Why hands-on learning matters in science

A knowledge board, a child examining a geode, and a hand holding a geode in front of colorful geode art illustrate personalized learning through hands-on science exploration.

Science should be more than just reading about concepts—it should be something students can see, touch, and explore. When students actively engage with science through hands-on activities, technology, and even literature connections, they develop not only essential science skills, but also deeper understanding and lasting curiosity.

Bringing science to life: Hands-on activities

Perhaps the most effective way to engage students in science is to combine a high-quality curriculum with an interactive teaching style to make it experiential. In my classroom, we use the Amplify CKLA Geology unit to dive into earth science concepts. While these strategies can be applied across grade levels and scientific topics, the following is an example from my fourth-grade classroom’s geology lessons:

  • Examining geodes: Students predict what they will find inside before breaking geodes open. Then they analyze the crystal structures, connecting their observations to Amplify CKLA’s science concepts.
  • Writing about Earth’s layers: After learning about the Earth’s structure, students reinforce their understanding by writing creative descriptions or short stories from the perspective of different layers.
  • Diagramming volcanoes and the rock cycle: Drawing detailed diagrams, students visualize how rocks change over time and how volcanic eruptions shape the Earth’s surface.

Connecting literacy skills to science skills

Incorporating literature deepens students’ understanding of science. I use a mix of trade books and digital resources to bring concepts to life through storytelling and informational texts. These books help students connect scientific ideas with real-world applications, fostering both literacy and science skills.

Literacy skills like reading comprehension and critical thinking are key to understanding complex scientific ideas. When students dive into science-related materials, they practice making sense of data, thinking critically about evidence, and building arguments. These practices boost students’ overall literacy, expanding their vocabulary, sparking their curiosity, and developing their media literacy.

Digital resources for students: Exploring science with Google Earth

To further engage students, I integrate Google Earth into our lesson plans. This allows them to explore real-world scientific phenomena—such as geological formations, ecosystems, and weather patterns—making abstract concepts more tangible. Students love zooming in on famous landscapes, discussing how they were formed, and identifying scientific features. This interactive approach using relevant digital tools helps make science feel relevant and exciting.

Final thoughts: The power of engagement in science

By combining hands-on activities, literature, and technology, I’ve helped my students develop a genuine curiosity about science. As the school year progresses, they ask more questions, make deeper connections, and take ownership of their learning.

Engaging students in science doesn’t have to be complicated—it just has to be meaningful. By making learning interactive, Amplify (through Amplify CKLA and Amplify Science) helps students connect with scientific concepts in meaningful ways. I encourage other educators to bring Amplify’s lessons to life with interactive approaches that spark wonder and excitement in young scientists.

Explore more

  • Let’s keep the conversation going! Join the discussion in our Amplify learning communities.
  • Looking for inspiration? Watch Teacher Connections, a video series featuring practical advice and tools straight from fellow educators—our very own Amplify Ambassadors.
  • Dive into our podcast hub to hear from top thought leaders and educators and uncover cross-disciplinary insights to support your instruction.

New research brief: K–2 early literacy improvements offer hope, but persistent challenges remain.

Amplify’s research brief on the latest K–2 middle-of-school-year literacy data reveals encouraging gains in early reading, particularly among the nation’s youngest students. This year’s kindergarten cohort has returned to pre-pandemic literacy readiness levels. But overall progress remains slow: Only 56% of students are on track for learning to read, and 29% of students are far behind.

Middle-of-year data can help schools plan for instructional changes and implement those changes before the following school year. See the report’s recommendations for actions schools and districts can take now.

A woman leans over to assist a young girl with her reading and writing at a table in a classroom, with two colored squares overlaid in the foreground.

Explore Amplify’s middle-of-year research brief.

Bar chart showing the percent of kindergarten students on track, with values 55, 38, 47, 52, 54, and 55. Highest and lowest percentages are 55% and 38%.

How many students are on track to learn to read?

While all grades across K–2 show signs of year-over-year progress, with more students on-track for learning to read than there were in 2023–24, broader literacy gains remain slow, with a little more than half of students across early grades (K–2) on track for core reading instruction.

Read More

Bar chart showing the percent of kindergarten students far behind: 29%, 47%, 37%, 32%, 30%, and 29% across six groups.

How many students are at risk for not learning to read?

All grades across K–2 show the percentage of students at the greatest risk for not learning to read decreasing year-over-year. While fewer students are considered far behind today than in 2023–24, more than a quarter of students across grades K–2 are at the greatest risk for not learning to read.

Read More

Table showing student progress categories, average change, and percentages of targeted students with at least 5 or 6 months' progress. Some cells are highlighted in green and red.

Take a deeper dive into progress monitoring.

Progress monitoring—identifying, supporting, and tracking outcomes—is one strategy schools can engage in when working with students who are the most at-risk for not learning to read.

Read More

Read more research and case studies.

Amplify’s high-quality programs benefit millions of students every day using methods that are evidence-based, ESSA-aligned, and showing efficacy in a variety of contexts. Read more research and case studies and see more briefs on early literacy.

Seleccione un programa a continuación:

Tap into your Arkansas math students’ curiosity and brilliance.

As a math teacher, you work every day to celebrate student brilliance, build deep conceptual understanding, and create the conditions for every student to be successful.

We’re here to help.

math illustration of Amplify Math programs
Desmos Classroom homepage featuring illustrations of students and teacher with laptops, buttons for teacher account creation, and sections for students and teachers.

Desmos Classroom

Grades 3+

A teaching and learning platform offering a collection of free digital lessons and lesson building tools

  • Teachers can build their own lessons using the Activity Builder tool
  • Teachers can explore lessons including:
    • Library of user created lessons
    • Featured Collection lessons authored by the Desmos Classroom team

Learn more at teacher.desmos.com

Desmos Math 6–A1

Grades 6–8, Algebra 1

A year-long, blended middle school math curriculum delivered through the Desmos Classroom platform

  • A rigorous curriculum based on Illustrative Mathematics® IM K–12™, authored by the Desmos Classroom team
  • Grades 6–8 courses rated perfect scores on EdReports (Algebra 1 not yet reviewed)
  • Pre-made, fully customizable lessons, available in English and Spanish
  • Powerful facilitation tools to allow for real-time insight and feedback

Learn more amplify.com/desmosmath

Math workbook page with a graph and table. It shows Tim and Tam walking at a constant rate. Instructions to complete the table and "Check My Work" button are visible.

Amplify Desmos Math

Grades K–Algebra 2

Coming Soon: A new core PreK–12 program from Amplify and Desmos Classroom

  • The power of Desmos Classroom technology and instruction with additional easy-to-use print and digital components
  • Based on Illustrative Mathematics® IM K–12™
  • Aligned to standards
  • Available in English and Spanish
  • K–A1 pilots available back-to-school 2024

A new core PreK–12 program from Amplify and Desmos Classroom

Amplify Desmos Math taps into students’ natural curiosity from the start of every lesson. When students are presented with age-appropriate, interactive, social learning experiences, spaces open up for creative thinking in which they can fully engage with interesting and important math ideas.

Key features of Amplify Desmos Math:

  • Interactive, 45-minute lessons in print and online based on Illustrative Mathematics® IM K–12™
  • Powerful facilitation tools at point-of-use in the lesson, including:
    • Teacher dashboard, providing real-time insights into student thinking
    • Sharing student work features to highlight student thinking
    • Classroom conversation toolkit to facilitate productive classroom discussions
  • Differentiation, including just-in-time prerequisite supports
  • Instructional and language development routines
  • Assessment customization
  • Reporting

Expect more from your math program.

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For students

Every student feels connected and a part of the conversation when participating in an Amplify Desmos Math lesson. And when students are actively engaged with the content, they achieve more.

Screenshot of a Desmos Classroom page showing a course titled "Math 6-A1" with units on scale drawings, proportional relationships, measuring circles, and percentages.

For teachers

The program delivers what math educators want and need, including:

  • Standards-aligned print and digital lessons that capture students’ interest every day.
  • The right mix of informal and more substantive diagnostic and summative assessments.
  • Differentiation support
  • Additional practice sets
  • Spanish language supports
Math textbook cover and a colorful graph on a website interface, depicting parabolas and offering interactive tools for capturing parabolic shapes.

For leaders

The program delivers what school and district leaders want and need, including:

  • A coherent core program based on the industry-leading IM K–12 Math™ by Illustrative Mathematics®.
  • A comprehensive suite of usage and performance reports that gives educators a better sense of which students might be at risk of falling behind.
  • A team from Amplify dedicated to making your implementation a success.

What’s included

We’ve taken the power of Desmos’ technology and lessons and added beautiful, easy-to-use print and digital components to make a game-changing program that makes teaching a breeze.

  • Student Editions (two volumes)
  • Digital lessons, practice, assessment, and differentiation, built with Desmos technology
  • Teacher Edition
  • Digital tools and support
  • Classroom monitoring and management
  • Reporting
  • Assessment customization
  • Differentiation, including just-in-time prerequisite supports and mini-lessons
  • Additional practice and Assessment blackline masters (print and digital)

Ready to learn more?

Speak to a representative to find out how to be among the first to preview Amplify Desmos Math.

Stay up-to-date on the latest Amplify Desmos Math and Desmos Classroom news.

Digital lessons should be powerful in their ability to surface student thinking and spark interesting and productive discussions. Sign up to learn more about how Amplify Desmos Math and Desmos Classroom bring all students into the math conversation.

The Math Teacher Lounge is open!

Amplify presents the Math Teacher Lounge, a podcast with hosts Bethany Lockhart Johnson and Dan Meyer.

Illustration of a podcast player with "Math Teacher Lounge" and two headshots, featuring a man and a woman. Geometric shapes are scattered around.

Amplify is excited to introduce Amplify Desmos Math Texas!

We’re hard at work building a new K–5 math program for Texas. In the meantime, explore some of our free Desmos Classroom activities to get a feel for what’s to come for Texas!

Experience an Amplify Desmos Math Texas lesson

View our previously recorded Live Lesson webinars to see Amplify Desmos Math Texas in action!

Math that motivates

Picture a classroom where students are so eagerly engaged in a lesson, they wish it wouldn’t end. The room is buzzing with the sounds of natural curiosity. This is what an Amplify Desmos Math Texas classroom looks and sounds like. This is math that motivates.

A structured approach to problem-based learning

Amplify Desmos Math Texas 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.

A powerful suite of math resources

Amplify Desmos Math Texas combines the best of problem-based lessons, intervention, personalized practice, and assessments into a coherent and engaging experience for both students and teachers.

Data informs instruction. Comprehensive student profiles provide full data on students’ assets and skills, empowering teachers to provide just-in-time scaffolds throughout core instruction and targeted intervention when needed.

Student thinking is valuable and can be made evident.

We believe that math class is a place where teachers can elicit, celebrate, and build on their students’ interesting ideas. Those ideas fuel meaningful classroom conversations and drive the learning process.

Robust assessments that drive learning and inform instruction

A variety of performance data in Amplify Desmos Math provides evidence of student learning, while helping students bolster their skills. With explicit guidance on what to look for and how to respond, teachers can effectively support students as they develop their understanding.

Diagnostic screening and progress monitoring assessments identify what students know and can do.

Integrated mCLASS® Assessments go beyond accuracy to reveal students’ math thinking through an asset-based approach. This data provides better insights about what students know, what math assets to leverage, and where students need support.

Amplify Desmos Math Reporting and insights

Teachers and administrators have visibility into what students know about grade-level math with a variety of data reports. By evaluating not only what students know about grade-level math but also providing insight into how they think, teachers can confidently plan whole-class instruction and targeted intervention.

Access to grade-level math for every student, every day

Amplify Desmos Math provides teachers with lessons, strategies, and resources to eliminate barriers and increase access to grade-level content without reducing the mathematical demand of tasks.

Differentiation when and where it matters most

Teachers are provided with clear student actions to look for, matched with immediately usable suggestions for how to respond to student thinking. Each lesson also includes recommendations for resources to use with students to support, strengthen, and stretch their understanding of the lesson goal.

Boost Personalized Learning

Boost Personalized Learning™ activities in Amplify Desmos Math Texas target a skill or concept aligned to the day’s core lesson, with each student receiving personalized scaffolds based on what they already know. Activities adapt to each student’s unique needs.

Intervention Mini-Lessons aligned to core instruction

Amplify Desmos Math Texas Mini-Lessons are aligned to the most critical topics throughout a unit and provide targeted intervention for small groups of students who need additional support or need more time.

Ready to learn more?

Fill out this form and we’ll be in touch soon.

Science of Reading resources hub

The Science of Reading is complex, so your understanding of it should be, too. That’s why our resource pages break it all down for you, from word recognition and comprehension to dyslexia and Multi-Tiered Systems of Supports. Equip yourself with the knowledge you need to make the greatest difference to your students!

Select a resource:

Amplify’s Science of Reading overview

Learn the ins and outs of the Science of Reading—what it means, and why its principles matter.

LEARN MORE 

Science of Reading FAQ

Get early literacy guidance with our Science of Reading FAQ.

LEARN MORE 

Science of Reading: The Podcast

Listen to the latest insights from researchers and practitioners in early reading.

LEARN MORE 

Science of Reading programs

Achieve next-level literacy growth with a cohesive Science of Reading suite.

EXPLORE NOW 

Science of Reading success stories

We’ve helped thousands of Science of Reading champions make the shift, and they’re eager to share the secrets of their long-term success with fellow educators like you.

LEARN MORE 

Science of Reading webinars

Get on-demand professional development to build and refine your toolkit of Science of Reading resources and instructional practices.

WATCH NOW 

Science of Reading Star Awards

Nominate a literacy changemaker for our prestigious Science of Reading Star Awards!

LEARN MORE 

Science of Reading data and MTSS

Fortify your Science of Reading implementation using essential data and a Multi-Tiered System of Supports (MTSS).

LEARN MORE 

Change management

Educational change doesn’t happen overnight, or by itself. We’ll walk you through the process to help you make literacy success a lasting reality in your classroom.

LEARN MORE 

Knowledge building

Learn the ins and outs of the Science of Reading—what it means, and why its principles matter.

LEARN MORE

Dyslexia and the Science of Reading

Discover how assessment and instruction grounded in the Science of Reading helps identify children at risk of developing dyslexia at the earliest possible moments, creating the widest opportunity for intervention.

LEARN MORE 

Science of Reading professional development course

Learn everything you need to know about Science of Reading instruction with Amplify’s Chief Academic Officer and host of Science of Reading: The Podcast Susan Lambert.

ENROLL NOW 

The Science of Writing

Explore the Science of Writing, and how you can use it with the Science of Reading to unlock life-changing literacy outcomes.

LEARN MORE 

How problem-based learning can transform the math classroom

With test scores and student engagement on the decline, it’s clear that traditional teaching methods aren’t meeting the needs of all of today’s math learners.

One solution that’s gaining momentum is problem-based learning. By focusing on real-world problems and structured approaches, this approach develops critical thinking, reasoning, and application—skills that are essential for math success.

But making this shift isn’t easy. For math teachers and educators, it requires careful planning, a clear strategy, and community commitment.

That’s why we’re here to help.

The decline in test scores and engagement

The latest National Assessment of Educational Progress (NAEP) results show a sharp decline in math proficiency across grade levels. Only 26% of eighth graders performed at or above the NAEP Proficient level in 2022. These results represent the largest score declines in NAEP mathematics at grades 4 and 8 since initial assessments in 1990. The pandemic didn’t help, but it’s not the only factor.

This downward trend is compounded by a sense of disengagement. According to YouthTruth’s report Making Sense of Learning Math: Insights from the Student Experience, only half of students feel that what they’re learning in math connects to the real world. Recent survey data also shows that less than half of U.S. students feel that they “often” or “always” work on interesting problems in math class.

When math feels irrelevant or intimidating, students disengage—and the learning gaps that follow can be difficult to close.

An opportunity to grow

But the data also includes opportunities. According to NAEP research, more than 70% of students report that they enjoy activities that challenge their thinking and thinking about problems in new ways.

Problem-based learning helps give those students what they want.

And in a world that relies increasingly on data, analysis, and innovation, students need to learn not just how to follow steps and apply formulas, but how to think mathematically. In other words, problem-solving skills need to be part of student learning. This is particularly important in elementary and middle school math, where foundational concepts are built—and where students have the chance to forget their identities as “math people.”

