Welcome to The Quantum Insider: Breaking News in Quantum Computing
Insider Brief
- BQP announced a major milestone in simulating Computational Fluid Dynamics (CFD) using a hybrid quantum-classical solver, achieving jet engine simulations with just 30 logical qubits.
- The BQPhy® platform demonstrated that quantum computing can surpass classical methods, which required 19.2 million compute cores, offering greater efficiency and accuracy for engineers.
- BQP’s breakthrough could democratize large-scale CFD simulations, with applications in aerospace and other fields, and has been accepted for presentation at the 2025 AIAA SciTech Forum.
BQP Revolutionizes Computational Fluid Dynamics with Quantum Computing
PRESS RELEASE — In a groundbreaking development, BQP, a leading quantum-based engineering simulations startup, has achieved a significant research milestone in simulating Computational Fluid Dynamics (CFD). This milestone was made possible through the use of a hybrid quantum-classical solver as part of BQP’s cutting-edge simulation platform, BQPhy®.
After conducting around 100,000 experiments, BQP researchers published their findings in a paper where they revealed that large-scale CFD simulations, such as those of jet engines, can be achieved with just 30 logical qubits on a quantum computer. This breakthrough offers improved accuracy, efficiency, and cost-effectiveness compared to traditional methods that rely on millions of compute cores.
Abhishek Chopra, BQP’s founder, CEO, and Chief Scientific Officer, emphasized the impact of this study on democratizing large-scale CFD simulation. He highlighted that when quantum computers become utility-scale, engineers will have easier access to advanced simulations using quantum technology.
The Future of Quantum Computing in Engineering Simulations
Continued research by BQP suggests that quantum computing has the potential to revolutionize how simulations are performed, empowering engineers to explore new design possibilities and engineering solutions. With quantum technology, the limitations of traditional computing methods can be surpassed, enabling innovative approaches in various industries, including aerospace and beyond.
Dan Hart, former CEO of Virgin Orbit, hailed BQP’s results as a game-changer in flow field analysis and simulation. The increased computing power provided by quantum solutions opens up new avenues in aerospace development, ensuring enhanced design confidence and proactive maintenance strategies throughout an aircraft’s lifespan.
Through the use of BQPhy’s Hybrid Quantum Classical Finite Method (HQCFM) solver, BQP scientists evaluated the scalability, accuracy, and consistency of quantum simulations for jet engines. The study showcased the solver’s ability to handle complex non-linear, time-dependent Partial Differential Equations (PDEs) with remarkable accuracy and efficiency.
BQP anticipates that their solver will enable CFD engineers to simulate entire aircrafts, improving flight performance in turbulent conditions. This advancement could accelerate aerospace development timelines significantly, providing engineers with the tools to achieve state-of-the-art simulations decades ahead of current projections.
Partnering for Quantum Solutions
BQP is eager to collaborate with organizations that share their vision for advancing quantum computing solutions. Through partnerships with academic institutions, government research agencies, industry leaders, and top academic institutes, BQP aims to drive innovation in quantum technology and its applications in engineering simulations.
Don’t miss the extension of this study at the American Institute of Aeronautics and Astronautics SciTech Forum in January 2025. Join us at the world’s largest aerospace research, development, and technology event to learn more about the future of quantum computing in engineering simulations.