STEM Education Supports Neurodiversity

7 Ways STEM Supports Neurodiversity

Key Takeaways: Blending STEM and Social-Emotional Learning
  • The Definition: Neurodiversity is the belief that differences in how people think, learn and interact with the world are strengths rather than deficits.
  • Interest-Driven Learning: Project-based STEM allows neurodivergent learners to lean into their specific passions and strengths to solve problems.
  • Tactile Engagement: Hands-on STEM reduces passive learning time, providing the movement and sensory engagement that many neurodiverse learners need to focus.
  • Alternative Communication: STEM provides nonverbal pathways for collaboration, allowing learners to express themselves through design, coding or movement rather than relying solely on traditional discussion.
  • Predictability: Structured STEM programs break large tasks into manageable steps and establish consistent routines, reducing cognitive overload and increasing student confidence.

STEM education offers flexible, hands-on learning experiences that support a wide range of thinking and learning styles, making it especially effective for neurodiverse learners. The greatest scientific advances often come from individuals who approach problems in unconventional ways, and STEM instruction embraces this diversity of thought by recognizing that there is no single way to learn or innovate.

Celebrate Neurodiversity Success

Neurodiversity is the belief that differences in how people think, learn and interact with the world are strengths rather than deficits (Baumer, 2021). Coined in the early 1990s, this perspective encourages educators to build on learners’ interests and abilities as pathways toward meeting academic standards.

Educators across grade levels strive to create learning environments that meet diverse learner needs. Many have turned to STEM instruction because its project-based and exploratory nature allows instruction to adapt to multiple learning styles and developmental differences.

PCS Edventures develops STEM programs aligned with research-based strategies that support neurodivergent learners. In this blog post, we’ll reference two programs that do this exceptionally well and explore how each supports neurodiverse communities:

BrickLAB Brain Builders, grades 1-3
Drone Designers, grades 4-8

Here are seven ways these structured STEM programs support neurodiversity in action.

1. How Does STEM Highlight Learners’ Interests and Strengths?

A core principle of neurodiversity is recognizing and building on learners’ individual interests and strengths. Neurodivergent learners, like those diagnosed with autism spectrum disorder (ASD), often exhibit a profound interest in a specific topic (Kluth & Schwarz, 2008).

How can educators best incorporate learners’ passions into valuable and measurable learning experiences? Look no further than project-based learning. Centered around real-world problems, STEM actively engages learners through immersive, skill-driven projects.

STEM supports learner strengths by:

  • Providing choice within projects
  • Connecting learning to real-world problems
  • Allowing multiple ways to participate and demonstrate understanding
  • Encouraging creativity alongside technical skill development

In Action: Younger learners benefit from opportunities to personalize design challenges. In BrickLAB Brain Builders, learners design their own building to fit within a class-constructed neighborhood. Learners who have an interest in the fire department or post office, for instance, may choose to add their own spin to those facilities.

For older learners, Drone Designers invites them to assume different roles on a drone-designing team. Whether they thrive as the creative director, lead designer, programmer or pilot, they can use their specific strengths to help their team succeed.

2. How Do Hands-On STEM Tools Support Neurodiverse Learners?

STEM instruction is not your classic “traditional” teaching. There’s a lot of movement involved! Neurodiverse learners often benefit from frequent “state changes” such as going from sitting to standing, group to independent work or using hands-on tools (Armstrong, 2012). Doing so gives learners a chance to move around and explore the learning space.

Hands-on STEM learning supports neurodiverse learners by:

  • Encouraging movement and sensory engagement
  • Reducing passive learning time
  • Providing tactile and visual learning experiences
  • Supporting focus through active participation

In Action: Younger learners benefit from tactile, manipulative-based activities that make abstract concepts concrete. Our signature Perfect Bricks are the ideal tool to engage young hands and minds, giving them a physical way to express their understanding.

For older learners, whether they're using the DroneBlocks app or working with a drone directly, movement is inevitable as they test choreography and solve problems in open spaces.

3. How Does STEM Learning Support Neuroplasticity and Growth Mindset?

Neuroplasticity is a brain cell’s ability to change connections and behavior given new information or stimuli (Rugnetta, n.d.). What does this mean for educators? What our learners are capable of doing has more to do with effort than innate talents.