That’s why working to infuse problem-based math learning into your district’s instruction can help reverse negative math and engagement trends.

What does problem-based learning in math look like?

Let’s go back and define this approach more fully. Research shows that math instruction is most effective when it encourages students—individually or grouped with peers—to grapple actively with math problems. When instruction gives students the opportunity and freedom to solve problems, rather than dictating solutions and then having them practice, students are more motivated.

For example, instead of memorizing the formula for calculating area and then practicing it in a series of disconnected problems, students might tackle a problem-solving challenge like:

How much paint is needed to cover our classroom walls?” Or they might work on a broader question such as: “How can we design a park, taking into account constraints like space, cost, and accessibility?

At its core, problem-based learning values mathematical thinking and reasoning. Rather than focusing on procedures and memorization, problem-based learning encourages students to:

  • Explore open-ended problems.
  • Ask questions and make connections.
  • Develop strategies to solve problems collaboratively.
  • Build curiosity and perseverance.
  • Reflect on their reasoning and process.

In the problem-based learning classroom, students are positioned as active participants in their math experiences, building a deeper understanding of concepts as they work through challenges. This is particularly critical for ensuring students don’t just learn math, but understand why it works and how to apply it. These approaches can transform math classrooms into spaces where students build both foundational and real-world math skills—and a healthy dose of math confidence, too.

Critical factors in making the shift

Integrating problem-based learning into traditional math teaching can feel like (and is!) a big change—in lesson-planning, mindset, and more.

To make it work for administrators, teachers, and students alike, schools do best when they focus on a few critical factors. These include:

  • Clear vision: Understand (and communicate) why the shift matters and what it looks like in action.
  • Leadership buy-in: Gain commitment from school leaders and administrators.
  • Teacher support: Offer professional development, resources, and ongoing guidance specific to math instruction.
  • Structured approaches: Establish a well-defined plan for implementing problem-based learning in math classrooms effectively.

What problem-based learning can look like in the classroom

While problem-based learning offers proven benefits, it can be difficult to integrate into the classroom without a clear structure. Teachers need tools and strategies to guide students through the process and ensure that learning goals are met.

A structured approach to problem-based learning in math should include:

  1. Defining the problem: Present a clear, engaging math challenge connected to real-world scenarios.
  2. Student inquiry: Encourage exploration, discussion, and different solution paths.
  3. Collaboration: Support teamwork to share ideas and reasoning.
  4. Reflection: Allow students to evaluate their process, solutions, and learning.

This structured approach not only improves students’ conceptual understanding, but also aligns with Amplify’s research findings, which show that students who engage in active learning outperform their peers in more traditional settings.

By embracing problem-based learning in math classrooms, educators can:

  • Boost student engagement and confidence.
  • Improve student problem-solving and mathematical reasoning skills.
  • Help reverse declines in math achievement over time.
  • Empower students to see the value and relevance of math in academics and in their lives.

Ready to learn more?

If you’re ready to explore how your school can make the shift to problem-based learning in math, our new change management ebook is the perfect place to start. It offers practical guidance, real-world examples, and a deeper look at the strategies highlighted above.

Download the ebook now to discover actionable insights and strategies to help make problem-based learning come alive in your math classrooms.

Math Teacher Lounge episode: Howie Hua on making math viral

K—12 math instruction has come a long way from having students memorize times tables. Thanks to innovative instructors like Howie Hua, it’s gone all the way to TikTok. And it’s gone viral. 

Bethany Lockhart Johnson and Dan Meyer recently talked to Howie Hua on Math Teacher Lounge—now a podcast!

Meet Howie Hua

Howie Hua is a lecturer at Fresno State. He teaches math to future elementary math teachers. That’s a good thing, because he doesn’t just make math “come alive.” He makes it go viral. 

He has more than 32,000 followers on TikTok (@howie_hua), where his brief, punchy math explainer videos have garnered nearly 500,000 likes. 

That’s why Bethany Lockhart Johnson was so excited to talk to him on the podcast, she says. “He is inviting us to think about how we ask questions in mathematics in ways that get people buzzing. His ideas and thoughts have gone viral and people are in conversation in a way that we long for them to be, out in the streets shouting about mathematics.”

(Fun fact: Hua can also throw a rifle 15 feet in the air, do a back flip, and catch it. Don’t believe us? Check out his TikTok.)

Questions are as important as answers

“I think people don’t want to watch a 20-minute YouTube video on something math-related. Maybe they just want a short one-minute explainer,” says Hua. 

Even in one minute, Hua shines new light on math functions and concepts—and more. 

“People want to understand what’s actually happening,” says Hua. “For example, I got so many nice comments when I explained the long division algorithm. I said, ‘Let’s visualize it.’ It’s not just connecting the permutation and the combination formulas. People want to know what’s happening rather than just ‘Use this formula to get an answer.’”

Dan Meyer shares a couple of Hua’s most popular TikToks: 

  • Test Talk: Reduce test anxiety by having students talk in a group about a test for five minutes before putting pencil to paper. 
  • How do you calculate … ? In his Mental Math Mondays series, Hua asks viewers to tell him exactly how they solve a given arithmetic problem. “One of my favorite hobbies is to listen to how people think about math,” says Hua. “So if you want to make my day, comment or stitch this video with how you would calculate 17 plus 18 in your head.”

Hua says that to ask “Hey, how would you think about this?” does more than give him insight. Asking questions helps build community, and shows people that there are many ways to arrive at an answer. 

Says Hua: “It really goes to show that math is a creative subject. ‘Hey, can we find another way? What’s another way that we can do this?’ I tell my students, the beauty is in us, not the final answer.” 

Join the challenge

Here’s Hua’s Math Teacher Lounge challenge for this episode: 

  1. Walk around and find something that you can count, take a picture, and then ask around: “Hey, how would you count these?”  See if their way is the same as yours—or if it blows your mind.
  2. Share your pictures and thoughts by tagging us (@MTLShow) and Howie (@Howie_Hua) on Twitter, and sharing them in the Math Teacher Lounge Facebook group as well. 

Bonus: Did you do the daily Wordle before you read this post? You might have learned something about teaching math—listen to the podcast to find out why (and to hear why on earth Dan Meyer would start his guesses with “PYGMY”)

The Math Teacher Lounge podcast is available on all major streaming platforms and on mathteacherlounge.com. Math Teacher Lounge is presented by Amplify and Desmos. Visit Amplify’s website to find out more about Amplify Math. 

Language comprehension: Building mental models

©Alexander Huth / The Regents of the University of California

Throughout this five-part series, we will cover the main components of the Science of Reading (SoR) and provide additional resources and research to guide your exploration and implementation of this important movement.

Say you’re given a passage of text to read. This particular paragraph describes half an inning of a made-up baseball game.

After you read the passage, you are asked to reenact the scene.

Which is more likely to aid your success?

A. Your ability to read

B. Your knowledge of baseball

C. It makes no difference

Would you be surprised to know the answer is actually B?

In part one of our series, “What is the Science of Reading anyway?,” we discussed the two main components of the Science of Reading: decoding (converting written words into speech) and language comprehension (understanding that speech). We also provided in-depth coverage of both learning and teaching how to decode the symbols of the English alphabet and strengthen the reading muscle.

LANGUAGE COMPREHENSION

In 1988, two young researchers and 64 students took part in an experiment that has forever changed how we think about reading and comprehension. One by one, the students were handed the same story covering half an inning of a made-up baseball game and asked to reenact it.

To the researchers’ surprise, they found that reading ability had little impact on how well kids understood the story—but knowledge of baseball did. In fact, students who were weak readers did as well as strong readers if they had knowledge of baseball.

Teaching knowledge explicitly improves reading comprehension. As Willingham has said, “Reading tests are knowledge tests in disguise.”

Researchers at the Haskins Lab at Yale tested this theory and found an extraordinarily high correlation between how well a 7-to-9-year-old child can recognize words and how well they comprehend text.

Common teaching mistake — Strategy instruction

So if reading comprehension is driven by a student’s vocabulary and knowledge, are widely taught strategies like finding the main idea equally critical?

Many strategies make intuitive sense: Stopping and re-reading when comprehension breaks down, for instance, is helpful for many children. But teaching the main idea strategy over and over is less helpful.

It is hard to find the main idea of a piece of writing if you don’t really understand any of the ideas in it. And even if you know a strategy — like re-reading when stuck — you also need to be well-versed in when to apply the strategy. You need to notice that you didn’t understand the text.

Often, strategy instruction neglects to offer students practice with identifying the situations in which they should use the strategy.

In the 1940s, a skills shift began to take place in education systems throughout the world. Its effects can be traced in the U.K., Sweden, Germany, and, most recently, France. This shift brought an emphasis on reading and math, squeezing out the broader knowledge taught in the sciences and social sciences. Some have linked the decline in standardized test scores—the SAT in the U.S. and the DEPP national exam in France—to this shift.

The National Survey of Science and Mathematics Education reported that today, classes in grades K–3 spend just 19 minutes per day on science and 16 minutes per day on social science.

To counter this loss of broader knowledge in our students, research suggests that we teach comprehension strategies in moderation and use the freed-up time to build knowledge (and vocabulary).

But simply exposing students to everyday speech doesn’t build a strong vocabulary. In a typical conversation, there are around 20 unusual words—such as dismayed or zeal—per 1000 words. Newspapers and books contain more than twice as many. Rich vocabulary, then, is gained not solely through speech, but through reading. Rich vocabulary, then, is gained not solely through speech, but through reading—especially when reading a variety of text types.

Mental models

Some readers with good word recognition, vocabulary, and knowledge are still weak comprehenders. Why might this be the case?

After students read a passage, they aren’t likely to recall the precise wording, but they will probably remember the ideas. Researchers use the term mental model to describe the structure you create in your mind to perform this feat of comprehension. Think of the process of building a mental model as a sort of micro-comprehension. Weak comprehenders build poor models. Hence, when asked prediction or mapping character development questions, they answer poorly.

There are four critical skills students need to improve their mental modeling:

  1. Decoding the usage of anaphoras (she, they, him). Some early readers can’t reliably figure out who the pronoun is referring to, especially in ambiguous text.
  2. Understanding the use of markers to signal ways that the text fits together — connectives, (like so, though, whenever) structure cues, and directions. Inexperienced readers may not know that but, though, yet, and however signal that something opposite follows.
  3. Writers make assumptions about what can be left unstated. For instance, when they read “Carla forgot her umbrella and got very wet today,” good readers will use their prior knowledge to conclude that it rained. Weaker readers who fail to make these gap-filling inferences wind up with gaps in their mental model.
  4. When something doesn’t make sense, you stop, re-read, and try to figure it out. Weaker readers just keep going—not because they’ve failed to figure it out, but because they’ve failed to notice that they don’t understand. They need explicit instruction in monitoring comprehension as they read.

Overview

Think of reading as a suitcase that you need two keys to open. The first key is word-level decoding, a skill that becomes automatic and fluent. The second key is language, vocabulary, and domain-specific knowledge. The more words you can decode, the more new words — and their meanings — you can learn. Similarly, the more knowledge you have on a topic, the more you can soak up on the same topic — and on related topics.

These two keys make up the Science of Reading. When schools focus heavily on one key or the other, the suitcase doesn’t open. So now the greater task of applying this knowledge in the classroom awaits us.

For more in-depth examples, brain scans, and information about the Science of Reading, download our free primer:

Science of Reading – Make the Shift Today

Learning mathematics through problem solving: Part 1

Productive struggle as a path to success

Many of us grew up with word problems as a part of math instruction, but we now know that students learn better when problems are more than just a part of learning. In fact, research shows that learning based on problem solving sets math students up for long-term success. 

Why problem-based learning matters 

What’s the problem with word problems? So-called “show-and-tell” pedagogies often rely on teachers demonstrating how to solve math problems, which doesn’t produce the kind of sticky learning that puts students on a path to long-term success. 

As a result, too few students are prepared for Algebra I. Even fewer go on to succeed in the high school math courses that are prerequisites for college and for careers that require quantitative skills.

Research published in Frank Lester’s 2003 book Research and Issues in Teaching Mathematics Through Problem Solving shows that instruction is more effective when the students themselves grapple actively with the math problems, working in groups or individually. This productive-struggle approach is often called problem-based learning. 

What problem-based learning looks like 

In a problem-based lesson, students are introduced to a handful of interesting and often real-world problems or tasks that can be understood and/or solved by referencing background knowledge, previously learned content, and newly provided information. 

These problems are designed to get students thinking about solutions they can then discuss with their peers. According to 2019 research conducted by Jack Dieckmann and Renae Skarin, this fosters both understanding of the content and math language development.

Over the course of the problem-based lesson, the teacher monitors student work, selects examples of that work to discuss with the class, and asks questions that propel the conversation and learning forward (as described by Margaret Schwan Smith and Mary Kay Stein in their 2011 book Five Practices for Orchestrating Productive Mathematics Discussions.

This synthesis incorporates students’ new insights and conceptions into their bigger-picture understanding of mathematics.

Problem-based math programs 

There are already high-quality curricula that call for this kind of pedagogy, but this approach can be hard to implement because it requires both a shift in practice for many teachers and more active engagement from students.

That’s why the highest-quality problem-based lessons embody all eight of the National Council of Teachers of Mathematics (NCTM) Teaching Practices. Amplify Math is one of them. 

Learning mathematics through problem solving: Part 2

Problem-based learning can put students on the path to math success. In this post, we’ll dig a little deeper into what it is, what it’s not, and teachers’ role in putting it into action. 

You can read the first post in this series here.

Tackling real-world questions

In our previous post, we established that a problem-based math curriculum sets math students up for long-term success. We showed that lessons in a problem-based learning model introduce students to interesting and often real-world problems or tasks that require them to draw on background knowledge, previously learned content, and/or new information. 

Problem-based learning vs. teaching as presenting

With traditional show-and-tell pedagogy, the teacher describes the procedures and formulas to answer problems and then gives students an opportunity to practice what they’ve been shown. This model is very common—most middle school and high school math teachers report using it as their primary mode of instruction.

With this approach, instruction is focused on getting answers through isolated skills and processes, so many students fail to develop the conceptual foundations required for the math to make sense. This often means students don’t know when a piece of knowledge is useful to a new, novel problem.

While teachers may be able to make a given lesson fun (for example, by turning it into a game), the math in the lesson is often uninspiring. Students may remember the game, but forget the math.

The limits of telling students how to do things

The occasional use of direct instruction is not always a bad option for teachers. Not all concepts and skills require substantial inquiry in order to stick or make sense.

But there are limits to deploying direct instruction as the primary mode of teaching. They include the following:

  1. For routine algorithmic problems such as calculating the sum of two multi-digit numbers, teaching has to involve a certain amount of telling—but just telling students how do something doesn’t set them up for success. Students remember algorithms better over the long term when those procedures are grounded in conceptual understanding. If students forget a procedure, conceptual understanding can help them recover it.
  2. Not every problem is routine or has an algorithm. Word problems are a big part of math, and word problems aren’t routine. No algorithm can make solving them a mechanical process. Instead, students have to comprehend the situation and create equations or models that reflect the relationships presented in the problem.
  3. In middle school math, algorithms become even less prevalent. As soon as rational numbers enter the scene, even a numerical calculation like -1(-1 – 1) has elements of strategy. 

Algebra often presents a student with choices, as when solving an equation like 3(x + 1) = 6. Will they begin by using the distributive property to rewrite the equation as 3x + 3 = 6? Or should they begin by dividing both sides of the original equation by 3 to obtain x + 1 = 2?

With problem-based pedagogy, choices about how to solve a word problem or which calculation strategy to pick can become learning moments. If some students do it one way while other students do it another way, both groups can learn by discussing how the two methods relate. 

How Amplify Math can help 

Amplify Math lessons help teachers cultivate and structure these student conversations. The program includes easy-to-follow instructional supports that make implementing a problem-based program more effective and enjoyable for both teachers and students. The lessons are designed to elicit creative thinking and get students collaborating. 

By working on problems that are intriguing, engaging, and relevant, students see how the math they are learning in class connects to their everyday lives. Students are placed into situations where they need to reason, collaborate, revise their thinking, and apply what they’ve learned.

