Abstract: Human brains vary widely, and these differences are not inherently deficits but natural variations in cognition, perception, and behavior. These differences that have become increasingly recognized in recent years and play a critical role in the design of learning environments. Architects, designers, educators, and school districts are required to meet the changing needs by challenging conventional school design and asking how architecture can better support diverse ways of thinking, sensing, and moving through space.

For neurodivergent learners – including students with Autism Spectrum Disorder (ASD), Attention Deficit Hyperactivity Disorder (ADHD), and other cognitive or sensory differences – the qualities of light, air, sound, and spatial organization play a critical role in shaping environments that foster comfort, agency, and engagement.

Moving beyond standardized classroom models, design strategies that prioritize sensory awareness, environmental regulation, and spatial flexibility can create learning environments that respond to a broader spectrum of cognitive and sensory needs.

This session explores how teams can integrate practical design strategies into both new and existing K–12 environments to better support neurodivergent learning. Rather than prescribing a single solution, the presentation proposes a flexible “design toolbox” to guide decision-making across scales from classroom interiors to building circulation and campus planning allowing schools to adapt spaces to evolving educational and student needs.

The toolbox frames these strategies as a kit of adaptable design elements that can be combined and scaled to suit different contexts. Key components include the calibration of natural light, ventilation, acoustics, and circulation. Soft, diffused daylight and access to fresh air help regulate sensory input, while acoustic control and reduced visual clutter support focus and emotional regulation.

Spatial elements such as transitional zones, predictable circulation patterns, tactile features, flexible learning areas, and indoor–outdoor connections encourage movement, exploration, and varied sensory engagement. The toolkit also emphasizes clear spatial organization, with defined zones for focused work, collaboration, movement, and quiet retreat that allow students to choose environments suited to concentration, interaction, or restoration. Legible circulation, visual landmarks, and consistent spatial cues further support intuitive wayfinding and reduce anxiety.

Drawing from emerging research and recent educational projects, the presentation demonstrates how sensory-responsive design and adaptable spatial strategies can help schools move beyond conventional educational planning typologies. By treating light, air, acoustics, and movement as fundamental architectural tools, designers can create learning environments that better support neurodivergent students while enriching the educational experience for all learners.

Learning Objectives:

1. Understand the principles of neurodiversity and how cognitive and sensory differences influence the ways students perceive, interact with, and move through learning environments.
2. Identify key environmental design factors affective sensory responsive design.
3. Apply a flexible “design toolbox” of spatial strategies that support neurodivergent learning environments.
4. Evaluate how adaptable architectural strategies can be implemented in both new and existing K–12 environments.