Smart Aging: How Smart Materials in Architecture Can Respond to Changing User Needs

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    Aging Diagram
    Elly Cho
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    Auxetic Apparel - Front and Back View
    Elly Cho
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    Proof of Concept Prototype for Hydrofloor - Response Photo Series
    Elly Cho
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    Renders of future application of Hydrofloor - Exterior use to mitigate icy/snowy roads
    Elly Cho
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    Render Images of Breathing Facade during summer and winter conditions
    Elly Cho
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    Detail View of Breathing Wall
    Elly Cho
Author
Elly Cho

Examining Committee Members

Supervisor
Committee Member
Internal Reader
External Examiner
Sam Dufaux / Nicholas Hoban

As smart materials and digital fabrication technologies advance in architecture, environments can increasingly respond and interact with their users. One area of interest is the development of habitats that respond and adapt to the needs of seniors to create safer environments to age-in-place. With the baby boomer generation reaching retirement age, the problems seniors face in the built environment place a growing pressure on us to reconsider where they live. Few designers, however, apply contemporary technological advancements in architecture to innovate the practical and social environments of seniors. This thesis explores how smart materials can prolong aging-in-place by addressing common environmental problems seniors face in their homes.

Rather than considering aging as a barrier of design, this research places seniors as drivers of design inspiration and innovation for creating environments that care for their users. This thesis has three design experiments that follow three parts, each addressing a stage in the design process. The first investigates the relationship of seniors to the built environment through qualitative research and identifies three moments of vulnerability: falling, slipping, and thermo-regulation. The second identifies smart materials that would best respond to mitigating those vulnerabilities through a critical survey of multiple material properties for each moment. It also introduces preliminary design concepts for each intervention using those materials. The final part consists of an iterative cycle between prototyping and designing, result­ing in a proof of concept design and prototype for each intervention: lightweight and form fitting protective apparel to protect against falling; a water responsive floor system that enhances grip and indicates wetness to prevent slipping; and a heat and humidity responsive screen system that allows environments to thermally self regulate. Each design experiment grows out of a continuous negotiation between digital fabrication, material behavior, and user needs, reciprocally enriching each other throughout the process.

Project Date
Completed