en.Wedoany.com Reported - Quantum network hardware company Qunnect has established a strategic partnership with Monarch Quantum to advance the commercialization, miniaturization, and scalable manufacturing of entanglement-based quantum network hardware. The two companies will combine Qunnect's field-deployed entanglement distribution technology with Monarch Quantum's capabilities in photonic system engineering, product packaging, and scalable manufacturing to jointly build modular, ruggedized variants of Qunnect's Carina turnkey entanglement platform.
Monarch Quantum brings expertise in robotics and machine-vision-guided manufacturing to improve the cost, size, and reliability of photonic systems. The company focuses on co-packaged optics and precise component alignment, using robotic assembly to reduce photonic loss within systems, outperforming manual assembly. Monarch Quantum will relocate to a 60,000-square-foot facility in San Diego by the end of the year, while expanding an 8,000-square-foot cleanroom slated to begin operations in September, equipped with 20 to 25 robotic assembly stations.
For Qunnect, this partnership will reduce its system cost and size by severalfold. The current Carina platform includes hardware such as photon generators, polarization compensators, and photon detectors, integrated into a 36U rack-mount panel; with improvements in integrated photonics, the goal is to shrink the entire system to a 2U or 3U form factor, depending on whether non-cryogenic photon detectors can be integrated into the optical packaging.
Next-generation hardware targets deployment environments with constrained size, weight, power, and operating conditions, such as satellites, defense platforms, remote infrastructure, edge computing, telecommunications, and the Internet of Things. Qunnect's subsequent products will include a version of Carina codenamed Orian, packaged for specific use cases, such as quantum position verification (QPV) for verifying server or client locations, and quantum alarms that monitor network security by detecting fiber-optic eavesdropping attempts.
