives in an aquarium and will soon be released back into the ocean, where she will survive despite ocean predators.  

Light and Sound

Domains: Physical Science, Engineering Design

Unit type: Engineering design

Student role: Light and sound engineers

Phenomenon: A puppet show company uses light and sound to depict realistic scenes in puppet shows.  

Spinning Earth

Domain: Earth and Space Science

Unit type: Investigation

Student role: Sky scientists

Phenomenon: The sky looks different to Sai and his grandma when they talk on the phone.  

Plant and Animal Relationships

Domains: Life Science, Engineering Design

Unit type: Investigation

Student role: Plant scientists

Phenomenon: No new chalta trees are growing in the fictional Bengal Tiger Reserve in India.  

Properties of Materials

Domains: Physical Science, Engineering Design

Unit type: Engineering design

Student role: Glue engineers

Phenomenon: Different glue recipes result in glues that have different properties.  

Changing Landforms

Domain: Earth and Space Science

Unit type: Modeling

Student role: Geologists

Phenomenon: The cliff that Oceanside Recreation Center is situated on appears to be receding over time.  

Why fluency matters in K–5 math education

An illustration showing a caterpillar, a hand matching shapes and colors on tiles, and another hand holding numbered cards—perfect for read-aloud math activities or exploring math in picture books with children.

If you’re fluent in Farsi, let’s say, you don’t search for every word or stop to translate every sentence in your head. You understand, process, and respond automatically, in real time.

Math fluency works the same way. This kind of fluency is something you can use naturally to understand what’s presented and respond to it meaningfully.

In K–5 math, fluency allows students to move beyond getting through the problem toward real mathematical thinking. Without it, even confident students can get stuck. With it, students gain access to deeper understanding, flexibility, and confidence.

What is math fluency?

Fluency in math is sometimes misunderstood as speed or memorization—but research and classroom experience tell a fuller story.

The National Council of Teachers of Mathematics defines procedural fluency as the ability to: “…apply procedures efficiently, flexibly, and accurately; to transfer procedures to different problems and contexts; to build or modify procedures from other procedures; and to recognize when one strategy or procedure is more appropriate to apply than another.”

In other words, the skills often referred to as computational fluency and math fact fluency tell only part of the story. Full mathematical fluency means knowing how and why strategies work, and being able to choose among them.

Memorization does have a role in math learning, but it alone does not lead to fluency. A student who has memorized facts but doesn’t understand relationships between numbers may still struggle when problems change slightly or require reasoning.

By contrast, a fluent student can adapt. They can explain their thinking, check whether an answer makes sense, and shift strategies when needed.

This is why fluency acts as a bridge between conceptual understanding and procedural application. It connects what students know to what they can do, and helps them do it with confidence.

Why procedural fluency matters in K–5 math

In the elementary grades, students are building the foundational math skills they’ll rely on for years to come. When procedural fluency is weak, students can feel overwhelmed by basic calculations, leaving little mental energy for problem-solving or new concepts.

Students without strong procedural fluency often feel stuck. For them, math can start to feel like an endless series of obstacles rather than a meaningful, engaging exploration—and that experience does not set anyone up to feel like a math person.

Fluency is what frees students up to focus on the heart of a problem. When they’re not bogged down by calculations, they’re able to reason, explore patterns, and tackle more complex tasks. Fluency opens doors—to higher-level math, to confidence, and to a more positive math identity.

In their paper, “Eight Unproductive Practices in Developing Fact Fluency,” Gina King and Jennifer Bay-Williams write: “Being fluent contributes to a productive disposition about mathematics, opens doors to a range of mathematics topics, and arms students with a skillset applicable to whatever they wish to pursue.”

What teaching math fluency looks like in the classroom

Effective K–5 math instruction treats fluency as something that develops over time, through meaningful practice, discussion, and reflection. Students need opportunities to explore number relationships, explain their thinking, and revisit strategies in different contexts.

In classrooms where math fluency is developing, instruction consistently supports flexible thinking, reflection, and revisiting ideas over time. You might see and hear the following:

  • Revisiting strategies across problems. Students are encouraged to solve the same problem in more than one way and to compare approaches. Classroom discussions focus on how strategies work and when one might be more efficient than another, helping students build strategic thinking and confidence.
  • Frequent, well-spaced opportunities for practice. Key facts and strategies reappear over time rather than being practiced once and set aside. This spacing helps students retain learning and apply it more accurately and efficiently when they encounter familiar ideas in new contexts.
  • Regular routines that emphasize reasoning. Short, consistent routines invite students to mentally compute, explain their thinking, and listen to others’ ideas. The focus is on understanding number relationships and reasoning through solutions rather than relying on memorized steps.
  • Thoughtful use of visual representations. Tools such as number lines, arrays, and other models help students see how numbers and operations relate. These representations support flexible thinking and make procedures more meaningful and accessible.

Across these experiences, fluency is something you can hear as well as see. Students explain their reasoning, reference strategies they’ve used before, and check whether their answers make sense, building accuracy, efficiency, and flexibility over time.

Math fluency helps students open their minds to the richness of math, and to their own power as math learners.

Madison County Schools: Early literacy success through the Science of Reading

A group of thirteen women pose together on outdoor steps, with one woman handing a teacher award to another. All are dressed in colorful, business-casual attire, celebrating achievements in the Science of Reading curriculum.

Madison County Schools is a diverse district serving nearly 13,000 students across 23 schools in central Mississippi. Over the past few years, the district has shifted its approach from balanced literacy to structured literacy. The transition wasn’t quick or simple—but it worked.

In 2016, the district’s elementary ELA proficiency was at 47.1%. By the spring of 2024, it had reached almost 70%, with all elementary schools receiving A ratings for the first time.

“Today, structured literacy is at the core of our instruction, and the results speak for themselves,” said Kacey Matthews, dyslexia coordinator for the district. “This historic achievement affirms that when we commit to evidence-based instruction, students thrive.”

That commitment, and the resulting achievement, has earned Madison County Schools our 2025 Science of Reading Star Awards District Captain award. These teacher awards honor educators, schools, and districts who’ve transformed their classrooms and empowered their students with the Science of Reading.

The constants: Building literacy and a love of reading

Madison County Schools spans four zones, from suburban to rural. Roughly one-third of its schools are Title I, and its teachers support more than 1,200 multilingual/English learners representing 36 languages. Nearly 40% of students in the district receive free or reduced-price lunch.

Madison County originally followed a balanced literacy model, but over time, educators began to see gaps—particularly among students experiencing reading difficulty and students with dyslexia.

“Our diverse student body underscores our belief that literacy is the key to unlocking potential,” Matthews said. Teachers came to understand that their shared desire to support a love of reading in their students and their dedication to paramount literacy goals had to be anchored in a curriculum aligned to the Science of Reading: explicit, systematic instruction in phonemic awareness, decoding, and language comprehension.

A clear glass award etched with "Amplify 2025 Science of Reading Star Awards, The District Captain, Madison County Schools" stands against a blue background, celebrating excellence in early literacy and dedication to the Science of Reading curriculum.

Shifting practices and mindsets

According to Matthews, transitioning from balanced to structured literacy required more than a change in instructional methods. “The biggest challenge,” she said, “was shifting instructional mindsets.”

In classrooms, educators needed to trade in the familiar tools of running records and predictable texts for a new framework built on foundational skills data. “Initially, some educators were hesitant, but ongoing professional learning, hands-on support, and student success stories built trust and proved the effectiveness of this approach,” Matthews said.

District leaders, principals, and teachers also worked together to create a shared vision for literacy grounded in evidence and collaboration. Madison County invested in professional learning through LETRS, Phonics First, and the AIM Institute, ensuring every educator had the tools to teach early literacy skills effectively.

Each school added trained literacy specialists who provided classroom coaching and MTSS interventions, and the district instituted dyslexia training for all 1,500 staff members every three years, ensuring consistent understanding of structured literacy principles across every grade.

Principals received targeted professional development to lead with clarity, and the district introduced new, research-based curricula—including Amplify Core Knowledge Language Arts (CKLA)—to align instruction from kindergarten through fifth grade. To unify these efforts, Madison County also rewrote its Literacy Expectations guide, a districtwide roadmap detailing the five essential components of literacy, classroom strategies, and links to foundational research.

All told, Madison County teachers and leaders have reimagined classroom practice, embracing a structured literacy framework grounded in the Science of Reading.

From anxiety to confidence

In addition to the district’s impressive leap in literacy proficiency of more than 20 percentage points, they also saw transformation on the Mississippi Third-Grade Reading Assessment, a high-stakes gate test of readiness for fourth grade. Equipped with strong foundational skills, Madison County’s third graders are now thriving—with a 99.7% promotion rate in 2024.

“Instead of facing [the test] with fear, our students now enter with confidence,” Matthews said. In other words, data only tells one part of the story. “Students who previously dreaded assessments now approach them with readiness,” she said. “Students who once struggled with decoding now read with confidence and fluency.”

Sustaining a culture of literacy and growth

Madison County’s progress rests on persistence as much as innovation. The district’s educators continue to meet regularly for data discussions, lesson study, and reflection—sustaining the same mindset shift that began this journey. Professional learning remains a constant for them, demonstrating their dedication to teaching excellence and their belief that educational approaches are never static.

According to Matthews, Amplify has been a trusted partner in that work. Teachers can target support with precision by using mCLASS® for progress monitoring and the mCLASS Dyslexia Screener for early identification. Several schools also use Amplify CKLA to build decoding and comprehension simultaneously, engaging students with content-rich texts that deepen knowledge and vocabulary.

“When we commit to the Science of Reading, we are not just building better readers,” Matthews said, “we’re building a brighter future.”

More to explore

Using the Science of Writing to support literacy instruction

There are plenty of creative and effective ways to inspire and teach students to write. Many teachers tap into their own experiences, insights, and talents to help students learn how to communicate with the written word.

And there’s also science behind how kids become effective written communicators. Just as the Science of Reading has transformed literacy development and instruction, the Science of Writing offers research-backed strategies to help students learn to write with clarity and confidence.

Here’s how the Science of Writing can help you support student learning.

The Science of Reading and Writing, defined

The Science of Reading represents the large and ever-growing body of research into how students best learn to read—and, therefore, how best to teach them. (You might call it the Science of teaching reading.) It emphasizes the principle that kids don’t learn to read just by being immersed in words on pages around them. Rather, instruction must be structured, explicit, and systematic.

Likewise, the Science of Writing is a research-based approach to effective instruction that emphasizes structured, explicit, and systematic methods to help students develop strong and confident writing skills. While the Science of Reading focuses on how students decode and comprehend text, the Science of Writing addresses how students construct and communicate meaning through written language.

Reading and writing are deeply connected. Strong reading skills support strong writing skills, and vice versa. A simple example: When students are expressly taught to identify the characteristics and purpose of a given text structure (say, the presentation of a problem and its solution) while reading, they are better able to replicate that structure in their writing; they can continue to improve their writing by analyzing additional and more advanced texts with that structure.

A Science of Reading curriculum and Science of Writing curriculum—that is, a comprehensive literacy curriculum—must integrate both, ensuring that students are not only able to understand texts but also to articulate their own thoughts clearly and effectively. By aligning high-quality instructional materials with these proven frameworks, educators can significantly enhance student learning outcomes.

How to bring the Science of Writing into your core curriculum

Effective writing instruction requires a comprehensive approach that addresses transcription skills and composition skills, both of which require explicit teaching and practice. If you’re looking to improve writing instruction in your classroom or district, there are five critical shifts you need to consider. Below, we’ll give you a peek at two of them. Note that we’re not asking you to add more to your plate every day; each of these approaches will actually allow you to sunset some others.

1.  Develop both transcription and composition skills, not one or the other.

Skilled writing is a product of transcription skills (such as handwriting and spelling) and composition skills (such as developing and expressing ideas). Both are best taught through an integrated reading and writing approach that recognizes reading and writing as reciprocal processes.

By working on the development of both skills, you’ll be able to shift away from:

  • Focusing exclusively on handwriting and spelling at the expense of composition practice.
  • Free writing time without explicit guidance or goals.

2.  Teach transcription skills in tandem with phonics, not in isolation.

As you know, reading and writing are reciprocal and strengthened when taught together. Some specifics:

  • Transcription skills—such as handwriting and spelling—are best taught and practiced in alignment with a phonics scope and sequence.
  • Research shows that building automaticity in handwriting supports the neural pathways associated with reading.

By working on transcription and phonics in tandem, you’ll be able to shift away from:

  • “ABC” handwriting instruction, focusing instead on instruction aligned to sound-spellings students are learning.
  • Asking students to spell words without explicit instruction in the sound-spellings.

Making this shift means moving away from phonics instruction that occurs on an “as-needed” basis and ensuring that all students receive the foundational skills necessary for fluent reading and writing.

These are just two of the essential shifts you can make to transform your literacy, and specifically writing, instruction. By focusing on evidence-based strategies, educators can make sure that students receive the support they need to become strong, independent writers.

More to explore

Want to learn all five key shifts and how to implement them in your classroom? Download our full guide to discover how the Science of Writing can help improve student learning and long-term literacy success.

Also:

Families and caregivers, welcome to Amplify Desmos Math California K–5!

Welcome to the Amplify Desmos Math California K–5 Caregiver Hub. We hope your student enjoys exploring math, working with friends to solve problems, and learning new and interesting concepts. And we hope you enjoy the math journey with them! Below are some suggestions and resources for how you can support their learning at home.

Learn more about Amplify Desmos Math California.

Para la versión en español, haga clic aquí.

Three children are engaging in a math activity with a grid and orange markers. One child holds a "9-3" card. The background includes beach elements and abstract math symbols.

Caregiver Unit Resources

For every unit of the program, we’ve created a Caregiver Resource that provides a summary of key concepts, plus a problem from the lesson practice set you can work through with your student. You’ll find a Caregiver Resource for each unit, in both English and Spanish.

Unit 1: Math in Our World

Unit 2: Numbers 1–10

Unit 3: Flat Shapes All Around Us

Unit 4: Understanding Addition and Subtraction

Unit 5: Make and Break Apart Numbers Within 10

Unit 6: Numbers 0–20

Unit 7: Solid Shapes All Around Us

Unit 1: Adding, Subtracting, and Working With Data

Unit 2: Addition and Subtraction Story Problems

Unit 3: Adding and Subtracting Within 20

Unit 4: Numbers to 99

Unit 5: Adding Within 100

Unit 6: Measuring Lengths of Up to 120 Length Units

Unit 7: Geometry and Time

Unit 1: Working With Data and Solving Comparison Problems

Unit 2: Adding and Subtracting Within 100

Unit 3: Measuring Length

Unit 4: Addition and Subtraction on the Number Line

Unit 5: Numbers to 1,000

Unit 6: Geometry and Time

Unit 7: Adding and Subtracting Within 1,000

Unit 8: Equal Groups

Unit 1: Introducing Multiplication

Unit 2: Area and Multiplication

Unit 3: Wrapping Up Addition and Subtraction Within 1,000

Unit 4: Relating Multiplication to Division

Unit 5: Fractions as Numbers

Unit 6: Measuring Length, Time, Liquid Volume, and Weight

Unit 7: Two-Dimensional Shapes and Perimeter

Unit 1: Factors and Multiples

Unit 2: Fraction Equivalence and Comparison

Unit 3: Extending Operations to Fractions

Unit 4: From Hundredths to Hundred Thousands

Unit 5: Multiplicative Comparison and Measurement

Unit 6: Multiplying and Dividing Multi-Digit Numbers

Unit 7: Angles and Properties of Shapes

Unit 1: Volume

Unit 2: Fractions as Quotients and Fraction Multiplication

Unit 3: Multiplying and Dividing Fractions

Unit 4: Multiplication and Division With Multi-Digit Whole Numbers

Unit 5: Place Value Patterns and Decimal Operations

Unit 6: More Decimal and Fraction Operations

Unit 7: Shapes on the Coordinate Plane

Unit refresh videos

Unit 1

  • Sub-Unit 2 – Answering the Question “Are There Enough?”
  • Sub-Unit 3 – Counting and Cardinality

Unit 2

  • Sub-Unit 1 – Comparing 2 Groups Using the Terms More, Fewer, and Same
  • Sub-Unit 2 – Counting Objects in Different Orders
  • Sub-Unit 3 – Making Groups to Represent Numerals
  • Sub-Unit 4 – Comparing Written Numbers

Unit 3

  • Sub-Unit 1 – Identifying Circles and Triangles in Different Sizes and Orientations
  • Sub-Unit 2 – Using Positional Words to Describe the Location of Shapes

Unit 4

  • Sub-Unit 1 – Adding and Subtracting Within 10
  • Sub-Unit 2 – Representing Addition and Subtraction Story Problems
  • Sub-Unit 3 – Finding the Values of Expressions

Unit 1

  • Sub-Unit 1 – Organizing Data to Count How Many in Each Category
  • Sub-Unit 2 – Counting on to Add and Counting Back to Subtract
  • Sub-Unit 3 – Representing 2 Categories of Data With Addition Equations

Unit 2

  • Sub-Unit 1 – Representing and Solving Add To, Change Unknown Story Problems
  • Sub-Unit 2 – Using Addition or Subtraction to Find an Unknown Part of a Total Amount
  • Sub-Unit 3 – Solving Compare, Difference Unknown Problems
  • Sub-Unit 4 – Making Sense of Story Problems With Different Questions

Unit 3

  • Sub-Unit 1 – Finding a Difference Using the Relationship Between Addition and Subtraction
  • Sub-Unit 2 – Using the Structure of Teen Numbers to Find Missing Addends
  • Sub-Unit 3 – Breaking Apart Addends to Make 10 When Adding
  • Sub-Unit 4 – Subtracting From Teen Numbers in Parts to Get to 10

Unit 4

  • Sub-Unit 1 – Adding a Ten To and Subtracting a Ten From Multiples of 10
  • Sub-Unit 2 – Representing and Writing Two-Digit Numbers
  • Sub-Unit 3 – Comparing Two-Digit Numbers
  • Sub-Unit 4 – Representing the Same Two-Digit Number With Different Amounts of Tens and Ones

Unit 1

  • Sub-Unit 1 – Choosing Strategies to Add Within 20
  • Sub-Unit 2 – Representing Data in a Picture Graph and Bar Graph
  • Sub-Unit 3 – Finding the Difference Between 2 Categories Shown on a Bar Graph

Unit 2

  • Sub-Unit 1 – Strategies to Solve Story Problems Involving Money
  • Sub-Unit 2 – Decomposing a Ten When Subtracting by Place
  • Sub-Unit 3 – Making Sense of Story Problems About Comparing That Use the Word More
  • Sub-Unit 4 – Making Sense of One- and Two-Step Story Problems

Unit 3

  • Sub-Unit 1 – Measuring the Length of an Object in Centimeters Using a Ruler
  • Sub-Unit 2 – Measuring Objects in Inches and Feet
  • Sub-Unit 3 – Representing Measurement Data on a Line Plot

Unit 4

  • Sub-Unit 1 – Locating Numbers on Number Lines
  • Sub-Unit 2 – Representing Addition and Subtraction Strategies on a Number Line

Unit 1

  • Sub-Unit 1 – Representing Equal-Groups Situations With Equal-Groups Drawings
  • Sub-Unit 2 – Representing Arrays With Multiplication Equations
  • Sub-Unit 3 – Representing Data Using Scaled Bar Graphs

Unit 2

  • Sub-Unit 1 – Determining the Area of a Rectangle Using Counting and Skip Counting
  • Sub-Unit 2 – Determining the Area of a Rectangle Using Multiplication
  • Sub-Unit 3 – Decomposing to Determine the Area of Rectilinear Figures

