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Grant: Strategic Projects - Group

Soleymani, Leyla (McMaster University)

$525,625.00

Developing structurally- and functionally-tuned three-dimensional electrodes for biosensing

EF 2017-18 · 2017-10-18

Résumé
Currently, there is tremendous market demand for two classes of miniaturized biosensors: (1) handheld point-of-care (POC) diagnostic s and (2) wearable health monitoring devices. The difficulty in commercializing new POC and wearable technologies is that it is extremely challenging to create ultrasensitive biosensors that do not rely on complex devices for signal or target amplification, and can detect emerging biomarkers in complex biological samples at clinically relevant concentrations._x000D_ In this proposal, we will provide a unique materials strategy for solving the limit-of-detection challenges of biosensors. The approach will be based on increasing the signal-to-background ratio of these devices. Signal enhancement will be achieved by using three-dimensional hierarchically organized electrodes that collectively increase the electrochemical current density and the probability of analyte capture through their precisely designed structure. The reduction of the background signals will be achieved by creating hybrid omniphobic electrodes featuring a unique slippery coating that captures the desired target analytes and significantly reduces the non-specific binding of background materials; andbimodal photoactive electrodes that are excited using light and are operated under low electrical bias reducing the background electrochemical processes._x000D_ The proposed project will combine these unique materials approaches for the first time and is expected to: (1) result in record values in terms of limit-of-detection enabling the development of several new classes of biosensors including wearable sensors; (2) generate new knowledge in the correlation between materials structure and function in the biosensing context; (3) result in a rich multidisciplinary training environment with skills that are transferrable to several sectors; (4) provide our industry partner, a global leader in POC diagnostics in Canada and globally, a competitive advantage resulting in significant economic and health benefits to Canadians, including new direct and indirect jobs, availability of high quality diagnostic testing in remote areas, and more efficient use of healthcare funds.
Programme
Strategic Projects - Group
Emplacement
Ontario, Canada
Type de bénéficiaire
Academia
Type
Grant
Source
Proactive Disclosure - Grants and Contributions

Tel que publié

Additional Information
Grant or Award spanning more than one fiscal year (2017-2018 to 2020-2021).
Additional Information (French)
Subvention ou bourse octroyée s'appliquant à plus d'un exercice financier (2017-2018 à 2020-2021).
Agreement Number
STPGP
Agreement Start Date
2017-10-18
Agreement Title
Developing structurally- and functionally-tuned three-dimensional electrodes for biosensing
Agreement Title (French)
Developing structurally- and functionally-tuned three-dimensional electrodes for biosensing
Agreement Type
Grant
Agreement Value
$525,625.00
Amendment Number
0
Organization Code
nserc-crsng
Organization
Natural Sciences and Engineering Research Council of Canada | Conseil de recherches en sciences naturelles et en génie du Canada
Program Name
Strategic Projects - Group
Program Name (French)
Projets stratégiques - groupe
Program Purpose
Currently, there is tremendous market demand for two classes of miniaturized biosensors: (1) handheld point-of-care (POC) diagnostic s and (2) wearable health monitoring devices. The difficulty in commercializing new POC and wearable technologies is that it is extremely challenging to create ultrasensitive biosensors that do not rely on complex devices for signal or target amplification, and can detect emerging biomarkers in complex biological samples at clinically relevant concentrations._x000D_ In this proposal, we will provide a unique materials strategy for solving the limit-of-detection challenges of biosensors. The approach will be based on increasing the signal-to-background ratio of these devices. Signal enhancement will be achieved by using three-dimensional hierarchically organized electrodes that collectively increase the electrochemical current density and the probability of analyte capture through their precisely designed structure. The reduction of the background signals will be achieved by creating hybrid omniphobic electrodes featuring a unique slippery coating that captures the desired target analytes and significantly reduces the non-specific binding of background materials; andbimodal photoactive electrodes that are excited using light and are operated under low electrical bias reducing the background electrochemical processes._x000D_ The proposed project will combine these unique materials approaches for the first time and is expected to: (1) result in record values in terms of limit-of-detection enabling the development of several new classes of biosensors including wearable sensors; (2) generate new knowledge in the correlation between materials structure and function in the biosensing context; (3) result in a rich multidisciplinary training environment with skills that are transferrable to several sectors; (4) provide our industry partner, a global leader in POC diagnostics in Canada and globally, a competitive advantage resulting in significant economic and health benefits to Canadians, including new direct and indirect jobs, availability of high quality diagnostic testing in remote areas, and more efficient use of healthcare funds.
Program Purpose (French)
Currently, there is tremendous market demand for two classes of miniaturized biosensors: (1) handheld point-of-care (POC) diagnostic s and (2) wearable health monitoring devices. The difficulty in commercializing new POC and wearable technologies is that it is extremely challenging to create ultrasensitive biosensors that do not rely on complex devices for signal or target amplification, and can detect emerging biomarkers in complex biological samples at clinically relevant concentrations._x000D_ In this proposal, we will provide a unique materials strategy for solving the limit-of-detection challenges of biosensors. The approach will be based on increasing the signal-to-background ratio of these devices. Signal enhancement will be achieved by using three-dimensional hierarchically organized electrodes that collectively increase the electrochemical current density and the probability of analyte capture through their precisely designed structure. The reduction of the background signals will be achieved by creating hybrid omniphobic electrodes featuring a unique slippery coating that captures the desired target analytes and significantly reduces the non-specific binding of background materials; andbimodal photoactive electrodes that are excited using light and are operated under low electrical bias reducing the background electrochemical processes._x000D_ The proposed project will combine these unique materials approaches for the first time and is expected to: (1) result in record values in terms of limit-of-detection enabling the development of several new classes of biosensors including wearable sensors; (2) generate new knowledge in the correlation between materials structure and function in the biosensing context; (3) result in a rich multidisciplinary training environment with skills that are transferrable to several sectors; (4) provide our industry partner, a global leader in POC diagnostics in Canada and globally, a competitive advantage resulting in significant economic and health benefits to Canadians, including new direct and indirect jobs, availability of high quality diagnostic testing in remote areas, and more efficient use of healthcare funds.
Recipient City
Ontario
Recipient Country
CA
Recipient Legal Name
Soleymani, Leyla (McMaster University)
Reference Number
GC-2017-Q3-00821