Controlled Electron Shuttling on Superfluid Helium for All

Quantum hardware developer EeroQ has successfully demonstrated the transport of electrons on superfluid helium using a commercial CMOS control architecture. This breakthrough suggests a scalable way to manage qubits while avoiding the signal degradation common in solid-state quantum systems.
Why it matters
This research provides a potential solution to the 'wiring bottleneck' in quantum computing, which is a major hurdle for scaling up qubit counts.
Quantum hardware developer EeroQ has published peer-reviewed experimental results demonstrating the selective, two-dimensional transport of electrons on superfluid helium using a commercial silicon control architecture. Published in Physical Review Applied ( “ Selective shuttling of electrons on helium using a CMOS control platform “ ), the research validates the structural integrity of the company’s mobile spin-qubit transport layer. By moving electron packets across an atomically smooth liquid helium film condensed over a standard microelectronics chip, the system achieves lossless, long-distance charge transport—bypassing the material impurities and charge traps that typically cause phase decoherence and signal degradation in solid-state quantum architectures.
The content is a technical report on scientific research and hardware development.
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