Canada Spends Logo

Explore our Budget 2026 analysis

Grant: Discovery Grants Program - Individual

University of Windsor

$48,000.00

New Materials, Composites, and Designs for Stretchable and Wearable Electronics

FY 2018-19

Summary
Transforming hard, rigid electronics into pliable devices that can conform to the contours of the human body will redefine the human-computer interaction, delivering electrical functions like biosensors, illumination, and energy storage to the human body. One approach to wearable electronics involves integrating electronic devices with soft, rubbery elastomers that can be laminated on the skin, intimately connecting devices with humans. Another approach integrates electronic devices with the textile fibers of clothing to make interacting with devices as simple as getting dressed. Both approaches face the challenge of mismatched mechanical properties of the electronic device materials, which are not intrinsically stretchable, and the soft rubber or textile substrates. *Our research program aims to advance the field of soft, wearable electronics by developing new ways to integrate electronic materials and devices with elastomers and textiles. Our approach engineers the properties of the soft substrate to influence the mechanical and electrical response of electronic materials and devices deposited on the surface. This program will advance elastomer-based electronics by transforming the elastomeric substrate from a simple platform for stretchable devices into a multifunctional element that enhances the function of stretchable devices. Fusing a membrane of one elastomer onto the surface of a second combines the advantageous surface and bulk properties of the two elastomers; furthermore, the material that forms the interface between the two elastomers is a key synergistic element that will be exploited to favourably influence the function of stretchable materials and devices on the membrane surface. This program will also advance textile-based wearable devices by developing highly conductive and stretchable fabrics and fibers, using a low-cost, solution-based, scalable method that integrates high electrical conductivity while maintaining the soft, stretchable properties of the textile. The new stretchable and conductive textiles will be used to explore a wide range of innovative new devices, such as stretchable wiring integrated in clothing to connect devices, fiber-based strain sensors designed to detect body motion and measure vital signs like heartrate and respiration, and stretchable light-emitting fabrics and fibers, the ultimate integration of device functionality with clothing.
Program
Discovery Grants Program - Individual
Location
Ontario, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data

As published

Application id
RGPIN-2018-05525
Name nom
Carmichael, Tricia
Department département
Chemistry and Biochemistry
Organization id
37
Institution établissement
University of Windsor
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2018
Competition year année de concours
2018
Award amount
48000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
Discovery grants programs
Group fr
Programmes de subventions à la découverte
Committee code
1504
Committee name en
Chemistry
Committee name fr
Chimie
Area of application code
1208
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Materials sciences
Area of application fr
Sciences des matériaux
Research subject code
2004
Research subject group en
Materials science and technology
Research subject group fr
Science et technologie des matériaux
Research subject en
Polymers and coatings
Research subject fr
Polymères et revêtements
Partie
1
Nb partie
5
Application title
New Materials, Composites, and Designs for Stretchable and Wearable Electronics
Keyword
NSERC
Application summary
Transforming hard, rigid electronics into pliable devices that can conform to the contours of the human body will redefine the human-computer interaction, delivering electrical functions like biosensors, illumination, and energy storage to the human body. One approach to wearable electronics involves integrating electronic devices with soft, rubbery elastomers that can be laminated on the skin, intimately connecting devices with humans. Another approach integrates electronic devices with the textile fibers of clothing to make interacting with devices as simple as getting dressed. Both approaches face the challenge of mismatched mechanical properties of the electronic device materials, which are not intrinsically stretchable, and the soft rubber or textile substrates. *Our research program aims to advance the field of soft, wearable electronics by developing new ways to integrate electronic materials and devices with elastomers and textiles. Our approach engineers the properties of the soft substrate to influence the mechanical and electrical response of electronic materials and devices deposited on the surface. This program will advance elastomer-based electronics by transforming the elastomeric substrate from a simple platform for stretchable devices into a multifunctional element that enhances the function of stretchable devices. Fusing a membrane of one elastomer onto the surface of a second combines the advantageous surface and bulk properties of the two elastomers; furthermore, the material that forms the interface between the two elastomers is a key synergistic element that will be exploited to favourably influence the function of stretchable materials and devices on the membrane surface. This program will also advance textile-based wearable devices by developing highly conductive and stretchable fabrics and fibers, using a low-cost, solution-based, scalable method that integrates high electrical conductivity while maintaining the soft, stretchable properties of the textile. The new stretchable and conductive textiles will be used to explore a wide range of innovative new devices, such as stretchable wiring integrated in clothing to connect devices, fiber-based strain sensors designed to detect body motion and measure vital signs like heartrate and respiration, and stretchable light-emitting fabrics and fibers, the ultimate integration of device functionality with clothing.