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Grant: Research Tools and Instruments

York University

$146,790.00

Automated Parallel Bioreactor Systems for High Throughput Optimization of Bioengineered Processes

FY 2020-21

Summary
Fully automated parallel bioreactor systems with control and supervision of multiple bioreactors in parallel allows high throughput bioprocessing while its integration with external sensors and metabolite analyzers enables in-line qualitative and quantitative analyses of bioprocesses. Bioengineered technologies in diverse fields such as industrial microbiology, environmental science, biochemistry and structural biology, geoenvironmental engineering etc. are critically dependent on efficient, high functioning microbes which can catalyse specific biochemical reactions at optimal rates under optimized reaction conditions. This requires extensive experimentation to achieve optimal microbe design, substrate preparation and reaction conditions (medium design) and process development to a technical scale (process design). Parallel bioreactor systems enable a rapid, scalable and parallel optimization of these three designs, thereby providing an integrated process development and facilitating a decrease in developmental timelines, reduction in overall cost and increase in experimental efficiency. Integration with smart sensors and metabolite analyzers provides the opportunity for microbial culture and process monitoring in a real-time manner which leads to a deeper process understanding for robustness and scalability. This in-line monitoring and control functionality will allow robust development of fed-batch and continuous designs which is a norm in industrial bioprocessing, thereby enabling a faster process scale-up. In addition, such advanced analytics can also be beneficial to unravel novel metabolic pathways under a parallel testing approach. These will pave the way for novel microbial processes and biocatalytic methods to boost the Canadian bio-based economy via production of bio-based products; and developing newer, greener technologies for environmental, geotechnical and soil science applications. Further, 7 key researchers and at least 5 collaborators at York University will be using the system on an intense frequency basis, training at least 15 HQP per year, validating the need and urgency of the fully automated bioreactor system.
Program
Research Tools and Instruments
Location
Ontario, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data

As published

Application id
RTI-2021-00463
Name nom
Brar, Satinder
Department département
Civil Engineering
Organization id
38
Institution établissement
York University
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2020
Competition year année de concours
2021
Award amount
146790
Program id
RTI
Program name en
Research Tools and Instruments
Program name fr
Outils et instruments de recherche
Group en
Discovery grants programs
Group fr
Programmes de subventions à la découverte
Committee code
1609
Committee name en
Engineering (RTI)
Committee name fr
Génie (OIR)
Area of application code
1002
Area of application group en
Northern development
Area of application group fr
Développement du nord
Area of application en
Environment
Area of application fr
Environnement
Research subject code
1505
Research subject group en
Environmental engineering
Research subject group fr
Génie de l'environnement
Research subject en
Bioremediation
Research subject fr
Biorestauration
Installment
inst:1-1
Partie
1
Nb partie
1
Application title
Automated Parallel Bioreactor Systems for High Throughput Optimization of Bioengineered Processes
Keyword
NSERC
Application summary
Fully automated parallel bioreactor systems with control and supervision of multiple bioreactors in parallel allows high throughput bioprocessing while its integration with external sensors and metabolite analyzers enables in-line qualitative and quantitative analyses of bioprocesses. Bioengineered technologies in diverse fields such as industrial microbiology, environmental science, biochemistry and structural biology, geoenvironmental engineering etc. are critically dependent on efficient, high functioning microbes which can catalyse specific biochemical reactions at optimal rates under optimized reaction conditions. This requires extensive experimentation to achieve optimal microbe design, substrate preparation and reaction conditions (medium design) and process development to a technical scale (process design). Parallel bioreactor systems enable a rapid, scalable and parallel optimization of these three designs, thereby providing an integrated process development and facilitating a decrease in developmental timelines, reduction in overall cost and increase in experimental efficiency. Integration with smart sensors and metabolite analyzers provides the opportunity for microbial culture and process monitoring in a real-time manner which leads to a deeper process understanding for robustness and scalability. This in-line monitoring and control functionality will allow robust development of fed-batch and continuous designs which is a norm in industrial bioprocessing, thereby enabling a faster process scale-up. In addition, such advanced analytics can also be beneficial to unravel novel metabolic pathways under a parallel testing approach. These will pave the way for novel microbial processes and biocatalytic methods to boost the Canadian bio-based economy via production of bio-based products; and developing newer, greener technologies for environmental, geotechnical and soil science applications. Further, 7 key researchers and at least 5 collaborators at York University will be using the system on an intense frequency basis, training at least 15 HQP per year, validating the need and urgency of the fully automated bioreactor system.
York University - $146,790 Grant (2020-21) | Canada Spends