

Webinar: November 11 (Wed) 11:00 AM EST
Quantum hardware is racing toward utility scale, but with teams pursuing very different qubit architectures, comparing progress has never been harder. Qubit counts, gate fidelities, and isolated demonstrations each tell part of the story, but what’s missing is a holistic picture.
Changing that is QUOPS (Quantum Universal Operation Performance System) which was developed by Sandia National Laboratories. QUOPS provides a benchmark that measures computational capability directly, so platforms can be compared on equal footing, no matter which qubits they're built with.
QUOPS has already been measured on leading physical-qubit processors from Quantinuum, Google, and IBM, and on a fault-tolerant logical-qubit processor built on Quantinuum Helios. You'll be hearing much more about QUOPS as it gains traction across the industry. This webinar is your chance to get ahead of it.
Why the industry needs QUOPS. This webinar will explain why existing metrics fall short and why a direct measure of computational capability matters as the field moves toward useful quantum computing.
What is the theory behind the benchmark. Researchers will explain how QUOPS works, what it measures, and why it makes fair comparisons possible across very different hardware.
How does QUOPS work on physical hardware. We will walk through how QUOPS is measured in practice and what the results show for leading physical-qubit processors, including Quantinuum's own systems.
What is the logical leap and what comes next. We will share QUOPS results from a fault-tolerant logical-qubit processor built on Helios, discuss what changes when computation moves to the logical layer, and look ahead to what the benchmark will reveal as systems scale.
Live Q&A. Put your questions directly to our industry experts.
Who should attend? Researchers, engineers, technical decision makers, and anyone who wants a clearer, more rigorous way to judge the quantum computing progress.


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Michael is a fellow physicist at Quantinuum working on theoretical aspects quantum computation with trapped ions. His research is currently focused mainly on near-term applications of quantum computers, especially to solving problems in quantum many-body physics. Before joining Quantinuum, Michael worked on a variety of topics at the interface of atomic physics, quantum optics, condensed-matter physics, and quantum information.