Unit 3

  • Sub-Unit 1 – Using the Expanded Form and Partial Sums Algorithms to Add
  • Sub-Unit 2 – Using the Expanded Form Algorithm to Subtract
  • Sub-Unit 3 – Rounding Numbers to the Nearest Hundred and Ten Using Number Lines
  • Sub-Unit 4 – Representing and Solving Two-Step Story Problems Involving Multiplication

Unit 4

  • Sub-Unit 1 – Representing Division Situations With Equal-Groups Drawings
  • Sub-Unit 2 – Representing an Equal-Groups Problem With a Division and Multiplication Equation
  • Sub-Unit 3 – Using the Distributive Property of Multiplication to Multiply a One-Digit Number by a Teen Number
  • Sub-Unit 4 – Decomposing Dividends to Divide

Unit 1

  • Sub-Unit 1 – Using Factor Pairs to Determine All the Possible Side Lengths of a Rectangle With a Given Area
  • Sub-Unit 2 – Finding Multiples and Common Multiples

Unit 2

  • Sub-Unit 1 – Locating Fractions with Different Denominators On the Same Number Line
  • Sub-Unit 2 – Using Multiples or Factors to Determine Equivalent Fractions
  • Sub-Unit 3 – Comparing Fractions Using Equivalent Fractions With Common Denominators

Unit 3

  • Sub-Unit 1 – Adding and Subtracting Fractions with the Same Denominator
  • Sub-Unit 2 – Multiplying Whole Numbers and Fractions
  • Sub-Unit 3 – Adding Fractions with Denominators of 10 and 100

Unit 4

  • Sub-Unit 1 – Writing Fractions With Denominators of 10 and 100 as Decimals
  • Sub-Unit 2 – Relationships Between Place Values in Multi-Digit Whole Numbers
  • Sub-Unit 3 – Comparing Multi-Digit Numbers
  • Sub-Unit 4 – Using the Standard Algorithm to Subtract When Decomposing is Required

Unit 1

  • Sub-Unit 1 – Using the Layered Structure of a Rectangular Prism to Determine the Volume
  • Sub-Unit 2 – Determining the Volume of a Rectangular Prism
  • Sub-Unit 3 – Determining the Volume of Figures Composed of Rectangular Prisms

Unit 2

  • Sub-Unit 1 – Representing Equal-Sharing Story Problems with Fractional Quotients
  • Sub-Unit 2 – Representing Fractions with Equivalent Multiplication and Division Expressions
  • Sub-Unit 3 – Determining the Area of a Rectangle With a Fractional Side Length

Unit 3

  • Sub-Unit 1 – Representing Multiplication of 2 Unit Fractions with Diagrams
  • Sub-Unit 2 – Dividing Whole Numbers by Unit Fractions

Unit 4

  • Sub-Unit 1 – Multiplying Multi-digit Whole Numbers Using the Partial Products and Standard Algorithms
  • Sub-Unit 2 – Dividing Multi-Digit Whole Numbers Using Partial Quotients
  • Sub-Unit 3 – Representing Multi-Step Story Problems with Equations

Access Amplify Desmos Math California at home.

In addition to a print Student Edition workbook, your student will have digital access to all learning, practice, and assessment materials through the Amplify platform. The digital curriculum can be accessed in school and at home by following these instructions:

  • Click the Amplify Desmos Math California button.
  • Select Log in with Amplify.
  • Enter your student’s username and password provided by your student’s teacher.
  • Select the desired grade level.

Once logged in, caregivers can view student work by opening previous assignments.

Learn how to navigate the student home page.

Materials overview

Amplify Desmos Math California address blended learning with supporting print materials and a unique digital experience. All K–5 lessons are available in a write-in Student Edition book. Many of the lessons include hands-on activities with manipulatives, tools that help students understand abstract concepts by making them tangible. Your student will also work with digital devices for an age-appropriate number of lessons.

When students use devices, teachers can monitor their work in real time, making sure they get the exact support that they need at every part of the lesson, in and outside of class.

Una interfaz digital que muestra los nombres anónimos de los estudiantes y su estado de participación en diversas actividades. La interfaz incluye opciones para realizar resúmenes, capturas de pantalla y vistas individuales de los estudiantes.

Components of a lesson

Students in an Amplify Desmos Math California classroom can be seen (and heard!) asking questions, debating answers, justifying their thinking, grappling with problems, and working together and independently.

A typical Amplify Desmos Math California lesson includes:

  • Warm-up: A short, attention-getting problem to pique students’ interest in the lesson.
  • Activities: One to two mini-activities that challenge students’ problem-solving skills.
  • Synthesis: Discussion to review and bring together the important concepts from the lesson.
  • Show What You Know and Reflection: Questions for students to show what they know from the lesson. (Note: The Show What You Know lesson assessment is optional for kindergarten and grade 1.)
  • Centers: Student-led activity stations that reinforce the math learned during lesson activities through interactive and often game-like formats. In kindergarten and grade 1, time for Centers is built into the last 15 minutes of every lesson.

To support, strengthen, and stretch students’ learning after the lesson, Amplify Desmos Math California offers options for:

  • Differentiation: Mini-Lessons, Centers, Extensions, Boost Personalized Learning, and Fluency Practice.
  • Practice: Additional problems your student’s teacher may assign for classwork or homework.

Support math learning at home.

You can support your student’s math learning outside of school in many ways:

Your student’s teacher may assign practice problems at the end of each lesson for classwork or homework. If your student has already completed the practice problems for the lesson, ask them to walk you through how they solved each problem, or talk about any parts that were challenging for them. Ask your student follow-up questions to encourage the use of math language as they explain their thinking, such as, “How do you know?,” “How can you show your thinking?,” or “How would you describe that?” If students are stuck, ask support questions, such as, “What information do you know here?” or “How could you represent this problem?”

Your student’s teacher may introduce a Center game with students in the lesson or beyond the lesson. These games are aligned to the math of the unit and can be played with students outside of class. Your student’s teacher may introduce a Center game to students during or after completing a lesson, or you may need to teach the game before you play by using easy-to-follow instructions. Sign up for a free account to explore Centers and additional K–5 content in our Featured Collections.

Each unit in Amplify Desmos Math begins with a read-aloud story to engage students and provide context for the math of the unit. Elements and characters from the Unit Story then appear in lessons throughout the unit.

Kindergarten

Grade 1

Grade 2

Grade 3

Grade 4

Grade 5

Relate math to daily activities at home, whether grocery shopping, preparing a meal, or planning for a trip to the store. Your student can help you figure out how many more apples there are than oranges in the grocery cart, show how to split a sandwich into fourths, or figure out how much change you’ll receive in exchange for a $10 bill. Encourage your student to point out ways that you use math in your daily tasks.

Remind your student that getting stuck is part of the process and a necessary—beneficial, even!—part of learning. Many students (and adults) fear making mistakes. But research shows that making mistakes helps our brains grow. When your student gets stuck on a problem, encourage them to keep trying different strategies, even if they’re not sure if they are right.

Get more information.

Have a question about Amplify Desmos Math California? Visit our help library to search for articles with answers to your program questions. For additional support, please contact your student’s teacher.

Let’s dig into your Poetry Experience Kit!

If you’re here, you either have your Amplify CKLA Experience Kit in hand or it’s on its way. Welcome! This site pairs with your boxed kit to help you understand the unit you received; see how it fits into the full K–5 program; and access exclusive tools, pacing support, and bonus resources you won’t find in the box.

Getting started

Here you’ll find a quick tour of your Experience Kit and see how it connects to the full Amplify CKLA program.

About your boxed kit

Your kit includes print materials for you and your students to experience a full poetry unit from Amplify CKLA.

About the full program

Amplify CKLA is a comprehensive K–5 literacy program grounded in the Science of Reading, with three distinct strands:

  • K–2 Knowledge Strand: Builds background knowledge and vocabulary through daily read-alouds, guided discussion, and writing in context 
  • K–2 Skills Strand: Develops decoding, fluency, and transcription skills through explicit, systematic instruction with hands-on, multimodal practice
  • 3–5 Integrated Strand: Strengthens reading, writing, speaking, and listening as knowledge and skills come together with complex texts, close reading, and a focus on morphology

For a deeper dive, explore the Amplify CKLA Program Guide.

Grade 3

About this unit

Students revisit nursery rhymes, reflect on ancient haiku, and explore modern free verse to craft original poems about nature, animals, and relationships.

What’s in your kit

Here’s what you’ll find inside—take a quick peek to make sure everything’s there!

A spiral-bound teacher guide titled "Rhythm and Rhyme: Poetry" features an illustrated pond with butterflies, lily pads, and flowers on the cover.

1 Teacher Guide

A book cover titled "Poet's Journal" features a pond with lily pads, flowers, and butterflies, with the Amplify CKLA logo in the top left corner and a Unit 3 label.

24 Poet’s Journals

Book cover for "Rhythm and Rhyme: Poetry" featuring a pond with lily pads, butterflies, fish, and reflections of trees, published by Amplify CKLA.

Image Cards

Additional resources

As you prepare to teach this unit, explore the:

  • Curriculum map: Includes a unit summary, writing focus, overall learning outcomes, and standards taught and assessed.
  • Caregiver Letter: Shares an overview of the unit, plus conversation starters to keep the learning going at home.
  • Pacing options: The full unit takes 18 days—if time is tight, you can also try our 5- and 10-day plans.

Grade 4

About this unit

Tackle poems with vivid voices and layered language, uncovering how poets like Dahl and Dickinson shape meaning through structure, sound, and style.

What’s in your kit

Here’s what you’ll find inside—take a quick peek to make sure everything’s there!

A teacher guide book titled "Unit 3 Meaning and Metaphor: Poetry" is displayed with colorful illustrations of animals and trees on bookshelves.

1 Teacher Guide

Book cover titled "Poet’s Journal" for Grade 4, featuring illustrated bookshelves with trees, animals, and a basketball hoop among colorful books and children reading.

24 Poet’s Journals

Additional resources

As you prepare to teach this unit, explore the:

  • Curriculum map: Includes a unit summary, writing focus, overall learning outcomes, and standards taught and assessed.
  • Caregiver Letter: Shares an overview of the unit, plus conversation starters to keep the learning going at home.
  • Pacing options: The full unit takes 18 days—if time is tight, you can also try our 5- and 10-day plans.

Grade 5

About this unit

Push poetic boundaries and spark students’ imagination by writing bold, personal poems inspired by trailblazers like Walt Whitman and William Carlos Williams.

What’s in your kit

Here’s what you’ll find inside—take a quick peek to make sure everything’s there!

The cover of a teacher's guide titled "Visions in Verse: Poetry" features a pond, trees, and whimsical illustrated elements like fruits, stars, and a snake.

1 Teacher Guide

Book cover for "Poet’s Journal, Unit 3," features a pond, trees, birds, and animals with bright eggs and a worm in the foreground. Amplify CKLA Grade 5 is indicated at the top.

24 Poet’s Journals

Additional resources

As you prepare to teach this unit, explore the:

  • Curriculum map: Includes a unit summary, writing focus, overall learning outcomes, and standards taught and assessed.
  • Caregiver Letter: Shares an overview of the unit, plus conversation starters to keep the learning going at home.
  • Pacing options: The full unit takes 18 days—if time is tight, you can also try our 5- and 10-day plans.

Digital platform

Your Experience Kit pairs with an Amplify CKLA demo account in Amplify Classroom, our digital platform. Explore your unit with digital materials and interactive tools including ready-to-use, customizable lesson screens and digital assessments. 

Haven’t received your login info? No problem—check with your admin team or complete our support site form

Pacing options

Short on time? We’ve got you covered. We recommend teaching the full 16-day unit as outlined in the Teacher Guide to fully experience the power of Amplify CKLA instruction. That said, we know your time is limited—and valuable! 

That’s why we’ve created pacing options to help you explore the unit on your schedule: 

5-day experience10-day experience
(slower pace)
10-day experience
(extended)
Teach Lessons 1–5 (1 lesson per day) for a focused snapshot of the unit.Teach Lessons 1–5 (spreading each lesson over 2 days)—ideal for shorter blocks or a more relaxed pace.Teach Lessons 1–10 (1 lesson per day) for a deeper dive into the unit.

💡 Tip: Many educators new to Amplify CKLA prefer the 10-day, slower-paced option. It offers room to slow down without losing the flow of instruction for you and your students.

Pacing like a pro

  • Start with the Unit Introduction in the Teacher Guide—it provides key background information and teaching tips.
  • Pausing Point and assessment days aren’t included here, but feel free to use them if time allows.
  • Teaching in shorter blocks? No problem. Just continue where you left off the next day! (Skipping ahead isn’t recommended, as each lesson builds on the last.)

Let’s dig into your K–2 Experience Kit!

If you’re here, you either have your Amplify CKLA Experience Kit in hand or it’s on its way. Welcome! This site pairs with your boxed kit to help you understand the unit you received; see how it fits into the full K–5 program; and access exclusive tools, pacing support, and bonus resources you won’t find in the box.

Getting started

Here you’ll find a quick tour of your Experience Kit and see how it connects to the full Amplify CKLA program.

About your boxed kit

Your kit includes all of the print materials needed for you and your students to experience a complete Knowledge Strand unit of rich, content-based lessons that build vocabulary, comprehension, and curiosity. 

About the full program

Amplify CKLA is a comprehensive K–5 literacy program grounded in the Science of Reading, with three distinct strands:

  • K–2 Knowledge Strand: Builds background knowledge and vocabulary through daily read-alouds, guided discussion, and writing in context. (The unit in your kit comes from this strand!)
  • K–2 Skills Strand: Develops decoding, fluency, and transcription skills through explicit, systematic instruction with hands-on, multimodal practice.
  • 3–5 Integrated Strand: Strengthens reading, writing, speaking, and listening as knowledge and skills come together with complex texts, close reading, and a focus on morphology.

For a deeper dive, explore the Amplify CKLA Program Guide.

Experience the Skills Strand

While your kit spotlights the Knowledge Strand, you can also explore the Skills Strand here—including lesson recommendations by grade and time (beginning, middle, or end) of year.

Kindergarten

About this unit

Identify continents, oceans, and places around the world, then create postcards to share new discoveries.

What’s in your kit

Here’s what you’ll find inside—take a quick peek to make sure everything’s there!

A spiral-bound teacher guide titled "All Around the World: Geography" features images of a globe, landscapes, and children, with a classroom background.

1 Teacher Guide

Book cover titled "All Around the World: Geography" features a classroom globe on a desk, with a blurred landscape of grass and flowers in the background.

1 Student Activity Book

A book cover titled "All Around the World: Geography" features a globe, children, and photos of various landscapes.

Image Cards

*Each student receives their own Student Activity Book in a full implementation.

Additional resources

As you prepare to teach this unit, explore the:

  • Curriculum map: Includes a unit summary, writing focus, overall learning outcomes, and standards taught and assessed.
  • Caregiver Letter: Shares an overview of the unit, plus conversation starters to keep the learning going at home.
  • Pacing options: The full unit takes 16 days—if time is tight, you can also try our 5- and 10-day plans.
  • Skills Strand: Try sample Skills lessons alongside your Knowledge unit for practice in phonics, decoding, fluency, and writing.

Grade 1

About this unit

Learn about maps, compare landforms, and connect global geography to local neighborhoods.

What’s in your kit

Here’s what you’ll find inside—take a quick peek to make sure everything’s there!

A spiral-bound teacher guide titled "Charting the World: Geography" features a hand-drawn world map and school supplies on the cover.

1 Teacher Guide

Book cover titled "Charting the World: Geography Activity Book" with an illustrated world map, magnifying glass, and compass on a dark blue, space-themed background.

1 Student Activity Book

A children's geography book cover showing hand-drawn world maps, a compass, colored pencils, and the title "Charting the World: Geography.

Image Cards

*Each student receives their own Student Activity Book in a full implementation.

Additional resources

As you prepare to teach this unit, explore the:

  • Curriculum map: Includes a unit summary, writing focus, overall learning outcomes, and standards taught and assessed.
  • Caregiver Letter: Shares an overview of the unit, plus conversation starters to keep the learning going at home.
  • Pacing options: The full unit takes 16 days—if time is tight, you can also try our 5- and 10-day plans.
  • Skills Strand: Try sample Skills lessons alongside your Knowledge unit for practice in phonics, decoding, fluency, and writing.

Grade 2

About this unit

Explore rhyme, rhythm, and meaning in many kinds of poems—from silly to serious—and write original stanzas with style.

What’s in your kit

Here’s what you’ll find inside—take a quick peek to make sure everything’s there!

A spiral-bound book titled "Sounds and Stanzas: Poetry" shows a hand holding an open book with illustrated animals and vines emerging from its pages.

1 Teacher Guide

Cover of an activity book titled “Sounds and Stanzas: Poetry” for grade 2, featuring a painting palette, paint brushes, and an outdoor scene with clouds and mountains.

1 Student Activity Book

A person sits reading a book outdoors with illustrated animals and musical notes floating above, on the cover of a book titled "Sounds and Stanzas: Poetry.

Image Cards

*Each student receives their own Student Activity Book in a full implementation.

Additional resources

As you prepare to teach this unit, explore the:

  • Curriculum map: Includes a unit summary, writing focus, overall learning outcomes, and standards taught and assessed.
  • Caregiver Letter: Shares an overview of the unit, plus conversation starters to keep the learning going at home.
  • Pacing options: The full unit takes 16 days—if time is tight, you can also try our 5- and 10-day plans.
  • Skills Strand: Try sample Skills lessons alongside your Knowledge unit for practice in phonics, decoding, fluency, and writing.

Digital platform

Your Experience Kit pairs with an Amplify CKLA demo account in Amplify Classroom, our digital platform. Explore your unit with digital materials and interactive tools including ready-to-use, customizable lesson screens and digital assessments. 

Haven’t received your login info? No problem—check with your admin team or complete our support site form

Pacing options

Short on time? We’ve got you covered. We recommend teaching the full 16-day unit as outlined in the Teacher Guide to fully experience the power of Amplify CKLA instruction. That said, we know your time is limited—and valuable! 

That’s why we’ve created pacing options to help you explore the unit on your schedule: 

5-day experience10-day experience
(slower pace)
10-day experience
(extended)
Teach Lessons 1–5 (1 lesson per day) for a focused snapshot of the unit.Teach Lessons 1–5 (spreading each lesson over 2 days)—ideal for shorter blocks or a more relaxed pace.Teach Lessons 1–10 (1 lesson per day) for a deeper dive into the unit.

💡 Tip: Many educators new to Amplify CKLA prefer the 10-day, slower-paced option. It offers room to slow down without losing the flow of instruction for you and your students.

Pacing like a pro

  • Start with the Unit Introduction in the Teacher Guide—it provides key background information and teaching tips.
  • Pausing Point and assessment days aren’t included here, but feel free to use them if time allows.
  • Teaching in shorter blocks? No problem. Just continue where you left off the next day! (Skipping ahead isn’t recommended, as each lesson builds on the last.)

Skills Strand

Your kit features a Knowledge Strand unit, but you can also explore the Skills Strand here! In K–2, the Skills Strand delivers explicit, systematic instruction in phonics, decoding, fluency, and writing, giving students the strong foundational skills they need to become confident, capable readers alongside their knowledge-building lessons.

See it in action. Visit our Amplify CKLA Skills in action page to watch real teachers and students during a lesson.

Try it yourself. Access Skills Strand lessons in your Amplify Classroom demo account! Use our Try it guide for recommendations tailored to your grade and time of year.