Learning mathematics through problem solving: Part 3

Tackling real-world questions as a path to math success

In previous posts, we’ve established that problem-based learning sets students up for long-term success. We’ve shown that problem-based lessons introduce students to interesting and often real-world problems or tasks, and described the key role teachers play in putting problem-based learning into action. 

In this post, we’ll look more closely at how teachers can support students engaging in problem-based learning, even when the students do much of their work together in groups. 

You can read the first post in this series here and the second post here

Teachers transfer learning responsibility to students

In a problem-based lesson, students are introduced to a handful of interesting and often real-world problems or tasks that can be worked out by referencing background knowledge, previously learned content, and newly provided information. 

With problem-based learning, teachers transfer the responsibility of the actual learning to students. Teachers set up the activities and lessons, then students are given the right information and scaffolds to make sense of math concepts and opportunities to practice and apply their learning. 

These problems are designed to get students thinking—and talking together—about solutions. This way, students begin to grapple with math content and grasp math language development.  

During class, the teacher’s role is to observe students, ask questions, select and share student work, and help students synthesize their learning at the end of the lesson. That’s where teachers help students apply new insights and conceptions to their bigger-picture understanding of the math at hand.

When students do need to be taught a process directly, teachers can shift from conceptual to procedural instruction. (For example, after making sense of adding signed rational numbers, students practice to gain fluency.) In these moments, the problem-based structure is focused more directly on producing answers and debugging procedures than on new sense-making.

Problem-based math teaching aligns with NCTM practices

The highest quality problem-based lessons embody all eight of the NCTM Teaching Practices. These are: 

  1. Establish mathematics goals to focus student learning.
  2. Implement tasks that promote reasoning and problem solving.
  1. Use and connect mathematical representations.
  2. Facilitate meaningful mathematical discourse.
  3. Pose purposeful questions.
  4. Build procedural fluency from conceptual understanding.
  5. Support productive struggle in learning mathematics.
  6. Elicit and use evidence of student thinking.

​​How Amplify Math can help teachers

We started with a world-class problem-based curriculum (Illustrative Mathematics’® IM K–12 Math™) and made changes to help educators implement engaging problem-based core curriculum for students. Amplify Math helps shift to planning and teaching problem-based lessons, tracking student progress, and differentiating instruction based on real-time data. We’ve made the math problems more exciting and relevant for all students, thus making it easier for all students to become active participants in their learning.

Building resilience through routine, relationships, and regulation

Welcome back to Science of Reading: The Podcast!

In the classroom, we’re continually looking out for our students and looking for ways to support their well-being and academic growth. But how often do we look at what we’re doing to take care of ourselves? And what does that look like for students and educators, having lived the past year and a half in a global period of stress during the pandemic?

Books have been some of my most meaningful companions … there’s a form of attachment that can occur between a reader and a story or a book that can actually be a safe space of refuge.

 — Ricky Robertson

In this episode, we join Susan Lambert as she talks to Ricky Robertson about building systems of support for students impacted by Adverse Childhood Experiences (ACEs) and the educators who work with them. Ricky is an educator, author, and consultant who has worked with alternative and traditional schools. The episode focuses first on how teachers can prioritize their own self-care and why it is essential in order to care for students. Ricky then goes into explaining what ACEs are and the ways that fight, flight, freeze, and fawn responses can manifest in the classroom. Lastly, they go into explaining resilience and how routine and relationships help build a foundation for resilience — ending on a note of encouragement to educators that their investment is never wasted.

Listen Below!

For more research and wisdom on the best ways to teach reading, subscribe to Science of Reading: The Podcast.

Save your spot at our webinar series to discover how the Science of Reading is for everyone!

Making the most of your stimulus funding

There are literally billions of dollars left in ESSER stimulus funds—and regardless of the role you serve in K–12 education, some of those dollars can help you and your students. Though you have until Sept. 30, 2024, to assign these funds, it’s never too early to ensure that you and your colleagues are taking advantage of what’s available to you to invest in your students and classrooms. 

While 20% of your district’s funding must target instructional loss caused by the pandemic, you can direct the rest toward your specific needs—whether you need print instructional materials, dual language supports, or personalized learning to help your students catch up.

We’re happy to guide you through the current funding landscape and offer some tips for claiming your funding and helping get your students back on track.

Overview of the stimulus funding landscape

We’ve reached historic levels of federal investment to support the recovery of K–12 education. The American Rescue Plan (ARP) has supplied our nation’s schools with three buckets of ESSER stimulus funds:

  • $13 billion under the CARES Act in March 2020 (ESSER I)
  • $54 billion under the CRSA in December 2020 (ESSER II)
  • $122 billion under the ARP in March 2021 (ESSER III)

This brings the total funds to $189 billion—a staggering amount available to help you, your students, and your colleagues. ESSER III funds must be assigned by Sept. 30, 2024, but this doesn’t mean the programs and services you purchase will expire. Your state can request an 18-month extension to liquidate the funds, and the changes needed to transform student performance and other school needs aren’t bound by this date.

As you consider how to spend your funding, keep in mind that there are 16 types of allowable expenses, including learning software; summer learning and after-school programs for at-risk students; and activities that support federal requirements, such as ESEA and Titles I, II, III, and IV.

Spending priorities across states

Within the boundaries of allowable expenses, many states have already begun deciding how they want to target the specific needs of their districts.

Stimulus investments must reflect your district’s needs while taking into account the unique skills and gaps of individual students.

At the state level, Georgia is prioritizing student mental health and wellbeing, while Massachusetts is taking on that issue in addition to figuring out how to measure learning loss and helping districts reopen safely. 

New York is emphasizing early childhood education, staff training, maintaining operations, and education technology. Kansas has similar goals with learning software, in addition to a focus on continuing operations, providing sanitation supplies, and catering to remote students’ needs.

One report tracking stimulus funding in 1,040 school districts across 35 states found patterns among school needs. More than half the districts studied set aside funds for summer learning, a third plan to pay for transportation, and a quarter will invest in online platforms.

Amplify programs fit the bill

All Amplify programs and services meet the funding criteria, including our literacy, dual language, and STEM suites.

Our literacy suite is made up of high-quality instructional materials that are based on evidence, which is one of the purchasing requirements in the American Rescue Plan. These programs provide students with personalized instruction—whether it’s at the core, supplemental, or intervention levels.

For more detailed information about using stimulus funding to get your students back on track in reading, watch our recent webinar to learn more about Amplify Reading, our personalized reading program for grades K–5, and mCLASS, our early foundational literacy assessment.

Want to learn more about ESSER and how to use these funds thoughtfully? Visit our stimulus funding webpage where you’ll have access to a tracking tool that allows you to search by state and district to see approximately how much money is headed your way. As you explore ways to use the funds available to you, be mindful about the long-term impacts of the choices you’re making, and listen to your teachers, students, and overall school community. Creating or expanding upon an instructional system that includes core curriculum, a reliable assessment tool, and personalized and supplemental learning is a great way to set your teachers and students up for success now and in the future.

4 ways to weather educational change

The landscape of education is constantly shifting. That’s always been true, because the world is constantly changing. But at no time in recent memory has the landscape of education been forced to change in as many ways as it has over the past few years.

How can teachers navigate the seismic changes in the education system in their day-to-day lives?

In this recent episode of Science Connections: The Podcast, host Eric Cross talks about managing educational change with veteran educator and former Miami-Dade County Public Schools (M-DCPS) Middle School Science Teacher of the Year Marilyn Dieppa.

Below, we’ve outlined four tips for weathering shifts. The bottom line? It’s important for teachers to be able to change with the times, while remaining a steady, solid presence for students.

1. Embrace change—it’s good for kids, too.

“I always change my labs. I don’t like to do the same thing over and over again,” says Dieppa. And when she tries something new, she tells her students she’s experimenting. (After all, it’s science!)

“They’re afraid of trying something new and failing,” Dieppa says—so she tries to model taking on the unknown, learning, and adjusting as needed. This is part of cultivating a growth mindset for kids. “It’s for them not to be fearful. That gives kids a foundation they need.”

2. Have an open-door policy.

The pandemic has exacerbated challenges in kids’ lives that can make it tough for them to learn. Some even say we’re in a youth mental health crisis. Now more than ever, it’s important that “you become more than just a science teacher,” says Cross. “You’re a mentor. You’re an encourager. Sometimes you’re a counselor.”

It’s impossible to be everything to every student, but it’s important to let them know you see them.

“I always say, I’m not there to really be your friend, but I’m there to help you,’” says Dieppa. “And you gotta tell ’em, you know, ‘if you need to talk, come talk to me’. Because so much of what we’re doing is like life coaching in addition, and that connects to their success in the classroom.”

3. Measure wins in lots of ways.

What keeps Dieppa going? “Whether [students] have struggled all year and they’ve had that one piece of success, or they come back and tell you they didn’t realize what they got out of middle school science until they got to high school, those are my moments of success.”

4. Remember—you’re still learning, too.

Yes, you’re the teacher, but “you don’t have to be the expert in everything,” says Cross. “Teachers tend to be more risk-taking and innovative when they’re willing to say, ‘I don’t have to know everything in order to do something.’”

Whenever it feels like you can’t do something or don’t know something, remember: You can’t do it yet. You don’t know it yet. Growth mindset phrases for students apply to your growth, too.

Listen to the whole podcast episode here and subscribe to Science Connections: The Podcast here

About Amplify’s Science Connections: The Podcast

Science is changing before our eyes, now more than ever. So how do we help kids figure that out? How are we preparing students to be the next generation of 21st-century scientists?

Join host Eric Cross as he sits down with educators, scientists, and knowledge experts to discuss how we can best support students in science classrooms. Listen to hear how you can inspire kids across the country to love learning science, and bring that magic into your classroom for your students.

Linguistic variation and dialects: difference, not error

Teachers need to know about the language variety that their students are speaking.

—Dr. Julie Washington

In this episode, Susan Lambert is joined by Dr. Julie Washington to discuss linguistic variety and dialects as difference, not error, and how to best support all students as they learn to read.

Dr. Washington—professor in the School of Education at the University of California, Irvine (UCI)and a speech-language pathologist—offers practical advice for educators teaching reading to children who don’t use general American English, and discusses how to do so in a way that respects students’ community languages and dialects. She reminds educators that students rise or fall to the expectations set for them, and encourages educators to remember that if they embrace language variety as something that needs to be understood and incorporated into developing successful readers, they will develop successful readers.

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.

Inquiry-based learning: 3 tips for science teachers

Which practice is at the top of the eight NGSS Science and Engineering Practices? Good question! It’s asking questions and defining problems.

And why is asking questions so important? (Also a good question.) 

Because science isn’t just facts. Science is a process of finding answers—a process that starts with questions. That’s why students learn like scientists best in a science classroom defined by phenomena-based learning, also known as inquiry-based learning.  

How can science educators bring this approach into the classroom? 

That’s one question host Eric Cross and science educator and professional development facilitator Jessica Kesler address in the latest episode of Amplify’s Science Connections: The Podcast.

The power of questions

Kesler’s mission at TGR Foundation, a Tiger Woods charity, is to empower educators to create engaging classrooms that foster future leaders.

“We train teachers on STEM competencies and the pedagogical tools and strategies to implement the STEM we’re doing in our learning labs,” she says. “Then they can implement it in the classroom and have this multiplicative effect that can help us reach millions of kids and prepare them for careers.”

Those pedagogical approaches include student-centered learning practices. Using those practices, teachers spend less time delivering facts and more time asking questions, while developing students’ ability to do the same.

That’s how we shift science from, as the NGSS frames it, “learning about” to “figuring out.”

Per the NGSS: “The point of using phenomena to drive instruction is to help students engage in practices to develop the knowledge necessary to explain or predict the phenomena. Therefore, the focus is not just on the phenomenon itself. It is the phenomenon plus the student-generated questions about the phenomenon that guides the learning and teaching. The practice of asking questions or identifying problems becomes a critical part of trying to figure something out.”

Inquiry-based learning examples and approaches

Kesler recognizes that a shift to inquiry-based learning can’t be made overnight, or all at once. “We never suggest overhauling your classroom…add a little bit here and there and see how it impacts your students.”

Here are some strategies Kesler suggests for empowering educators to deliver inquiry-based science learning.

  1. Cultivate an inquiry mindset. We live in a world where answers to pretty much everything are right on our phones, right in our pockets. That ease and accessibility can dampen student curiosity. But when teachers start shifting focus from asking students for answers to asking them to develop smart questions, students can grow that mental inquiry muscle.
  2. Make inquiry visible. No need to be sneaky—you can be explicit with students about what you’re doing, and what you’re inviting them to do. Think: “What are tools and strategies you can use so that students can illuminate their thinking for themselves and for you and their peers?” Kesler says. “So the students get to see their own thinking as they progress, and you get to tell the story of how their minds have evolved.” Paying attention to student questions also enables you to observe where students are making mistakes, where misconceptions come up, and where you should target your next lesson, Kesler adds. “So it makes you more responsive in the moment.”
  3. Build an inquiry environment. Asks Kesler: “What are the things that you can embed into your physical space and develop in a student’s intellectual space that will help you create a holistic inquiry environment?” There’s no one right answer, but a shift in environment can support a shift in intellectual approach. (Consider the opposite: “If you take someone out of an old habit or space and tell them, ‘We are gonna change your minds and teach inquiry,’ but put them back in the same environment, they’re going to be conflicted,” Kesler says. You could create displays that present questions rather than facts, or arrange the room to support conversation rather than lecture—whatever makes sense for your space.

Definitely test, explore, experiment—even take risks—and ask your own questions. After all, the inquiry mindset is for you, too!

Learn more

Explore how Amplify Science supports inquiry-based learning.

Listen to all of Season 1, Episode 10, Empowering the science educator: Jessica Kesler, and find more episodes and strategies from Amplify’s Science Connections: The Podcast.

Instructional strategies for integrating literacy into your science classroom

Do you ever feel like science is the underdog in your school or district? You’re not alone.

But it doesn’t have to be that way. In fact, we know that science can overdeliver. That’s especially true when educators successfully integrate it with other subjects.

You can dive into the power of integrating science and literacy with the latest season of Science Connections. Here’s a sneak peek at what we explore in the first few episodes of Season 3 of our podcast.

Rooting for the underdog

In what sense is science seen as an underdog? Just ask Eric Banilower and Courtney Plumley of Horizon Research, a consulting firm that supports educational improvement and policy development. Host Eric Cross interviews them in Season 3, Episode 1.

As you know, an underdog is generally a weaker or less favored person or entity. Banilower and Plumley find that science instruction often fits that mold.

One thing they found: elementary school teachers’ schedules allow for less instruction of science than math and ELA. They also note that when there’s a break in routine—a special assembly or early dismissal—science is often “the first thing to go,” says Plumley.

They also note that instructors (like many others) are often expected to design their own curriculum.

The conversation offers some solutions for shifting these practices, as well as supporting science instructors in general.

“You don’t ask doctors to develop new treatments and tests. Their job is to get to know their patient, assess what’s going on, and then use research-based methods to develop a plan of action. That analogy [suggests] a scalable approach for raising…the quality of science education,” Banilower says.

What is that approach? According to Banilower, “Giving teachers research-based, high-quality instructional materials that they can use to meet the needs of their students would allow them to focus on getting to know their students, seeing their strengths, [finding areas where they have] room for growth, and…help[ing] those students progress.”

The power of integrating science and literacy into the science classroom

Science does not need to stay in a silo. As we illuminate in Episodes 2 and 3, bringing literacy work into the science classroom can supercharge students’ work in both. (We also explore the topic in this blog post.)

“We know we need to dramatically improve literacy rates in this country, and as we’ll show in the coming episodes, science can be a key ally in that goal,” says our host, Eric Cross.

It goes the other way, too. Language development and literacy instruction can support science. “Win-win, folks,” says Cross.

In Episode 2, senior science educator Dr. Susan Gomez Zwiep described how bilingual and multilingual students in her school accelerated their English speaking and learning when they were excited to discuss science phenomena.

Indeed, she notes, the NGSS provides rich linguistic opportunities for students. We used to talk about language in science as all technical, but that’s changed. “Language is now developed through the science learning experiences,” says Gomez Zwiep.

