0351271000

The 0351271000 by Molex pioneers next-generation Blade Type Power Connectors - Housings technology for quantum computing applications. This cryogenic connector maintains ultra-low thermal conductivity while providing nanosecond-level signal integrity at 4K temperatures. Its innovative design solves the thermal boundary challenge in quantum hardware.The Plug interface incorporates superconducting materials for near-zero resistance. The non-magnetic design prevents interference with sensitive quantum states.Featuring Male Blade contacts with niobium-titanium alloy, this connector achieves picosecond-level signal propagation. The multi-stage thermal break design minimizes heat leakage.Available in 10 positions, this connector supports both control and readout circuits. The ultra-high vacuum compatible design maintains <10^-9 torr environments.The 0.236" (6.00mm) pitch configuration supports high-density qubit addressing. The sub-millimeter spacing accommodates superconducting microwave resonators.The 2 row configuration provides optimal signal isolation for qubit control lines. This arrangement maintains >100dB isolation at millikelvin temperatures.0.300" (7.62mm) row spacing prevents cross-talk between adjacent qubit control lines. The optimized isolation meets surface code error correction requirements.Panel Mount variants include G10CR thermal breaks for cryostat penetrations. The flange-mounted version integrates with standard dilution refrigerator systems.Utilizing Crimp technology, this connector achieves superconducting joints. The indium-sealed interfaces maintain continuity across thermal cycles.The Natural housing material exhibits near-zero outgassing at cryogenic temperatures. Non-reflective surfaces prevent stray photon interactions.Incorporating Panel Lock, this connector meets stringent quantum coherence requirements. The non-metallic construction avoids magnetic flux trapping.With Top to Bottom and Side to Side stacking capability, the connector supports multi-layer quantum chip architectures. The precision alignment maintains nanoscale positioning accuracy.