IQT News June 10: Quantum Chemical & Quantum Life Science
Welcome back to IQT’s Quantum Chemical and Quantum Life Science News June 3-10, 2026
IQT News opens this week with recent coverage of quantum technology at chemistry and life science flagship events followed by a listing of related quantum tech articles and authors from those chemistry and life science sectors. The topics, companies, and speakers’ affiliations all provide a snapshot overview of what companies and thought leaders in those two sectors (chemistry and life science) are focusing on quantum-wise and what they will each be working on next.
Today’s event coverage is designed to help quantum technology professionals understand the how both the Chemistry and Life Science industries are viewing their future efforts in quantum technology.
Secondly, IQT has also surveyed scientific and also business publications (such as the Financial Times) provide links giving to provide our quantum tech readership with insight into both quantum chemistry and quantum life science/biopharma and their coverage of quantum tech as well as their respective coverage in news publications.
Quantum Chemical Coverage at Chemical Industry Events
Quantum Chemistry on Program at the 2026 Spring American Chemistry Society (ACS) Conference
- Seminar: “Near-term Quantum Computing Applications in Chemistry,” exploring practical, current-era quantum applications (e.g., Qiskit/IBM Quantum). Organizers of this session were: 1) Vivian Crum, American Chemical Society; 2) Dr. Rodrigo Neumann Ferreria, IBM Senior Research Scientist and 3) Jamie Garcia, IBM
- Symposium: “Prospects of Quantum Computing for Quantum Chemistry: Embedding & Early Fault-Tolerant Quantum Computing Methods”.
- Context: Experts consider 2026 a pivotal year where quantum computers may start shifting from theory to practical chemical calculations.
Areas where quantum computing has been predicted to provide an advantage over classical computing for chemistry include the simulation of (bio)chemical systems, calculations of energetics (e.g. ground and excited states) for molecular systems, modeling complex chemical dynamics, and more.
Quantum Chemistry Featured in Publications
The Journal of the American Chemical Society (JACS) has published numerous studies utilizing quantum chemistry to uncover molecular mechanisms, catalysis, and reaction dynamics. Notable articles leverage advanced computational modeling to complement experimental data. Two such articles are referenced below:
1) The Critical Role of Chemistry in Advancing Quantum Information Science Authors: Linda Nhon and Theodore Goodson III* QIS has reached an inflection point for new discoveries; searching for novel quantum molecular materials that are operational, practical, and efficient is now the new frontier. Since chemistry is the study of manipulating molecular properties across different lengths and time-scales, it has a tremendous opportunity to take a leading role in this untapped domain.
2) The Quantum Information Science Challenge for Chemistry Authors: Gregory D. Scholes, Alexandra Olaya-Castro, Shaul Mukamel Adam, Kirrander, Kang-Kuen Ni, Gordon J. Hedley, Natia L. Frank; Authors discuss the goals and the need for quantum information science (QIS) in chemistry. It is important to identify concretely how QIS matters to chemistry, and we articulate some of the most pressing and interesting research questions Parallel iQCC Enables 200 Qubit Scale Quantum Chemistry on Accelerated Computing Platforms Surpassing Classical Benchmarks in Ruthenium Catalysts
______________________________________________
Quantum in Life Science Coverage at Life Science Events
Leading experts in AI-driven drug design, quantum algorithms, and computational chemistry will discuss how emerging quantum methods can accelerate target identification and compound optimization. Attendees can expect to hear about the practical challenges of integrating quantum computing into today’s pharmaceutical R&D pipelines and highlight early collaborations demonstrating how quantum advantage could shorten timelines and improve accuracy in the search for new therapies. Attendees will leave with a view of where quantum can create real R&D value in the near term, and what milestones must be reached to unlock breakthrough impact at scale.
Life Science on Program of Bio International Conference
Quantum Computing in Drug Discovery
This session will explore how quantum computing is poised to redefine the frontiers of drug discovery by solving complex molecular and optimization problems that exceed the limits of classical computing. Leading experts in AI-driven drug design, quantum algorithms, and computational chemistry will discuss how emerging quantum methods can accelerate target identification and compound optimization. Attendees can expect to hear about the practical challenges of integrating quantum computing into today’s pharmaceutical R&D pipelines and highlight early collaborations demonstrating how quantum advantage could shorten timelines and improve accuracy in the search for new therapies
Alex Philippidis; Senior Business Editor, Genetic Engineering & Biotechnology News (GEN)
Elena Bonfiglioli; Global Business Leader, GM Healthcare, Pharma Life Sciences; Microsoft
Anthony Costa, PhD, Director, Digital Biology; NVIDIA
Alex Zhavoronkov, PhD; CEO & Founder Insilio Medicine
Quantum Life Science Featured in Publications
Financial Times: Quantum computing moves closer to drug discovery with enzyme study at Cleveland Clinic Author: Clive Cookson
A collaboration between the Cleveland Clinic and IBM in the USA and the Riken Ceter for Computational Science in Japan to model the behavior of protein molecules and successfully simulated the way two enzymes interact with potential drugs. Their work marks an important advance and underscores quantum computing’s emerging role role on systems of relevance to drug discovery,” said Kenneth Merz, who led the study at Cleveland Clinic in Ohio. Their work was published in Quantum Physics and is referenced next.
Quantum Physics: Crossing the 12,000-atom barrier with heterogeneous quantum-classical supercomputing: quantum chemistry of protein-ligand complexes