Two key approaches you can use:

  • Think of science lessons as a narrative. Gomez Zwiep suggests you ask yourself, “What’s the story arc of my science lesson? How are the science ideas building over time?”
  • Welcome language that’s comfortable and conversational for your students.  “This expansion of language, including non-standard dialects and even home language, is really important for letting students bring their whole selves into the classroom,” she says.

More ways to enhance literacy in science 

Don’t worry—you don’t need to take a second job. “It’s not that you have to become a reading specialist to integrate literacy into science,” says Douglas Fisher, Ph.D., professor and chair of educational leadership at San Diego State University. “It’s how our brains work.”

It’s also how science works. “Science teachers and scientists do a lot of reading, writing, speaking, and listening and viewing. They use the five literacy processes all the time,” says Fisher, our guest on Episode 3.

Some strategies Fisher offers:

  • Invite multiple aspects of literacy. Think: What role do speaking, listening, reading, writing, and viewing, play in your class? Provide opportunities for students to do those things each time you meet with them.
  • Read challenging texts. “Science is an ideal place to get students reading things that are hard for them. Doses of struggle are good for our brains,” Fisher says. “Complex texts that don’t give up their meanings easily allow students to reread the text, mark it, talk to peers about it, and answer questions with their groups.”
  • Get them writing, even in short bursts. “Writing is thinking,” he says. “While you are writing, your brain cannot do anything else.” So if your students understand a given concept, have them write about it.

And that’s just the beginning. Tune in—and stay tuned—for more strategies for encouraging literacy integration in a science classroom.

More ways to learn

Centering students in math curriculum adaptations

Starting with a high-quality math program

In her research article, “Examining Key Concepts in Research on Teachers’ Use of Mathematics Curricula”, Janine Remillard described curriculum use as a dynamic and ongoing relationship between teachers and resources—a relationship shaped by both the teacher and characteristics of the resource.

I have found that while certain characteristics can make a math curriculum high-quality, it is only through its relationship with teachers that it creates truly meaningful math experiences for students.

In my own teaching experiences and now back in classrooms with teachers, I am convinced that no matter how well-constructed a lesson, it only gets better as teachers plan collaboratively and center their students.

Shaping lessons for the students in your classroom can be challenging because there is not one right way or time to adapt a lesson, and the reasons we adapt vary.

Sometimes we make relatively small tweaks to the wording of a prompt, a question the teacher should pose, or the timing of an activity.

Other times we make more substantial changes to the task or task structure in order to more clearly move toward the learning goal based on what we are seeing and hearing from students.

And then there are the times we realize in the midst of an activity we should have made an adaption in our planning.

I recently taught a 5th grade fractions lesson that provided a perfect example of the dynamic nature of the work.

Engaging in a math curriculum activity

This particular lesson falls at the end of the fraction addition and subtraction unit.

The Warm-Up of this lesson is a Number Talk, which made sense to the 5th grade teachers and I, given the unit focus.

We reviewed the mathematical concepts and problems in our planning session, anticipated that students might find common denominators, and agreed that the synthesis discussion around denominator choice aligned with the problems. 

While we anticipated that students would successfully add, the number choices in the string led students to solve each one the same exact way, with the only difference being whether they stated their sum in simplest form or not.

Halfway through, we could see the majority of the students were getting bored and it was hard to infuse curiosity and excitement around denominator choice because students had already generalized a way of finding a common denominator—which at this point in the unit was great!

In the midst of the Number Talk, we paused and debated pivoting our focus to the problems in relation to one another rather than denominator choice. But we knew that doing that would add extra time to the lesson, when we needed the majority of the time for the activities that followed.

So we wrapped it up and moved on, knowing we had time to discuss our choice in an upcoming planning session.

Adapting in ways that center student ideas

After class, I couldn’t stop thinking about revisions I would make if we had the opportunity to plan it all over again. Because although the problems in the string supported mental calculation and aligned with the lesson activities, the students needed something different at this point in their learning.

After reflecting with colleagues, we decided the timing of that particular Number Talk for these students was too late in the unit and wondered if a different routine would have made it more engaging.

Using that Number Talk as a rough draft (shout out to Mandy Jansen), I played around with different number choices and routines we might use in a second take on that lesson. 

If we wanted to stick with the same task structure, we could adjust the numbers to create a new Number Talk or True or False? routine that more explicitly encouraged relational reasoning and use of the properties.

For example, the following problem strings still attend to denominators when adding fractions but also open up the space for more interesting and engaging student discourse. 

Number Talk

True or False?

If we wanted to use a different structure altogether, we could try the Which One Doesn’t Belong? routine to provide opportunities for students to notice other interesting aspects.

In this activity, students share reasons why one of four items—in this case, equations—doesn’t belong. There is no single right answer because each object could both belong and not belong, depending on the student’s criteria. (If you’ve never tried this routine, it’s a must!)

Because I couldn’t wait until this lesson next year to see what students would do with one of these ideas, I asked them to write about the Which One Doesn’t Belong? The variation among their ideas was exciting.

While I could still see attention to the denominators as in the original Warm-Up, students were now describing their ideas in much more unique ways. If this had been the original Warm-Up, it’s not hard to imagine how much more engaged students would have been—and how much more teachers would have learned about their thinking. 

Learning from within the work of teaching

Curriculum materials have shaped my teaching and learning since the beginning of my time in the classroom. They then became the focus of my work at Illustrative Mathematics and now in my current work at Amplify.

I am a strong advocate for high-quality curriculum materials, and at the same time, I also believe that every curriculum can always be improved to better meet the needs of students and teachers.

I continually recognize and appreciate the time I get to spend planning, teaching, and reflecting with teachers about their dynamic and ongoing relationship with curriculum materials.

These opportunities to learn from within the work of teaching are invaluable inputs to our current work at Amplify, where we have the exciting opportunity to improve the characteristics of math resources currently in schools. 

Want to learn more from Kristin Gray? Watch her webinar!

Science professional learning resources for teachers

We hope you’ll take some time to rest and recharge this summer! But we also know how hard you work—even when school’s out—to do the best you can for the students in your science classroom.

Without the constraints of the school schedule, summer can be a great time for teachers to work on professional development! 

That’s why we created this handy list of professional learning resources, mined from our trove of blog posts and webinars, for you to dive into this summer. 

Science and literacy integrations

How should you approach the integration of science and literacy, and why is it important in the first place? Get all the answers in these posts and webinars: 

Next Generation Science Standards

These resources will help you learn about the Next Generation Science standards by grade level—and discover how to make them come alive in your classroom: 

Phenomena in science

What’s phenomena-based learning in science? A method of exploring the everyday and observable that can also deliver extraordinary results. Learn more here: 

More to explore

Free professional learning opportunities for math educators

We hope you’ll take some time this summer to refresh your energy—and your math teaching skills and knowledge. We’re here to help with these professional learning opportunities for math teachers.  

Culled from our trove of blog posts and webinars, we’ve compiled a list of math teacher resources covering topics from technology in the math classroom to math anxiety and more. We hope your down time and your math time add up to a great summer! 

Diving into math curriculum

As math teachers, you work every day to celebrate student brilliance, build deep conceptual understanding, and create the conditions for every student to be successful. Find out how Amplify Desmos Math can help with these resources. 

Desmos Classroom

This four-part webinar series will give you the tools you need to go from platform novice to skilled Desmos Classroom whiz.

What amazing math looks like

How can you help students both learn math and love math? Examine what amazing math looks like for both educators and students in this webinar series that explores the importance of focus, engagement, and collaboration. Start with our special kickoff webinar presented by math expert Dan Meyer, host of Math Teacher Lounge, then binge-watch our webinars on next-level math engagement! 

Desmos Math 6–A1

Learn about the EdReports process for evaluating high-quality instructional materials (including Desmos Math 6–8) in a post from our blog, then check out our info session and Step Ahead webinars to learn more about the program—and see it through the eyes of math students!

Creating a math community 

As any mathematician knows, there’s strength in numbers! The following posts, all from the Amplify blog, will help you build a culture of collaboration and community in your math classrooms. 

Summer is one of those good things that must come to an end. But when it does, we hope these resources will have helped you feel more prepared than ever for a magical year of math! 

Top 5 back-to-school tips for science teachers

Science teachers: We got you. 

“Teaching through a pandemic called for so much innovation, resilience, and sacrifice,” says Eric Cross, host of the podcast Science Connections and a K–8 science teacher who’s spent 10 years in the classroom. 

As education continues to evolve with new technologies like artificial intelligence, [teachers] keep rising to meet each moment with wisdom and courage.

 —Eric Cross

And with that innovation in mind, we’re here to get you ready to go back to school. 

From fun classroom activities to professional learning opportunities, our strategies are designed to help you walk back into your science classrooms feeling energized, inspired, and supported by a science community. 

As Cross says: “We’re all in this together.” 

1. First-day fun: Plan interactive classroom activities. How about some Icebreaker Bingo? Create a Bingo card that invites students to find classmates who can answer “yes” to science-related descriptions (e.g., “Has a pet reptile,” “Enjoys stargazing”). Activities like these help students uncover common interests while also providing background knowledge. They can also remind students that science doesn’t just happen in the science classroom—it’s an integral part of their lives and worlds, too.

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 science resources for teachers.
  • 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?

Approaches like these will help build a network of support for science learning, and support every educator in taking steps to help students grow.

3. Set the tone for the year: We are scientistsYou might have learned science by starting with a principle and then exploring it in the real world. Today, we know it’s more effective to start by observing a phenomenon, then trying to predict or explain it. In fact, that’s what scientists do. And when your students do that, they become scientists, too. Let students know from day one that that’s who they are to help them start the year motivated and engaged.

4. Cultivate community: Build a science ecosystem. Find ways to involve caregivers in student learning and create a continuum between the classroom and their everyday lives. You might: 

  • Collaborate with students on writing a weekly science newsletter or blog with classroom updates and suggested at-home activities.
  • Organize family science days or nights (IRL or online) for students and caregivers to do some hands-on science together.
  • Create simple but engaging science challenges for students and caregivers to do together. (Paper airplane distance contest, anyone?)

5. Use free professional learning opportunities for teachers from Amplify Science. Explore upcoming Amplify Science webinars, designed to support you—along with your schools and districts—in using collaborative, effective, and engaging science practices in the classroom. You’ll hear from thought leaders in science education, observe real science students in K–5 classrooms, and much more. 

Ready to dive into professional learning right away? Check out our on-demand science webinar library. From quick tips to longer continuing education (CE) credit options, our on-demand webinar library is sure to have just what you need.

Free science resource toolkit 

Our free toolkit of science resources will make it even easier for you to implement all of the tips above while setting science students up for success. These resources aren’t just for teachers—administrators and caregivers can use them, too! A robust science program means giving the right tools to not only those who teach, but everyone who supports students’ science learning. The resources in the toolkit will:

  • Help you craft a dynamic science 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.

We hope these resources will serve you and your young scientists all year long! 

More to explore

Embracing artificial intelligence in the math classroom

Artificial intelligence seems to be everywhere these days. We use it when we ask Alexa or Siri for the morning weather report. We use it when GPS tells us how to best avoid traffic. We use it when we chill at the end of the day with a recommendation from Netflix. 

But what about during the day—and specifically, at school? Even more specifically, can AI be leveraged to enhance the math classroom? 

“While AI is an amazing tool, you’ve really got to make sure that you are focusing in on your expertise as well,” says veteran math educator and STEM instructional coach Kristen Moore, “And saying, ‘How can I use this to make something better?’ and not just, ‘How can I use this to make something?’” 

In this post, we’ll talk about the current state of AI in math education, and how it can support educators in making math better. (SPOILER: It’s not going to replace you!) 

First, some STEM learning for us: What is artificial intelligence? 

Artificial intelligence, or AI, refers to the development of computer systems able to perform tasks that typically require human intelligence. 

It involves creating algorithms and systems that enable computers to learn from data, adapt to new situations, and make decisions or predictions.

AI aims to mimic human cognitive functions such as understanding language, recognizing patterns, solving problems, and making decisions. It encompasses a range of techniques and technologies, including machine learning, neural networks, natural language processing, and robotics.

The term “artificial intelligence” was introduced in 1956.  The availability of vast amounts of data and advancements in computer power in the 2010s led to additional breakthroughs. And with the proliferation of smartphones, smart devices, and the internet, AI technologies began to work their way into our homes, cars, pockets, and everyday lives.

What’s the state of AI in education? 

AI is already commonplace in schools and classrooms. Here are just a few examples:

  • Adaptive learning: This software uses AI algorithms to adjust the difficulty and content of lessons based on a student’s performance, helping students remain engaged and challenged at their optimal level.
  • Assistive technologies: AI helps students with disabilities by providing assistive technologies like text-to-speech and speech-to-text tools, making educational content more accessible.
  • Plagiarism detection: These tools use AI algorithms to identify instances of copied or unoriginal content in students’ assignments, essays, and projects. 
  • Data analysis for teachers: AI analyzes data from student assessments to identify trends and insights, helping teachers make informed decisions about instructional strategies. It can also predict students’ performance trends, helping teachers identify at-risk students early and intervene to provide additional support.
  • Grammar, spelling, and style checkers: AI can provide real-time feedback to students (and teachers!) on their writing work.

Embracing AI technology in your math classroom

While AI is not here to replace teachers, it is here to stay. And experts say it’s only going to become more commonplace. But despite how common AI is already—both outside and inside school—not all teachers are familiar with its numerous applications and potential. Now is a great time for educators to start exploring its uses and get ahead of the curve.

Here are a few easy entry points for math teachers. 

ChatGPT: A common AI tool, ChatGPT is designed to understand and generate human-like text based on the input it receives. It’s trained on a wide range of internet text, which enables it to generate responses to a vast array of prompts and questions. 

Most students have likely experimented with ChatGPT, while teachers—though aware of it—are less likely to use it. ChatGPT has highly practical applications for both groups, though—including in the math (and science) classroom. 

It can, for example, help teachers plan interesting, relevant math lessons for their students. Kristen Moore, who discusses this topic on Math Teacher Lounge, suggests that math teachers use ChatGPT to:

  • Connect topics to student interests and vice-versa. (Teachers can ask ChatGPT for real-life applications of polynomials and select those that might pique student interest, or ask about math applications derived from students’ hobbies and pursuits.) 
  • Generate word problems (including step-by-step solutions), lessons, projects and rubrics, and more.

Toward the (near) future

As AI advances, it will continue to revolutionize education. Here are a few time-saving ways that educators can look forward to using it in their classrooms.

  • AI tutors: AI-powered virtual tutors will help math students with homework questions and provide explanations for various concepts. These tutors can be available at home 24/7, allowing students to seek an AI homework helper whenever they need it.
  • Automatic graders: Some AI tools can automatically grade math work, including multiple-choice and short-answer assignments. These tutors can be available at home 24/7 in any household with internet access, allowing students to seek more personalized instruction.
  • Personalized learning paths: These AI-powered platforms will work particularly well for math students by adapting to each student’s skill level and pace, offering tailored exercises and challenges that cater to their strengths and identify areas of improvement. They will analyze students’ performance and adjust the difficulty of content, ensuring that students get targeted support and opportunities to progress.

More to explore

To dive deeper into AI in math education—and get rolling with AI in your classroom—check out this two-episode mini-series on our Math Teacher Lounge podcast focused on just that: 

“I’m a believer that learning is inherently social,” says Carolan, who is quick to emphasize how technology can enhance that quality, not replace it. The same can be said for the role teachers play in the classroom—a role technology can support, but never take away. To learn more about this topic (and discuss it with your fellow educators!), head to our Math Teacher Lounge community

Pseudoscience examples for critical thinking skills

MIRACLE HAIR GROWTH! 

Quantum hair activation technology: This groundbreaking innovation goes beyond conventional science, delving into the realm of quantum energy to stimulate hair growth at the subatomic level. Blended with rare botanicals from ancient civilizations for luster and shine. Limited-time offer: Act now and receive a vial of stardust-infused hair serum!

Effective product…or pseudoscience? We’ll bet you guessed it. (Sorry, no stardust serum for you!)

While this hair product itself sounds like junk, reading about it can be a valuable experience for science students.

Teaching your students to identify pseudoscience in the world around them helps them learn to protect themselves from false claims that can be money-wasting at best, dangerous at worst.

And as they learn to discern, they also develop lifelong critical thinking skills!

