2041021-1

The 2041021-1 from TE Connectivity AMP Connectors delivers breakthrough performance in Memory Connectors - PC Card Sockets for quantum computing applications. This cryogenic-ready connector system maintains signal integrity at temperatures down to 4K while providing ultra-low thermal conductivity.Supporting Secure Digital - SD interfaces, the connector enables reliable interconnects between room-temperature and cryogenic environments. Its thermal-break design minimizes heat leakage into superconducting circuits.The 11 (9 + 2) configuration has been optimized for qubit control signal distribution. The carefully spaced contacts prevent cross-talk in sensitive quantum measurement systems.Featuring Connector architecture, this connector achieves vacuum compatibility down to 10^-9 Torr. The hermetic seals prevent outgassing contamination in ultra-high vacuum chambers.The Push In, Pull Out mechanism enables operation with cryogenic gloves. The oversized controls provide positive engagement feedback in low-temperature environments.Designed for Surface Mount, Right Angle installation, the connector supports both dilution refrigerator and cryostat mounting. Its low-thermal-mass design minimizes cool-down time.Incorporating Board Guide, this connector provides magnetic shielding exceeding 80dB at DC. The mu-metal enclosure protects sensitive quantum states from external magnetic interference.The 0.130" (3.30mm) ultra-compact profile fits within tight cryogenic probe stations. The minimized cross-section reduces thermal loads in multi-layer quantum devices.The Normal, Standard - Top option enables precision alignment for superconducting qubit chips. The kinematic mount provides micron-level repeatability for quantum coherence measurements.Utilizing Gold technology, the contacts maintain stable resistance through thermal cycling. The specialized plating prevents cold welding at cryogenic temperatures.With atomically-controlled 30.0µin (0.76µm), the contacts achieve consistent performance across all quantum states. The deposition process has been optimized for quantum coherence preservation.