QTREX Reports Interconnect Platform Exceeds Partner RF Benchmarks

Results: QTREX reports its interconnect platform exceeded partner RF benchmarks in qualification testing.Metrics: Stated performance includes 10 MHz–20 GHz transmission, ≥68 dB isolation, 4.4 ps skew, and <0.3 Ω impedance variation.Outlook: The company says results support continued commercial evaluation for dense quantum systems.On July 31, 2026, QTREX Quantum Ltd. (Nasdaq: QTEX), a company focused on advancing Additively Manufactured Electronics for quantum computing infrastructure, announced its proprietary printed coaxial quantum interconnect platform exceeded the RF performance requirements established by the company’s strategic partners as part of the qualification process.The company reports measured results across isolation, timing precision, broadband transmission, and manufacturing consistency. The results address scalability constraints as quantum systems increase the number of simultaneous control and readout channels in dense hardware environments.The company did not disclose partner identities, test conditions, or whether results were independently validated. Measurement conditions, including temperature, interconnect length, and channel density, were not specified.QTREX shared an RF characterization protocol evaluated QTREX’s proprietary coaxial shielding architecture against thresholds supplied by strategic partners. According to the company, measured performance exceeded those requirements across four critical parameters:Continuous Broadband Transmission: Continuous operation from 10 MHz through 20 GHz with no significant resonance or discontinuity.Isolation: Crosstalk suppression maintained at a minimum of 68 dB below the source signal across the entire measured band.Picosecond-Level Precision: Average channel-to-channel skew above 1 GHz of only 4.4 picoseconds; group delay between 1.020 and 1.022 nanoseconds, a 2-picosecond absolute delay spread.Manufacturing Consistency: Average insertion-loss variation of 0.33 dB, characteristic impedance variation of less than 0.3 ohms, and forward-reverse transmission agreement within 0.06 dB.These attributes are material to quantum system scaling. Isolation at the reported level limits unwanted coupling between sensitive qubit control and readout lines. Sub-5-picosecond channel matching supports precise multi-channel timing coordination required for coherent operations. Broadband continuity without discontinuities accommodates the frequency ranges used in contemporary control electronics, while the demonstrated manufacturing consistency supports repeatable production of high-density interconnect structures.The platform is realized through QTREX’s Additively Manufactured Electronics process, which integrates conductive, dielectric, and shielding elements into monolithic structures rather than discrete assemblies.“Quantum processors cannot scale without equally advanced infrastructure to connect, control and read them,” said Dagi Ben-Noon, Chief Executive Officer of QTREX. “By exceeding these externally defined performance requirements, the results remove a critical technical barrier and validate the readiness of our proprietary platform for commercial application development. To the best of our knowledge, no directly comparable interconnect platform currently offers this combination of isolation, timing precision and integrated architecture, placing QTREX in a category of its own within the emerging quantum connectivity market.” By exceeding these externally defined performance requirements, the results remove a critical technical barrier and validate the readiness of our proprietary platform for commercial application development. To the best of our knowledge, no directly comparable interconnect platform currently offers this combination of isolation, timing precision and integrated architecture. High-density quantum systems face increasing risk of unwanted coupling, timing mismatch, and system complexity as the number of control and readout channels grows. The validated architecture is intended to support application-specific connectivity components for quantum processors, cryogenic control and readout systems, and related high-frequency environments.The company expects the results to advance existing strategic engagements and strengthen the technical foundation for evaluation, product definition, and development programs with participants across the quantum hardware ecosystem. This performance milestone follows recent commercial activity, including a purchase order for Shielded RF Monolithic components and the launch of a research collaboration with Northeastern University focused on advanced micro-system structures for cryogenic quantum interconnects, under which QTREX holds a first option to negotiate commercial licenses to project-generated intellectual property.QTREX has demonstrated RF performance exceeding partner-defined thresholds, validating its interconnect platform for commercial quantum connectivity development.SoftBank Corp. and Quantinuum released Quantum Computing Frontiers in July 2026, mapping quantum chemistry and topological data analysis against Quantinuum’s hardware roadmap. The paper highlights SEALSQ Corp announced it is initiating early commercialization of Miraex SA quantum photonics technology on July 31, 2026. The company states it completed the 100% IBM and partners from the University of Chicago, Qedma, and Algorithmiq announced three demonstrations of verified quantum results on July 30, 2026. Using Heron processors, These attributes are material to quantum system scaling. Isolation at the reported level limits unwanted coupling between sensitive qubit control and readout lines. Sub-5-picosecond channel matching supports precise multi-channel timing coordination required for coherent operations. Broadband continuity without discontinuities accommodates the frequency ranges used in contemporary control electronics, while the demonstrated manufacturing consistency supports repeatable production of high-density interconnect structures. The platform is realized through QTREX’s Additively Manufactured Electronics process, which integrates conductive, dielectric, and shielding elements into monolithic structures rather than discrete assemblies.