Resource Center

Leonardo Bove is a PhD student in Computer Science at Northwestern University, focusing on the hardware–software interface of quantum computing. He previously worked at Fermilab’s SQMS Center on superconducting qubit calibration using Quantum Machines’ OPX1000 platform.

Jonathan Reiner is Director of Product Solutions at Quantum Machines, where he translates cutting-edge quantum science into products that meet the needs of a fast-moving industry. He brings a rare arc from academia to product leadership: Jonathan earned his Ph.D. in Condensed Matter Physics at the Weizmann Institute of Science (STM studies of semiconducting nanowires), after an M.Sc. in Physics (SQUID-on-tip, advised by Prof. Eli Zeldov) and a B.Sc. in Physics & Mathematics from the Hebrew University. He then led research as a Post-Doctoral Fellow at UNSW’s Centre for Quantum Computation & Communication Technology under Prof. Michelle Simmons. At QM, Jonathan progressed from Product Manager to Product Team Leader and now Director, driving innovation and customer-centric solutions across the portfolio.

Mike Asker is the Co-Founder of Equal1 Labs, where he is helping pioneer scalable, CMOS-based quantum computing. With a background bridging semiconductor technology and system integration, Mike focuses on developing compact, cryo-integrated quantum platforms that bring practical quantum computing closer to reality. At Equal1, he plays a key role in advancing silicon spin qubit architectures designed for real-world deployment and scale.

Prof. Dr. Marius Grundmann is co-founder and CEO of SaxonQ, a University of Leipzig spin-off developing room-temperature, diamond-based NV-center quantum computers. He is Professor of Experimental Physics and Semiconductor Physics at Leipzig University, where he also serves as Dean of the Faculty of Physics and Earth System Sciences. With nearly 700 peer-reviewed publications and 40 years of experience in semiconductor physics, Grundmann has led SaxonQ’s development of a patented sulfur co-implantation process that raised NV-center qubit fabrication yield from roughly 10% to 85%, enabling the company’s SXQ128 and SXQ512 systems — the first diamond-based NV-center processors to exceed ten physical qubits.