Quantum Motion demonstrated a fast new spin qubit readout method in silicon, combining 8 μs performance, signal amplification, and 300mm manufacturing compatibility to support scalable quantum computing.
Research
Quantum Motion implements a streaming cryogenic quantum error correction decoder on commercial FPGAs
16 Sep, 2026
Quantum Motion has implemented a streaming error correction decoder for the surface code, called Snowflake. It runs on commercial field-programmable gate arrays (FPGAs) at cryogenic temperatures. This work demonstrates that a streaming decoder can operate in real-time on standard commercial […] Read more
Quantum Motion demonstrates a new high-performance readout method for spin qubits
Quantum Motion demonstrated a fast new spin qubit readout method in silicon, combining 8 μs performance, signal amplification, and 300mm manufacturing compatibility to support scalable quantum computing.
Method for Efficient Large-Scale Cryogenic Characterization of CMOS Technologies
NPL and Quantum Motion published research on testing thousands of silicon transistors at cryogenic temperatures. Using an on-chip multiplexer, the method enables faster large-scale device characterization essential for developing cryogenic control chips for scalable quantum computing.
Exchange Control in a MOS double quantum dot made using a 300mm wafer process
In our latest paper, our team have demonstrated exchange control, which forms the basis for two-qubit gates between spin qubits, in an MOS Double quantum dot device fabricated using a 300 mm wafer metal-oxide-semiconductor (MOS)...
Measurement of cryoelectronics heating using a local quantum dot thermometer in silicon
Integrating classical electronics alongside quantum devices in silicon offers the possibility of building truly scalable quantum computers. However, to ensure these hybrid chips succeed, we need to understand how the power...
Probabilistic Interpolation of Quantum Rotation Angles
Moving from the 8-bit Nintendo Entertainment System to the 16-bit SNES, unlocked richer virtual worlds due to the increased bits of resolution. Increasing the resolution of electronic systems used to control qubits would...