Intellectual Property

Every quantum computer must overcome errors before it can deliver on its promise. Our machine- learning decoder learns to recognize and correct those errors on any type of quantum hardware and any error-correction code. It opens the door for hardware makers of every size to build reliable, scalable quantum machines faster.

Modern clinical trials generate complex data that can take classical computers days or weeks to analyze. Our method lets a quantum computer explore these data far more efficiently, bringing powerful statistical sampling to continuous, real-world measurements for the first time. The goal: faster interim analyses, smarter adaptive trials, and new medicines reaching patients sooner.

A new gyroscope architecture that measures rotation through the behavior of atomic nuclei in a magnetic field. It points toward compact, ultra-stable navigation that keeps aircraft, ships and autonomous vehicles on course even where GPS is unavailable or jammed.

A compact atomic clock that keeps time by probing rubidium atoms with specially correlated light. Precise timing is the invisible backbone of communications, finance, power grids and navigation; our design aims to bring laboratory-grade precision into a small, deployable device.

As quantum algorithms become valuable assets, their owners will need a way to prove what is theirs. Our technology embeds an invisible, key-based signature inside a quantum circuit, without changing what the circuit does. The signature survives recompilation, so creators can trace, authenticate and protect their quantum software wherever it runs.

Our second statistical tool answers the three core questions of any data analysis at once: how well a model explains the data, what the most likely answer is, and how confident we can be. A single quantum preparation delivers all three, with the greatest speedup exactly where classical methods struggle most. Applications range from detecting anomalies and intrusions in sensor and network telemetry to predicting how drug candidates bind to their targets.

Neutral-atom quantum computers run on a steady supply of ultra-cold atoms. Our design uses specially shaped light, working together with our Zeeman slower, to slow, guide and deliver atoms precisely into the trap that feeds the processor. Faster loading and continuous replenishment of atoms are key steps toward larger quantum computers that run for longer.

A new paradigm for encryption, in which a message is hidden in the quantum phase of a signal and cannot be revealed by measuring it. The sender chooses the security level for each message, and the protection rests on physics, not on how much computing power an attacker has. That makes it resistant to "harvest now, decrypt later" attacks, protecting today's secrets against tomorrow's computers.