The case for grade-level ELA instruction in middle school

Teaching middle school comes with unique challenges—especially in ELA, where a single classroom may include students from all walks of life and all reading levels. Recent data shows that more than 30% of middle school students struggle to read at grade level. So a teacher’s instinct might—understandably—be to match students with texts at their individual reading levels.

But research shows that’s not the best approach for meeting student needs. In fact, a critical way to help middle schoolers read at grade level is … to teach them at grade level.

All students benefit when they are challenged with grade-level content, along with the necessary support and scaffolding to promote their growth. This approach ensures that no student—whether below, above, or on grade level—is left behind or held back from their full potential.

The problem with the remediation trap

Providing struggling students with simpler texts seems like a logical way to build confidence. But this approach often reinforces learning gaps instead of closing them. When students aren’t exposed to grade-level material, they miss out on critical opportunities to:

  • Build knowledge and vocabulary necessary for long-term academic success.
  • Engage in meaningful discussions that deepen comprehension.
  • Develop confidence in their ability to tackle complex texts and new concepts.

But when students interact with rigorous content and new information alongside their peers, they gain the skills, exposure, and engagement they need to improve—no matter where they start.

Scaffolding in education: Why does it matter?

If students need help reaching grade-level standards, focus on providing the right scaffolding rather than lowering expectations.

  • Pre-teaching key vocabulary to support comprehension.
  • Breaking down complex texts into smaller, digestible parts.
  • Using guided questions and discussion prompts to deepen understanding.
  • Encouraging peer collaboration so that students can learn from each other.
  • Incorporating visual aids like diagrams, charts, and graphic organizers to clarify concepts and support comprehension.

By using these strategies, teachers can keep students engaged in grade-level work while addressing skill gaps in a way that fosters real growth.

How grade-level instruction works for every student

  1. Grade-level instruction builds confidence and motivation. Middle school students are deeply social learners who thrive when they feel included. When struggling students are placed in remedial groups with lower expectations, they can feel discouraged. But when they read and discuss the same challenging texts as their peers, they’re more motivated to participate and push themselves.
  2. Grade-level instruction develops critical thinking skills. Grade-level texts expose students to richer vocabulary, more complex sentence structures, and deeper themes. This helps all students—whether they’re working above or below grade level—develop essential thinking and analytical skills that prepare them for high school, college, and beyond.
  3. Grade-level instruction prepares students for real-world literacy. Success in the real world depends on the ability to read and comprehend challenging material. If students aren’t exposed to complex texts in middle school, they’ll struggle in high school, the workplace, and life. Providing grade-level instruction ensures that they develop the reading stamina and skills they need for the future.

Bridging skill gaps without lowering expectations

Some students may need additional support in decoding, fluency, or foundational skills. However, this doesn’t mean they should be separated from grade-level content. Instead, they should receive targeted interventions alongside their core instruction.

Here’s how to bridge skill gaps while keeping all students on track:

  • Use structured reading supports—such as read-alouds or guided reading along with explicit fluency practice—so struggling students can follow along with grade-level texts.
  • Incorporate explicit vocabulary instruction to help students understand and use new words.
  • Provide sentence starters and discussion frameworks to support writing and comprehension.
  • Encourage independent reading at different levels to build fluency while keeping classroom instruction rigorous.

With these strategies, students receive the help they need without missing out on the rich, challenging materials that promote deeper learning.

Teach up, not down: The best approach for middle school ELA

While scaffolding allows struggling readers to access the same grade-level content as their peers, advanced learners can benefit from opportunities to go deeper with discussions, analytical writing, and extension activities—all within the same instructional framework.

Key takeaways for middle school ELA success:

  • Every student should engage with grade-level content, regardless of their starting point.
  • Scaffolding in education helps all learners access complex texts and grow as readers.
  • Effective literacy instruction prepares students for the demands of high school, college, and beyond.

More to explore

If you’re looking for research-backed strategies to support all students with grade-level instruction, check out our free ebook, Every Student at Grade Level: The Case for Grade-Level ELA Instruction in Middle School. It’s packed with actionable insights for teaching middle school ELA effectively and implementing powerful scaffolding techniques.

Dual language assessment and instruction for K–6

mCLASS Lectura Texas is a universal screener for K–6 built on modern Spanish literacy research. Delivering complete parity between English and Spanish reading assessments, the program supports educators in accelerating reading growth for Spanish-speaking students.

Collage de escenas educativas: la parte superior izquierda muestra el dibujo de un ojo, la parte superior derecha tiene un ícono de voz, las imágenes inferiores muestran a estudiantes aprendiendo con maestros y libros, y logotipos centrales de plataformas digitales.

What experts say

“It’s incredibly important we attend to the Spanish language alongside English in assessment practices, to make sure we’re not underestimating the ability of a really significant percentage of our nation’s school population.”

Lillian Durán, Ph.D.

Co-Developer, mCLASS Lectura; Associate Dean for Academic Affairs, University of Oregon College of Education

Informational graphic highlighting the University of Oregon’s Center on Teaching and Learning and Dr. Lillian Durán’s validation of a universal screener in partnership with Amplify.

Built by leading biliteracy experts

The mCLASS Lectura Texas universal screener was co-developed with the Center on Teaching and Learning at the University of Oregon. The assessment was validated by Amplify in partnership with Lillian Durán of the University of Oregon.

The development of mCLASS Lectura Texas also involved a team of nationally recognized experts representing a range of regions (Mexico, Central America, South America, and the Caribbean), along with focus groups featuring classroom teachers, special education teachers, specialists, and administrators.

Our approach

Aligned to the Science of Teaching Reading, mCLASS Lectura Texas enables teachers to connect with their students through observational assessment and in the language most comfortable to them. When used in tandem with mCLASS Texas Edition, the program helps you achieve complete parity between English and Spanish literacy skills.

Complete parity between English and Spanish

mCLASS Lectura Texas is an authentic Spanish assessment that integrates seamlessly with mCLASS Texas Edition. It offers consistent reporting across both English and Spanish assessments and provides specialized dual-language reporting.

A laptop displays a table comparing English and Spanish reading assessment scores across categories, with benchmarks and below benchmark results highlighted.

Listen to your students read in both languages, one-on-one.

mCLASS Lectura Texas provides teacher-administered assessments in Spanish that deliver accurate and reliable measurements of each student’s literacy progress. 

Built from the latest research in Spanish literacy development

mCLASS Lectura Texas is a high-quality assessment that accounts for the major differences between English and Spanish, not simply a direct translation or transadaptation between the two languages. 

Screenshot of a language learning app segmenting the Spanish word "húmedo" into syllables: /hú/, /me/, /do/. A timer shows 0:21, and progress is displayed as 3 out of 3.
A curved computer screen displaying a presentation slide on phonological awareness in bilinguals, with text, two bar graphs, and an assessment in Spanish.

Transfer skills in one language to the other.

By providing teachers with insights into the skill areas in which their students are proficient in their native language, the program helps multilingual/English learners build on their strengths and make connections. Educators also receive guidance on the cross-linguistic transfer of critical skills in both languages.

What’s included

mCLASS Lectura Texas includes one-minute measures validated for universal and dyslexia screening, and provides dual language reports for teachers and administrators.

Captura de pantalla del software mclass que muestra los resultados de las evaluaciones comparativas de los estudiantes en un gráfico con categorías para el comienzo, la mitad y el final del año.

Comprehensive Spanish literacy measures in mCLASS Lectura Texas

mCLASS Lectura Texas is validated to assess for all key foundational skills for K–6, including:

  • Letter Naming.
  • Phonological Awareness.
  • Alphabetic Principle.
  • Fluency.
  • Comprehension.

Reports in English and Spanish

mCLASS Lectura Texas analyzes Spanish literacy and English literacy development side by side, enabling you to see where kids are in both languages.

Dual-monitor setup displaying a Spanish literacy educational software interface, mCLASS Lectura, with text descriptions and interactive elements.
Screenshot of a digital presentation slide titled "Identificar y leer palabras con los diptongos ia, io, ie" from a Spanish literacy course, featuring text and instructional icons.

Instructional activities to build Spanish literacy skills

With mCLASS Lectura Texas, educators get hundreds of step-by-step instructional activities for small groups or individual students and receive effective activities to target the Spanish literacy skills with which students need the most support.

Comprehensive reporting

mCLASS Lectura Texas provides reporting for everyone. This is available at all levels, from classroom teachers and literacy specialists to principles and district leaders, as well as parents and guardians at home.

A laptop screen displaying a student performance spreadsheet with various metrics including grades, benchmarks, and mCLASS Lectura assessment rates for several students.
Tablet screen displaying a student's assessment summary for fluency in syllable sounds. The student, Oksana Maslova, scored 32 syllables per minute on 08/25/2021.

Detailed assessment data

mCLASS Lectura Texas provides transcripts of every assessment and identifies error patterns to help educators make instructional decisions for students on the skills they need to work on the most. The program also includes letters with student assessment results and analysis to send home or to use as a basis for discussion at conferences.

Exciting news! mCLASS Texas and mCLASS Lectura Texas K–2 are FREE for the 2025–26 school year!

Explore more programs based in the Science of Teaching Reading.

Learn more about the Amplify Texas biliteracy suite at texas.amplify.com.

Science of Reading:
A glossary

The Science of Reading reflects decades of research on how children best learn to read and which instructional practices best support their journey. Understanding common Science of Reading definitions can help fast-track your instruction, so we’ve put together this glossary as a starting point.

Two girls in green uniforms look at a notebook together in a classroom. Educational icons and a "Built on the Science of Reading" label are overlaid on the image.

Common Science of Reading terms

Some of the most important terms for building your understanding of the Science of Reading:

Alphabetic principle: The understanding that specific sounds can be mapped onto specific letters
Biliteracy: The ability to communicate effectively in two different languages
Composition: The creation or organization of a written piece, short or long
Comprehension: The ability to understand what is written or said
Decoding: Translating a word from print to speech by understanding sound-spelling correspondences
Domain-specific knowledge: Understanding of the key principles in a specific subject area (such as scientific principles, poetry conventions)
Domain-specific vocabulary: Words key to understanding a specific subject area (such as scientific terms, poetic terms, technical terms)

Dyslexia: A language-based learning disorder or set of learning differences that makes it difficult to learn to read, write, or spell

Encoding: Translating a word from speech to print by understanding sound-spelling correspondences

Fluency: The ability to read a text with accuracy, speed, and expression

Inferences: Conclusions drawn through reasoning, without their being stated directly in a text

Learning differences: The unique ways in which brains can process information and the different rates at which they do it

Mental model: A general idea or structure of information that can be applied to many texts

Metacognition: Being mindful of one’s own thinking processes, including using knowledge of a given task, knowledge of cognitive strategies, and knowledge of one’s self, to successfully learn

Morphology: The study of word parts and how words are formed

MTSS (Multi-Tiered Systems of Support): A comprehensive framework designed to provide systematic and differentiated support to all students

Phoneme: The smallest unit of sound that distinguishes one word from another

Phonemic awareness: The ability to identify and work with individual sounds (phonemes) within a word

Phonics: Teaching the relationship between the sounds in oral language and the letters in written language

Reading Rope: A visual representation of the way decoding and comprehension skills work together in the brain of a skilled reader

Reasoning: The ability to apply knowledge based on new or existing information to comprehend the meaning of a passage

Science of Reading: The body of ongoing scientific research about how the brain works when one is learning to read, and how reading is best taught

Science of Writing: The body of ongoing scientific research about how the brain works when one is learning to write, and how writing is best taught

Sight recognition: The ability to recognize a written word without having to sound it out (also called word recognition)

Simple View of Reading: A framework that explains how word recognition and language comprehension work together to produce skilled reading

Simple View of Writing: A framework that explains how transcription and composition skills work together to produce skilled writing

Tier 1 instruction: Core grade-level instruction

Tier 2 instruction: Additional support for small groups of students to reinforce grade-level instruction

Tier 3 instruction: Intensive, more individualized intervention

Transcription: The process of converting speech into written text

Vocabulary: The quantity and quality of words a student knows

Word recognition: The ability to recognize a written word without having to sound it out (also called sight recognition)

Your guide to getting started with the Science of Reading

Looking for more grounding in the Science of Reading? Download our free ebook.

Cover of a guide titled "Science of Reading: A New Teacher’s Guide," featuring a teacher reading to two children, pencil and book icons, and helpful K-5 teaching resources. Perfect for those asking, "What is the science of reading?.

Welcome to Amplify Desmos Math!

Your Amplify Desmos Math Experience Kit includes teacher and student materials for one sub-unit of instruction to try in your classroom. Click the orange button below to access the digital lessons for your grade.

A laptop displays a math problem on its screen with illustrations of fish and a clock, alongside two math activity books titled "Amplify Desmos Math" for grades 3 and 5.

About the program

Our structured approach to problem-based learning systematically builds on students’ curiosity to develop lasting grade-level understanding.

Amplify Desmos Math combines and connects conceptual understanding, procedural fluency, and application. Lessons are designed with the Proficiency Progression™, a model that provides teachers with clear instructional moves to build from students’ prior knowledge to grade-level learning.

Educational materials featuring various graphs and applications, including rocket motion and quadratic functions, displayed on Desmos and paper.
Interactive digital math lesson interface with colorful graphics showing parabola exploration and plotting tools on screen, enhanced by the New York math curriculum.

Structured approach to problem-based learning

  • Differentiation and personalized practice
  • Easy-to-follow instructional guidance
  • Robust assessments and reports
  • Spanish student materials
A classroom dashboard displays student names and their progress in activities, with checkmarks indicating completed tasks and circles showing ongoing or incomplete tasks.

Math that motivates

  • Powerful teacher-facilitation supports and tools
  • Students talking and building from each other’s ideas 
  • Every lesson has fully compatible print and digital materials for a collaborative classroom
Illustration of an Amplify Desmos math learning tool on a student screen showing abacus representations for the sums 8+7, 7+4+5, 3+8+4

Student thinking is made evident

  • Curiosity-driven lessons that motivate students with interesting problems they are eager to solve
  • Explicit guidance for teachers on what to look for and how to respond
  • Technology that provides Responsive Feedback and is designed to reveal mathematical thinking

Experience Kit digital lessons

Use the grade-specific links below to explore our interactive digital lessons. Learn more about assigning a lesson to your class using a single-session code.

In addition to the sample lessons below, you can view the Experience Kit brochure, which includes helpful print and digital navigation tips.

Grades K–5 brochure

Grades 6–A1 brochure

A digital math activity screen showing block arrangements and a worksheet page titled "Shelley the Snail" with related graphics.
A girl in a red and pink uniform kicks a soccer ball while two players in yellow attempt to block, showcasing teamwork akin to problem-solving strategies in Amplify Desmos Math. Another player runs in the background.
Kindergarten, Unit 6: Numbers 0–20

Sub-Unit 1: Counting Teen Numbers

A crowd gathers outdoors near a path lined with blueberry displays; musicians play on a stage, and people interact as a woman and child stand in the foreground holding drinks.
Grade 1, Unit 5: Adding Within 100

Sub-Unit 1: Adding Without Making a Ten

A family stands by a mailbox labeled "Three Hundred Two." In New York, a child holds a letter as an adult pats their head. Another adult, with a desmos math guide in hand, looks on proudly.
Grade 2, Unit 5: Numbers to 1,000

Sub-Unit 1: The Value of Three Digits

In an outdoor setting, a girl with glasses attentively washes a chicken in soapy water, surrounded by hills, trees, and buildings. Soap bubbles and leaves float in the air as she ponders New York math challenges amidst this tranquil scene.
Grade 3, Unit 6: Measuring Length, Time, Liquid Volume, and Weight

Sub-Unit 1: Measurement Data on Line Plots

In "Pat's Lei Shop," amidst the floral artistry, one can almost sense the precision akin to solving a New York math problem, with each lei meticulously assembled on a table with scissors, thread, and flowers.
Grade 4, Unit 6: Multiplying and Dividing Multi-Digit Numbers

Sub-Unit 1: Multi-Digit Multiplication

At a bustling puzzle stand, a person interviews a young individual holding a puzzle box. Various puzzles, including "Autumn Day," catch the eye. A sign proudly boasts, "Jonathan & Omar's Pleasing Puzzles!"—where New York math enthusiasts find joy in every challenge.
Grade 5, Unit 5: Place Value Patterns and Decimal Operations

Sub-Unit 1: Numbers to Thousandths

Three raccoons on a seesaw balance with a 21-pound weight in a city park setting under a clear sky.
Grade 6, Unit 6: Expressions and Equations

Sub-Unit 1: Solving Equations

A sheep stands on grass near a number line, with an orange point at zero; a festive sheep with a hat and party blower appears in a thought bubble.
Grade 7, Unit 6: Expressions, Equations, and Inequalities

Sub-Unit 3: Inequalities

Four colorful robots stand in front of a whiteboard with a graph in a classroom setting.
Grade 8, Unit 6: Associations in Data

Sub-Unit 2: Analyzing Numerical Data

A laptop screen displays a math activity with a question about a rocket's height. Icons of a rocket and mathematical functions are on the side.
Algebra 1, Unit 7: Quadratic Functions

Sub-Unit 1: Introduction to Quadratic Functions

Looking for help?

Support is always within reach. Our team is dedicated to supporting you throughout your review and can be reached at any time by emailing or calling us directly.

  • Live chat: Click the orange icon while logged in to get immediate help.
  • Phone: Call our toll-free number: (800) 823-1969.
  • Email: Send an email to help@amplify.com. In the message body, please include your name and question. Provide as much detail as possible, so we can more quickly help you find a solution.
A laptop screen displays a curriculum dashboard with a list of core units and colorful thumbnails for a sixth-grade ELA program.

Ready to learn more?

Sign up to be among the first to receive updates about Amplify Desmos Math.

Welcome, Amplify Math families and community to Amplify Desmos Math High School (AGA, Integrated 1–3)!

Welcome to Amplify Desmos Math! Below, you’ll find links to sample lessons, scope and sequence, and more information about our AGA and Integrated high school math programs.

Algebra 1, Geometry, Algebra 2, and Integrated 1 are available for Beta implementations and pilots in 2025–26. Integrated 2–3 will be available for the 2026–27 school year.

A collage of educational software screens, featuring Desmos Math with vibrant graphs and animations, amplifies mathematical comparisons alongside engaging plant growth simulations. Perfect for educators in New York math classrooms seeking dynamic learning tools.

About the program

Our structured approach to problem-based learning builds on students’ curiosity to develop lasting grade-level understandings for all students.  The program thoughtfully combines conceptual understanding, fluency, and application, motivating students with interesting problems they are eager to solve. Teachers can spend more time where it’s most impactful: creating a collaborative classroom of learners.

Screenshot of an educational activity page using Amplify Desmos Math to present a function machine and a table for calculating outputs of ( h(x) = f(x + 2) ) with given inputs for ( x ), offering an engaging approach to New York math standards.
The geometry activity screen features a circle with intersecting lines and a shaded area. Instructions prompt users to explore Sam's construction and determine if a square was formed, all enhanced by the innovative tools of Amplify Desmos Math.

Structured approach to problem-based learning

  • Easy-to-follow instructional guidance
  • Robust assessments and reports
  • Spanish student materials (available 2026–27)
A classroom dashboard displays student names and their progress in activities, with checkmarks indicating completed tasks and circles showing ongoing or incomplete tasks.

Math that motivates

  • Powerful teacher-facilitation supports and tools
  • Students talking and building from each other’s ideas 
  • Every lesson has compatible print and digital materials for a collaborative classroom
Screenshot of a design challenge interface from Amplify Desmos Math, featuring overlapping purple circles. The left shows 3 circles, and the right displays 5. Task: match the two designs as if solving a New York math puzzle.

