Understanding Neurodiversity in Mathematics

Mathematics classrooms are often shaped around narrow assumptions about what learning should look like:

• students should work quickly,

• follow directions easily,

• organize information independently,

• communicate in expected ways,

• and demonstrate understanding through a limited set of behaviors.

When students struggle within these systems, the difficulty is often interpreted as a lack of ability, motivation, or effort.

However, many students are not struggling because they are incapable of mathematical thinking. 

They are struggling because the classroom itself contains barriers that interfere with access.

This section explores how neurodiversity intersects with mathematics education and how classroom structures can shape students’ experiences, participation, confidence, and mathematical identity.

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Neurodiversity is the idea that differences in how people think, learn, process information, communicate, and experience the world are part of natural human variation rather than simply deficits to be corrected.

Neurodivergent students may experience differences related to:

• attention,

• executive functioning,

• language processing,

• sensory processing,

• communication,

• working memory,

• or information processing.

These differences can create barriers within classroom environments that were designed around narrow expectations of what “normal” learning looks like.

At the same time, neurodivergent students may also bring important strengths, perspectives, and ways of thinking into mathematics classrooms.

Also note that neurodiversity is not one single experience. 

Two students with the same diagnosis may experience mathematics very differently depending on: 

• the environment,

• sensory demands,

• communication expectations,

• instructional design,

• support systems,

• and previous experiences in school. 

Many classrooms (and society in general) unintentionally define mathematical ability through:

• speed,

• neatness,

• memorization,

• organization,

• verbal participation,

• and procedural accuracy.

But these are not the only ways for students to demonstrate their ability.

A student may deeply understand mathematical ideas while simultaneously struggling with:

• decoding,

• executive functioning,

• working memory,

• sensory regulation,

• or communication expectations. 

When classrooms narrowly define what counts as success, students may begin confusing:

difficulty accessing mathematics

with

inability to do mathematics.

This distinction matters because small classroom experiences shape a student's identity over time. 

Students learn not only mathematics in school, but also whether they are seen as capable of participating in it. 

Many barriers in mathematics classrooms are invisible because they are treated as ordinary parts of school.

Students may be expected to:

• process information quickly,

• interpret ambiguous directions,

• manage multiple cognitive demands simultaneously,

• organize complex tasks independently,

• and participate in highly specific ways.

For some students, these expectations feel intuitive. 

For others, they create significant barriers before mathematical reasoning even begins.

• A student may have strong proportional reasoning but struggle to explain their solution to a mixture problem during a whole-class discussion.

• A student may spend so much energy decoding a word problem that little cognitive energy remains for solving it. 

• A student may answer a question differently because they interpreted wording literally. 

These moments can easily be interpreted as: 

• lack of effort,

• carelessness,

• disengagement,

• or inability.

But often, they reveal a mismatch between the learner and the environment rather than an absence of mathematical ability. 

Discussions about neurodivergence in education (and medical spaces) often focus heavily on deficits and interventions.

While support is important, students are more than:

• accommodation plans,

• behaviors,

• processing difficulties,

• or diagnostic labels.

Neurodivergent students may demonstrate strengths in:

• pattern recognition,

• systems thinking,

• creativity,

• persistence,

• detail-oriented thinking,

• flexible problem-solving,

• and deep conceptual understanding.

The goal is not to romanticize neurodivergence or ignore real challenges.

The goal is to think more critically about how classrooms can better support different ways of thinking and learning while also recognizing the assets neurodivergent students bring into mathematics. 

Many classroom structures are built around unstated assumptions such as: 

• fast processing = understanding,

• participation = speaking up in class,

• independence = capability,

• organization = intelligence,

• silence = disengagement,

• struggle = lack of effort. 

These assumptions often privilege students whose brains already align with more traditional classroom spaces. 

Rethinking mathematics education does not mean lowering expectations. 

It means asking: 

What are we actually measuring?

And:

Who gets to be successful in mathematics within the current structure?

Students remember a lot more than just content. 

They remember: 

• whether they felt capable,

• whether their thinking was valued,

• whether they felt safe participating,

• and whether they believed they belonged in mathematics.

When classrooms repeatedly position students as "behind," "careless," or "not trying," those messages begin to shape their identity. 

However, students also remember when someone trusted in their thinking before there was proof. 

Creating more accessible math classrooms is about improving achievement and expanding who gets to see themselves as capable of doing mathematics.