Home | Registration | Program |
The potential of quantum computing to transform the pharmaceutical and chemical industries is gaining widespread attention. This workshop aims to critically assess claims suggesting a future quantum advantage in these industries. As a cornerstone of our discussion, we will explore the latest advances that exploit the quantum phase estimation (QPE) routine for ground-state energy computations. These advances pave the way for future accurate ground-state computations of strongly correlated systems beyond classical computers' reach. We assess the potential of those computations for accelerating the discovery of new materials, optimizing chemical reactions, and enhancing drug design processes.
In addition, we will discuss the latest algorithmic advances beyond ground-state energy calculations and the latest developments in hybrid and early fault-tolerant quantum-classical workflows, with the aim of better understanding the timeline toward first quantum advantages in industrial applications. This workshop will foster collaborations among academic researchers and industry professionals to improve quantum algorithms for complex and high-impact applications. Through expert-led presentations and interactive discussions, attendees will gain a deep understanding of the current challenges and opportunities and the timeline for industrial applications of quantum computers. The workshop offers a platform for participants to exchange ideas, explore potential partnerships, and actively contribute to shaping the future of quantum computing in the industry.
The workshop will critically evaluate the transformative potential of quantum computing in the pharmaceutical and chemical industries. Its purpose is to focus on quantum phase estimation for ground-state energy computations and other algorithmic advances to accelerate material discovery, optimize chemical reactions, and enhance drug design while also fostering collaboration between academia and industry to advance quantum applications.