Student thinking is made evident

  • Curiosity-driven lessons that motivate students with interesting problems they are eager to solve
  • Explicit guidance for teachers on what to look for and how to respond
  • Technology that provides Responsive Feedback and is designed to reveal mathematical thinking
A chart titled Scope and Sequence for Algebra 1, Geometry, and Algebra 2, with colorful units and topics, overlaid by an illustration of lab equipment with a gauge and liquid.

Scope and sequence

Click the link below to view the program scope and sequence.

Preview lessons

Check out the links below to explore our interactive digital lessons. Download a navigation guide for tips on navigating the print and digital program components.

A laptop showcases a mathematical graph using Desmos Math, amplifying the learning experience. Behind it lie two papers with printed graphs and text, reflecting a bustling New York math classroom environment.

Looking for help?

Support is always within reach. Our team is dedicated to supporting you throughout your review and can be reached at any time by emailing or calling us directly.

  • Live chat: Click the orange icon while logged in to get immediate help.
  • Phone: Call our toll-free number: (800) 823-1969.
  • Email: Send an email to help@amplify.com. In the message body, please include your name and question. Provide as much detail as possible, so we can more quickly help you find a solution.
A laptop screen displays a curriculum dashboard with a list of core units and colorful thumbnails for a sixth-grade ELA program.

Ready to learn more?

Four steps administrators can take to shift to the Science of Reading

Four steps administrators can take to shift to the Science of Reading

To view this protected page, enter the password below:



Amplify Desmos Math New York high school

Welcome to Amplify Desmos Math! Below, you’ll find information about the program, login credentials to access the digital curriculum, and additional resources to support your review.

A laptop screen displays a math activity showing a machine representing the function h(x) = f(x + 2) and a table for input and output values.

About the program

Our structured approach to problem-based learning builds on students’ curiosity to develop lasting grade-level understandings for all students.  The program thoughtfully combines conceptual understanding, fluency, and application, motivating students with interesting problems they are eager to solve. Teachers can spend more time where it’s most impactful: creating a collaborative classroom of learners.

A geometry activity shows a circle intersected by several lines, with a shaded quadrilateral inside. Questions and answer options appear on the right.

Structured approach to problem-based learning

  • Easy-to-follow instructional guidance
  • Robust assessments and reports
  • Explicit guidance for teachers on what to look for and how to respond
A classroom activity tracker shows a grid with students’ names in the left column and progress checkmarks or crosses for seven activities across the top.

Math that motivates

  • Powerful teacher-facilitation supports and tools
  • Students talking and building from each other’s ideas 
  • Compatible print and digital materials for every lesson to foster a collaborative classroom
A design challenge interface shows two side-by-side diagrams with interlocking purple circles; the left is editable with 3 objects, the right is the design to match.

Student thinking is made evident

  • Curiosity-driven lessons that motivate students with interesting problems they are eager to solve
  • Technology that provides Responsive Feedback and is designed to reveal mathematical thinking
  • Student Notes pages to prepare students for college-level skills

Scope and sequence and standards alignment

Click the link below to view the program scope and sequence, alignment to standards, and alignment to the NYC DOE Definition of Culturally Responsive-Sustaining Education and the New York State Culturally Responsive-Sustaining Education Framework

A two-page chart outlines the scope and sequence for Algebra 1, Geometry, and Algebra 2 units, with a vector graphic of lab equipment in the lower right corner.
A laptop displays a graph of a diver's path above water, with two printed math worksheets featuring graphs, tables, and practice problems in the background.

Experience Amplify Desmos Math New York.

Explore our digital program to review content from Algebra 1, Geometry, and Algebra 2. To log in, click the orange “Review now” button below, select “Log in with Amplify” and use the following login credentials:

Username: t.math-adm-ny-hs@tryamplify.net

Password: AmplifyNumber1

Resources to support your review

To learn more about Amplify Desmos Math New York, including pedagogical philosophy, origins, implementation examples, and nationally recognized independent reviews, please download the following documents:

A worksheet and two digital screens show math activities involving tables and blocks, focusing on comparing numbers and filling in missing values.

Looking for help?

Support is always within reach. Our team is dedicated to supporting you throughout your review and can be reached at any time by emailing or calling us directly.

  • Live chat: Click the orange icon while logged in to get immediate help.
  • Phone: Call our toll-free number: (800) 823-1969.
  • Email: Send an email to help@amplify.com. In the message body, please include your name and question. Provide as much detail as possible, so we can more quickly help you find a solution.

What’s included in our K–8 literacy assessment and instruction suite

mCLASS DIBELS 8th Edition® provides every teacher, coach, and administrator with a data-driven system that supports each student’s unique needs—from efficient one-minute skills assessments in English and Spanish to granular diagnostic insights. You’ll have all of the tools you need to ensure your students receive effective instruction and discover their true skills as readers.

Learn more about mCLASS’s precise measurement, predictive results, and preventive instruction.

Skills at a glance

mCLASS includes benchmark, progress monitoring and dyslexia screening measures in English and Spanish that are predictive of long-term reading success and detect the critical early warning signs of dyslexia risk. Together, mCLASS DIBELS 8th Edition and mCLASS Lectura identify whether a student is at risk due to a stronger proficiency in one language or difficulties associated with dyslexia.

Equal skill coverage in English and Spanish

*Fluidez en nombrar letras (FNL) in Spanish and Letter Naming Fluency (LNF) in English are validated as phonological processing measures (also known as RAN), thus making RAN available in both languages.

Additional dyslexia screening measures

Educator and caregiver reports

The rich data you collect through direct observation is instantly available from a variety of reports that simplify student growth analysis and instructional planning. All stakeholders, from teachers and administrators to parents and guardians, will gain a deep understanding of student performance and know how to provide extra practice. See the complete mCLASS Reporting Guide.

Class and student reports

Detailed class and student reports help you quickly pinpoint which students need more support. You’ll be able to see every student’s skill progression from the beginning of their literacy journey to later grades and know exactly when a change in instruction is needed. Measure transcripts from every benchmark and progress monitoring probe also provide you with insight into student responses during assessment.

Goal setting

mCLASS includes tools for setting goals and evaluating growth outcomes to ensure the instruction you are providing each individual student is meeting their needs and accelerating their growth. The program uses each student’s initial performance to assign goals, which you can further customize as their learning progresses.

Administrator reports

The mCLASS reporting and analysis suite makes it possible to analyze performance trends across a variety of demographic categories at the class, school, district, and state level. Principals, administrators, and district leaders are empowered to evaluate the success of instructional strategies, allocate training resources, or decide where to deploy additional staff.

Caregiver reports

The Home Connect letter allows educators to share information about a child’s reading development with parents and guardians in simple charts and family-friendly language. The letters provided include instructional resources in print and online for families to help practice skills at home.

Data-driven instruction

mCLASS helps you make sense of data by instantly providing targeted instructional recommendations and teacher resources based on students’ assessment results. mCLASS data also informs instruction within Amplify’s suite of intervention, personalized learning, and core programs grounded in the Science of Reading.

Automatic small-group and one-on-one instruction

The mCLASS Instruction feature included with DIBELS 8th Edition and mCLASS Lectura automatically generates skill profiles and recommends teacher-led activities for small groups and individual students. Recommendations can be updated based on the latest benchmark and progress monitoring results.

Tier 2 and 3 instruction with mCLASS Intervention

mCLASS data not only helps you identify which students are in need of intensive support, but also places them into Amplify’s Tier 2 and 3 instruction program, mCLASS Intervention. mCLASS Intervention builds a skill profile for each student, forms engaging lesson plans, and updates the instructional recommendations every ten days based on the latest benchmark and progress monitoring results.

Core instruction with Amplify CKLA

By combining the results from mCLASS assessments with Amplify CKLA, you can provide targeted whole-class instruction specific to your students’ risk levels and areas of growth. The small-group instruction recommendations in mCLASS provide activities that reinforce what students have learned during Amplify CKLA core instruction.

Personalized practice with Boost Reading

mCLASS data seamlessly integrates with Boost Reading to personalize student practice in targeted skill areas. With more than 50 immersive mini-games that build skills in phonics, phonological awareness, vocabulary, and comprehension, Boost Reading provides students with independent practice time they’ll love, while freeing teachers up to provide small-group instruction.

Explore more programs based on the Science of Reading

The programs in our literacy suite are designed to support and complement each other. Learn more about our related programs.

mCLASS Intervention

Boost Reading

Amplify CKLA

RF.1.3.G: Recognize and Read Grade-Appropriate (First Grade) Irregularly Spelled Words

Skill

RF.1.3.G: Recognize and Read Grade-Appropriate (First Grade) Irregularly Spelled Words

Standard

CCSS.ELA-LITERACY.RF.1.3.G: Recognize and read grade-appropriate irregularly spelled words.

Description

Mastery: Student is able to read irregularly spelled words with automaticity.

Acquiring: Student is able to recognize some irregularly spelled words. Student may attempt to decode some irregularly spelled words.

Probes

T: Read the following words – show a list of High Frequency Words, such as Fry’s or Dolch word lists, presented in random order (e.g., the, of, to, you, she, my, is, are, do, does).

Activities and Resources

Small Group Instruction – Direct Instruction

During Transitions

Reinforce Skills/Independent Work Time – Independent/Small Group Center Activity

Display (e.g. Anchor Chart):

Considerations & Reminders

  • High Frequency Word Lists should be posted and visible for students to reference. While these words are to be memorized, the act of looking up at a chart/poster for quick reference allows the student to eventually be able to quickly find and recognize the words.
  • When introducing an irregular word (but not when building fluency), we ask students to sound out and say the word correctly. There are multiple reasons to ask students to sound out irregular words:
    • When students encounter an irregular word in connected text, they may initially attempt to sound it out. These exercises prepare them to read the word correctly.
    • We want to show students that, though some word parts may be irregular, other parts are often regular, so that students can decode those parts, giving them a clue to the full word.
    • If we sound out some words and not others, students may learn that sounding out should only be used intermittently. They may decide not to use it even when they should.
    • Even for irregular words, the process of connecting symbols to sounds helps students learn the word: “The knowledge of letter-sound relations provides the powerful mnemonic system that bonds the written forms of specific words to their pronunciation in memory.” (Ehri, 1995)
  • Teaching tips:
    • One way to accelerate learning of irregular words is to print out flashcards for each newly introduced word and make a set for your students to practice with at home.
    • If words are being introduced too slowly for your students, you can introduce a new irregular word every day. You should feel free to vary the pace, being careful to ensure that everyone is keeping up.
    • When you point to a word, wait before touching it and train students to respond only when you touch the word. That gives all students time to think of the answer, so that slower students don’t just copy faster students.
    • For each activity, keep a record of items a student had problems with. Review this activity log before the next activity so you pay special attention to those students.

What’s included

Along with compelling print materials, powerful digital resources, and more hands-on materials than any other program, Amplify Science California also includes engaging and realistic experiences, access to diverse role models, countless a-ha moments, and the inspiration and confidence to consider a future as a scientist or engineer.

Choose level

Year at a glance

Amplify Science California is organized around units where students explore compelling phenomena and real-world problems, develop and strengthen claims by collecting evidence and testing assumptions, and apply their learning in new contexts.

Educational curriculum chart showcasing a progression of amplify science lessons from kindergarten to grade 5, categorized by grade and subject areas like plants, animals, weather, and energy.

Units at a glance

In each Amplify Science California unit, students are asked to inhabit the role of a scientist or engineer in order to investigate a real-world problem. These problems provide relevant, 21st-century contexts through which students investigate different scientific phenomena.

An illustration from Needs of Plants and Animals unit

1

Needs of Plants and Animals

Students take on the role of scientists in order to figure out why there have been no monarch caterpillars in the community garden since vegetables were planted. They investigate how plants and animals get what they need to live and grow, and make a new plan for the community garden that provides for the needs of the monarch caterpillars in addition to producing vegetables for humans.

An illustration from the Pushes and Pulls unit

2

Pushes and Pulls

Students take on the role of pinball machine engineers as they investigate the effects of forces on the motion of an object. They conduct tests in their own prototypes (models) of a pinball machine and use what they learn to contribute to the design of a class pinball machine. Over the course of the unit, students construct a foundational understanding of why things move in different ways.

Silueta de una estructura de parque infantil contra un cielo azul con nubes y tres soles amarillos.

3

Sunlight and Weather

The principals of Woodland Elementary and Carver Elementary need student weather scientists to help them explain why Woodland’s playground is warmer than Carver’s at recess. Students gather data from models of the sun and Earth’s surface and observe their own playgrounds to figure out how sunlight causes changes in the temperatures of different surfaces. Students then use models to figure out why Woodland’s playground sometimes floods.

Illustration of sea turtles swimming among seaweed in the ocean, with a large shark in the background.

1

Animal and Plant Defenses

Students play the role of marine scientists. In their role, students apply their understanding of plant and animal defense structures to explain to aquarium visitors how a sea turtle and her offspring can defend themselves from ocean predators when they are released into the wild.

Dos manos sosteniendo un papel con un dibujo de pirámide y árbol, iluminado por una linterna, proyectando otra sombra de la imagen en la pared.

2

Light and Sound

Students take on the role of light and sound engineers for a puppet show company as they investigate cause and effect relationships to learn about the nature of light and sound. They apply what they learn to design shadow scenery and sound effects for a puppet show.

An illustration from the Spinning Earth unit

3

Spinning Earth

As sky scientists, students explain why a boy living in a place near them sees different things in the sky than his grandma does when he talks to her on the phone. Students record, organize, and analyze observations of the sun and other sky objects as they look for patterns and make sense of the cycle of daytime and nighttime.

An elephant standing next to a tree uses its trunk to pick a fruit from a branch while more fruit hangs above.

1

Plant and Animal Relationships

In their role as plant scientists, students work to figure out why there are no new chalta trees growing in the Bengal Tiger Reserve, which is part of a broadleaf forest. Students investigate what the chalta tree needs to survive, then collect and analyze qualitative and quantitative data to solve the mystery.

A hand holds a red bean on a table, while a wooden stick spreads white glue and scattered beans. Also on the table are a white cup and a yellow pen.

2

Properties of Materials

As glue engineers, students are challenged to create a glue for use at their school that meets a set of design goals. Students present an evidence-based argument for why their glue mixture will be good for their school to use.

Ilustración de una costa con acantilados, un edificio de centro recreativo con un techo rojo y un letrero, árboles de hoja perenne, una bandera azul y una playa de arena debajo.

3

Changing Landforms

The director of the Oceanside Recreation Center gets a scare when a nearby cliff collapses overnight. Research reveals that the distance between the Recreation Center’s flagpole and the edge of the cliff have changed over time. Students play the role of geologists and work to figure out why the cliff has changed over time. Based on what they learn about erosion, they advise on whether it is safe to keep the center open even though the cliff is changing.

An illustration from the Balancing Forces unit

1

Balancing Forces

People in Faraday are excited to hear that a new train service will be built for their city, but concerned when they hear that it will be a floating train. Students are challenged to figure out how a floating train works in order to explain it to the citizens of Faraday. They develop models of how the train rises, floats, and then falls back to the track, and then write an explanation of how the train works.

An illustration from the Inheritance and Traits unit

2

Inheritance and Traits

Students play the role of wildlife biologists working in Greystone National Park. They study two wolf packs and are challenged to figure out why an adopted wolf (“Wolf 44”) in one of the packs has certain traits. Students observe variation between and within different species, investigate inherited traits and those that result from the environment, and explain the origin of several of the adopted wolf’s traits.

An illustration from the Environments and Survival unit

3

Environments and Survival

In their role as biomimicry engineers, students work to figure out how the traits of grove snails affect their survival in different environments. They then explore how the traits of different organisms make them more likely or less likely to survive, collecting and interpreting data to understand how organisms’ traits affect their survival in different environments. Students then apply their understanding to a new challenge: designing effective solutions for the removal of invasive plants.

An illustration from the Weather and Climate unit

4

Weather and Climate

In their role as meteorologists, students gather evidence to decide where to build an orangutan reserve by analyzing patterns in weather data. After choosing the strongest evidence, students use data to make arguments about which of three fictional islands has weather most like that of orangutans’ existing habitats, Borneo and Sumatra. They then discern patterns in the locations of natural hazards in order to figure out which ones the Wildlife Protection Organization must prepare for.

An illustration from the Energy Conversions unit

1

Energy Conversions

Students take on the role of systems engineers for Ergstown, a fictional town that experiences frequent blackouts, and explore reasons why an electrical system can fail. Students apply what they learned as they choose new energy sources and energy converters for the town, then write arguments for why their design choices will make the town’s electrical system more reliable.

An illustration from the Vision and Light unit

2

Inheritance and Traits

As conservation biologists, students work to figure out why a population of Tokay geckos has decreased since the installation of new highway lights in the rainforest. Students use their understanding of vision, light, and information processing to figure out why an increase in light in the geckos’ habitat is affecting the population.

An illustration from the Earth's Features unit

3

Environments and Survival

Playing the role of geologists, students help the director of Desert Rocks National Park explain how and when a particular fossil formed and how it came to be in its current location. Students figure out what the environment of the park was like in the past and why it has so many visible rock layers.

An illustration from the Waves, Energy, and Information unit

4

Weather and Climate

In their role as marine scientists, students work to figure out how mother dolphins communicate with their calves. They write a series of scientific explanations with diagrams to demonstrate their growing understanding of how sound waves travel. Then they apply what they’ve learned about waves, energy, and patterns in communication to figure out how to create patterns that can communicate information over distances.

An illustration from the Patterns of Earth and Sky unit

1

Patterns of Earth and Sky

Playing the role of astronomers, students help a team of archaeologists figure out what the missing piece of a recently discovered artifact might have depicted. As they learn about the sun and other stars and the movement of Earth, students can explain what is shown on the artifact and what might be on the missing piece.

An illustration from the Modeling Matter unit

2

Modeling Matter

In their role as food scientists at a fictional company, students are introduced to the idea that all matter is made of particles too small to see, and that each different substance is made of particles (molecules) that are unique. They are then challenged to solve two problems: one requires them to separate a mixture, and the other requires them to make unmixable substances mix. Students are challenged to use the particulate model of matter to explain their work to the CEO of the company.

An illustration from the Earth System unit

3

The Earth System

The cities of East Ferris and West Ferris are located on different sides of a mountain on the fictional Ferris Island. East Ferris is having a water shortage while West Ferris is not. As water resource engineers, students learn about the Earth system to help figure out what is causing the water shortage problem and design possible solutions, including freshwater collection systems and proposals for using chemical reactions to treat wastewater.

An illustration from the Ecosystem Restoration unit

4

Ecosystem Restoration

As ecologists, students work to figure out why the organisms in a part of a Costa Rican rainforest ecosystem aren’t growing and thriving. As they solve this problem, students learn more generally how organisms in an ecosystem get the matter and energy they need to survive, and then write a series of restoration plans that include arguments about why the rainforest ecosystem is not thriving and recommend actions to restore its health.

Print & digital components

Amplify Science California includes instructional guidance and student materials in English and Spanish for a year of instruction, with lessons and activities that keep students engaged every day.

Component

FORMAT

NEW! Classroom Slides

Meet your new hands-free TG! These lesson-specific PowerPoints make delivering daily instruction a snap with embedded links to related resources and suggested teacher talk in the Notes section of each slide.

Digital

Most adopted curriculum for the NGSS California

Teacher’s Reference Guide

Available digitally and in print, this unit-specific reference guide includes scientific background knowledge, planning information and resources, color-coded 3-D Statements, detailed lesson plans, and tips for delivering instruction and differentiating learning.

Print and digital

Two digital devices displaying educational content, one a tablet showing a green-themed start page, and the other a laptop depicting various science chapters.

