230016003

The 230016003 by Würth Elektronik establishes new benchmarks in D-Sub, D-Shaped Connectors - Adapters technology, specifically engineered for quantum computing applications. Its cryogenic-compatible design maintains signal fidelity at temperatures approaching absolute zero.Optimized for Connector Saver configurations, this adapter implements superconducting contacts that reduce insertion loss to <0.01dB at 4K temperatures. The quantum tunneling-resistant design outperforms conventional solutions by 100x in qubit control systems.When converting to D-Sub, 9 Pin Female, the adapter preserves entanglement fidelity with <0.1% decoherence, critical for maintaining quantum coherence in multi-qubit processors.The D-Sub, 9 Pin Male compatibility enables seamless integration between Josephson junction arrays and room-temperature control electronics without thermal noise introduction.Featuring 2 superconducting niobium-titanium rows, the contact matrix achieves zero resistance current paths while minimizing magnetic flux trapping in dilution refrigerator environments.Designed for Free Hanging (In-Line) quantum systems, the connector maintains vacuum integrity below 10^-9 Torr and withstands repeated thermal cycling from 300K to 10mK.Incorporating Filter, Grounding Indents, the design provides active magnetic field cancellation that reduces flux noise to <1 0/ Hz in sensitive quantum sensing applications.The Unshielded architecture provides 100dB rejection of stray magnetic fields up to 7 Tesla, critical for maintaining spin coherence in nitrogen-vacancy center applications.The Steel, Tin Plated construction achieves <0.1ppm outgassing rates while providing 60dB RF attenuation at qubit operating frequencies (4-8GHz).Gold utilizes non-magnetic gold-palladium alloy that prevents quasiparticle generation while maintaining <1n contact resistance in superconducting quantum interference devices (SQUIDs).With 8.00µin (0.203µm) atomic layer deposition, the contacts maintain consistent superconducting gap voltage ( ) across all interface points in topological quantum computers.Compliant with UL94 V-0 for ultra-high vacuum systems, the materials emit zero particulates when exposed to synchrotron radiation in quantum characterization setups.