A non binding memorandum of understanding pairs UC Berkeley's open quantum hardware testbeds with QuantrolOx's machine learning control software at a shared Berkeley research hub.
UC Berkeley's physics department and QuantrolOx, a quantum-automation software vendor, signed a five-year, non-binding memorandum of understanding effective July 7, 2026, to put the most manual step in running a superconducting quantum computer onto a shared, software-driven workflow. That step is calibrating each qubit (the basic unit of a quantum processor) by hand, lab by lab. The partners say the new workflow should travel cleanly from one machine to the next (Quantum Computing Report).
The pact pairs Berkeley's open, "white-box" superconducting qubit testbeds with QuantrolOx's Quantum EDGE software, a machine-learning calibration stack. It is housed at the Roger Herst Quantum Nexus, a Berkeley quantum-hardware hub the source positions as a shared workspace for academic researchers and QuantrolOx engineers. Named leads are Irfan Siddiqi and Vishal Chatrath.
Five workstreams give the agreement operational shape: end-to-end workflow automation, from materials research through quantum process design kits, electronic design automation, packaging, and failure analysis; integrated quantum control architecture for low-latency instrument interconnects and cryogenic control electronics; physics-aware AI for autonomous qubit characterization and real-time calibration; a workforce-development track built around QuantrolOx's Quantum EDGE Academy; and joint seminars plus reciprocal researcher visits.
The agreement is deliberately non-binding, and commercial-scale superconducting quantum computers do not yet exist. The five-year horizon is itself a public signal that no one in the field expects reproducibility to be a quick fix. The IP question the source leaves implicit, who keeps access to calibration software developed against publicly supported open hardware, is the one to watch as the work gets underway.