“Quantum processors cannot scale without equally advanced infrastructure to connect, control and read them,” said Dagi Ben-Noon, Chief Executive Officer of QTREX. “By exceeding these externally defined performance requirements, the results remove a critical technical barrier and validate the readiness of our proprietary platform for commercial application development. To the best of our knowledge, no directly comparable interconnect platform currently offers this combination of isolation, timing precision and integrated architecture, placing QTREX in a category of its own within the emerging quantum connectivity market.”High-density quantum systems face increasing risk of unwanted coupling, timing mismatch, and system complexity as the number of control and readout channels grows. The validated architecture is intended to support application-specific connectivity components for quantum processors, cryogenic control and readout systems, and related high-frequency environments. The company expects the results to advance existing strategic engagements and strengthen the technical foundation for evaluation, product definition, and development programs with participants across the quantum hardware ecosystem. This performance milestone follows recent commercial activity, including a purchase order for Shielded RF Monolithic components and the launch of a research collaboration with Northeastern University focused on advanced micro-system structures for cryogenic quantum interconnects, under which QTREX holds a first option to negotiate commercial licenses to project-generated intellectual property.QTREX has demonstrated RF performance that exceeds partner-defined thresholds, validating its interconnect platform for commercial quantum connectivity development.SoftBank Corp. and Quantinuum released Quantum Computing Frontiers in July 2026, mapping quantum chemistry and topological data analysis against Quantinuum’s hardware roadmap. The paper highlights SEALSQ Corp announced it is initiating early commercialization of Miraex SA quantum photonics technology on July 31, 2026. The company states it completed the 100% IBM and partners from the University of Chicago, Qedma, and Algorithmiq announced three demonstrations of verified quantum results on July 30, 2026. Using Heron processors, These attributes are material to quantum system scaling. Isolation at the reported level limits unwanted coupling between sensitive qubit control and readout lines. Sub-5-picosecond channel matching supports precise multi-channel timing coordination required for coherent operations. Broadband continuity without discontinuities accommodates the frequency ranges used in contemporary control electronics, while the demonstrated manufacturing consistency supports repeatable production of high-density interconnect structures. The platform is realized through QTREX’s Additively Manufactured Electronics process, which integrates conductive, dielectric, and shielding elements into monolithic structures rather than discrete assemblies.“Quantum processors cannot scale without equally advanced infrastructure to connect, control and read them,” said Dagi Ben-Noon, Chief Executive Officer of QTREX. “By exceeding these externally defined performance requirements, the results remove a critical technical barrier and validate the readiness of our proprietary platform for commercial application development. To the best of our knowledge, no directly comparable interconnect platform currently offers this combination of isolation, timing precision and integrated architecture, placing QTREX in a category of its own within the emerging quantum connectivity market.”High-density quantum systems face increasing risk of unwanted coupling, timing mismatch, and system complexity as the number of control and readout channels grows. The validated architecture is intended to support application-specific connectivity components for quantum processors, cryogenic control and readout systems, and related high-frequency environments. The company expects the results to advance existing strategic engagements and strengthen the technical foundation for evaluation, product definition, and development programs with participants across the quantum hardware ecosystem. This performance milestone follows recent commercial activity, including a purchase order for Shielded RF Monolithic components and the launch of a research collaboration with Northeastern University focused on advanced micro-system structures for cryogenic quantum interconnects, under which QTREX holds a first option to negotiate commercial licenses to project-generated intellectual property.QTREX has demonstrated RF performance that exceeds partner-defined thresholds, validating its interconnect platform for commercial quantum connectivity development.SoftBank Corp. and Quantinuum released Quantum Computing Frontiers in July 2026, mapping quantum chemistry and topological data analysis against Quantinuum’s hardware roadmap. The paper highlights SEALSQ Corp announced it is initiating early commercialization of Miraex SA quantum photonics technology on July 31, 2026. The company states it completed the 100% IBM and partners from the University of Chicago, Qedma, and Algorithmiq announced three demonstrations of verified quantum results on July 30, 2026. Using Heron processors, Sign up to receive our newsletter and other reports.We keep your data private and share your data only with third parties that make this service possible. Read our privacy policy for more info.Check your inbox or spam folder to confirm your subscription.