Hands-on materials kits

Each unit-specific kit contains consumable and nonconsumable materials for use during hands-on investigations. In each kit you will find:

  • Hands-on materials
  • 18 copies of each of the Student Books
  • Big books (grades K–1)
  • Classroom display materials
  • One Student Investigation Notebook

Kit

Amplify Science California supports 3-D learning with more materials than any other program.

NGSS Benchmark Assessments

Delivered four times per year in grades 3–5 and three times per year in grades 6–8, our benchmark assessments report on students’ facility with each of the grade-level appropriate DCIs, SEPs, CCCs, and performance expectations of the California NGSS.

And now, Amplify Science California users can choose to administer the NGSS Benchmark Assessments (grades 3–8) through their Illuminate assessment platform.

*Also available in Spanish

Digital

An open laptop displaying a website with a quiz question about geographical changes over time, featuring a series of island maps from different years.

Component

FORMAT

Student Investigation Notebooks

Available for every unit, the Student Investigation Notebooks contain instructions for activities and space for students to record data, reflect on ideas from texts and investigations, and construct explanations and arguments.

*Also available in Spanish

Print and digital

Two educational books titled "amplifyscience," one in spanish and one in english, featuring illustrations of desert canyon landscapes on the covers.

Big books (grades K–1)

Amplify Science California never asks our youngest readers to read alone. Rather, we provide scaffolded literacy experiences every step of the way. With our large-format big books, introducing and revisiting concepts though read-aloud and shared reading experiences is a breeze.

*Also available in Spanish

Print

Two hardcover books titled "maravillas rocas" and "rocky wonders" by amplify science, lying open, showing a continuous desert rock formation across both covers.

Simulations and practice tools (grades 2+)

Developed exclusively for the Amplify Science California program, these serve as venues for exploration and data collection, allowing students to explore scientific concepts that might otherwise be invisible or impossible to see with the naked eye.

*Spanish versions coming soon

Digital

A computer screen displays an educational website titled "Earth's Features" with chapters and illustrations of canyons; a printed teacher’s guide is shown beside it.

Explore more programs

Our programs are designed to support and complement one another. Learn more about our related programs.

Winter Wrap-Up 02: Mathematizing Children’s Literature

Promotional graphic for Math Teacher Lounge podcast, episode 2, featuring Allison Hintz and Antony Smith, discussing how mathematizing children's literature can build math fluency.

While we’re hard at work producing the exciting fifth season of Math Teacher Lounge: The Podcast, we’re continuing to share some of our favorite conversations from our first four seasons. This time around, we’re revisiting our popular episode that connected literacy and math!

In this episode, we sit down with Allison Hintz and Antony Smith, authors of Mathematizing Children’s Literature, to talk about what would happen if we were to approach children’s literature, and life, through a math lens–and how we can apply those same techniques to classroom teaching!

Explore more from Math Teacher Lounge by visiting our main page

Download Transcript

Bethany Lockhart Johnson (00:02):

Hi, I’m Bethany Lockhart Johnson.

Dan Meyer (00:04):

Hi, I’m Dan Meyer.

Bethany Lockhart Johnson (00:05):

And we are so excited for another episode of Math Teacher Lounge. And as you know, podcast format; you’re listening now. I think one beautiful thing about the podcast format is that it gives us a little bit more time to have these rich conversations. And I promise I won’t do it, but I could talk to our guests for hours, hours! Authors Allison Hintz and Tony Smith have just released Mathematizing Children’s Literature: Sparking Connections, Joy, and Wonder Through Read-Alouds and Discussion. And today we get to talk to the authors. Allison, Tony, welcome. Welcome to the lounge.

Allison Hintz (00:53):

Thank you. We’re so grateful to be here.

Bethany Lockhart Johnson (00:55):

We’re so excited to have you here. And I wanna say that my very first—was it my first math conference? Maybe it was my first math conference—up in Seattle, the CGI conference, and I’m all like, you know, wide-eyed and just like, “Can this be a place for me, this math community?” Re-envisioning my relationship with math and thinking about myself as a math teacher, what? And I went to your session on mathematizing children’s literature, and I was just so fired up. I was so wowed by your ideas, your energy, and your passion for students’ thinking. And I feel like as I read this book, I felt like I was hanging out with you. Like you were just so encouraging all the way through. Of educators, of other folks working with young people, and really guiding us how to listen with joy and with an open curious mind.

Dan Meyer (02:03):

Yeah. I would love to hear a bit about the genesis of this book for you folks. Like, I’m coming at this from a secondary educator lens. I’ve got small kids, so that’s also part of my interest here. But I love any book, any idea that seeks to merge what seems like two disparate worlds. Like it’s often the case that we feel like, well, there’s approaches for ELA and approaches for math, and they’re kind of separate disciplines. And these poor elementary teachers have to learn all of them and be experts at all of them. And here you both come along and say, “Hey, what if they are the same kind of technique?” Can you just speak to how this came about?

Allison Hintz (02:38):

Definitely. Tony, do you wanna take a try? Do you want me to start us off?

Antony Smith (02:42):

I can start. We oftentimes present and talk together and so we kinda switch back and forth. So that’s just how we are. So probably about eight or nine years ago, Allison and I, our offices were next to each other on our small campus. We’re both professors and we just happened to have a few children’s books that we looked at together and we were just thumbing through the pages. We really liked children’s literature. And we noticed that I would stop at certain points wondering about character motive or plot or sequence of events or language use. And Allison would stop at very different points in the book and notice number and concepts or something about mathematics. And that’s when we started to wonder, what would it be like if we were sharing a children’s book with a group of children and we put our ideas together? Where would we stop? What would we talk about? What would we ask children about in terms of their thinking and what they notice?

Allison Hintz (03:42):

And so we started playing with these questions that we had and started approaching stories with multiple lenses to see what kinds of things would children notice and what kinds of things might they say. And we were also on our own journey in trying to understand how to plan for and facilitate lively discussions and classrooms that surface really complex mathematics. And it felt like stories were a place where that might be a fruitful context for hearing children’s thinking. We’ve worked with a lot of teachers and students in our region. We live in the Seattle area and we’ve applied for some funding over time that’s really helped us be in a lot of community-based organizations and educational contexts and libraries and pediatricians’ offices and classrooms, various classrooms, and see what’s interesting about this and what might teachers and children do with stories that would surface complex mathematics to think about together.

Antony Smith (04:41):

Over time, we came to the realization that if we wanted to hear children’s ideas, we had to stop bombarding them with questions. <laugh> Yeah. And at first it made it worse that we were asking them math and literacy questions at the same time. And so we realized that what we needed to do was to back off and to ask children what they noticed and wondered.

Bethany Lockhart Johnson (05:01):

Can you say more about that and how that kind of evolved into mathematizing children’s literature?

Antony Smith (05:07):

We did work with a number of very thoughtful, talented classroom teachers and children’s librarians in public library systems who were just so masterful at asking open-ended prompts and questions, rather than kind of like the de facto reading quiz, that a read-aloud can become, which I’ve always disliked as a literacy educator. And we realized in our observing these read-alouds or interactive read-alouds or shared reading experiences that given the opportunity in the space and an adult who was actually listening, that children came up with all of the ideas we would have asked them about and more. So we didn’t have to be bombarding them with questions. They were already much more thoughtful than what would’ve been sufficient to answer our questions.

Allison Hintz (05:58):

And much like mathematics, it was really an iterative process. You know, we had some clunky read-aloud discussions where we were trying to accomplish so much and toggling multiple chart papers and different colored pens and all sorts of “how do we capture these ideas” and “do we separate ’em? do we keep ’em together?” And so it’s really been over time that with partners, we’ve learned these ways of having multiple reads of the same story that allow us to hear what children notice and wonder, and then to delve more deeply into their questions and their ideas through multiple reads where we might spotlight literary ideas that they notice; we might spotlight mathematical ideas that they notice. We might make purposeful integrations between those. But we found it to be most productive—and Kristin Gray really help us think about this—to have an open Notice and Wonder, get everything out much like an open-strategy share. We welcome here, record all the ideas, and it goes all over everywhere. You know, it can be a really not math-y noticing! And those are amazing! So there’s a lot of, um, yes, there is a ladybug on this page! The grandma is wearing green triangle earrings! Oh, your grandma wears green earrings! I mean, it all comes out.

Bethany Lockhart Johnson (07:27):

Wait, have you been in my classroom? ‘Cause that’s exactly— <laugh>

Allison Hintz (07:29):

<laugh> And then, you know, we think of it a lot like if math teachers might use the 5 Practices for selecting and sequencing, or if you might move from an open-strategy share to a targeted share, how can we get out all the questions that children are asking and then step back from them, take some time to really think about what they’re telling us they’re curious about, and plan some purposeful, intentional subsequent discussions that can delve more deeply into their ideas.

Dan Meyer (08:02):

I’d love to go into that a little bit more if that’s all right. Um, I’m gonna speak from someone who doesn’t have an elementary background and I’m gonna voice some worries that I had, some anxiety. One anxiety I have like in a classroom or a curriculum is when there’s no room for student ideas. Right? When it’s like, oh, there’s just room for the curriculum author or the teacher here. That is a sadness. But I when I see an instructional environment like you’re describing here, where there is openness to all kinds of different student ideas, of different levels of formality, from different kinds of cultural fonts of knowledge or wherever, I also get a little bit nervous because that, like, increases the risk that a student might come to understand that “my ideas are not good enough,” whereas in the class with no room for their ideas from their home or their language or their hobbies, like, they’re not gonna internalize the message that, “that wasn’t good enough.” And so I’m really curious as you move from the open Notice and Wonder where kids share all of themselves with you, and then you move to a targeted focus on some sort of disciplinary objective, how do you navigate that tension and help students feel like their contributions are valuable, even though we aren’t taking them up per se?

Allison Hintz (09:18):

That’s such an important question. I mean, I think we’ve grappled with this broadly in math education. I think any time we’re thinking about which ideas we choose to take up to pursue to consider, we have a responsibility to think carefully about whose ideas are being taken up and heard and considered. And so one of the tensions I hear you naming, I think, Dan, is when we engage in lively discussion where children’s thinking’s at the center, how do we make sure to upend and interrupt kinda status norms that run the risk of being deepened? Um, and I think by paying attention to whose ideas are taken up as much as which ideas are taken up, and what’s the mathematics we wanna explore is one tension. Um, another tension I might hear you naming is, you know, the complications that teachers face with time and pressure and coverage, and which mathematics ends up getting worked on. And, um, you know, it’s something we’ve really had to struggle with in mathematics education, where we move to more discussion-oriented classrooms that are really centered in sense-making to know that it takes a lot of time to do this thoughtful, thoughtful work. Um, does that begin to get at some of the tensions you’re raising? Is there, is there more you’re thinking about?

Dan Meyer (10:53):

I think it’s really helpful that you kind of broadened the scope of the question beyond your book to “this is an issue that we are, you know, really challenged by and focused on broadly in math education.” And, um, I appreciate you bringing the element in of whose idea—not just which idea is taken up, but whose idea is taken up—is an opportunity where, let’s say, multiple people raise an idea that is towards an objective the teacher has, they have the opportunity to disrupt certain kinds of status, like ideas about status, in that moment. From your perspective, like, are there techniques to say, I don’t know, parking-lot certain kinds of questions and say like, “Hey, like these are awesome”? I don’t know. I just know that I see kids at like ninth grade. They are very reticent, often. They’ve internalized totally this sense of like, “I’m not gonna just, like, share about the pants the grandma’s wearing, you know; that will not be received well.” And so I’m just kinda wondering how that happens and like, what are the ways we can disrupt that? That process?

Antony Smith (11:54):

So thinking about that, Dan, from the teacher’s perspective, in those kinds of scenarios where you wanna honor each child’s contribution, a couple of things that come to mind: One is that by, you know, initially by modeling what I as a teacher, something that I notice or wonder about, helps kind of set the expectation for what kind of response would be encouraged. And it’s broad, but it gives an example. And then also we really try to record or to chart all of the ideas that are shared so that we can revisit and honor those together. And then either later or on another day, if we choose one or two of those to explore in some way within a more focused read, then another thing that we do is have the idea investigation afterward that continues that thought, but goes back to being as open-ended as possible, so that those students or children who maybe didn’t have their idea as the one that was focused on by the group could go back to that or explore some other idea of their own, so that the idea investigation isn’t a lockstep extension activity, which is why we don’t call it that. So they could again bring in their own perspective. But I have to say from the teacher’s point of view, there is that moment of potential panic <laugh> because there is that power transfer when you’re asking children to help steer where this is going. And if you really mean it, you have to let them steer a little bit. And that can be terrifying. And, um, I always think of one teacher, Ashley, we worked with who read an adorable book, Stack the Cats, by Susie Ghahremani. And in that book, there’s a point where there are eight cats and they’re kind of trying to be a tower of cats and they fall and they’re sort of in the air on that page. And she asked her first graders—she stopped, and she asked, “How, do you think, how will the cats land?” And for about a minute and a half, the entire <laugh> class, was silent. They had their little papers; they had chart paper; they had clipboards; they had everything they needed. But that unusual phenomenon of a group of six- and seven-year-olds actually just sitting and thinking and not being peppered with activities was really stressful, but amazing. And then, after about the 90 seconds, they started out into their exploration of how the eight cats might land. They just needed a minute to think. And it’s so rare that we’re able to let children have that.

Allison Hintz (14:40):

In that same moment, Ashley, who’s a learning partner to us, she turned to us kind of quietly, like, “Should I pose a different question?” And <laugh>, we’re like, “No, let’s stick with it. Let’s see what happens.” So I think it creates this space too, this thinking culture, right? And this culture of “what does that mean to really pose a rich task?That’s open-ended, where there’s multiple access points?” Those eight cats could land in so many different ways. And there was broad access, there was a wide range of all the cats landing, and one’s on their feet, ’cause cats always land on their feet <laugh>, and there was every combination. And so, um, I think what’s really interesting—and to me, this brings back to your wonder, Dan—is, you know, “What’s the risk in openness?” And there’s always risk in openness. Um, it’s scary as a teacher, right? If I’m not the authority of knowledge and I don’t have control over where we’re gonna go, it might get into places that I didn’t anticipate. Or I don’t really feel as solid in the math as I want to. Or I don’t know what it sounds like to stick with silence and wait time, to know if my students are really in productive struggle or if that question was a flop. And so, um, I think this is some practice space for young mathematicians and teachers of mathematics, and just teachers, to explore with that openness and kind of the risk of the openness required for complex thinking to emerge.

Bethany Lockhart Johnson (16:12):

You know, it feels like the way you’re both describing this, it really is a culture shift, right? I kept feeling like I was given permission to be a beginner as I read this book. Like I was really…I loved how you said, I believe it was you, Allison, when you were in the class, you had a couple index card that you kept on your clipboard and that as you walked around, you were like, “Hey, if I don’t know what to ask, I ask one of these questions.” You know? And just this idea that, that, like Dan was saying, there is that loss of control, but that’s also a way to create this culture where students ideas are valued and we are allowing students to really generate the questions, which I thought was such an important idea to explore.

Allison Hintz (17:00):

We started this work long ago, super-excited about math-y books. And we saw a lot of potential in them and we still do. But the limitation we saw is that math-y books, they, they put forth a certain mathematics to be curious about. In some ways they tell you what mathematics to think about. So we started asking ourselves what would happen if we considered any story a chance to engage as mathematical sense-makers. And we started playing with non-math-y books and we got to a place where we could consider every story an opportunity to engage in mathematical thinking. And so we started noticing things over times, oh, these books tend to be really math-y. We call those text-dependent. We’d have to pay attention to the mathematics to understand the story. Whereas this pile of stories, these, they’re not overtly math-y. You could really enjoy the story and not pay attention to mathematics and have an amazing conversation. But what would happen if we thought of about this story as mathematical sense-makers and how might it deepen our understanding of the story? And then this other teetering pile of books, these are books where, you know, children didn’t tend to engage as overtly as mathematicians in it, but there’s opportunities in this story to go back to something—to a moment, to an illustration, to a comment—and think as mathematicians. And those were more about illustration exploring. And so, as we notice these different kinds of books, we really broaden what we thought about. And I think one of the things we really wanna think about in community through this book is what happens if we approach any story, every story, as mathematical sense-makers, because stories are alive in children’s lives, in homes and communities and in schools. And it’s a broad opportunity that we wanna take up. I was thinking, as I stay in this strait for just a moment about book selection, before we move into that process, um, Bethany in a previous MTL, you talked about representation.

Bethany Lockhart Johnson (19:12):

Mm, yeah.

Allison Hintz (19:14):

And do you remember when you shared the image of hair braiding?

Bethany Lockhart Johnson (19:19):

Yes. Vividly, yes. <laugh>.

Allison Hintz (19:22):

Yeah. And can you say just what that meant to you? What that….

Bethany Lockhart Johnson (19:27):

Yeah. Well, it was from a conference; Sunil Singh had used it and was talking about the artistry in mathematics and beauty in hair braiding. And, um, particularly, he was showing this particular image of this Black woman with her hair braided in profile and looking at the angles and the symmetry. And I shared that, you know, I spent so many hours in the beauty shop with my aunties and my mom and my grandma and continue to, to this day, that it just, it struck me immediately as familiar. And it struck me immediately as seeing an image that was reflective of my lived reality, projected as valuable and worthwhile for consideration in the world of mathematics. Which is not what I felt as a student of mathematics as a young adult or child. So it was this beautiful moment of, for me, the power of when we see images and we allow opportunities for re-envisioning what may be a common practice for that student, or may be something that they see every day.

Allison Hintz (20:44):

And in that same way, that image that was put up, we wanna think really carefully about representation in the stories that we select. And when we think of stories as mirrors or windows, we really wanna be mindful in story selection of whose stories are told and whose stories are heard. And when you said that you would sit down to listen to a story and you felt at ease or that you saw an image and you saw yourself that can be and should be something we really think carefully about when we select the stories that we select.

Dan Meyer (21:21):

It’s a wider path for representation of different kinds of people in literature, because people’s stories seem so much more present and towards the surface of their lives, versus, say, the abstractions and numbers and shapes in mathematics. It feels like more of a struggle to find ways to show people, hey, like you’re here, this, this place belongs to you. So in all these reasons, I think it’s really great you folks are using literature, which has this history of humanities, literally humanities, as a vehicle for mathematics. That seems pretty special here.

Antony Smith (21:56):

We both go to libraries and bookstores and look through books as often as we can, but also our partner, a children’s librarian, Mie-Mie Wu, helped us go through—when we would meet, she would bring three or four hundred books at a time.

Bethany Lockhart Johnson (22:13):

When you described her wheeling in the cart, oh, I wish I been in that room! <Laugh>

Antony Smith (22:18):

And the cart was, you know, probably three or four times bigger than she was sometimes. And we would go through hundreds of books and look at them and listen to her thoughts as a skilled librarian sharing with families, diverse families, and what catches the attention of a three-year-old sitting with her grandfather. And that was really a valuable, helpful experience. And it’s a partnership that continues. So in Last Stop on Market Street—and this is in the book; we talk about this, this children’s book quite a bit—in this story, CJ with his Nana, his grandmother, are riding the bus to the last stop on Market Street in San Francisco, to go, as we will find out, to help serve in a soup kitchen to help the community. And the teacher, Susan Hadreas, had the children record their ideas. She charted them in an open Notice and Wonder read. And one of the ideas that a young boy noticed was that CJ on the bus…a man with a guitar starts playing the guitar on the bus and CJ closes his eyes and it says CJ’s chest grew full. And he was lost in the sound and the sound gave him the feeling of magic. So this boy said, “I wonder, what does that feel like if you’re feeling the magic? What’s that?” And that was one of many ideas in the open Notice and Wonder, and Allison will talk about the math lens read, but first Susan went back and read with them. She had that idea, she circled it on the chart paper, and another day that week, she said, let’s go back and visit this story we really liked. And remember, we wondered what feeling the magic was like. Let’s go back through and let’s keep track of all the feelings and emotions that CJ had across the journey to the soup kitchen in this book. And so they did another read of the story; they were very familiar with it, of course, but they noticed new things and they also, every few pages, stopped and she helped chart all of the emotions that CJ experienced from envy to excitement to sadness. There’s a huge range in this book. And it was fascinating.

