Grant: Alliance Grants
University of British Columbia
$179,778.00
Data Science and Composite Materials Manufacturing_x000d_
FY 2020-21
Summary
The consortium of two research clusters at the University of British Columbia--the Composite Research Network and Data Science Institute -- and their industrial partner, Convergent Manufacturing Technologies Inc., are interweaving two complementary, yet to-date, poorly connected digital threads: data science with engineering science to advance Canada's position in advanced materials manufacturing. Over the past two decades, we have witnessed the emergence of the so-called "Big Data" era. This is driven by breakthroughs in learning from massive quantities of rich, complex data, to building sophisticated models and extracting insightful patterns from them. Numerous application domains, such as in finance, medicine, and so on, have benefited from these new methods in data science, machine learning, artificial intelligence, and computational statistics. However, the application domain of advanced manufacturing, particularly in composite materials, has yet to harness and leverage the advances in the aforementioned technologies. In particular, we are motivated by the problem of composite (e.g., carbon fibre) part autoclave curing in aerospace engineering, and applying advances in data science, machine learning, and probabilistic programming to better understand and predict the physical processes during composites manufacturing. The ultimate outcome is to reduce costly decisions (i.e., time, financial) in the design and manufacturing of composites--ultimately leading to increased efficiency and better products.
The key challenges in applying statistical machine learning tools to composites manufacturing are: small, expensive data; slow, complex forward generation; need to specify control inputs; expensive features; accounting for simulator errors; and uncertainty quantification. In this proposal we will tackle all these challenges to address the problems of inference, prediction, and optimization in data-driven simulators of physical processes, with a particular focus on composite curing processes.
Program
Alliance Grants
Recipient
Location
British Columbia, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
549167-2019
Name nom
Ng, Raymond
Department département
Computer Science
Organization id
2
Institution établissement
University of British Columbia
Province en
British Columbia
Province fr
Colombie-Britannique
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2020
Competition year année de concours
2019
Award amount
179778
Program id
ALLRP
Program name en
Alliance Grants
Program name fr
Subventions Alliance
Group en
Research partnerships programs
Group fr
Programmes de partenariat
Committee code
96
Committee name en
RPP Internal Decision Cttee
Committee name fr
Cté de décision interne - PPR
Area of application code
703
Area of application group en
Transportation systems and services
Area of application group fr
Services et systèmes de transport
Area of application en
Aerospace
Area of application fr
Aérospatial
Research subject code
2717
Research subject group en
Information technology
Research subject group fr
Technologie de l'information
Research subject en
Modelling and simulation studies
Research subject fr
Études de modélisation et de simulation
Installment
inst:1 - 1
Partie
1
Nb partie
1
Application title
Data Science and Composite Materials Manufacturing_x000d_
Keyword
NSERC
Application summary
The consortium of two research clusters at the University of British Columbia--the Composite Research Network and Data Science Institute -- and their industrial partner, Convergent Manufacturing Technologies Inc., are interweaving two complementary, yet to-date, poorly connected digital threads: data science with engineering science to advance Canada's position in advanced materials manufacturing. Over the past two decades, we have witnessed the emergence of the so-called "Big Data" era. This is driven by breakthroughs in learning from massive quantities of rich, complex data, to building sophisticated models and extracting insightful patterns from them. Numerous application domains, such as in finance, medicine, and so on, have benefited from these new methods in data science, machine learning, artificial intelligence, and computational statistics. However, the application domain of advanced manufacturing, particularly in composite materials, has yet to harness and leverage the advances in the aforementioned technologies. In particular, we are motivated by the problem of composite (e.g., carbon fibre) part autoclave curing in aerospace engineering, and applying advances in data science, machine learning, and probabilistic programming to better understand and predict the physical processes during composites manufacturing. The ultimate outcome is to reduce costly decisions (i.e., time, financial) in the design and manufacturing of composites--ultimately leading to increased efficiency and better products.
The key challenges in applying statistical machine learning tools to composites manufacturing are: small, expensive data; slow, complex forward generation; need to specify control inputs; expensive features; accounting for simulator errors; and uncertainty quantification. In this proposal we will tackle all these challenges to address the problems of inference, prediction, and optimization in data-driven simulators of physical processes, with a particular focus on composite curing processes.