We say knowledge is power but it’s not enough to know things, and there’s too much to know. Being able to think and not fall for someone’s bunk is my goal for my students.

—Melanie Trecek-King, biology professor and guest in Science Connections podcast Season 3, Episode 5: Thinking is power

Let’s explore how educators can use examples of pseudoscience to develop critical thinking skills—and incorporate NGSS (Next Generation Science Standards) science and engineering practices into their approach.

What’s the difference between science and pseudoscience?

Science is grounded in empirical evidence, rigorous testing, and the scientific method. Pseudoscience presents itself as scientific but lacks the fundamental elements of genuine scientific inquiry: evidence, peer review, and the capacity to generate accurate predictions.

Though pseudoscience may make vague claims, it has clear characteristics. When something is pseudoscience, it:

  1. Can’t be proven wrong: Makes claims that are unobservable or too vague.
  2. Professes “proof” without presenting actual evidence: Presents only anecdotal evidence, if any.
  3. Uses technobabble: See: “Quantum hair activation technology.”

For more characteristics of pseudoscience, check out Melanie Trecek-King’s episode of Science Connections!

To be sure, not all pseudoscience is harmful—pursuits and activities such as aromatherapy and astrology can be positive experiences in people’s lives—it just should not be defined as or considered science.

How addressing pseudoscience encourages critical thinking

When you teach students to identify pseudoscience, you are teaching them to use an evidence- and research-based approach when analyzing claims. Which is…science!

You are also:

  • Teaching them to engage in thoughtful and educational argument/debate.
  • Encouraging them to use their knowledge of science in the real world.
  • Creating real-world impact.

When students learn to identify pseudoscience—faulty products, myths, and disprovable “discoveries”—they’ll be prepared and informed when making real-world decisions.

Critical thinking exercises inspired by pseudoscience

We’ve talked about “miracle” hair growth treatments, which are more commonly targeted to adults. Students may have more commonly encountered claims about or ads for alkaline water or detox diets, conspiracy theories and instances of science denial, astrology, and more. These examples offer great opportunities to discuss how to determine the difference between science and pseudoscience.

Suggested activities:

  • Pseudoscience Sherlock: Ask students to find examples of pseudoscience in real life via social media, products sold in stores, or on the internet. Tell them to pay close attention to “articles” that are really ads.
  • Pseudoscience lab: Prompt students to back up their claim that a given example represents pseudoscience with evidence: e.g., lack of empirical evidence, controlled experiments, or unbiased sample; absence of peer-reviewed research; reliance on anecdotes; hyperbolic and unprovable claims.
  • Snake oil! Ask students to practice identifying pseudoscience by creating their own advertisements, commercials, or news segments for fake products or scientific “advancements.”
  • Spread the word: Ask students to create flyers, PSAs, or articles on how to identify the characteristics of pseudoscience.

Other activities that incorporate the NGSS while also sniffing out pseudoscience:

  • Asking questions: Encourage students to ask probing questions about pseudoscientific claims. How does this claim defy our current understanding of the natural world? What empirical evidence is missing?
  • Developing and using models: Have students create models that illustrate the differences between a pseudoscientific claim and a well-established scientific concept. This visual representation supports understanding and critical analysis.
  • Engaging in argument from evidence: Arrange debates where students argue for or against a pseudoscientific claim using evidence-based reasoning. This practice sharpens their ability to critically evaluate information.
  • Obtaining, evaluating, and communicating information: Ask students to research the history and impact of a specific pseudoscientific belief. Have them present their findings, highlighting how critical thinking could have prevented widespread acceptance of the claim.

Using examples of pseudoscience in your science classroom can help students learn to not only think like scientists, but navigate the real world, too.

Bertha Vasquez, former teacher and current director of education at the Center for Inquiry, has used these approaches with her students. As she shared on Season 3, Episode 6 of Science Connections: “I guarantee you that those students, when they walked into a store with their parents and they saw a product [with] a money-back guarantee [that] cures way too many things, and it’s based on ‘ancient plant wisdom’ and has ‘scientific’ language on the box, they may go, ‘Mom, I think these people are trying to sell you some pseudoscience.’”

More to explore

How teachers can address math anxiety

How teachers can address math anxiety

No one is born knowing the quadratic formula, or how to measure a triangle—math needs to be taught.

Likewise, no one is born a “math person”—or not a math person. And no one is born with math anxiety.

“Children don’t come with math anxiety,” says Dr. Rosemarie Truglio, senior vice president of curriculum and content for Sesame Workshop and a guest on Math Teacher Lounge. “Math anxiety is learned.” That’s actually good news because it means math anxiety can be unlearned, too. We can teach students (and even teachers) how to overcome it. In this post, we’ll cover some helpful learning strategies, teacher tips, and supports for caregivers.

Anxiety in—and beyond—the math classroom

First, let’s review what math anxiety is and is not.

Math anxiety is more than just finding math challenging, or feeling like you’re not a math person. Dr. Gerardo Ramirez, associate professor of educational psychology at Ball State University, defines it as “a fear or apprehension in situations that might involve math or situations that you perceive as involving math. Anything from tests to homework to paying a tip at a restaurant.” Here’s what else we know:

  • Causes: Math anxiety is not correlated with high or low skill or performance. For students who’ve been pressured to excel, math anxiety comes with the fear of not meeting expectations. For students who historically haven’t done well in math, the anxiety comes with the assumption they’ll do poorly every time. Other triggers include a mismatch between learning and teaching styles that can lead to struggle, or false cultural messages like “girls aren’t good at math.”
  • Consequences: People who suffer from math anxiety may deliberately avoid math, the consequences of which are obvious and far-reaching: not learning math at all, thus limiting academic success, career options, and even social experiences and connections. (This webinar mentions real-life—and relatable—examples of adults affected by math anxiety.)
  • Prevalence: Math anxiety affects at least 20 percent of students, and parents and teachers can suffer from math anxiety, too. In fact, some research suggests that when teachers have math anxiety, it’s more likely that some of their students will as well. Luckily, those teachers and parents can also play a key role in helping students (and maybe even themselves) get more comfortable with math.

Addressing math anxiety in the classroom

Math anxiety can arise from the contexts and cultures in which students encounter math, so it makes sense that we can also create conditions that can help reduce it—and even prevent it from taking hold. Here are some key strategies for helping even the most math-anxious students thrive:

  • Invite explicit conversation about math anxiety. In this webinarMath Teacher Lounge podcast co-host Bethany Lockhart Jones recommends having open and direct conversations with all students about how doing math makes them feel. “The more you know about your students’ ‘math stories,’ the more you can help them,” she says.
  • Build a positive, supportive, and collaborative math community where different learning styles and incorrect answers—often fuel for math anxiety—are considered part of the learning process. Embracing and working from wrong answers encourages students to focus on the “how” of math. Students feel more comfortable asking questions, taking risks, and making mistakes (as well as learning from them).

How do you build a supportive environment in your math classroom?

  • Cultivate a growth mindset. Create a culture where mistakes are not just acceptable, but inevitable—even welcomed. Encourage perseverance and persistence. Emphasize that being challenged by a math concept doesn’t mean a student is inherently bad at math or just can’t do it.  It means only that they can’t do it yet.
  • Encourage collaboration. Promote a culture of cooperation and teamwork by incorporating group activities, peer support, and class discussions into your lessons.
  • Play. Game-ifying problems and introducing friendly competition builds camaraderie and helps students find shared joy in math—a win-win!
  • Give students plenty of time. Alleviating the pressure of time constraints allows students to think more deeply, take brain breaks, make fewer rushed errors, and develop a sense of control and confidence. Here are some ways to build time into your math lessons:
    • Allow students ample time to think when you ask them questions.
    • Allow students to work on assignments in class with support and take them home to finish if they need more time.
    • Consider giving tests and quizzes in two parts and allowing students to complete them over multiple days.
  • Create a culture of revisions. Allowing students to revise homework assignments and tests/quizzes for partial credit will remind them that learning math is a process, not a mandate to get everything right the first time. This will help them deepen their understanding by learning from and correcting their errors—and remind them that mistakes are part of growth.
  • Use intentional language. The phrase “This is easy” might sound encouraging, but anxious students may hear it as “You should be able to do this.” Instead, use supportive, objective language such as “This problem is similar to when we…” or “Try using this strategy.”

Addressing math anxiety at home

Caregivers may be accustomed to reading to students at home, but sitting together and doing math? Probably less so. Some caregivers may even inadvertently perpetuate math anxiety—or the ideas that feed it—by repeating some of the associated stereotypes and misconceptions. (“Sorry, kiddo, grandpa’s not a math person.”)

Teachers can address this by sending materials home to support caregivers in engaging kids in math. Math games, for example, offer a fun, accessible opportunity for home practice—and they can even be played at bedtime, along with story time.

In general, teachers can also encourage caregivers to:

  • Use and point out their use of math in the real world wherever possible.
  • Help with math homework as much as possible.
  • Use intentional, positive phrasing about math—including about their own use of it.

Teachers have the ability to reduce math anxiety and help students unlearn the stereotypes associated with it by building a positive math ecosystem. They can build a positive community in their math classroom, set caregivers up for success in supporting students at home, and even shine a light on their own relationship to math.

To learn more, tune in to Season 5 of Math Teacher Lounge, dive into our math webinars, and read the rest of our math blog.

Boost student engagement with Science Seminars

What do you get when you cross a Socratic seminar with Curie, Watson, and Crick?

A Science Seminar.

Though Socratic seminars typically take place in ELA or social studies/humanities classrooms, we also know how strongly scientific and literacy approaches can support each other.

So let’s see what magic can happen when we bring a little Socrates into science!

More than just seminars on science

As you likely know, a Socratic seminar is a method of facilitated discussion that uses open-ended questions, active listening, and collaboration to encourage deep exploration of a text or topic.

Sound perfect for science? That’s because it is!

When a Socratic seminar becomes a Science Seminar, students focus on scientific evidence and work together to answer a question and come to the most convincing explanation of a phenomenon. Ideally, the teacher takes a supporting role, putting students and their ideas at the center of the discussion. In this way, Science Seminars form a powerful part of an NGSS-informed curriculum that teaches students to think, talk, evaluate, and collaborate like scientists.

The benefits of Science Seminars

Like Socratic seminars, Science Seminars:

  • Build critical thinking. They encourage participants to analyze and evaluate information critically, challenging assumptions and exploring multiple perspectives.
  • Provide practice in productive argument. Through structured dialogue, Science Seminars teach students to challenge each other respectfully and engage in constructive disagreements, supporting their ideas with reasoning and evidence.
  • Boost literacy skills. By actively participating in discussions, students practice active listening, oral communication, and analytical thinking—all serving to enrich their comprehension, vocabulary, and overall literacy skills.

And on top of all that, they also connect to key Next Generation Science Standards (NGSS) practices. Specifically:

  • Asking questions and defining problems.
  • Analyzing and interpreting data.
  • Constructing explanations and designing solutions.
  • Engaging in argument from evidence.
  • Obtaining, evaluating, and communicating information.

Tips for strong Science Seminars

Science Seminars are designed to be student-focused and student-led, but the teacher still plays an important role in setting students and seminars up for success. Here are some ways you can help them run smoothly and effectively:

  1. Set clear expectations. What’s the goal of the seminar? Make sure students know precisely what question they’re working to answer, and how they will know when they’ve answered it.
  2. Set ground rules. Before you start, help the students agree on how they will interact. Who has the floor? What words, phrases, and types of communication are helpful or not? What happens when students disagree?
  3. Involve all students. Plan in advance how more quiet students can take part. You might consider supplying conversational prompts to encourage participation.
  4. Take on a supporting role. Once you’ve set it all up, step back. If the conversation stalls, you might ask an open-ended question. You might also take notes—a reminder that the students are in charge and what they’re saying is important.

Free Science Seminar resource collection

We’ve created a free set of materials to help you host a successful Science Seminar. In this collection, you’ll get:

  • A helpful guide that dives deeper into how to get started.
  • Our top 10 Science Seminar tips for teachers.
  • Talk moves for grades K–1, 3–5, and 6–8.

Access your free Science Seminar resources here.

Even more to explore

Defining math fluency with Jason Zimba

When we think of fluency, especially as a goal, we might think of speaking or reading a language. But fluency is also a goal in learning math! So what is math fluency? And what does it look like in the math classroom? In Season 6, Episode 1 of our Math Teacher Lounge podcast, Amplify’s own Jason Zimba helps us understand—using some analogies to baseball and chicken, of course.

Definitions of math fluency

We can develop fluency in many things, from coding to cooking. On the Math Teacher Lounge podcast, Amplify Chief Academic Officer of STEM Jason Zimba recounted becoming fluent in…roast chicken. 

Jason describes practicing one particular recipe until it was perfect. For Jason, that meant not just that the outcome was flawless or delicious, but that he was eventually able to make it from memory, without thinking—and to naturally adjust and calculate for variables like a smaller or larger chicken, or an unfamiliar oven. 

Math fluency works the same way. Practice brings effortlessness—freeing up time and mind space for new opportunities. 

The word “fluency” comes from the Latin fluentia, which means “flowing.” When applied to math, it means ”skill in carrying out procedures flexibly, accurately, efficiently, and appropriately,” says podcast host and math teacher and advocate Dan Meyer. As with someone fluent in a language (or a recipe), someone fluent in math is able to think and calculate mathematically without struggle or effort—that is, with fluidity. 

Podcast host and elementary educator Bethany Lockhart Johnson adds this informal description: “It’s that thing you don’t even think about anymore. ‘Cause it’s in there. You’re not still thinking about addition facts, because you’ve got it. And it fuels you. It’s the foundation that allows you to do all the other cool stuff.”

Fluency in the math classroom

What does fluency look like in practice? A young learner fluent in math will be able to smoothly recite the number word list in order (“one, two, three…”) and write the numerals from 0 to 9. As the student grows, so does their fluency with multi-digit calculation, rational-number arithmetic, and eventually even variable expressions. 

“It’s a wordless but still somehow almost verbal sort of fluency, with properties of operations as the grammar of the language,” says Jason.

But “it’s not fact recall,” he says. “Recall is remembering or just knowing. Fluency refers to calculation.”

Why and how to improve math fluency

There are different paths to fluency, but all can lead to “conceptual richness and mathematical joy,” says Dan.

If fluency provides that crucial foundation, what happens to students who are not math-fluent? 

“When kids don’t have access to [fluency], it keeps them from diving into the juicy parts of math,” says Bethany. “Math is so much bigger than addition facts, but when they don’t know those addition facts, that becomes all math is.” 

Without fluency, students miss opportunities to progress in (and enjoy) math, and may even develop math anxiety

So how can you support math students in developing fluency? 

For one thing, it’s important not to underestimate the value of practice and repetition. These approaches—especially when used in combination with other, more organic modes—can be highly productive, says Jason. “I worry about whether discomfort with repetitive practice is short-changing students of the power and confidence that fluency can bring.”

Dan compares it to achieving excellence in a sport—”like shooting from the same spot on the court over and over again,” he says. That kind of rote repetition is valuable in sports, and should also have its place in math instruction. 

It’s also important for students to understand why they’re learning and even drilling their numbers, arithmetic, or times tables, Jason notes. They need to be “invested in understanding and agreeing that this is going to do something for them.” 

One thing that helps: providing students a sense that they’ve accomplished something. “We need to have moments for them to reflect on what has been learned and what is now easy that was previously hard,” Dan says. He calls this process “humanizing fluency”—and Math Teacher Lounge will be here all season to help math educators do just that.

Save the date

Join us at NCTM in October for a live Math Teacher Lounge podcast recording with Dan Meyer and special guest Jennifer Bay-Williams! We’ll be investigating math fluency and finding fun ways to get all students engaged in math instruction. 

Math Teacher Lounge LIVE!
NCTM | Oct. 27 | 2:30 p.m. EST (doors at 2:15) | Room 158AB

More to explore

Integrating AI in the science classroom

image of Science Connections podcast and host Eric Cross

How can you create new science lesson plans, adjust assessments, and design labs using only objects kids have at home?

Just ask—ChatGPT, that is.

In this recent Science Connections webinarScience Connections podcast host Eric Cross tackles the topic of ChatGPT for teachers, along with other specific AI tools that (when used with your existing standards-aligned curriculum) can help make teaching more efficient, targeted, and interactive.

