Grant: Engage Grants Program
British Columbia Institute of Technology
$24,887.00
Investigation of the use of 3D printing to combine the convenience of prefabrication with the benefits of customization to support research on optimization of orthotic design
FY 2015-16
Summary
This project brings together BCIT researchers specializing in Rehabilitation Engineering and the BC based
Wiivv Wearables Co in a collaboration that will create significant innovation and will provide the tools to
expand our knowledge base in a field that is still, in large part, a craft based art. Orthotic devices are currently
either prefabricated and bought off the shelf on the high street or are 'custom' made using unquantifiable
handcrafting methods. While it was known as long as 15 years ago that statistics based finite element
modelling can be used to successfully optimize the design of orthotic devices, no technology existed at that
time that could capitalize on that knowledge. Additive manufacturing methods, such as 3D printing change
that. This project will use 3D modelling and printing techniques to investigate the potential and limitations of
this technology in this sector by researching the ability to iteratively modify novel orthotic designs and measure
their effect on human gait. The results will advance the state of both knowledge and productivity in this sector.
By creating a synergistic effect between new production methods and new design tools, first and foremost,
methodologies will be developed that support research and knowledge generation in the area of orthotic design.
It will finally be possible to 'play' with orthotic designs and design principles in a quantifiable, iterative and
repeatable manner, something that is currently not possible when relying on handcrafted orthotic devices in
studies. At the same time the current process for production of a handcrafted orthotic device is time
consuming and there are neither best practices nor a scientific knowledge basis upon which modification to
designs can be based. The results of this project will change that so that the consumer can, in future, receive
validated designs and devices faster and more cost effectively than ever before.
Program
Engage Grants Program
Location
British Columbia, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
484396-2015
Name nom
Raschke, SilviaUrsula
Department département
Technology Centre
Organization id
5974
Institution établissement
British Columbia Institute of Technology
Province en
British Columbia
Province fr
Colombie-Britannique
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2015
Competition year année de concours
2015
Award amount
24887
Program id
EGP
Program name en
Engage Grants Program
Program name fr
Programme de subventions d'engagement partenariat
Group en
Research partnerships programs
Group fr
Programmes de partenariat
Committee code
1554
Committee name en
Pacific Internal Decision Committee
Committee name fr
Comité de décision interne pour le Pacifique
Area of application code
1211
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Medical and health sciences
Area of application fr
Sciences médicales et de la santé
Research subject code
1700
Research subject group en
Design and manufacturing
Research subject group fr
Conception et fabrication
Research subject en
Design and manufacturing
Research subject fr
Conception et fabrication
Partie
1
Nb partie
1
Application title
Investigation of the use of 3D printing to combine the convenience of prefabrication with the benefits of customization to support research on optimization of orthotic design
Keyword
NSERC
Application summary
This project brings together BCIT researchers specializing in Rehabilitation Engineering and the BC based
Wiivv Wearables Co in a collaboration that will create significant innovation and will provide the tools to
expand our knowledge base in a field that is still, in large part, a craft based art. Orthotic devices are currently
either prefabricated and bought off the shelf on the high street or are 'custom' made using unquantifiable
handcrafting methods. While it was known as long as 15 years ago that statistics based finite element
modelling can be used to successfully optimize the design of orthotic devices, no technology existed at that
time that could capitalize on that knowledge. Additive manufacturing methods, such as 3D printing change
that. This project will use 3D modelling and printing techniques to investigate the potential and limitations of
this technology in this sector by researching the ability to iteratively modify novel orthotic designs and measure
their effect on human gait. The results will advance the state of both knowledge and productivity in this sector.
By creating a synergistic effect between new production methods and new design tools, first and foremost,
methodologies will be developed that support research and knowledge generation in the area of orthotic design.
It will finally be possible to 'play' with orthotic designs and design principles in a quantifiable, iterative and
repeatable manner, something that is currently not possible when relying on handcrafted orthotic devices in
studies. At the same time the current process for production of a handcrafted orthotic device is time
consuming and there are neither best practices nor a scientific knowledge basis upon which modification to
designs can be based. The results of this project will change that so that the consumer can, in future, receive
validated designs and devices faster and more cost effectively than ever before.