STEM instruction supports neuroplasticity by:

  • Encouraging trial-and-error learning
  • Reinforcing persistence through iterative problem-solving
  • Normalizing mistakes as part of the learning process

In Action: Both of our featured products foster the idea that failure is awesome. As learners fail to meet challenges, they must change course to find a new solution given what they learned from their mistakes. In time, they discover that missteps reveal new and creative ways to accomplish tasks. (For more on how STEM instruction fosters growth mindsets, check out our blog post: STEM for SEL Support).

4. How Does STEM Provide Multiple Ways to Communicate and Collaborate?

STEM learning environments create frequent opportunities for collaboration, discussion and shared problem-solving. However, verbal communication alone may present challenges for some neurodivergent learners. Providing multiple ways to express ideas helps ensure all students can participate meaningfully in group work.

STEM supports communication by:

  • Offering verbal and nonverbal ways to share ideas
  • Encouraging visual and design-based expression
  • Reducing reliance on traditional discussion-based participation

In Action: Younger learners often communicate ideas effectively through visual representation, sketching their BrickLAB models before building them to communicate their design plan. As projects become more complex, learners benefit from alternative forms of expression.

In Drone Designers, learners communicate their thoughts and feelings through choreographed performances. When we expose learners to different ways to share emotions, we give them skills that will last a lifetime.

5. How Do Clear Instructions in STEM Support Neurodiverse Learners?

Clear and structured instructions play an essential role in helping all learners succeed, particularly neurodivergent students who may benefit from predictable expectations and step-by-step guidance. For example, we can help learners with ADHD best use their strengths when we share information in short, dynamic segments (Armstrong, 2012).

Clear instructional structures in STEM help learners by:

  • Breaking large tasks into manageable steps
  • Reducing cognitive overload
  • Supporting executive functioning skills
  • Improving task initiation and completion

In Action: Both of these educator guides include complete schedules highlighting each part of the hour-long lessons, which can easily be broken down into smaller durations to meet learners’ varying needs.

6. How Do Consistent Routines in STEM Support Neurodiverse Learners?

Predictable routines help create learning environments where students feel comfortable, prepared and confident. Many neurodivergent learners benefit from clearly established expectations and consistent instructional patterns.

Consistent STEM routines support learners by:

  • Creating predictable learning expectations
  • Encouraging confidence and independence

In Action: Each of BrickLAB Brain Builder’s 12 lessons follows a similar routine: discuss, brainstorm and build. Although topics vary, learners can anticipate what they’ll be expected to do next.

For older learners working in highly stimulating environments, educators can establish clear routines for gaining attention — such as a specific clapping pattern, a "hands off" call or a visual countdown — ensuring consistency throughout the unit.

7. How Does STEM Foster a Kind and Inclusive Learning Environment?

A safe, respectful learning environment is essential for all students, especially neurodivergent learners who may be more sensitive to social dynamics. STEM’s hands-on approach to learning comes with a balance of successes and failures, requiring educators to proactively build supportive spaces.

Educators can intentionally build respectful STEM spaces by:

  • Establishing collaboration norms from the beginning
  • Practicing and reinforcing group expectations regularly
  • Teaching explicit teamwork skills
  • Highlighting examples of supportive peer behavior
  • Using positive language when challenges arise

Bringing It All Together

STEM instruction highlights learners' many strengths, making it the ideal choice for supporting neurodiversity in any learning environment. Whether it’s helping learners develop a growth mindset, aiding in their ability to communicate or cultivating a respectful learning environment, STEM provides learners with all they need to be their best selves.

How do you best support neurodiverse learners in your space?

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References

Armstrong, T. (2012). Neurodiversity in the Classroom: strength-based strategies to help students with special needs succeed in school and life. Alexandria, VA; ASCD.

Nicole Baumer, M. D., & Julia Frueh, M. D. (2021, November 23). What is neurodiversity? Harvard Health. Retrieved February 28, 2022, from https://www.health.harvard.edu/blog/what-is-neurodiversity-202111232645

Kluth, P., & Schwarz, P. (2008). "Just give him the whale!": 20 ways to use fascinations, areas of expertise, and strengths to support students with autism. Baltimore: Paul H. Brookes Pub.

Begel, Andrew, Dominic, J., Phillis, C., Beeson, T., & Rodeghero, P. (2021, March 1). SIGCSE '21: How a remote video game coding camp improved autistic college students' self-efficacy in Communication: Proceedings of the 52nd ACM Technical Symposium on Computer Science Education. Pages 142–148. https://doi.org/10.1145/3408877.3432516

​​Rugnetta, M. (n.d.). Neuroplasticity. Encyclopædia Britannica. Retrieved February 28, 2022, from https://www.britannica.com/science/neuroplasticity