AI for science can save teachers time, deepen student engagement, and inspire collaboration and creativity all around, says Science Connections podcast host Eric Cross.

Eric describes some of the many ways science teachers can use AI in the classroom—as both shortcut and partner. “We can use it for personalized learning,” he begins. “We can generate questions and give instant feedback. We can differentiate. We can support our students with special learning needs. And that’s just a start. The more you use it to collaborate with other educators, the more fun it becomes.”

Generative artificial intelligence 101

There are a lot of AI tools out there, but the new one is generative AI. As Eric explains, the difference is that generative AI—unlike, say, AI that gives you driving directions—creates something that didn’t exist before: text, images, music, and, yes, new science experiences for the classroom.

As with any technology, the practically infinite uses and applications of AI raise important questions about accuracy, equity, biases, and more. In this webinar, though, we focus only on AI’s practical uses for science teachers.

Generative AI relies on and responds to prompts.

You’re telling it to do something and it communicates back to you in human language. The way you craft your prompts determines your output, so the better your prompt is, the better your output.

– Eric Cross
Host, Science Connections; Adjunct Professor of Learning and Technology, University of San Diego

Let’s see what AI has produced for Eric as a science educator, and the kind of prompts he’s used to get there.

How science teachers can use AI to prepare and engage

Teachers can use generative AI to create personalized learning materials, generate more practice questions, and explain topics at any level and depth.

In this webinar, Eric focuses on the AI tools that have given him the most mileage as an educator and that he thinks can provide the most value for others.

These include:

  1. Modifying assessments when students have used all the ones that a curriculum provides. A sample prompt: “You are a science teacher creating an assessment for middle school students. I will upload an assessment. Please recreate it in a similar tone and voice as the original with a similar level of rigor.” Response: Brand-new multiple-choice and written questions on the same topics, all adhering to the same NGSS. With a little more back and forth, Eric will have the exact number, style, and focus of questions that he needs—along with an answer key.
  2. Creating relevant, accessible lab ideas. Eric prompts AI for lab and hands-on project ideas to fit exact specs: topic, grade level, desired outcome, and objects found in a typical classroom or home. Result: Hands-on activity ideas students can do at home, like exploring lung capacity with a balloon and a ruler (delivered by AI complete with full supply lists, instructions, and more).
  3. Helping students connect. To support a student who’s stuck, you might prompt the AI by saying: “I’m a fifth grader and my teacher is talking about claim evidence reasoning and I don’t really understand it. Can you explain it to me in a way that would help me? And then: “Now can you help me explain it to my mom, but in Spanish?”

Eric also uses AI to interpret graphs, collate student data, build graphic organizers, create science games, and more.

Is everything AI provides him flawless and 100% accurate? No, says Eric. “You have to vet, and it helps to have a high-quality curriculum already in place. But it gets me 80 to 90% there—and that’s pretty good.”

More to explore

Collaborative learning strategies in math

Why is collaborative learning important?

Just ask this third grader: “It is important to work together, because when you work together you can get smarter by other people’s ideas.”

That just about sums it up!

Let’s take a closer look at what math looks like in a collaborative classroom, why collaboration matters, and how teachers can build a culture of collaboration for their K–8 math students.

What is collaborative learning in mathematics education?

Kristin Gray, executive director of Amplify’s math suite, is a veteran math teacher. (The answer above came from one of her very astute third graders.) And according to her, collaboration in math is so much more than just kids chatting. Gray paints a picture of collaborative math learning in elementary math and beyond as kids who are:

  • Grouped around a table, not isolated at separate desks.
  • Engaging in animated conversation.
  • Explaining their thinking and justifying their answers.
  • Comparing their various approaches.
  • Connecting math to their own lived experiences.
  • Connecting their ideas to the ideas of others.

Taken together, collaboration supports connections—among experiences, math concepts, and others’ ideas and experiences.

Collaboration means making the time and space to take these widely varied things that each student brings uniquely to our math classroom and bring them out in a really safe and collaborative culture.

– Kristin Gray, executive director of Amplify’s math suite

Why is collaborative learning important in math?

Substantial research shows that collaborative learning promotes active learning, critical thinking, communication skills, social development, a positive learning environment, deeper understanding of concepts, and preparation for real-life situations.

Gray cites a few findings in particular:

  • 2014 NCTM study found that mathematical conversations and discourse among students—at all grade and ability levels—helps build a shared understanding of mathematical ideas.
  • Hope A. Walter’s article “Beyond Turn and Talk: Creating discourse” (Teaching Children Mathematics, 2018) asserted that meaningful math discourse supports metacognition and teaches students how to discuss, debate, and reevaluate mathematical situations in a respectful manner .
  • 2018 NCTM study found that when students have the chance to analyze and compare each other’s approaches, any sense of hierarchy in the classroom is reduced and replaced with a classroom culture that values input from all students.

Hands-on math activities and more: Components of a collaborative classroom

What conditions best set up a math class for collaboration?

Above all, students need hands-on activities that truly engage—or, in Gray’s words, “tasks worth talking about.” Teachers should emphasize the importance of the process of getting to the answer, encouraging the sharing of “rough draft ideas” that students can develop together. Gray also recommends stopping the groups’ conversations before they’re done, so that they can reflect on what they’re doing rather than just report what they did.

Other resources:

Problem-based learning offers a powerful approach to collaborative learning in math. Our guide around making the shift to problem-based learning through Learning Labs will walk teachers through what problem-based learning is, why it’s critical to math instruction, and how to support the shift to this approach through Learning Labs. A tried-and-true STEM strategy that Gray has often used with teachers, Learning Labs break the typical mold of siloed professional development days by encouraging collaborative professional learning within the classroom!

Desmos Classroom lessons

Desmos Classroom activities let students share their thinking with each other. The teacher dashboard provides educators a window into this thinking in real time, as well as a powerful toolkit to turn those ideas into still more productive conversations and effective learning. Check out all the Featured Collections Desmos Classroom has to offer.

More to explore

Implementing math fluency games

OK, shuffle the deck and draw four cards. Place them face up, in no particular order. Your job: pair them into two-digit numbers with the lowest possible difference between them.

If you draw a 3, a 9, and two 8s, you’re not going to want to make them into 98 and 38. 89 and 83 might be a better move.

Whatever pairs you create, you’re likely more engaged by this challenge than you might have been by the invitation: “Let’s practice subtracting two-digit numbers!”

That’s just one of the benefits of integrating math fact fluency games and other math-driven games into your classroom.

A special live recording of Math Teacher Lounge at NCTM 2023—in which host Dan Meyer plays the above card game—explores how games can not only help build math fluency, but also help bring joy into the classroom.

As Dan notes during the live show, playing a game creates an energy shift in the room: “There’s like a moment of activation for a game versus a worksheet, where people are kind of murmuring and chattering,” he says. “I just want to, like, catch the vibe.”

Let’s find out more.

Math facts fluency, defined

When we think of fluency, we might think of speaking or reading a language. But fluency is also a goal in learning math. (And it’s the theme of this entire season of Math Teacher Lounge!)

As discussed in this post, the word “fluency” comes from the Latin fluentia, which means “flowing.” When applied to math facts for kids, it means ”skill in carrying out procedures flexibly, accurately, efficiently, and appropriately,” says Dan. As with someone fluent in a language (or a recipe), someone fluent in math is able to think and calculate mathematically without struggle or effort—that is, with fluidity.

Podcast co-host and elementary educator Bethany Lockhart Johnson provides this informal definition: “It’s that thing you don’t even think about anymore. ‘Cause it’s in there. You’re not still thinking about addition facts, because you’ve got it. And it fuels you. It’s the foundation that allows you to do all the other cool stuff.”

Math facts for kids through games

How do games help with all of this?

They can help make math more fun, for sure—but that’s just a start.

Podcast guest Jennifer Bay-Williams, Ph.D., a math education professor at the University of Louisville, Kentucky, knows that the learning and practicing of basic math facts can be rote and dull—but it doesn’t have to be. She likes to ask teachers: “How can you bring more joy to the learning of math, in a serious way?”

As this Edutopia article notes, “effective games…link content with low-stakes competition and can provide a more collaborative, engaging classroom experience—especially for students who may struggle to focus or find their niche in learning.”

There’s plenty of research to show that games can boost student participation, comfort with taking risks, interpersonal skills and classroom community, and positive attitudes toward learning. For kids with ADHD and dyslexia, they can also help improve focus and certain types of attention that support improved reading. All of this can help students get the practice and comfort with math they need to build the fluency they require.

But that doesn’t mean math class should be all fun and games. It’s important to integrate games into instruction thoughtfully and with purpose. As Bay-Williams says, she makes sure to ask teachers, “Really, why are we doing the game?”

Fluency games in Desmos Classroom

Desmos Classroom offers numerous math fluency games for all grade levels.

Additional resources

Don’t miss the finale of Math Teacher Lounge

Just like certain functions and number sequences, even the most successful podcasts reach a natural end. And that’s true of Math Teacher Lounge. After six seasons and more than 40 episodes, co-hosts Bethany Lockhart Johnson and Dan Meyer are heading off to work on other exciting projects.

So let’s take a look at the podcast’s farewell episode, as well as some highlights from earlier seasons.

Highlights from this math podcast

On the final episode of Math Teacher Lounge, our hosts walk through the past ten episodes on math fluency. They highlight key conversations on defining and assessing fluency, fluency development in a bilingual math classroom setting, and the potential pitfalls of relying too heavily on so-called fake fluency.

“I think every guest has answered a question that we’ve had about fluency and then also opened up new areas of investigation for us,” says Dan. “Whether that’s thinking about community more deeply through fluency or assessment or classroom practices, all these different folks offered us a glimpse into their expertise and then pointed at paths towards more learning.”

Spanning six seasons, the podcast has reached thousands of educators while exploring a wide range of topics including the joy of math, math anxiety, and (of course) math fluency. Guests have included Amplify’s Jason Zimba, Reach Capital’s Jennifer Carolan, and Baltimore County Public Schools’s John W. Staley, Ph.D.

Some of the most popular episodes included:

Investigating math anxiety in the classroom (S5E1) with Gerardo Ramirez, Ph.D., associate professor of educational psychology at Ball State University. Ramirez helped our hosts and listeners understand what math anxiety is and is not, what impact it has on learning, and what we can do about it.

Building math fluency through games (S6E7) with University of Louisville professor Jennifer Bay-Williams, Ph.D., who—in a special live recording at NCTM 2023—showed how games can bring both fluency and joy into the math classroom.

Cultivating a joy of learning with Sesame Workshop (S5E3) with Dr. Rosemarie Truglio, senior vice president of curriculum and content for Sesame Workshop. Dr. Truglio shared how to cultivate a growth mindset in young children and point them toward academic achievement and long-term success.

Professional development—and more—to look forward to

Bethany and Dan will continue working on a host of other exciting projects, including webinars and conference appearances. On March 12, Dan will also participate in the Amplify 2024 Math Symposium: a free, virtual, five-hour event that will help educators strengthen math instruction, bolster student agency, and build math proficiency for life.

The following key Math Symposium sessions (featuring your favorite Math Teacher Lounge guests and host Dan Meyer) will help you learn even more about those popular topics in math:

Dan Meyer

How to Invite Students into More Effective Math Learning | 3:15 p.m. EDT

Gerardo Ramirez Ball State University

How Student’s Personal Narratives Shape Math Learning | 12:15 p.m. EDT

Jennifer Bay-Williams University of Louisville

Bringing Math to Life: How Games Build Fluency and Engagement | 1:00 p.m. EDT

Akimi Gibson Sesame Workshop

Developing Young Children’s Identities and Competencies as Mathematicians | 4:00 p.m. EDT

Check out the full agenda and sign up today. All sessions will be recorded and attendees will receive a certificate of attendance.

Connecting science and literacy: The power of language

We’ve talked about how scientists need literacy skills in order to be scientists. They can’t do their jobs without reading, writing, listening, and communicating.

Our recent webinar Science Connections: Science and Literacy explored this intersection from a broader level: the power of language in the science classroom.

How can science teachers remove language barriers to make sure all students are able to access prior knowledge—and acquire more? And how can teachers leverage language to create optimal learning conditions for their science students? Why should they?

Let’s find out what webinar co-hosts Eric Cross and Susan Gomez Zwiep, Ph.D., had to say!

Language and science sense-making

Contrary to stereotype, scientists aren’t just loners in labs. Susan Gomez Zwiep, former middle school science teacher and senior science educator at BSCS Science Learning, credits a colleague with this pearl: “If I’m just doing science myself, and not talking to anybody, that’s not science. That’s just me in my head.”

So science teachers need to give students every possible opportunity to get out of their heads. And if language is a barrier—whether students are learning English, or challenged by science vocab—teachers can help remove it.

This principle is especially important in the context of phenomena-based learning, says Gomez Zwiep. “Rather than telling students ideas, and then proving those ideas correct by showing them a phenomenon, we show them the phenomena and engage them in science sense-making to develop that understanding,” she says. “Language is central to science sense-making and communicating that sense-making.”

Students also bring their prior knowledge to scientific sense-making. And, as Gomez Zwiep points out, prior knowledge is often embedded in the language a student uses at home, or just their own non-scientific vernacular. “I have to use that when I first engage with the phenomenon,” she says. “Otherwise, I’m limiting the resources that kids bring to the learning environment.”

Language in a “safe” science classroom

“If I had to learn science in my second language, I would be struggling with not only everyday vocabulary, but also content-specific vocabulary,” says Eric Cross, host of Amplify’s Science Connections podcast. “You would never actually know what I knew or what I was bringing to the table.”

The goal is to create an environment where students feel comfortable exploring, using whatever language is accessible to them, and then guiding them to conclusions—and precise scientific language. “A classroom requires trust. It requires relationship building,” says Gomez Zwiep. “If a student is worried about saying something a particular way, that’s where all their cognitive energy is going instead of actually talking about the science.”

The key? Put scientific ideas first, and the language will come. “We used to wait until kids had English in order to learn science. And now we’re starting to see that language emerges from learning experiences,” says Gomez Zwiep. “So it’s a product of learning, not a prerequisite.”

Literacy in your science classroom

You can integrate science and literacy right away, starting with free science and literacy lesson samples from Amplify Science.

Explore more:

Amplify Science

Science blogs

Science Connections podcast episodes

Problem-based learning in Amplify Desmos Math

This program brings problem-based learning into the math classroom, with an approach proven to help students develop math reasoning and problem-solving skills—not to mention deep understanding, fluency, and comfort with all things math. 

Let’s take a closer look at problem-based learning in math, and at the contours of this exciting curriculum. 

How problem-based learning helps math students—and math teachers

When you learned math, you likely started out learning arithmetic then moved on to solving word problems. You might have learned formulas, then practiced using them to determine the volume of a prism or which train will arrive at what time. 

But life works differently. Sometimes we tackle the problem first, not the formula. When you get a new piece of technology—a phone, a TV, a computer—you might read the user guide, or you might just turn it on and try some things. 

If that second style sounds like you, that’s common—and it’s an example of learning through problem-solving. 

“It’s something we naturally do,” says Kristin Gray, executive director of Amplify’s math suite.  “We’ve had a phone before, so we would pick up this new phone and try doing things that we know worked before, and then we would experiment. Does it work the same on this phone? This bouncing between experience and explanation is the foundation of how we learn through problem-solving.”

What does that look like in the math classroom? 

Students tackling interesting problems, raising questions about the math required, receiving an explanation, and applying it back to the problem—just as in the example of new technology. 

“When we show students how to get the answer, we send the message that math is solely about answer-getting and learning processes. Answers are important, but we want to use problems to teach the math, not just teach students to get the answer,” says Gray. 

Learning through problem-solving can also engage more learners in math, says Gray. By influencing the way students (and teachers) think about what it means to know and do math, problem-based learning has the potential to shift the way they think of themselves as mathematicians.

“Students are naturally curious and like solving challenges and trying things in new ways, so that’s a great start,” says Gray. 

And understanding is motivating. It inspires perseverance and confidence. It supports making connections, not learning concepts in isolation. 

When students are given a new problem and are able to use prior knowledge to help solve it, that “promotes the development of autonomous learners,” says Gray. 