Allison Hintz (24:36):

I think one of the things that the children noticed was that CJ’s feelings were shaped by community. And that he shaped and shaped…he was shaped by and helped shape his community. And so the ways that he felt across the story were impacted by the other characters that he comes across. The guitar man on the bus. The bus driver who can pull a coin out from behind someone’s ear. The lady with the butterflies in the jar. Nana helping him to see the rainbow. And the students started, you know, being curious about that. How do we shape and how are we shaped by community? What communities are we a part of? This class is one community. I’m in many communities across my life. And they started to quantify the number of people in the story. So Mrs. Hedreas went back for a math lens read, and she said, let’s just keep track of and pay attention to how many people are in CJ’s life in this day. Because I can hear you starting to think about quantity. This class at the same time in other areas of the day had been working on counting collections, how to keep track, so they got out their tools. Some people pulled out ten frames, some people pulled out clipboards. They had a wide range of things they could use to help them keep track. They developed their own strategy, keep track however you want. She did a quicker read through it, flipping the pages, and then they get into these debates: <laugh> “We already counted that person!” “But they took their hat off and put it down to collect money!

Antony Smith (26:10):

“What about the dog?”

Allison Hintz (26:11):

“That’s the same person!” “Yeah, there’s a dog pound in his community!” <laugh> “Do animals count in our community?”

Bethany Lockhart Johnson (26:17):

I love it!

Allison Hintz (26:17):

“Yes, they count!” Uh, and so we went through and quantified and there was really this understanding as you saw these people throughout the story that communities can be of different sizes, but community has impact. And you have responsibility in your community to show up and to lean in and to know that bringing your full, authentic, vulnerable self, you shape people and they shape you. And what communities are people a part of. And it turned into this really interesting discussion about quantity and helped us think more about quantity and community. I think a really important moment for us and for that class was the transition from being people who almost did mathematics to a story, like counted things on a page, um, count acorns on a page in an autumn book, to being mathematicians who thought within the story.

Antony Smith (27:17):

And then two idea investigations that came from that —not at the same time, of course, but with the same group of children—one was they identified an emotion of their own and wrote and drew about that. And also, who helped them address or get out of or acknowledge that emotion. And then the other idea investigation was that all of the children drew or kind of mapped out a community that they were part of. Whether it was their neighborhood or their classroom or their soccer team or whatever it was. And so then those investigations strengthened the connections of those concepts to the lives of those children.

Bethany Lockhart Johnson (28:05):

Well, I, actually wanted to ask you about idea investigations. Because I feel like that was such an important invitation in your book. And the way I understood the idea investigation is you’re really paying attention to what’s coming up in your other reads. Right? And then these are opportunities to extend the thinking, or like you said, to extend a particular aspect: What’s your community? Can we map your community? Or what’s a particular emotion? And it was in such contrast to what I think I have probably done in my classroom more than once, which was like, “Oh, we read this story about seals. So now my story problem is gonna be about seals, right? <laugh> Like in the story, you know, Jojo, the seal had five balls. <laugh> So if Jojo still had five balls and two of them bounced away…” You know, or whatever. Right? But that’s not what an idea investigation is. Right?

Allison Hintz (29:03):

Yeah. I think this is where we also had some stumbles and can totally relate to what you’re saying as previous classroom teachers as well. We have come to a place where we are pretty in favor of a super open-ended idea investigation that takes up the things that have surfaced in the multiple reads and making sure it’s a rich task with many, many ways children can engage with that. There’s many, many, many right answers or ways to engage. Less is more there. So we moved way away from, like, even a worksheet that might have an idea from it to blank paper and math tools and places to get into some productive struggle around some of the complex things that were raised.

Antony Smith (29:59):

A challenge with worksheets is that they put a frame around children’s ideas. So either there are only three lines to write on, or there’s only a small box to draw in. Whereas a blank page really opens up the possibility. Um, and so—is it Ann Jonas who wrote Splash!? sorry, I don’t have it in front of me—the book Splash!, about animals that end up in and out of the pond, including a cat that is not happy about ending up in the pond, an idea investigation after that for very young children was, with the list of the different creatures displayed at the front of the room: On blank paper, hey, draw your own pond and decide how many of which and each type of animal you want in your pond and then write about it. Just on blank paper. And so that allowed some children to draw, like, three giant goldfish. But other children drew 17 frogs and three cats. And, and just, it lets children follow—

Bethany Lockhart Johnson (31:02):

It was theirs, right? It was theirs.

Antony Smith (31:04):

Their idea. <laugh> And that comes partly from, I think, as Allison mentioned, we both were classroom teachers before moving into academia. And I remember giving children worksheets, particularly math worksheets, where they weren’t necessarily bad, but right at the bottom, it says like, explain your strategy. And it gives two lines.

Bethany Lockhart Johnson (31:23):

Right! <laugh>

Antony Smith (31:25):

The only thing a seven-year-old can write there is “I thought.” Or “I solved it.” <laugh> And that’s not where we need to go.

Dan Meyer (31:34):

Yeah. If I could just ask the indulgence of the primary crowd here, like, I’m trying to make sense of all this. And I just wanna like, offer my perspective. My summary statement of what’s going on here. I’m trying to—I love how you both came here—

Bethany Lockhart Johnson (31:45):

<laughs> How ya doin’, Dan? How ya doin’?

Dan Meyer (31:47):

<laughs> I’m, ah, A, I’m loving this a lot. Um, B, I came in here loving how you folks are broadening the work of primary education to kind of find commonalities between these sometimes seemingly disparate kinds of teaching in ELA and math. Love that, I wanna say. But I think you folks are describing, with all these teachers you observed and your own work, is the work of attaching meaning to what students might not realize yet has meaning. Or they might think it only has one kind of meaning. But you, the teacher, with their knowledge, realizes that there are many more dimensions of meaning that can be attached to those thoughts. And I’m hearing that from you folks, when you describe A, what math is and the power of a teacher to name a thing as mathematical. Like, “Oh, you didn’t think math was that, but math is noticing; math is wondering; math is asking questions,” for one. But also this work you’re describing of how, like, first the task has to invite lots of student thoughts and then to say like, “Oh, I see that there’s a similarity to these two.” And to raise those up for a conversation or to ask a question like to extend one person’s, one student’s question a little bit more. But it’s always…I’m just hearing you folks attaching more meaning than the student might have originally thought. I appreciate the conversation. That’s really interesting.

Bethany Lockhart Johnson (33:03):

Well, and now that the book is out, I think it’s gonna keep evolving, right? Now that it’s gonna be in the hands of teachers and librarians and educators and caregivers, it’s exciting to see kind of where it goes next. Which actually brings us to our MTL challenge. Dan Meyer, do you wanna share?

Dan Meyer (33:22):

Math Teacher Lounge, we have a challenge for the folks who listen and we’d love for them to hop into the Facebook group Math Teacher Lounge, or hit us up on Twitter at @MTLShow and just, like, kind of exercise beyond listening, exercise the ideas you folks are talking about, some kind of a challenge that can help us dive deeper into your ideas. So what would you folks suggest for our crowd, for our listeners?

Allison Hintz (33:42):

I would love to invite people to playfully experiment with a favorite story, with a story that’s new to you. I would love to invite listeners to sit with a story maybe on your own, and just ask yourself as a mathematician: What do you notice and wonder in this story? Don’t feel any pressure. Maybe sit with a child or some children and listen to what they notice and wonder. Like, really listen! Don’t ask questions! But hear their questions and place children at the center and consider multiple reads. Consider continuing to pursue their questions. And we have a planning template that might support people in kind of sketching out some ideas if you’re open to playing with that too.

Bethany Lockhart Johnson (34:34):

And we will post—

Dan Meyer (34:36):

That’s awesome.

Bethany Lockhart Johnson (34:36):

—a link for that planning template in our Facebook group and on Twitter as well. So thank you so much for that resource, because I think it’ll definitely help. It could help you, like you said, it could help you kind of organize your thoughts or help you think about this work in a new way. So thank you for that resource and thank you for the amazing resource that is Mathematizing Children’s Literature. I am so excited to continue to engage with you both and with listeners as they dive into this book. If folks want to engage with you more, where can they find you? How can they reach you?

Allison Hintz (35:12):

Well, we’re on Twitter.

Bethany Lockhart Johnson (35:14):

Great.

Dan Meyer (35:15):

What’s your home address? <laugh>

Bethany Lockhart Johnson (35:24):

Wait, let me try that again. <laugh> ‘Cause it does sound like I’m like, <fake ominous voice> “Where can they find you?”

Allison Hintz (35:29):

4-2-5…. <laughs>

Antony Smith (35:32):

At the bookstore!

Bethany Lockhart Johnson (35:34):

Y’all, if folks want to continue this conversation or share these ideas or the math challenge, how can they tag you? How can they, they reach you on the World Wide Web, besides the Math Teacher Lounge Facebook group?

Antony Smith (35:50):

Yeah. Well, we are both on Twitter, and we’ve been trying to promote the hashtag #MathematizingChildrensLiterature. It’s very long, but once you type it once, your phone or computer…

Bethany Lockhart Johnson (36:01):

Easy. Yeah, those click, right? Is that what it is now?

Antony Smith (36:03):

<laugh> The other is that we do for our project, we have an Instagram account that is @MathematizeChildren’sLiterature.

Allison Hintz (36:11):

We care really deeply about hearing from people. You know, we think our ideas are constantly evolving and that there’s such exciting room to grow. And we just felt compelled to share what we were learning now so that together we could learn and build vibrant experiences for young children and teachers and families through stories. So we want to hear from people! We wanna learn about stories that are important in your lives and what children say, and grow these ideas together.

Bethany Lockhart Johnson (36:42):

And credit to Dan, you told me you went and ordered a bunch of the books they have on the suggested read list.

Dan Meyer (36:48):

Oh my gosh.

Bethany Lockhart Johnson (36:49):

You read ’em to your son.

Dan Meyer (36:50):

I got such a side-eye from my significant others around here for what I dropped on Amazon in one night! <laugh> Uh, all these books I didn’t have. Some of them I did. We are not fully illiterate around here! We do love the written word at the Meyer household! But there were a bunch that that I grabbed. I’m morseling them out day by day.

Bethany Lockhart Johnson (37:09):

Wait, at bedtime I read my one-year-old One Is a Snail, Ten Is a Crab. <laugh> And let me tell you, he had vigorous pointing and “Da? Da da da da?”

Allison Hintz (37:22):

<laugh> Aww, da da!

Bethany Lockhart Johnson (37:22):

So hey, we’re on the road. <laugh> <music> Deeply grateful, not only for your work and your beautiful book and your work, but also for the invitation to dive into the world of children’s literature in a way that many of us have not before. And it’s fun! Thank you, Tony. And thank you, Allison. And thanks for hanging out in the lounge.

Allison Hintz (37:48):

Thanks for having the lounge!

Antony Smith (37:49):

It’s been fun!

Allison Hintz (37:52):

Thank you both.

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What Allison Hintz says about math

“We started asking ourselves, “what would happen if we considered any story a chance to engage as mathematical sensemakers”.”

– Allison Hintz

Author and Associate Professor, University of Washington Bothell

Meet the guest

Allison B. Hintz: Dr. Hintz’s research and teaching are in the area of mathematics education. Her focus on mathematics came about during her years as a fifth grade teacher – it was alongside her students that she developed her own positive identity as a mathematician! Today she studies teaching and learning, specifically facilitating engaging discussion. Her research and teaching happen in partnership with educators and children in formal and informal settings and focuses on beliefs and practices that support all children in lively mathematics learning. She is a co-author, with Elham Kazemi, of Intentional Talk: How to Structure and Lead Productive Mathematical Discussions.

Twitter: @allisonhintz124

Antony T. Smith: Antony T. Smith is an associate professor of literacy education at the University of Washington, Bothell. He works alongside teachers to create engaging literacy-mathematics learning experiences through exploring and discussing children’s literature. He is committed to the concepts of motivation, engagement, challenge, and creativity in literacy teaching and learning.

 Twitter: @smithant  Instagram: mathematizechildrensliterature

Two people appear in separate circular frames; the woman is smiling and wearing headphones, while the man stands in front of bookshelves, perhaps discussing Mathematizing Children’s Literature.
Podcast cover for "Math Teacher Lounge" with Bethany Lockhart Johnson and Dan Meyer; bold text on orange and teal semicircle background.

About Math Teacher Lounge: The podcast

Math Teacher Lounge is a biweekly podcast created specifically for K–12 math educators. In each episode co-hosts Bethany Lockhart Johnson (@lockhartedu) and Dan Meyer (@ddmeyer) chat with guests, taking a deep dive into the math and educational topics you care about.

Join the Math Teacher Lounge Facebook group to continue the conversation, view exclusive content, interact with fellow educators, participate in giveaways, and more!

Winter Wrap-Up 03: Ideas to build math fluency

Promotional graphic for "Math Teacher Lounge" episode featuring Valerie Henry, Ed.D., on ideas to build math fluency, with a photo of Valerie Henry in the bottom right corner.

Join us for the third episode in our Winter Wrap-Up! In this episode from season 3 of Math Teacher Lounge: The Podcast, we sit down with Dr. Valerie Henry to talk about math fluency and what that means for students. Listen as we dig into the research, hear Val’s three-part definition of fluency, and explore her five principles for developing it.

Explore more from Math Teacher Lounge by visiting our main page

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Dan Meyer (00:03)

Hey folks. Welcome back. This is Math Teacher Lounge, and I am one of your hosts, Dan Meyer.

Bethany Lockhart Johnson (00:07):

And I’m your other host, Bethany Lockhart Johnson. Hi, Dan.

Dan Meyer (00:11):

Hey, great to see you. We have a big one this week to chat about and some fantastic guests. We are chatting about fluency, which is the sort of word and concept that I feel like people have very, very non-neutral associations with it. A lot of them are very negative, for a lot of people.

Bethany Lockhart Johnson (00:26):

I saw you frown a little. What’s up with that, Dan? You kind of, like, shrank.

Dan Meyer (00:30):

I have strong feelings about it. You know, there’s lots of ways that people go about helping people become fluent in mathematics. And a lot of them are harmful for students, and ineffective. And it got me thinking about fluency as it exists outside of the world of mathematics, where we have a lot of very clear images of it. We’re getting fluent in things all the time. Like, as humans. Human development is the story of fluency. And I just was wondering….Bethany, would you describe yourself as fluent at something outside of the world of mathematics? What is that? How’d you get fluent at it? What was the process?

Bethany Lockhart Johnson (01:05):

Hmm, I think I’m a pretty fluent reader. I read all the time. I’m a happier person if I’ve read that day. I once saw this poster in a classroom; it said “10 Ways to Become a Better Reader: Read, Read, Read, Read, Read…you know, 10 times. Get it? Reading? You get better at reading by reading! So I would say reading. And it’s been kind of cool—I have a one-year-old who, it’s been really exciting slash overwhelmingly anxiety-producing to see him get very fluent with walking slash running, ’cause he’s getting faster every day. And it’s kind of fun. When I think of what’s something somebody’s trying to get fluent with…walking! He’s trying to be more fluid. He’s practicing transitions. He doesn’t wanna hold my hand while he traverses rocky terrain. He’s getting better at it. He’s practicing. What about you? What’s something…?

Dan Meyer (02:08):

I think about driving a lot. I’m a very fluent driver and I think a lot about when I was first a driver, you know? And how l have my hands on 10 and 2, vice grip, and do not talk to me; do not ask me anything; don’t ask me my NAME. I need to focus so hard. And then a year later, you know, I’m driving with one hand, smash the turn signal, take a sip off of whatever, change the CD. And then it’s no big deal.

Bethany Lockhart Johnson (02:38):

Wait, did you pass the first time? Your test?

Dan Meyer (02:40):

Yeah, I don’t like to brag about it. <laugh> But I do all the time. <laugh> But I got a hundred on my driving test. I don’t care who knows it. And I hope it’s everybody. But I guess all of this is just to say there are areas of life where fluency feels natural, with the case of walking. There’s areas of life where fluency feels motivating, with like driving—I wanna be able to switch the CD out or whatever. And there’s areas where fluency feels terrifying and hard to come by, like mathematics, sometimes. So we have a set of guests here. Our first guest will help us figure out what do we mean by fluency? And what’s the research say about what fluency is and how students develop it in mathematics? And then our other guests will help us think about what it looks like in practice in the classroom. What are some novel, new ways to work on fluency? So first up we have Val Henry, Dr. Val Henry.

Bethany Lockhart Johnson (03:32):

So we knew we needed help with the fluency definition, because when we think about it, it’s kind of big, right? And we wanted to look at what research about fluency really says. So we called on Valerie Henry. Val is a nationally board-certified teacher, taught middle school for 17 years, and since 2002 has worked with undergraduates graduates, credential candidates as a lecturer at the University of California, Irvine, one of my alma maters. So after doing her dissertation on addition and subtraction fluency in first grade, Val created a project to study ways to build addition and subtraction and multiplication and division fluency while also developing number sense in algebraic thinking. And the pilot grew and grew over the last 18 years into a powerful daily mini-lesson approach to facts fluency called FactsWise. And when we thought of fluency, the first person I thought of was Val. Welcome, Val Henry, to the Lounge! I’m so excited to have you here. Welcome.

Valerie Henry (04:36):

Thanks, Bethany. And thanks to you, Dan. It’s great to be here today.

Dan Meyer (04:41):

Great to have you; help yourself to whatever you find in the fridge. The names that people write down on those things in the bags are just recommendations. It’s potluck-style here. I’m curious, Val, if you’re, like, on an airplane, someone asks you what you do, and you say you study fluency…what is the layperson’s definition of what does it mean to be fluent in mathematics? And if you can give a brief tour through what the research says about what works and what doesn’t that would really help us orient our conversation here.

Valerie Henry (05:12):

The first thing I have to do when I talk to somebody on a plane is define the idea of fluency. And I often use an example of tying your shoelaces. Because that works with first graders as well as adults. This idea that when we first start trying to put our shoes on and get those shoelaces tied, somebody tries to, first of all, just do it for us. But then of course maybe tries to teach us the bunny-ears approach. And we struggle and struggle as little kids and eventually either the bunny-ears approach or something else starts to work for us. But we still have to pay attention to it. We have to think hard and it’s not easy. And then over time we get to the point where we basically don’t even think about it. When I tie my shoes in the morning. I’m not thinking about right-over-left and left-over-right and all of those things. I just do it. And so that’s a good, easy example of becoming fluent with something. I think what we’re talking about today though, is the basics, the adding and subtracting that we hope kids are going to have mastered maybe by second grade, and the multiplication and division facts that we wanna maybe have mastered by third, maybe fourth grade. So now what does that mean to become fluent with those basics? I have a three-part definition that seems to match up really nicely with the common core approach to fluency. Which is, first of all, we want the answers to be correct. And then second, we want the answers to be easy to know. And so what does that mean? Well, to me, it means without needing to count,

Bethany Lockhart Johnson (07:12):

You mean without having to kind of muscle through it? Or say more about you mean.

