EeroQ Validates CMOS-Controlled Electron Shuttling on Superfluid Helium for All-to-All Qubit Routing - Quantum Computing Report

Skip to content

GQINewsNews Archive 2025News Archive 2024News Archive 2023News Archive 2022News Archive 2021News Archive 2020News Archive 2019News Archive 2018News Archive 2015-2017AnalysisQnalysisPlayersPublic CompaniesPrivate/Startup CompaniesUniversitiesGovernment/Non-ProfitVenture CapitalVenture Capital – Sorted by Quantum CompanyResourcesConferencesToolsOther Websites and Industry AssociationsEducationBooksScorecardsGate Level Software PlatformsIBM Qiskit, Rigetti Forest, Microsoft QDK, Project QReview of the Cirq Quantum Software FrameworkQubit Implementation DashboardQubit CountQubit QualityQubit TechnologySoftware/Startup PartnersCloud Platform Hardware PartnersPodcastsAboutQCR Alerts Sign-Up FormAdvertising InquiriesQCR in the NewsContactPrivacy PolicyMembership

EeroQ Validates CMOS-Controlled Electron Shuttling on Superfluid Helium for All-to-All Qubit Routing

Schematic rendering of EeroQ’s Wonder Lake chip stack.

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.