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!

Math teaching strategies to last all year

For the first few weeks of school, students are typically rested, ready, and engaged. But as the months pass and the math skills taught are more advanced, that new-year energy wavers. So how can you keep those fall vibes going into winter and beyond?

Engagement isn’t just about grabbing students’ attention or “making it fun.” When teachers build a math classroom community where all students feel seen, respected, and even celebrated, regardless of their individual relationship with (or feelings about) math, that’s when true engagement can flourish.

Fortunately, there are many simple strategies and best practices that math educators can use to create an engaging math environment all year long.

Using math instruction to build an engaged community from day one

Research shows that math is best learned in a community—but what exactly does a “math community” look like, and what’s the best way to build one?

Teachers can create this collaborative environment using both math strategies and social strategies (and by involving students’ caregivers). In this kind of classroom, all students feel comfortable sharing ideas, asking questions, and engaging in mathematical conversations. To make it happen:

  • Create math routines. Try starting each class with an accessible math puzzle or problem of the day. Knowing what to expect reduces anxiety, making students more likely to participate actively and start class off with a positive mindset. Routines can also be adapted to accommodate various learning styles and levels, providing all students with entry points. This inclusivity helps every student start each class with a positive mindset, ready to learn.
  • Explore problem-based learning. In math and other subjects, problem-based learning is an instructional method in which the teacher engages students in active study through the use of meaningful problems. Rather than starting with math principles in the abstract, students uncover them as they work toward solutions, and build problem-solving skills, together.
  • Center the students. In math communities, teachers balance delivering information with guiding students to discover it themselves. They encourage students to explore math concepts, make connections to the real world, and ask questions—of each other, and of the teacher.
  • Encourage collaboration. Collaborative learning is known to improve academic outcomes. In math, it cultivates deeper understanding by allowing students to discuss and explain concepts with peers, which reinforces learning and exposes everyone to diverse problem-solving strategies.
  • Celebrate brilliance. Encourage students to communicate their ideas and approaches while solving problems. Pointing out how students may use different methods to solve the same problem can help build everyone’s confidence and willingness to jump into creative thinking, even before they know the correct answer.
  • Frame mistakes as part of the process. Getting it right matters, of course. But the less concerned students are with getting something wrong, the more willing they’ll be to explore a tough problem, and to learn from their mistakes.
  • Play. Yes, engagement requires more than “make it fun,” but games and challenges can reduce some of the fear attached to math. And math students who play together get in the habit of supporting each others’ success.

Free math resources: How Amplify supports teachers with engagement

Amplify Desmos Math and Desmos Classroom are designed to help teachers build thriving math communities fueled by deep engagement. Both programs:

  • Have math routines embedded into their lesson structure.
  • Give teachers and students multiple opportunities to celebrate math strengths and see mistakes as necessary for learning.
  • Prompt students to collaborate with their peers and engage in deep math discussion.
  • Make it easy for teachers to highlight student work, celebrate their thinking, and point out different paths to the same solution.
  • Ask students to both provide answers and explain their thinking.
  • Provide lessons and problems that connect math to the real world.
  • Give students the chance to play with math together.

What’s more, Amplify Desmos Math offers a structured approach to problem-based learning, helping teachers center students in the classroom, and helping students learn from each other’s thinking. Each lesson includes strategies for differentiation and suggestions to assist students who might be stuck. Many lessons also give students the chance to design math challenges for their peers.

Celebrate the fall season with free math lessons in Desmos Classroom—including some of our favorite Try It! lessons from Amplify Desmos Math.

Just create a free Desmos Classroom account for access.

  • In the print lesson It’s Chili in Here! (grade 3), Mateo is warming up by making some spicy chili. Students identify multiplication and division equations that connect to the recipe (and tickle the taste buds).
  • In Pumpkin Prices (Algebra 1), students head over to Fran’s Farm to help calculate the cost of a variety of pumpkins! They make sense of piecewise-defined functions by making connections among situations, graphs, tables, and equations.
  • In Prob-bear-bilities (grade 7), students work to understand their mathematical chances of encountering a bear (ideally not while on a fall hike)!

For more autumn-themed math experiences and additional grade levels, fall into our special Desmos Classroom lessons collection!

More to explore

  • Access a free preview of Amplify Desmos Math Try It! lessons, featuring:
    • Hundreds of engaging print and digital K–12 lessons.
    • Grade-level specific practice problems, Centers, and differentiation.
    • Artfully designed teacher resources, including clear, step-by-step instructional moves.

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