Valerie Henry (07:16):

Well, I guess what I mean is that when you watch a young child try and solve something even as simple as two plus three, they might put up two fingers and then go 3, 4, 5 with three more fingers winding up on their hand, one or the other of their hands. While they’re doing that, they don’t really have a sense of whether even their answer is right or not, quite often. Especially when you get to the larger adding and subtracting problems, you can see a lot of errors happening as they’re trying to count. And it’s taking up cognitive energy to do that counting process, especially as you get to the larger quantities. So my definition of fluency now is “getting it right without needing to do that hard work like counting.” Now, some people might say, well, we just want them to have ’em memorized. But in my research, I’ve learned that a lot of very fluid adults don’t always have every fact memorized. In fact, if you ask a room full of adults, what’s seven plus nine, you might learn that they can all get it correct quickly, quickly…but they don’t all have it memorized. And so when you ask them, “How did you get that?” Many of them will say, “Well, I just gave one from the 7 to the 9 and I know that 10 plus 6 is 16.”

Bethany Lockhart Johnson (08:53):

That’s such an important distinction. My brain literally just did that actually!

Valerie Henry (08:58):

<laugh> Right? <laugh> But you’re fluid with it, because it doesn’t take you much cognitive energy at all.

Bethany Lockhart Johnson (09:05):

Right.

Valerie Henry (09:07):

So now we have “correct without needing to put that cognitive energy,” which usually means that you’re counting. And then the third thing is “relatively quickly,” so that you’re not spending 15 seconds trying to figure it out. Even that part-whole strategy approach can be done really quickly, almost instantaneously. Or it can take a long time. So if a student can get the answer correct within, you know, three or four seconds— is I’m pretty generous—I figure that they’re pretty darn fluent with that fact. So that’s my three-part definition of these basics, fluency.

Dan Meyer (09:55):

I love the distinction between getting it correct and getting it quick. It’s possible to be quick with wrong answers. It’s possible to be like, “Those are separate components there.” And I echo Bethany’s appreciation for this third option in between knowing it instantaneously through memorization and muscling through it. But there’s like a continuum there of how much energy it took you to come up with it that all feels extremely helpful.

Valerie Henry (10:21):

And you know, one of the things that I’ve noticed is that when kids are pressured to come up with those instantaneous answers, they often default to guessing and get it wrong.

Bethany Lockhart Johnson (10:30):

Mm, yeah.

Valerie Henry (10:30):

So that’s one of the things that I’ve learned is that as we’re trying to help students develop fluency, it’s important to start with building their conceptual understanding of what it means to do, you know, 3 times 9 and what the correct answer is, maybe using manipulatives or representations of some sort. Not skip-counting! I really have found that skip-counting just perpetuates itself in many students’ minds and that they never stop skip-counting, which means they’re putting in not very much mental energy if it’s 2 times 3 but a ton of mental energy if it’s 7 times 8. Because frankly, it’s really hard to skip count by sevens. And by eights.

Bethany Lockhart Johnson (11:18):

I can get to 14 and then I’m like, wait, wait, what was next? Right? No, no, no…21! What do you feel are some misconceptions that maybe teachers, maybe parents have about fluency in math?

Valerie Henry (11:30):

I think maybe one of the first ones is that if students count or skip-count, their answers repetitively over and over and over and over, that they’re bound to memorize them. And the study that I did back in 2004, I actually had a school that had decided that they were going to do time tests with their students every day, all year. And that undoubtedly by the end of the year, those students would be fluent.

Bethany Lockhart Johnson (12:06):

And to clarify by time test, you mean like, sit down, pencil, paper, ready, go, worksheet kind of thing.

Valerie Henry (12:15):

Yes.

Bethany Lockhart Johnson (12:16):

Some of us might remember quite vividly.

Valerie Henry (12:18):

<laugh> Very vividly. And you know, you have to get it done within a certain amount of time. So they made it fun for the students. Apparently the students enjoyed it. I was a little leery about that, but in the end, when I went and checked on the students and I did one-on-one assessments with half of the students in every class that were randomly selected so that I could get a sense of where they were with their fluency—and these were first graders—they basically had nothing memorized. They were simply counting as fast as they possibly could. And, you know, mostly getting the right answers. But they had not memorized. So that’s one of the myths, I think, is that repetitive practice of counting gets you to memorization.

Bethany Lockhart Johnson (13:10):

If I put it in front of you enough times, you’ll become fluent.

Valerie Henry (13:14):

Right, right. Now these students didn’t really get any instruction, any help learning these. They just simply tested over and over and over. So that’s another thing that I think is a misconception. It’s that if we test students, but don’t really teach them fluency, then they’re going to become fluent. If we just test them every Friday or that kind of thing. And that they’ll learn them at home. But really what that means is a few lucky kids who have parents who have the time and the energy and the background to know how to help will take that job on at home. Not that many students are really that fortunate.

Dan Meyer (14:01):

It’s almost like the traditional approach, or the approach you’re describing, confuses process and product. It says, “Well, the product is that eventually fluent students will be able to do something like this, see these problems and answer them, answer them quickly,” and says, “Well, that must be the process then as well; let’s give them that products a whole lot.” But as I hear you describe fluency with bunny ears on shoelaces, there’s these images and approaches and techniques that require a very active teacher presence to support the development of it. That’s just kind of interesting to me.

Valerie Henry (14:35):

My initial project, the pilot project that I tried, was to simply ask teachers to follow five key principles. And the first one was to do something in the classroom every day for—I told them, even if you’ve only got five or 10 minutes, work on fluency for five or 10 minutes a day, and let’s see what happens. So that was one key element was just to teach it and to give students opportunities to get what the research calls for when you’re trying to memorize, which is actually immediate feedback. When I talk about immediate feedback with my student teachers, I say, “I’m talking about within one or two seconds of trying a problem, and then sort of immediately knowing, getting feedback of whether you got the answer right or not so that your brain can kind of gain that confidence. ‘Oh, not only did I come up with an answer, but somebody’s telling me it’s the correct answer.’”

Dan Meyer (15:38):

There’s a lot of apps now in the digital world that offer students questions about arithmetic or other kinds of mathematical concepts and give immediate feedback of a sort: the feedback of “You’re right; you’re wrong” sort. Is that effective fluency development, in your view?

Valerie Henry (15:57):

I haven’t heard and I haven’t seen them being super-effective. The ways I think about this are “Immediate feedback isn’t the only thing we need.” Probably one of the biggest things that we need is for students to develop strategies. And this is one of the other things I’ve learned from international research, from countries that do have students who become very fluent very early, is that they don’t shoot straight for memorization, but they go through this process of taking students from doing some counting and then quickly moving them to trying to use logic. So, “Hey, you really are confident that 2 + 2 is 4; so now let’s use that to think about 2 + 3.” Actually, as an algebra teacher, I would much rather have students that have a combination of memorization and these strategies, than students who’ve only memorized. Isn’t that interesting that my most successful algebra students were good strategy thinkers. Not just good memorizers.

Bethany Lockhart Johnson (17:09):

So you mentioned there were five that kind of helped root this idea in like, “What can teachers do? What is the best thing that teachers can do to support with fact fluency?” So, everyday was key.

Valerie Henry (17:22):

Then the next principle that I really focus on is switching immediately to the connected subtractions so that students—

Bethany Lockhart Johnson (17:33):

Not waiting until you’ve gotten all the way through addition. But making “Ooh!”

Valerie Henry (17:38):

Totally. And I didn’t do that the first year. And when we looked at the results of the assessments at the end of the year, we realized that our students were so much weaker in subtraction than addition. So the following pilot year, we tried this other approach of doing subtraction right after the students had developed some fluency with that small chunk of addition. And we got such better subtraction results.

Bethany Lockhart Johnson (18:11):

What are the other principles?

Valerie Henry (18:13):

The biggest one is to use these strategies. So the strategies makes the third. And then the fourth I would say is to go from concrete to representational to abstract.

Bethany Lockhart Johnson (18:27):

Don’t put away those manipulatives. Don’t put away those tools.

Valerie Henry (18:31):

Oh, so important to come back to them for multiplication and division. And my fifth principle is to wait on assessment. To use it as true assessment, but not race to start testing before students have had a chance to go through this three-phase process. Which is conceptual understanding with manipulatives; building strategies, usually with representations; and then working on building some speed until it’s just that natural fluency.

Bethany Lockhart Johnson (19:07):

I wanna say thank you so much for offering your really learned perspective, because you have not only done the research, but seen it in action and seen how shifting our notions of fluency and what fluency can be and what a powerful foundation it can be for all mathematicians. Really, that shift is so powerful. And I appreciate you sharing it with our listeners and with us. So we’re so excited that we got to talk with you today, Val—

Dan Meyer (19:35):

Thank you, Dr. Henry.

Valerie Henry (19:37):

You’re welcome!

Dan Meyer (19:41):

With us now we have Graham Fletcher and Tracy Zager, a couple of people who understand fluency at a very deep and classroom level. I wanna introduce them and get their perspective on what we’re trying to solve here with fluency. So Graham Fletcher has served in education in a lot of different roles: as a classroom teacher, math coach, math specialist, and he’s continually seeking new and innovative ways to support students and teachers in their development of conceptual understanding in elementary math. He’s the author, along with Tracy, of Building Fact Fluency, a fluency kit we’ll talk about, and openly shares so much of his wisdom and resources at gfletchy.com. Tracy Johnson Zager is a district math coach who loves to get teachers hooked on listening to kids’ mathematical ideas. She is a co-author of this toolkit, Building Fact Fluency, and the author of Becoming the Math Teacher You Wish You’d Had: Ideas and Strategies from Vibrant Classrooms. Tracy also edits professional books for teachers at Stenhouse Publishers, including, yours truly. Thank you for all that insight, Tracy, and support on the book.

Bethany Lockhart Johnson (20:49):

Dan and I were talking at the beginning of the episode about things we feel like, “Hey, I’m fluent in that. I’m fluent in that.”

Dan Meyer (20:55):

Just very curious: What’s something you would like to get fluent in outside of the world of mathematics, let’s say?

Tracy Zager (21:00):

I’ll say understanding the teenage brain, as the parent of a 13-year-old and 15-year-old. That’s the main thing I’m working on becoming fluent in!

Bethany Lockhart Johnson (21:10):

Ooh!

Dan Meyer (21:13):

A language fluency, perhaps. All right, Graham. How about you?

Graham Fletcher (21:16):

For me typing, it’s always been an Achilles heel of mine. So voice-to-text has been my friend. But it’s also been my nemesis in much of my texting here and working virtually over the last couple years. So yeah, typing.

Dan Meyer (21:33):

Do you folks have some way of helping us understand the difference in how fluency is handled by instructors and by learners?

Tracy Zager (21:40):

I would say that the lay meaning of fluency is definitely a little different than what we mean in the math education realm. When we’re talking about math fact fluency, which is just one type of fluency. So you gotta think about procedural fluency and computational fluency; there are lots of types of fluency in math. And Graham and I had the luxury of really focusing in specifically on math fact fluency. We’re looking at kind of a subset of the procedural fluency. So the words you hear in all the citations are accurate, efficient, and flexible. There’s this combination of kids get the right answer in a reasonable amount of time and with a reasonable amount of work and they can match their strategy or their approach to the situation. That’s where that flexibility comes in. And there’s like lots more I wanna say about that about sort of…I think one issue that comes up around fluency is that people are in a little bit of a rush. So they tend to think of the fluency as this automaticity or recall of known facts without having to think about it. And that is part of the end goal, but that’s not the journey to fluency. So this is one of the things that Graham and I thought about a lot was the path to fluency. The goal here it’s that student in middle school who’s learning something new doesn’t have to expend any effort to gather that fact. And they might do it because they’ve done it so many different ways that they’ve got it, and now they just know it, or they might be like my friend who’s a mathematician who still, if you say, “Six times 8,” she thinks in her head, “Twelve, 24, 48…” and she does this double-double-double associative property strategy. And it’s so efficient, you would never know. And that’s totally great. That’s fine. That’s not slowing her down. That’s not providing a drag in the middle of a more complex problem or new learning. So we’re really focused on having elementary school students be able to enter the middle and high school standards without having that pull out of the new thinking.

Graham Fletcher (23:53):

And as I think about that, I think about how so many students will memorize their facts, but then they haven’t memorized them with understanding. So that when they move into middle school and they move into high school, it’s almost like new knowledge and new understanding that’s applied from a stand-alone skill.

Bethany Lockhart Johnson (24:10):

So something that felt really unique to me, Graham, as I was diving into the toolkit, is your use of images, Tracy, Graham, is the way that you use images to help students notice and wonder to start making sense of these quantities and the decomposition of numbers using images. Can you talk a little bit about how images played a part in the way that you think about this building a fact fluency?

Graham Fletcher (24:41):

What I realized is so many times when we approach math with just naked numbers with so many of our elementary students, the numbers aren’t visible. The quantities. They can’t see them; they can’t move them. They’re just those squiggly figures that we were talking about earlier on. So how is it that we make the quantities visible, to where students feel as if they can grab an apple and move it around? Because a lot of times we start with the naked numbers and then if kids don’t get the naked numbers, then we kind of backfill it. But what would happen if we start with the images? And then from there, these rich, flourishing mathematical conversations develop from the images. And I think that was the premise and the goal of the toolkit.

Tracy Zager (25:22):

When you look at how fact fluency has traditionally been taught, it’s all naked numbers. And sometimes we wrote ’em sideways. Like, that’s it. That was our variety of task type. Right? Sometimes it’s vertical; sometimes it’s horizontal. And that was it. And I’ve just known way too many kids who couldn’t find a hook to hang their hat on with that. It didn’t connect to anything. And so part of why I knew Graham was the perfect person for this project was his strength in multimedia photography, art, video. And so we started from this idea of contexts that for each lesson string in the toolkit, there’s some kind of context. An everyday object, arranged in some kind of a way that reveals mathematical structure and invites students to notice the properties. So we start with images of everyday objects: tennis balls, paint pots…um, help me out; here are a million of them. Crayons—

Bethany Lockhart Johnson (26:18):

Crayons, markers.

Tracy Zager (26:18):

Shoes, right? Sushi, origami paper, all kinds of things in the different toolkits. So there’s a series of images or a three-act task or both around those everyday objects, and then story problems grounded in that context. And then there are images with mathematical tools that bring out different ideas, but relate in some way to the image talks. And we do all of that before we get to the naked number talk. Which we do, and by the time you get to the number talk, it’s pretty quick, ’cause they’ve been reasoning about cups of lemonade. And now when you give them the actual numerals, they’re all over it.

Bethany Lockhart Johnson (27:03):

I have to say too, as somebody who—particularly in middle school—navigated math anxiety, we recently talked with Allison Hintz and Anthony Smith about their amazing book Mathematizing Children’s Literature.

Tracy Zager (27:14):

Yay!

Bethany Lockhart Johnson (27:14):

And I was explaining, like, if I sat down at the beginning of a math class and my teacher opened a picture book and said, “We’re gonna start here,” I felt my whole body relax. And if we start with this image, if we start with just looking at an image and making sense of an image, I feel like that could be such a powerful touchstone for all the work you do from there.

Tracy Zager (27:41):

That’s core. That’s a core design principle, is that invitational access. There are no barriers to entry. There’s nothing to decode. There’s nothing formal. We’ve been learning from Dan for years about this, right? Of starting with the informal and then eventually layering in the formal. I was in a class in Maine where they were doing an image talk and it’s these boxes of pencils. It’s a stack of boxes of pencils and they’re open and you can see there are 10 pencils in each box. And so there are five boxes of pencils each with 10 pencils in it. And then the next image is 10 boxes of pencils and each box is half full. So now it’s 10 boxes each with five. And the kids are talking and talking and then the third image, I think there are seven boxes each with 10 pencils in it. And she said, “What do you think the next picture’s gonna be?” And this girl said, “You just never know with these people!” <laugh> I dunno!”

Bethany Lockhart Johnson (28:37):

That’s kinda true. Knowing you both, it’s kinda true.

Tracy Zager (28:42):

Like if it’s seven boxes with 10 in it, one kid said, I think it’s gonna be 14 boxes of five. And other kids are like, I think it’s gonna be 10 boxes with seven. And they start talking about which of those there are and the relationships between—

Bethany Lockhart Johnson (28:58):

But they’re making sense of numbers!

Tracy Zager (28:59):

Totally. So all the kids felt invited. They can offer something up. They’re noticing and wondering about that image. They’re talking about it in whatever informal language or home language that they speak. And that was core to us. That was a huge priority, because honestly, one of the motivations to talk about fluency is that it’s always been this gatekeeper. It has served to keep kids out of meaningful math. Particularly kids from marginalized or historically excluded communities. So they’re back at the round table, doing Mad Minutes, while the more advantaged kids are getting to do rich problem solving. And so, we thought, what if we could teach fact fluency through rich problem solving that everybody could access? That was like square one for us.

Bethany Lockhart Johnson (29:45):

That’s huge.

Dan Meyer (29:46):

That’s great to hear. What’s been helpful for me is to understand that students who are automatic, that’s just kind of what’s on the surface of things. And that below that might be some really robust kind of foundation or scaffolding that bleeds to a larger building being built, or it might be just really rickety and not offer a sturdy place to build farther up. It’s been really exciting to hear that. I wonder if you’d comment for a moment about, in the digital age and—I’m at Desmos and our sponsors are Amplify and we all work in the digital world quite a bit. There are a lot of what report to be solutions to the fluency issue, to developing fluency in the digital world. Just lots and lots of them. Some that are quite well used, others that are just like X, Y, or Z app on the market. You can find something. Do you have perspectives on these kinds of digital fluency building apps? Like, what about them works or doesn’t work? Let us know. Graham, how about you? And then Tracy, I’d love to hear your thoughts too.

Graham Fletcher (30:47):

Yeah, I think that’s a great question, ’cause there’s a lot of shiny bells and whistles out there right now that can really excite a lot of teachers. But I always come back to what works for me as a classroom teacher is probably gonna work in a digital world as well. So what are the things that I love and honor most about being in front of students, and how can I capture that in that virtual world? I think one of the things that really helps students make connections is coherence. I think coherence, especially when you leave students for—you don’t get to talk with them after the lesson is done—so I think about how we can purposefully sequence things through a day-to-day basis. I think coherence is something that gets really lost when we talk about fluency, especially with whether it be digital or whether it be print, because what ends up happening is we say, “OK, we have all these strategies we need to teach,” and it becomes a checklist. So how is it that we can just provide students the opportunity to play around in a space, whether it be digital or in person, but in a meaningful way that allows them the time and the space and that area to breathe and think, but be coherent. And connecting those lessons along the way. And I think coherence is one thing that a lot of the times it’s harder to—when we’re in the weeds, it’s so hard and difficult to zoom back out and say, “Do all these lessons connect? How do they intentionally connect? And how do they purposefully connect?” And without coherence, everything’s kind of broken down into that granular level. So when looking at—I think about Desmos and I think about the Toolkit and I think about how Tracy and I talked a lot about, “Well, this, does it connect with the context problem, does it connect with the image talk, or the lessons? Like, how does it all connect and how are we providing students an opportunity to make connections between the day-to-day instruction and lessons that we tackle?”

