Grant: Canada Research Chairs
The University of Western Ontario
$120,000.00
Advanced Materials for Low-Emission Energies
FY 2023-24
Summary
Climate change is one of the most critical issues of our time. To mitigate its consequences, several solutions are suggested central to which, is the successful production of clean or low-emission electricity. In Canada, nuclear energy has been contributing significantly to producing reliable low-emission energy. More than 15% of energy in Canada and 50% in Ontario has been produced through CANada Deuterium Uranium (CANDU) nuclear reactors. To meet climate targets, the international energy agency has projected that in the next 20 years we will need to double our energy production through nuclear. This is translated to the refurbishment of current CANDU reactors and the deployment of a new Small Modular Reactor for installation at the Darlington nuclear site in Ontario. The lifespan of these reactors and their availability for producing energy are significantly affected by the performance of the materials used in the core of the reactors. Hence, ensuring the safe and sustainable operation of nuclear reactors requires the development of advanced predictive materials models that are validated against robust data sets through comprehensive experimentation.
This program focuses on the development of novel and advanced multiphysics numerical models that simulate the performance of the metals and alloys used in the core of nuclear reactors. For the first time, multiscale, microstructure-sensitive damage models will be coupled with irradiation and environmental induced degradation mechanisms to simulate under what circumstances reactor materials might fail. In collaboration with world-leading international laboratories, advanced experimental methods will be developed and employed to validate the numerical models. The models will further be used to tailor optimized materials microstructures for designing critical engineering components that will be used in other low-emission energy sectors. It is expected that this program will contribute significantly to ensuring the safe operation of nuclear reactors, reduce the cost of excessive experimentation in industry by developing accurate predictive models, and enhance equity and diversity in the energy sector through training a diverse group of highly qualified personnel.
Program
Canada Research Chairs
Recipient
Location
Ontario, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
CRC-2021-00463
Name nom
Abdolvand, Hamidreza
Department département
Mechanical and Materials Engineering - The University of Western Ontario
Organization id
36
Institution établissement
The University of Western Ontario
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2023
Competition year année de concours
2021
Award amount
120000
Program id
CRC
Program name en
Canada Research Chairs
Program name fr
Chaires de recherche du Canada
Group en
DISCOVERY RESEARCH
Group fr
RECHERCHE AXÉE SUR LA DÉCOUVERTE
Committee code
9998
Committee name en
Canada Research Chair Selection Committee
Committee name fr
Comité de sélection des Chaires de recherche du Canada
Area of application code
10000
Area of application group en
The socioeconomic objective available
Area of application group fr
L'objectif socioéconomique disponible
Area of application en
The socioeconomic objective available
Area of application fr
L'objectif socioéconomique disponible
Research subject code
10000
Research subject group en
The field of research available
Research subject group fr
The field of research available
Research subject en
Le domaine de recherche disponible
Research subject fr
Le domaine de recherche disponible
Field of research list codes
RDF2060107
Field of research list names en
Metals and alloy materials engineering
Field of research list names fr
Génie des métaux et matériaux en alliage
Socioeconomic objective list codes
RDS10599
Socioeconomic objective list names en
Energy (except prospecting), n.e.c.
Socioeconomic objective list names fr
Énergie (sauf la prospection), n.c.a.
Application title
Advanced Materials for Low-Emission Energies
Keyword
Crystal plasticity; Finite element ; Diffraction; Electron backscatter diffraction; Synchrotron X-ray diffraction; Nuclear materials; Metals and alloys; Zirconium; Additive manufacturing
Application summary
Climate change is one of the most critical issues of our time. To mitigate its consequences, several solutions are suggested central to which, is the successful production of clean or low-emission electricity. In Canada, nuclear energy has been contributing significantly to producing reliable low-emission energy. More than 15% of energy in Canada and 50% in Ontario has been produced through CANada Deuterium Uranium (CANDU) nuclear reactors. To meet climate targets, the international energy agency has projected that in the next 20 years we will need to double our energy production through nuclear. This is translated to the refurbishment of current CANDU reactors and the deployment of a new Small Modular Reactor for installation at the Darlington nuclear site in Ontario. The lifespan of these reactors and their availability for producing energy are significantly affected by the performance of the materials used in the core of the reactors. Hence, ensuring the safe and sustainable operation of nuclear reactors requires the development of advanced predictive materials models that are validated against robust data sets through comprehensive experimentation.
This program focuses on the development of novel and advanced multiphysics numerical models that simulate the performance of the metals and alloys used in the core of nuclear reactors. For the first time, multiscale, microstructure-sensitive damage models will be coupled with irradiation and environmental induced degradation mechanisms to simulate under what circumstances reactor materials might fail. In collaboration with world-leading international laboratories, advanced experimental methods will be developed and employed to validate the numerical models. The models will further be used to tailor optimized materials microstructures for designing critical engineering components that will be used in other low-emission energy sectors. It is expected that this program will contribute significantly to ensuring the safe operation of nuclear reactors, reduce the cost of excessive experimentation in industry by developing accurate predictive models, and enhance equity and diversity in the energy sector through training a diverse group of highly qualified personnel.