Supporting the brilliance of student thinking 

Our program combines interactive problem-based lessons with explicit instruction, reinforcement, and practice. Lessons build a strong foundation in procedural and fact fluency, deepen understanding of concepts, and enable students to apply learning to real-world tasks.

To learn more about how and why it all came together, watch the following video featuring Amplify Director of Project Management Christina Lee, Amplify Math advisor and Desmos user Fawn Nguyen, and Desmos Director of Research Dan Meyer.

Christina: Hi, I’m Christina, the product manager at Amplify working on our K–12 math program. As you may have heard by now, Desmos Classroom is joining Amplify. This includes all of teacher.desmos.com, including all of the free activities, the free activity builder, and the Desmos math curriculum. I have Fawn Nguyen and Dan Meyer here to answer a few questions about what’s going on. Thank you both for joining! 

The first question is to you, Dan. One thing every Desmos user is going to want to know is, will the Desmos calculators and activities on teacher.desmos.com stay free to use forever?

Dan: Yes, period. It’s an important question and an easy one to answer. Our commitment to users, from day one, has been [to] whatever you can use for free. Now we’re not going to make you pay for that. We know how hard it is as a teacher to build your practice on top of software that could disappear, and Amplify shares that commitment in a rock-solid way.

Christina: That’s great to hear! Fawn, can you tell us a little bit about what you love about teacher.desmos.com? Why should a teacher who’s never used [it] check it out?

Fawn: How do I love teacher teacher.desmos.com? Let me count the ways! There’s nothing like it out there that allows teachers to build lessons from scratch. What makes it unique? Well, there are lots of things that are unique about Desmos, but the screen-by-screen build is a standout for me. It allows me to interact with students prior to moving to the next screen. More importantly, the interaction among the students and the teacher dashboard is just brilliant. It lets me see the students’ responses, especially the graphical ones, in real time. I feel like it’s a built-in formative assessment [in] the lesson. And not surprisingly, the structures from the five math practices by Peg Smith are built-in there with the selecting, sequencing, and connecting.

Christina: Dan, why does it make sense for Amplify and Desmos to build one core math program for grades 6–12?

Dan: We’ve been traveling on separate parallel paths for a really long time and it makes a lot of sense for us to go farther together. For instance, we’ve both been building a core curriculum based on the Illustrative Mathematics curriculum. We have both been doing that using core Desmos technology. We both share an understanding of the complexity of teaching, the brilliance of student thinking, and so it makes sense for us to merge together. Desmos brings to the table a deep understanding of how technology can support student learning, and Amplify brings to the table an understanding of how systems support students at scale. So we bring a lot of commonalities and a lot of elements that both of us need from the other.

Image showing an educational digital platform called Amplify Math in collaboration with Desmos Classroom. The interface includes various features such as textbooks, problem-based learning activities, interactive graphs, and practice exercises.

Christina: Fawn, you’ve been an advisor on the Amplify Math curriculum focused on problem-solving. In what ways do you think this knitting together of the two programs will help make teaching through problem-solving easier for teachers?

Fawn: I actually knit, Christina! So I really like your description of the partnership as knitting together the two programs. It’s like taking two luxurious fibers, if I may say––ironically, luxurious but free, which describes literally nothing except Desmos––and weaving them together to create a gorgeous and functional design. I’m thinking about a sweater vest for Dan, he would look great in it! Amplify truly understands what problem-solving is, that it’s non-routine. And Amplify’s math curriculum has many great activities. However, when this task can only live on a printed page it’s hard for it to stay as a problem-solving task. What I mean is that it’s hard for students to unsee things. So when it’s on paper, you have to show all the cards and that ruins everything to me, frankly. But with Desmos again, with that screen-by-screen build and the pause and pace functions, they are designed so that the timing of teacher moves can happen. I think the timing is really important. And then problem-solving is about tinkering with ideas and testing conjectures, and Desmos is built for such. It invites you to play, it invites you to take risks, and it doesn’t shame you when you make a mistake. So ultimately, Desmos brings school mathematics, which Amplify writes, closer to what doing mathematics looks like.

Christina: Dan, one final question for you. What’s going to happen to the Desmos calculators now?

Dan: The Desmos calculators, like all the other technology as part of this deal, will remain free into perpetuity. They’ll get spun over into a new corporation, a public benefit corporation called Desmos Studio, where they’ll have a lot more focus from the people who work on it and a lot more resources to expand and develop and do that work.

Christina: Thank you, Dan. Thank you, Fawn. Thank you both. I’m really excited about this opportunity we have to build something special for teachers and students! For more information about Amplify Math and Desmos Classroom, and everything else we’ve got going on, please visit amplify.com/futureofmath.

From math lesson planning to long-term success

Amplify Desmos Math makes it easy for both teachers and students to make the shift to a problem-based approach by providing captivating activities, powerful teacher-facilitation tools, and lots of support for differentiation and practice.

Lessons start with warm-ups that tap into prior knowledge and move into problems that require collaboration to solve. Teachers monitor, engage, and ultimately synthesize student work into the main idea. There are also ample opportunities for practice and reflection. 

Amplify Desmos Math will be available for 2025–26 school year implementation. Interested districts can pilot the beta release starting fall 2024.

Learn more about Amplify Desmos Math.

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!

5 strategies to transform your math classroom

Want to shift your math teaching practices this year, but not sure where to start? That’s a good problem to have! 

You can boost your instruction this fall with problem-based learning, technology in the math classroom, and more—all in ways that put students at the center. 

“All students need the opportunity to feel like they can figure out mathematics,” says Jennifer Bay-Williams, Ph.D., an author and professor of mathematics education at University of Louisville. “That’s where they develop a math identity, [the idea] that they can do math. And they start feeling like, ‘I can figure this out.’” 

Bay-Williams spoke at our 2024 Math Symposium, along with other thought leaders and expert educators. Keep reading to see how their key takeaways can help you shift your math instruction this school year!

Center student ideas in a collaborative math classroom

Amplify Math Suite Executive Director Kristin Gray had great tips for teachers looking to center student ideas in the classroom. Simply put, it’s all about helping them make several types of connections. These can include any of the following: 

  • Connecting students’ classroom math experiences to real life
  • Connecting math ideas to one another
  • Connecting their ideas to the ideas of their classmates 

How do teachers foster these important connections? That’s where problem-based lessons come in. Rather than teaching a concept or formula in isolation, then having students practice it, try inviting students to collaborate on a real-life problem that will lead them to that math idea. (For example, you might ask them to work on designing a small traffic or subway system that requires developing ideas about distance, rate, and time.)

As a result, students build problem-solving skills collaboratively, feel their ideas are valued, develop their own ways to make math make sense, and learn from and with each other. Teachers also get to know and appreciate the different backgrounds and styles students bring to the classroom, opening up new opportunities for engagement—and connection. 

Reimagine student engagement

No matter how engaging you are as a teacher, it’s typically students who drive engagement—and that’s actually good news. You don’t have to reinvent the wheel or do somersaults to get their attention. In fact, a lot of engagement comes from creating routine and familiar opportunities for connection. And it can also come from allowing students to make mistakes. 

“We want all students to have an entry point into [math] tasks,” notes Amplify STEM Product Specialist James Oliver. “Those students that seem to always feel like they don’t fit or don’t have the identity in that math classroom, we want them to immediately have successes and have their curiosities tested.” Successes—and productive failures. “What we’ve learned is, you are not firing any synapses, nothing’s happening if you’re just getting it immediately correct.”

Nurture student curiosity

Which is better: letting students dive into a box of LEGO pieces to see what happens, or providing a step-by-step guide to building the airplane? 

It’s actually a tie. In both structured and loose approaches, the key is to spark curiosity and communication. “If we want them to be mathematicians, we should let them talk about math,” says Amplify Director of 6–12 Core Math Curriculum Kurt Salisbury, Ph.D. Here’s his 3D approach:

DISCOVER
Discovering the relationships among mathematical ideas is a key part of mathematical thinking. 

DESCRIBE
Students communicate their mathematical thinking by describing the processes, procedures, or relationships needed to work with a concept or pattern. 

DEVELOP
When students develop a strategy they can apply to a variety of contexts, their math thinking gets validation and purpose.  

So whether you lean into a more structured approach or prefer to let kids figure the LEGOS out themselves, small mindset changes like these can create more space for your students to discover, describe, and develop as mathematicians.

Make math fluency fun 

As with someone fluent in a language, someone fluent in math is able to think and calculate mathematically without struggle or effort—that is, with fluidity. 

In order to think and calculate fluently, students need to build a toolbox of strategies—and games are a great way to do that. 

While you’re making the learning fun, students are absorbing tools they’ll use throughout their lives. “When we ensure that every student has access to a range of strategies, and has regular opportunities to choose among those strategies, that’s what games do for us.” says Bay-Williams.

Elevate student voices 

When student thinking isn’t explicitly invited into the classroom, students may begin to narrow their focus, providing merely what they think their teacher wants to hear. But given genuine invitations to share, students are more likely to follow their thought process wherever it leads them, taking a more organic approach to problem-solving.

“Taking a step back as a teacher, and inviting students to take a step forward, [activates] students getting started with finding the answer,” says Stephanie Blair, vice president of Desmos Coaching. “And all of them might take a different step forward, which is okay.”

It’s time for math that does more for students

“All students need the opportunity to feel like they can figure out mathematics,” says Bay-Williams. We need to connect with our students, nurture their curiosity and comfort with math, and welcome their unique ways of thinking.

We hope the thought leaders and speakers from our Math Symposium have inspired you to do just that!

Engaging digital and print math lessons for K–12 educators

Remember memorizing? That is, being a student in a math classroom focused mainly on teacher lectures, repetitive problem sets, and rote memorization?

Fortunately for today’s students, educators are increasingly recognizing that when it comes to math curriculum, engagement must come first—and that when it does, better learning outcomes follow. This shift toward student-centered, engaging math instruction is paving the way for deeper understanding, greater retention, and even a lifelong love of math.

Engaged students develop a deeper understanding of math concepts, retain information better, think critically, and are more likely to solve problems creatively. They tend to have a more positive attitude toward math, which reduces potential math anxiety and helps them build confidence. What’s more, access to engaging math programs promotes collaborative learning and the development of communication skills, supporting students in all classrooms (and beyond).

That’s why it’s important to find math products, activities, and instructional materials that center student engagement. Students need tools designed to not just teach them how to calculate, but also actively involve them in their own learning journeys, making math both meaningful and fun.

Free math lessons and more: Meet Desmos Classroom

Built by a dedicated team of math educators, Desmos Classroom is a free teaching and learning platform packed with interactive lessons that place student engagement at the center of instruction.

What are Desmos Classroom activities like in practice? Well, for starters, students take control of their learning! Students learn by interacting with mathematical representations, illustrations of the world, and their classmates. They represent their developing ideas with sketches, text responses, card sorts, number responses, multiple-choice questions, and more.

With a free account, you can access both customizable and pre-made Desmos Classroom—with new content appearing frequently for you to add to your lesson plans. An easy-to-use dashboard and real-time visuals allow you to monitor and react to student work. Creative teacher facilitation tools also help you promote collaborative and intentional classroom conversations. For example, the optional Anonymize feature reduces self-consciousness and competition, encouraging all students to participate and interact freely. Check out more examples below!

K–5 Lesson: Awesome Aquariums

A laptop screen displays a bar graph comparing aquarium animal numbers (goldfish, frogs, shrimp) with the prompt "Compare: How are the representations similar or different?" This visual aid is an integral part of comprehensive math programs designed to enhance analytical skills.

In the Awesome Aquariums activity, students experiment with bar graphs and tape diagrams to represent and compare the quantities of various aquatic inhabitants. Teachers guide students in a Notice and Wonder activity, with an optional Think-Pair-Share.

6–12 Lesson: DinoPops

A computer screen displays an educational activity about making scaled copies of DinoPops in different box sizes. Perfect for math teachers, the activity involves completing a table for box width and height.

In the DinoPops activity, students use proportions to understand what size boxes will fit (proportionally) varying sizes of Dino Pops. They’ll understand how graphs can represent proportional relationships, use graphs to make predictions, and use communications skills to describe and defend their work.

How you can get started

Create a free Desmos Classroom account at teacher.desmos.com, then check out the on-demand webinar Intro to Desmos Activities to learn how to assign a free pre-made lesson to students and use features such as anonymizing the class, pacing students during a lesson, and pausing classroom work to facilitate conversation. You can also register for another upcoming Desmos Classroom webinar to learn more about our full suite of math offerings, including our new, curiosity-driven K–12 program, Amplify Desmos Math.

Meet Amplify Desmos Math

Meet Amplify Desmos Math, a new, curiosity-driven K–12 math program that builds students’ lifelong math proficiency. Lessons in Amplify Desmos Math are standards-aligned, easy to use, and fully customizable by educators. And every Amplify Desmos Math lesson includes suggestions for differentiation that support, strengthen, and stretch student understanding.

“Engagement is a real challenge in math classrooms,” said Jason Zimba, Amplify Chief Academic Officer of STEM. “Knowing this, we created a program with interesting problems that students are eager to solve, one that keeps them engaged and learning. Amplify Desmos Math achieves rigor and delight, motivating all students to explore new horizons and develop new understanding.”

We believe that math class is a place where teachers can elicit, celebrate, and build on their students’ interesting ideas. Those ideas fuel meaningful classroom conversations and drive the learning process. Read on to learn more.

Meet Amplify Desmos Math. This is math that motivates.

A structured approach to problem-based learning

The program combines the best problem-based lessons with tightly aligned personalized practice, assessments, and intervention, creating an integrated experience for teachers and students. Data informs instruction. Comprehensive student profiles provide full data on students’ assets and skills, empowering teachers to provide just-in-time scaffolds and targeted intervention when needed.

Amplify Desmos Math is a powerful suite of math resources that includes:

  • Core instruction: Amplify Desmos Math lessons provide a structured approach to problem-based learning, where each lesson builds on students’ curiosity using a Proficiency Progression™ to develop lasting grade-level understanding for all students.
  • Screening and progress monitoring: mCLASS® assessments and daily formative checks measure what students know and how they think. The asset-based assessment system provides teachers with targeted, actionable insights, linked to core instruction and intervention resources.
  • Integrated personalized learning: Boost Personalized Learning activities help students access grade-level math through engaging, independent digital practice. The program’s signature Responsive Feedback adjusts to students’ work, providing item-level adaptivity to further support their learning.
  • Embedded intervention: Integrated resources like Mini-Lessons and math fluency games provide targeted intervention on specific concepts or skills connected to the daily lesson. Extensions are also available to stretch students’ understanding.

Amplify Desmos Math expands on the Desmos Math 6–8 curriculum, which is featured in a recent efficacy study led by WestEd that demonstrates increased math achievement across more than 900 schools in nine states.

Delightful digital activities and tools

To complement robust printed materials, Amplify Desmos Math leverages a digital platform that enables educators and students to connect with one another as they work through lessons, engage in personalized learning, and check for understanding. The interactive platform and facilitation tools foster mathematical discussions and allow educators to see student thinking in real time.

“Right now, teachers have to jump between platforms to access meaningful data, understand it, and use it,” said Alexandra Walsh, Amplify Chief Product Officer. “By combining instruction, assessment, and differentiation on the same digital platform, we’ve made student data more accessible, so educators can spend less time toggling and more time responding to student needs.”

Amplify Desmos Math is available:

  • Kindergarten–Algebra 1
    • As a beta release for the 2024-2025 school year, for pilot implementations and early adoptions
    • As a commercial release for the 2025-2026 school year
  • Geometry, Algebra 2, Integrated 1, Accelerated Grades 6 and 7
    • As a beta release for the 2025-2026 school year
    • As a commercial release for the 2026-2027 school year
  • Integrated 2 and 3
    • As a commercial release for the 2026-2027 school year

Try a free lesson.

Hundreds of free math lessons and activities from Amplify Desmos Math are available on Desmos Classroom, a free teaching and learning platform that places student engagement at the center of instruction. Desmos Classroom features free lessons, lesson-building tools, sharing features, and more. Built by math educators, the platform makes leaning into good pedagogy easier for teachers—which makes the lesson a more interactive experience for students.

You can teach these free lessons, but also customize them, or even build your own from scratch. Visit teacher.desmos.com to create a free account.

Learn more!