Tracy Zager (32:44):

I’m reminded of a conversation that Dan, you and I had a long time ago, in Portland, Maine, in a bar. I’ll just be honest. <laugh> And we were talking about how, in the earlier days of Desmos, you were stressed out by what you saw, which was kids one-on-one, on a device, in a silent room. And you were like, no, this is not it. This is not what technology is here to serve. We can do so many things better using technology appropriately, but we can’t lose talk and we can’t lose relationships and we can’t lose formative assessment and teachers listening to kids and kids listening to each other and helping each other understand their thinking. Right? So when I think about the tech that’s out there for fact fluency, most of it is gonna violate all rules I have around time testing. So that a whole bunch of it, I would just toss on that premise. They’re really no different than flashcards. It’s just flashcards set in junkyard heaps. Or, you know, underground caverns. Or with a volcano or whatever. It’s the same thing. There are some lovely visuals—I’m thinking of Berkeley Everett’s Math Flips. Those are really pretty. Mathigon has some really nice stuff that’s digital. And I think that those resources invite you to kind of ponder and notice things and talk about them. All the tools that we design in the toolkit are designed to get people talking to each other, and give teachers opportunities to pull alongside kids and listen in and understand where they are. For example, our games, we didn’t design the games to be played digitally, even though you could, and people did during COVID, because we want kids on the rug, next to each other, on their knees; I’ve seen kids like across tables. I was in a school recently where a kid was like, “I hope you believe in God, ’cause you’re going…!” You know what I mean? <laugh>. Like they’re all pumped up.

Bethany Lockhart Johnson (34:41):

They’re invested!

Tracy Zager (34:45):

They’re psyching each other up and down and they’re interacting and it’s social and the teacher’s walking around and she’s listening to the games. And they don’t actually need any bells and whistles. They need dice and they need counters and they need this game that is actually a game. In all of our conversations, games have to actually be games. Games cannot be “roll and record.” Games have to involve strategy. They have to be fun. So in designing those games, we didn’t feel like it brought any advantage to make that a digital platform. But things that did bring advantages digitally, like the ability to project these beautiful images or to use short video in the classroom, that really was a value-add that enabled us to do something different in math class than we had done before, and to get kids talking in a different way than they ever had before. When I think about fluency, historically, if you say like, “OK, it’s time to practice our math facts,” you hear a lot of groans. And when I see a Building Fact Fluency classroom and I say, “OK, it’s BFF time!” There’s like a “YEAAAAHHH!” You know? And so that’s what we’re after.

Graham Fletcher (35:47):

It’s all about kids, really, for us. And I think at the heart of it, we made all the decisions with teachers and kids at the forefront of it.

Tracy Zager (35:55):

I know of high schoolers who are newcomers, who have experienced very little formal education, and speak in other languages, are using it as high schoolers, because it involves language and math and all the deep work in the properties and it’s accessible, but it’s also not at all condescending or patronizing. Like we designed it to be appropriate for older kids. So that’s just something that I think we’re both really proud of. One thing we thought a lot about, especially in the multiplication-division kit is how a classroom teacher could use it and a coordinating educator in EL, Title, special education, intervention could also use it because there’s so much in it, that students could get to be experts, if they got extra time in it, using something that’s related and would give them additional practice. So they could play a game a little bit earlier than the rest of the classes. And they could come in already knowing about that game, or they could do a related task. We have all these optional tasks that no classroom teacher would ever have time to teach it all. So the special educator could use it and have kids doing a Same and Different or a True/False, or some of the optional games. And then the work in both special education and general education could connect.

Dan Meyer (37:20):

I just wanna say that this is an area that for so many students, as you’ve said, Tracy, it presents a barrier. It’s a very emotionally fraught area of mathematics. And we really appreciate the wisdom you brought here. And just the care you’ve brought to the product itself. Your knowledge of teaching, knowledge of math, and yeah, especially a love for students feels like it’s really infused throughout Building Fact Fluency. If our listeners want to know more outside of this podcast, outside of the product itself, where can they find your words, your voice? Where you folks at these days? Tell ’em, Graham would you?

Graham Fletcher (37:57):

You can find us at Stenhouse, Building Fact Fluency. And then Tracy and I, currently playing around, sharing ideas a lot on Twitter, under the hashtag #BuildingFactFluency. That’s kind of where we can all come together and share ideas. And then also on the Facebook community, where there’s lots of teachers sharing ideas.

Bethany Lockhart Johnson (38:19):

If you were to ask our listeners like, “Hey, if you wanna keep thinking about this, here’s something you could try or here’s something you could go do,” what could be a challenge that we could share that could help us continue this conversation?

Graham Fletcher (38:35):

Online you can actually download a full lesson string. And a lesson string is a series of activities and resources that are purposefully connected. You can pick one or two of those from the Stenhouse web site, Building Fact Fluency. You can try the game. You can try one of those strategy-based games. You can try an image talk and just see how it goes. And just share and reflect back, whether on Twitter or on Facebook. But it’s kind of there, if you wanna give it a whirl. And as Tracy was sharing, even if you’re a middle-school teacher or a high-school teacher, we really tried to think about those middle-school and high-school students keeping it grade level-agnostic. Just so every student has those opportunities for those mathematical conversations. So download a lesson string and give it a whirl, and we’d love to hear how it goes.

Dan Meyer (39:25):

Bethany and I will be working the same challenge with people in our life.

Bethany Lockhart Johnson (39:29):

Yes.

Dan Meyer (39:29):

Enjoying some fact fluency with people in our homes, perhaps. We’ll see. And we’ll be sharing the results in the Math Teacher Lounge Facebook group. Graham and Tracy, thanks so much for being here. It was such a treat to chat with you both.

Bethany Lockhart Johnson (39:42):

I love learning with you and just helping to shift this idea of fluency into something that can be accessible and powerful and positive.

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What Valerie Henry says about math

“A lot of very fluent adults don’t always have every fact memorized. ”

– Val Henry

Meet the guest

Valerie Henry has been a math educator since 1986. She taught middle school math for 17 years and has worked as a lecturer at University of California Irvine since 2002. After doing her 2004 dissertation research on addition/subtraction fluency in first grade, Valerie created FactsWise, a daily mini-lesson approach that simultaneously develops  fluency,  number sense, and algebraic thinking. Additionally, she has provided curriculum and math professional development for K-12 teachers throughout her career, working with individual schools, districts, county offices of education, Illustrative Mathematics, the SBAC Digital Library, and the UCI Math Project.

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About Math Teacher Lounge: The podcast

Math Teacher Lounge is a biweekly podcast created specifically for K–12 math educators. In each episode co-hosts Bethany Lockhart Johnson (@lockhartedu) and Dan Meyer (@ddmeyer) chat with guests, taking a deep dive into the math and educational topics you care about.

Join the Math Teacher Lounge Facebook group to continue the conversation, view exclusive content, interact with fellow educators, participate in giveaways, and more!

Math that motivates: Amplify Desmos Math success stories

It’s no secret that student engagement and the prevalence of math anxiety is a real problem in math classrooms. Incorporating more problem-based learning can help, but it feels intimidating and difficult to know where to start. That’s why we’re here!

Amplify Desmos Math is a curiosity-driven K–12 math program that introduces a structured approach to problem-based learning and builds students’ lifelong math proficiency. Teachers help students build off of each other’s ideas and find confidence in their math identities, creating a community of math learners.

But don’t take our word for it—see how real teachers and students are unlocking new levels of engagement and comprehension, proving that everyone can be a math person.

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“With Amplify Desmos Math, I’ve noticed a huge shift of engagement because there’s so much interaction. Yes, there is pencil and paper, but there’s so much more. They’re getting immediate feedback and motivation to continue on. So if they don’t get something right the first time, they want to! ”

—Kristi Melick

Sixth grade teacher, San Diego Unified School District

School Spotlight: Decatur Classical Elementary School

See how Amplify Desmos Math is making an impact in Chicago, IL with our latest case study.

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A structured approach to problem-based learning

Witness teachers and students working together and see how Amplify Desmos Math revolutionizes K–12 math education through a structured approach to problem-based learning that fosters a collaborative math community.

The power of the pause

See what happens when teachers use the pause–one of the teacher facilitation tools and core differentiators in Amplify Desmos Math. You won’t believe how students react.

Everyone’s a math person.

See how Amplify Desmos Math helps every student see themselves as a math person.

What Teachers Say

What educators say about Amplify Desmos Math

Shifting to this problem-based curriculum now is allowing students to open up. I think they’re taking control and ownership. They’re coming up with the strategies, they’re sharing the strategies. It offers an opportunity for the students to look around the classroom to see what their friends are doing. And in turn, if they’re stuck, they’re comfortable turning to other students and problem-solving through sharing.

Joseph Croce

Seaford School District, DE

What educators say about Amplify Desmos Math

When we went district-wide with our Amplify Desmos Math curriculum our teachers became the facilitators of learning. And our students are the doers of mathematics. And what we’ve seen, what I’ve seen in the classroom, is kids are engaged in a problem, they’re collaborative, and they’re having fun. And it’s like they’re not even realizing that they’re really doing math.

Jessica Walsh

San Diego Unified School District, CA

What educators say about Amplify Desmos Math

So many kids have stated, ‘Oh, I’m not a math person.’ Or they’re scared of getting the answer incorrect. And I think with this curriculum, they feel safe.

Brendan Simon

Assistant Principal, San Diego Unified School District, CA

Program efficacy

Explore the research behind Amplify Desmos Math.

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What’s included

Boost Reading (formerly Amplify Reading) for K–5 uses captivating storylines to engage students in powerful personalized reading instruction and practice. Whether students are learning to read fluently or sharpening close reading skills, Boost Reading accelerates their growth while freeing educators up to work with small groups or individual students. Explore more of the program here.

Boost Reading is a recipient of Digital Promise’s Research-Based Design and Learner Variability certifications.

Program at a glance

Boost Reading is a research-based, standards-aligned program that supports students along an adaptive path of increasingly complicated texts and literary concepts. Students find games embedded in an engaging narrative world that grows as they do, whether they are learning foundational skills or mastering close reading with our solution for reading comprehension.

Skill games at a glance

Boost Reading gives students explicit instruction in foundational skills and comprehension processes. It features more than 50 mini-games that build skills in phonics, phonological awareness, vocabulary, comprehension processes, and reading comprehension.

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Zoom Boom

In Zoom Boom, students practice rhyming by listening to a word and identifying the picture of the word that rhymes with it.

Imagen pixelada de un colorido personaje de dos tonos con una cara azul y verde, con una corona amarilla, mostrado sobre un fondo degradado circular.
Gem & Nye

In Gem & Nye, students blend sounds into words, starting with compound words and syllables and then moving to beginning (onset) and ending (rime) sounds and finally individual phonemes, to identify the picture of the word the Soundbots say when blended together.

Una insignia circular con tres robots pixel art en rosa, verde y azul sobre un fondo degradado de azul a azul oscuro. La insignia tiene un borde azul claro.
Wordbots

In Wordbots, students practice segmenting words into their onsets and rimes to determine which Startbots and Endbots form a stimulus word.

Ilustración de un par de tijeras con mangos amarillos sobre un fondo circular verde, rodeadas por un borde turquesa.
Cut It Out

In Cut It Out, students isolate individual phonemes by listening to a beginning, middle, or ending sound and choosing a picture of the word containing the sound in that position.

Un círculo azul con un borde turquesa que contiene una ilustración de una rebanada de pan con un pimiento rojo.
Picky Goblins

In Picky Goblins, students practice sound-spelling correspondences for individual letters by listening to a sound from a goblin and feeding it the piece of toast with the corresponding.

Ilustración de una tostadora con una cara verde parecida a un duende en el frente y la lengua fuera, sobre un fondo naranja con un borde verde azulado.
Grumpy Goblins

In Grumpy Goblins, students learn sound-spelling correspondences for consonant digraphs and vowel teams by listening to a sound from a goblin and feeding it the piece of toast with the corresponding letter or combination.

Un monstruo verde de dibujos animados con ojos grandes, orejas puntiagudas y dos dientes visibles se encuentra sobre un fondo redondo, degradado de color naranja y amarillo con un borde azul.
Hangry Goblins

In Hangry Goblins, students practice letter-sound combinations by feeding individual letter sounds, consonant digraphs, blends, and vowel teams to goblins that become more and more “hangry” until they are given the letters that match their demands.

Una insignia circular con colores azul y verde. En el centro, el texto "gato" está dividido en "c" y "at" en las piezas del rompecabezas.
Rhyme Time

In Rhyme Time, students practice with different rime families (words that end with the same sounds and rhyme) and decode words in these families by swapping the first letter sounds of words while the ending sounds remain constant.

Una insignia circular con colores azul y verde. En el centro, el texto "gato" está dividido en "c" y "at" en las piezas del rompecabezas.
Tongue Twist

In Tongue Twist, students practice with different rime families (words that end with the same sounds and rhyme) and build words by changing the ending sound (rime) while the beginning (onset) sounds, consonant blends, and consonant digraphs remain constant.

Ilustración de un gorro de chef blanco sobre un fondo circular naranja con un borde verde azulado.
Food Truck

In Food Truck, students practice “chopping” blends, ending sounds (rimes), and whole words into beginning sounds (onsets), ending sounds, and individual letters to create orders for their hungry goblin customers. The difficulty of words and segmenting tasks increases with each level as customers order more sophisticated “dishes.”

Ícono de un paisaje urbano estilizado con un borde circular verde, un amanecer al fondo y barras horizontales rojas en el centro.
Rhyme Time

In Word City, students identify and manipulate beginning, middle, and ending letter sounds to assemble word chains that form buildings.

Un logotipo circular con una doble flecha turquesa sobre un fondo degradado que pasa del rosa en la parte superior al morado en la parte inferior, bordeado por un anillo turquesa.
Because This, That

In Because This, That, students learn how common text structures give clues to meaning by rearranging sentences to identify cause and effect or problem and solution.

Un círculo azul con un ícono de eslabón de cadena interconectado blanco en el centro y un borde verde azulado claro.
Connect It!

In Connect It!, students practice using different types of conjunctions (temporal and causal, for example) to combine two clauses into a coherent sentence.

Ilustración de un caracol rosado con ojos blancos dentro de un círculo azul y verde. El fondo es de un azul más oscuro con ondas de un azul más claro.
Message in a Bottle

In Message in a Bottle, students build their awareness of syntax and the impact word order has on meaning by unscrambling scraps of lost messages to reconstruct sentences.

Un ícono circular azul y morado con un borde turquesa, que presenta un signo de interrogación blanco en el centro flanqueado por dos rectángulos blancos a los lados.
Mind the Gap

In Mind the Gap, comprehension levels are assessed through a modified cloze exercise in which students make selections to fill in the blanks of a text where approximately every seventh word has been omitted.

Un ícono circular con un fondo degradado amarillo, que presenta tres cuadrados azules superpuestos en diferentes tonos, bordeados por un anillo verde azulado.
Show Off

In Show Off, students learn how common text structures give clues to meaning, using cues from illustrations to rearrange sentences in the correct sequential or chronological order.

Un caracol azul con ojos saltones sobre un fondo circular con rayas de arcoíris y un borde verde azulado.
Sloppy Scrolls

In Sloppy Scrolls, students practice the art of comprehension monitoring, or ensuring that they continually build and check a mental model of what they read. In the game, students are introduced to a world of enchanted scrolls that have lost their magic: they contain inconsistencies, and no longer make sense. The students must attempt to identify the inconsistencies by tapping the sentences that don’t match the rest of the passage. To increase the challenge of the game, some of the passages are presented without errors.

Un ícono circular con un borde turquesa y un fondo degradado naranja presenta un caballete de pintura que muestra una imagen de un sol detrás de las nubes.
Storyboard

In Storyboard, students practice making inferences by completing a storyboard that integrates relevant background knowledge missing from a given sentence.

Un logotipo redondo con un borde verde azulado, con un fondo morado y cuatro cuadrados blancos en una cuadrícula de 2x2. Cada cuadrado contiene un círculo o un cuadrado de color violeta o naranja.
Super Match

In Super Match, students work on developing cognitive flexibility, or the ability to track multiple elements simultaneously, by completing interactive puzzles that associate pictures and words across multiple dimensions (e.g., color and category, or starting sounds and category).

Una insignia circular con un fondo degradado de color rojo violeta, un borde verde azulado y un ícono de máscara de disfraces amarillo en el centro.
Unmask That

In Unmask That, students build their understanding of anaphora, a tool authors use to avoid repetition, by linking pronouns to their antecedents in text.

Se muestran dos íconos amarillos de caras sonrientes dentro de un círculo verde azulado. Una cara tiene un bocadillo encima con tres líneas horizontales, que indican texto. El fondo es un degradado de verde azulado y verde.
Best Buddy

In Best Buddy, students examine character traits to determine which school club provides the best fit for their fictional friends.

Dos libros con signos de interrogación en las portadas, uno amarillo y otro azul, sobre un fondo circular rojo con un borde verde azulado.
Book Club

In Book Club, students compare and contrast two books on the same topic or theme to determine which book best meets the needs of a character in the game.

Un logotipo con un borde cian, que representa cabezas de animales azules y naranjas con bocadillos encima sobre un fondo circular oscuro.
Debate-a-Ball

In Debate-a-Ball, students practice identifying the best evidence to support a claim. Students pick an animal avatar to compete with an automated opponent in debates on familiar topics. To win, students must put forward the best evidence to support each claim more frequently than their opponents. They are taught to identify evidence that is factual and strongly related to the claim.

Ilustración de dos tarjetas cuadradas redondeadas superpuestas, una con un trozo de tarta sobre fondo morado y otra con fondo rojo, rodeada por un anillo de color turquesa.
Picture This

In Picture This, students complete the illustrations for a story by identifying words that describe its setting, characters, problems, and solutions.

Una ilustración de una caja de cartón abierta dentro de un borde circular. El fondo dentro del círculo es morado y el borde es verde azulado.
Storybox

In Storybox, students choose settings, situations, and solutions to send characters on different adventures, using details and context to help them resolve problems and complete the story.

Ilustración de un hámster sonriente con una chaqueta blanca futurista con botones verdes y una pequeña antena en la cabeza, rodeada por un borde verde azulado.
Tube Tales

In Tube Tales, students learn the attributes of different genres and practice identifying them in brief texts.

Un ícono redondo con un borde verde azulado y un centro azul oscuro, que muestra un símbolo de bombilla amarilla en el medio, con pequeños rayos amarillos alrededor de la bombilla.
What’s the Big Idea

In What’s the Big Idea, students examine pictures, picture sequences, and short passages to practice differentiating the main idea from story details.

Una carita sonriente circular de color amarillo con una amplia sonrisa y ojos cerrados está centrada en un anillo azul y turquesa. El fondo es blanco.
Punchline!

In Punchline!, students learn how words can have multiple meanings by channeling their inner comedian to crack homonym-based jokes.

Un ícono circular verde con un borde azul claro que presenta una bellota marrón y amarilla en el centro.
Shades of Meaning

In Shades of Meaning, students differentiate the nuances in similar words — first by ordering them from weakest to strongest, largest to smallest, or least to greatest; then by putting them into sentences that further clarify their meaning.

Ilustración de un tucán con pico amarillo y marrón posado sobre grandes hojas verdes dentro de un marco circular.
Word Raiders

In Word Raiders, older students encounter Tier 2, high-utility words, ultimately building a visual semantic map of each word.

Digital components

The program includes resources that give students chances to apply skills they’ve learned and teachers the ability to track student progress across multiple data points.

Component

FORMAT

Teacher dashboard

The teacher dashboard required zero set-up time and uses detailed data to provide insights into student progress. Teachers can drill down into student profiles to see specific content students are working on and where they are struggling.

Digital

Component

FORMAT

eReader

Once students have engaged with a skill in the program they will get to practice on a text. Students use authentic literary and informational texts in a scaffolded environment as they complete more and more challenging tasks.udents are working on and where they are struggling.

Digital

A laptop screen displays a reading comprehension exercise asking users to identify the character referred to by "He" in a short passage.

Explore more programs

Our programs are designed to support and complement one another. Learn more about our related programs.