Grant: Alliance Grants

Quantum computing has transformed the landscape of science and engineering by offering capabilities that surpass those of classical computers. Unlike classical computers, quantum computers utilize qubits, allowing for simultaneous task execution and operating on logarithmic time scales. Leading companies such as IBM, Google, and Microsoft have made quantum computers more accessible. In recent times, quantum computers have been increasingly applied across various industries, including cybersecurity, pharmaceuticals, and finance. Nevertheless, obstacles remain in fully harnessing the power of quantum computing for city-scale Computational Fluid Dynamics (CFD) simulations. The city-scale CFD has wide applications, such as preventing Unmanned Aerial Vehicles (UAV) from encountering high-speed wind zones in urban areas, determining strategies for dissolving the pollution caused by road traffic (e.g., around hospitals and long-term care facilities) and many others. In collaboration with Junia HEI-Lille in France, this proposal details a collaborative effort between Canadian and French researchers to utilize quantum computing to enhance city-scale CFD simulations. The primary goal is to address the time constraints associated with traditional computing methods (classical computers), particularly for large-scale simulations such as city-wide wind aerodynamics and pollution control strategies. The anticipated outcomes include advancements in climate change control systems, more precise weather forecasting, enhanced safety measures for UAVs in urban environments, and reduced emissions from road traffic. By harnessing the computational power of quantum computers, this project aims to develop faster and more accurate city-scale CFD simulations, ultimately positioning Canada as a leader in quantum software development in alignment with Canada's National Quantum Strategy.