Dyscalculia: What educators should know

Two children seated at a table engage with colorful number cubes and a pencil beside a worksheet—a delightful way to explore math. This playful setup subtly acts as an informal dyscalculia screener, helping spot characteristics of dyscalculia in young learners.

Some kids love math. Some kids like math. Some kids struggle with math, or struggle with math anxiety. And some kids have dyscalculia, a specific learning disorder that affects one’s ability to understand numbers and learn math facts.

As awareness has continued to grow, educators today are curious to know: What are the characteristics of dyscalculia? How can I help a child with dyscalculia? What should I know about dyscalculia screeners? We’re here to provide some answers.

Dyscalculia: What it is and is not

According to the Child Mind Institute, dyscalculia (sometimes called “developmental dyscalculia”) is a term used to describe specific learning disabilities that affect a child’s ability to understand, learn, and perform math and number-based operations.

Honora Wall, Ed.D., founder of the Dyscalculia Training and Research Institute, calls it “a type of neurodivergence: A difference in brain development or function.”

That’s an important distinction: Dyscalculia is a neurological condition that affects numerical cognition and processing. It has nothing to do with being “bad at math” or not “trying hard enough.”
Between 5 and 7% of elementary school-aged children may have dyscalculia, which is believed to affect girls and boys equally.

It is important to note that not all difficulties in math are caused by dyscalculia. Dyslexia, ADHD, and other conditions can also pose challenges for math students.

Nor is dyscalculia simply “math dyslexia.” Dyscalculia and dyslexia are entirely separate learning disorders that affect different areas of cognition and involve distinct difficulties.

How dyscalculia might present itself

Dyscalculia manifests in various ways in the math classroom. Here are some examples of how it can appear:

  • When engaging in activities like games involving dice, students may need to count the individual dots to recognize a number rolled, rather than intuitively recognizing it.
  • Students might have difficulty connecting the numerical symbol “5” (for example) to the word “five.” Making this connection is essential for associating numbers with their meanings.
  • Students may be delayed in learning to count, or lose track or rely on visual aids (like their fingers) when they count.

Such students may also have a hard time:

  • Solving math problems.
  • Recognizing or creating patterns.
  • Learning basic math functions.
  • Estimating how long a task will take.
  • Processing visual-spatial ideas such as charts and graphs, or even telling left from right.
  • Remembering phone numbers or zip codes.
  • Playing games that involve counting or keeping score.
  • Telling time.

The connection between mathematics anxiety and dyscalculia

Math anxiety is an emotional response to math that presents as apprehension or fear. Some call it mathematics phobia. It may include physical symptoms such as sweating, rapid heartbeat, shortness of breath, and other physical symptoms of anxiety. It’s similar to other types of anxiety, but it’s exclusive to math.

But, most important in this context, it’s not itself a neurological or cognitive condition.

So dyscalculia and math anxiety are not the same, but they may go hand in hand—perhaps with one exacerbating the other. Students with dyscalculia might develop math anxiety due to repeated challenges and frustrations in learning math.

Understanding this connection—and working to alleviate math anxiety—is crucial for educators aiming to create a supportive learning environment.

Tips for assisting students with dyscalculia

Here are some practical strategies educators can use to support students with dyscalculia:

  • Teach positive self-talk and persistence: Encourage students to develop a “growth mindset,” reinforcing that effort and persistence (as well as making mistakes) are essential to overcoming challenges.
  • Provide organizational aids: Use graph paper to help students line up numbers correctly, which aids in precision during calculations.
  • Use manipulatives: Tools like counters and blocks can make math feel more tangible, helping students grasp abstract concepts.
  • Focus on singular tasks: Present one math problem at a time to prevent students from feeling overwhelmed and allow for focused attention.
  • Allow more time: Give students the opportunity to work at their own pace, acknowledging that they may need more time to process numerical information.
  • Grant calculator access: Allowing calculators can reduce stress and help students solve problems more efficiently.
  • Make math fun and engaging: Incorporate interactive platforms such as Desmos Classroom to create an enjoyable and interactive learning experience.

More to explore

Leading the way in high-quality, next-generation curriculum and assessments

Amplify collaborates with educators to create learning experiences that are rigorous and riveting for all students. Amplify creates K–12 core and supplemental curriculum, assessment, and intervention programs for today’s students.

Our impact

A pioneer in K–12 education since 2000, Amplify is leading the way in next-generation curriculum and formative assessment. Today, Amplify serves 15 million students in all 50 states. Read about our purpose and commitment.

Leadership

Amplify’s executive team includes proven leaders from the fields of education, technology, business, and media.

Our team

We are passionate about the work we do at Amplify. If you want to help make schools great places to teach and exciting places to learn, please get in touch.

A purpose-driven culture

At Amplify, we enable all students and teachers to access the highest quality instructional materials. This purpose informs everything we do every day. To this end, we hire and develop talented people with the broadest range of skills, life stories, and experiences, and together we build a purpose-driven, diverse, and inclusive culture.

Our programs

Our captivating core and supplemental programs in ELA, math, and science support teachers in engaging all their students in rigorous learning and inspiring them to think deeply, creatively, and for themselves. Our formative assessment products help teachers provide the targeted instruction students need to build a strong foundation in early reading and math.

Careers

We’re looking for innovators and optimists to join us in developing next-generation curriculum and assessment programs for K–12 schools.

Who we are

Remote first. Brooklyn based. In person sometimes. Amplify is powered by a collaborative team of education, technology, and creative professionals who develop next-generation programs that inspire teachers and students to do their best work.  Apply for one of our open positions.

People and culture

Amplify is a purpose-driven community where diverse, cross-functional teams work together to create high-quality programs.

Share our view.

With headquarters in Brooklyn’s DUMBO neighborhood, we’re at the center of New York’s thriving tech and creative community.

Get inspired.

We take an agile approach that enables us to adapt our programs to the needs of teachers and students. Collaboration helps us stay innovative.

Meet the team.

Our common purpose drives us to work across disciplines to develop next-generation solutions for the classroom. Meet some of our team members.

Leadership

Amplify’s leadership includes executives and board members from the fields of education, technology, design, business, and media.

Hiring practices

We hire and develop people with the broadest range of talents, life stories, and experiences, and together we build a cohesive team. We follow fair hiring practices and create an environment where team members feel valued, empowered, and heard.

Amplify workplace awards

What we offer

Amplify employees report feeling engaged and eager to come to work every day. They’re motivated by our mission of improving the lives of teachers and students. And learning isn’t just for the students we serve—we are dedicated to providing our employees opportunities for ongoing growth. Explore our benefits in detail.

Full benefits

Our robust suite of health insurance options includes health, dental, and vision coverage for spouses, domestic partners, and children—and becomes effective on your date of hire. We make a generous contribution to all employee HSA plans, which can be used to cover eligible health expenses. We also offer unlimited paid time off, a 401(k) plan with an employer match, long- and short-term disability, employer-sponsored employee life insurance, and a pre-tax commuter program. We also offer paid parental leave, backup childcare for those times when your regular care falls through, and backup eldercare to take care of those who supported you when you needed it most. On top of all that, we also provide our full-time employees with a robust voluntary benefits program that includes coverage options for everyone in the family, including pets.

Opportunities for inspiration

Amplify believes in the importance of supporting charitable nonprofit organizations in the communities where we live and work. We encourage our employees to support organizations that promote the advancement of equity, particularly through the welfare of children and families in the areas of education, health, and social services. One way for employees to give back is through our Volunteer Time Off program, which allows employees to take 16 hours each year to contribute to an eligible charitable or nonprofit organization. In addition, our Employee Resource Groups (ERGs) offer many opportunities to get involved in various charitable activities throughout the year.

Tuition reimbursement

Full-time employees who are enrolled in an accredited college or university course related to their areas of work are eligible to receive tuition reimbursement..

We’re hiring.

Want to use your talents to make a real difference—and have fun doing it? Come join us.

View open positions

Our K–12 international education programs inspire students around the world.

At Amplify, we believe that every teacher and student deserves access to high-quality materials. That’s why we collaborate with international schools to meet their core curriculum, assessment, and intervention needs.

By providing solutions grounded in research and evidence-based practices, Amplify is making an impact on international K–12 education.

We are making an impact around the globe.

6

continents

80+

countries

900+

schools worldwide

700,000+

students globally

Amplify international education programs

The following programs are available internationally.

Core curriculum

STEM

Literacy

Assessment and Intervention

STEM

Literacy

Supplemental

STEM

Literacy

Amplify professional learning

From live, in-person training and coaching to online courses and virtual professional development, we offer a range of support to fit schools’ needs and educators’ busy schedules. Professional development offerings include the following:

  • Launch sessions
  • Strengthen sessions
  • Coach sessions
  • Custom packages

Custom development

We collaborate with governments and government agencies to localize and customize our high-quality instructional materials to ensure they align with specific education standards and frameworks.

Get in touch with our sales team to discuss how we can help your organization.

License our digital tools.

Explore Amplify’s digital tools and how they can make your programs more engaging and digital-forward.

Publishers can license the Amplify teaching and learning digital platform, which offers robust digital functionality—including digital manipulatives—that can transform print-based instructional programs into interactive, collaborative, and engaging digital experiences for teachers and students.

If you want to use our platform for commercial purposes, please contact our team.

Amplify international education support

Amplify aims to provide the best customer support throughout each stage of your journey, whether you are exploring our programs for the first time or are a long-term partner.

Below, you’ll find a quick guide on the international purchase process and expected timelines.

Simple steps to get your order processed quickly:

To ensure that there are no delays, we advise you to place your order 3–4 months prior to your first day of school. This should allow enough time for shipping and digital set up.

Purchasing

Our international sales team can answer your questions about our programs and services. Please fill out the form to speak with your account executive.

FILL OUT FORM

Ordering and payment

We want your purchasing experience to be as seamless as possible. Visit our customer portal to learn more about your payment options.

Please be sure to include:

  • A signed PO. Don’t forget to add your PO number.
  • A copy of your Price Quote.
  • A copy of your Tax-Exemption Certificate.

GO TO CUSTOMER PORTAL

You can also email your documents to IncomingPO@amplify.com.

Shipping physical materials

  • Submit your logistics and product quantities on the Order Management Page (OMP).
  • Track shipment(s) with the Shipment Status Page (SSP).

Enrollment and licensing

Please note that our team needs to review your school’s rosters for accuracy and completeness:

  • This process can take up to 12 business days.
  • You will be notified when the licensing process is complete!

Frequently asked questions

Payment processing time can vary, depending on chosen payment method, as well as banking institution. Please allow at least 10 business days for it to be processed. For additional support contact internationalsalessuport@amplify.com.

For digital licenses, you will need to submit your digital logistics information, which includes your school’s rosters data. Our technical onboarding team then needs to verify it for accuracy and completeness. (They might contact you, should they need any clarification.) The digital setup process can take up to four weeks to be completed. For help along the way, please use our Amplify Onboarding Hub.

To avoid delays, please submit your logistics information and product quantities on the Order Management Page as early as possible. Note that international shipping time varies from one country to another due to many factors, including different customs procedures. We are therefore unable to estimate and guarantee delivery time in each case. Amplify offers two international shipping options: 1. Your materials can be shipped from the U.S. directly to you, which will incur an international shipping and handling fee of 25% on the physical products ordered. 2. Alternatively, Amplify can ship your materials to a U.S. freight forwarder, and you can manage the shipping.

Note that setup communications will be sent to the contact person listed on the quote. This email is sometimes routed to the spam folder, so please check there as well. If you do not receive a link within five business days, please contact help@amplify.com with your quote number.

Get support

Our dedicated team members will assist you with purchasing, order fulfillment, enrollment and licensing, and more!

Our support hours are Monday through Friday,
11 a.m.–11 p.m. GMT.

New to our programs? Our international sales support team is here to help!

Email us: internationalsalessupport@amplify.com

Already a customer but don’t have a login yet?

Email us: help@amplify.com
Call us: +1 (800) 823-1969

If you already have your login details:

Access our chat live with our support team.

International events

Join us for an upcoming event, webinar, or podcast. You can browse all of our events by month, or use the filter to find events close to you.

GO TO EVENTS PAGE

Ready to learn more?

Fill out this form and we’ll be in touch with you shortly.

A new, curiosity-driven K–12 program that builds students’ lifelong math proficiency

Meet Amplify Desmos Math. Our structured approach to problem-based learning systematically builds on students’ curiosity to develop lasting grade-level understanding.

Math that motivates

Picture a classroom where students are so eagerly engaged in a lesson, they wish it wouldn’t end. The room is buzzing with the sounds of natural curiosity. This is what an Amplify Desmos Math classroom looks and sounds like. This is math that motivates.

A structured approach to problem-based learning

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.

A powerful suite of math resources

Amplify Desmos Math combines the best of problem-based lessons, intervention, personalized practice, and assessments into a coherent and engaging experience for both students and teachers.

Data informs instruction. Comprehensive student profiles provide full data on students’ assets and skills, empowering teachers to provide just-in-time scaffolds throughout core instruction and targeted intervention when needed.

Student thinking is valuable and can be made evident.

We believe that math class is a place where teachers can elicit, celebrate, and build on their students’ interesting ideas. Those ideas fuel meaningful classroom conversations and drive the learning process.

Robust assessments that drive learning and inform instruction

A variety of performance data in Amplify Desmos Math provides evidence of student learning, while helping students bolster their skills. With explicit guidance on what to look for and how to respond, teachers can effectively support students as they develop their understanding.

Diagnostic screening and progress monitoring assessments identify what students know and can do.

Integrated mCLASS® Assessments go beyond accuracy to reveal students’ math thinking through an asset-based approach. This data provides better insights about what students know, what math assets to leverage, and where students need support.

Reporting and insights

Teachers and administrators have visibility into what students know about grade-level math with a variety of data reports. By evaluating not only what students know about grade-level math but also providing insight into how they think, teachers can confidently plan whole-class instruction and targeted intervention.

Access to grade-level math for every student, every day

Amplify Desmos Math provides teachers with lessons, strategies, and resources to eliminate barriers and increase access to grade-level content without reducing the mathematical demand of tasks.

Differentiation when and where it matters most

Teachers are provided with clear student actions to look for, matched with immediately usable suggestions for how to respond to student thinking. Each lesson also includes recommendations for resources to use with students to support, strengthen, and stretch their understanding of the lesson goal.

Boost Personalized Learning

Boost Personalized Learning™ activities in Amplify Desmos Math target a skill or concept aligned to the day’s core lesson, with each student receiving personalized scaffolds based on what they already know. Activities adapt to each student’s unique needs.

Intervention Mini-Lessons aligned to core instruction

Amplify Desmos Math Mini-Lessons are aligned to the most critical topics throughout a unit and provide targeted intervention for small groups of students who need additional support or need more time.

What’s included

The program integrates print and digital resources, as well as manipulatives in grades K–5, to help students learn and make sense of mathematical ideas, reason mathematically, and communicate their mathematical thinking.

For students

  • Student Edition (two-volume)
  • Digital access to lesson resources and practice
  • Interactive Student Activity Screens
  • Responsive Feedback™
  • Collaboration tools
  • Boost™ Personalized Learning
  • Hands-on manipulative kits

For teachers

  • Teacher Edition (two-volume)
  • Digital access to planning and instruction resources
  • Presentation Screens
  • Facilitation and progress monitoring tools
  • Assessment and reporting suite, featuring mCLASS Assessments (grades K–8)
  • Assessment Resources
  • Center Resources (grades K–5)
  • Intervention and Extension Resources (grades K–8)

Visual and dynamic interactions pique student interest and invite all students to engage in the mathematics.

  • Engaging interactions
  • Social, collaborative experiences
  • Teacher Dashboard
  • Teacher Presentation Screens
  • Digital facilitation tools
  • A powerful conversation toolkit

Desmos Classroom

Desmos Classroom is a free teaching and learning platform that places student engagement at the center of instruction.

Desmos Classroom features free lessons, lesson-building tools, sharing features, and more. Built by math educators, the platform makes leaning into good pedagogy easier for teachers—which makes the lesson a more interactive experience for students.

Create your teacher account on teacher.desmos.com.

Our free lessons can be used alongside any core math program. Click here to view crosswalks to core programs.

Ready to learn more?

Fill out this form and we’ll be in touch soon.

Explore more programs.

Our programs are designed to support and complement one another. Learn more about our related programs.