AXT520124

The AXT520124 from Panasonic Electric Works revolutionizes Rectangular Connectors - Arrays, Edge Type, Mezzanine (Board to Board) for medical device applications. This biocompatible connector solution meets ISO 13485 standards, offering exceptional reliability for life-critical systems while enabling miniaturization of portable medical equipment.Medical-grade Socket, Outer Shroud Contacts design incorporates features that prevent fluid ingress and bacterial growth. The smooth surfaces facilitate cleaning while maintaining >10G insulation resistance after sterilization cycles.Available in 20 configurations, the connector supports both low-power sensor interfaces and high-current therapeutic device requirements. The isolated power contacts prevent leakage current in patient-connected applications.The 0.016" (0.40mm) spacing has been optimized for medical PCB layouts requiring high-density interconnects. The anti-wicking design prevents fluid migration between adjacent contacts.The 2 row architecture provides optimal signal isolation for sensitive biopotential measurements. This configuration reduces crosstalk to levels suitable for ECG and EEG applications.Designed for Surface Mount installation in medical devices, the connector withstands repeated sterilization processes. The materials are compatible with ethylene oxide, gamma radiation, and steam autoclave methods.Critical Solder Retention include radiopaque markers for X-ray detection and color-coded mating guides. These medical-specific enhancements improve device safety and usability in clinical environments.The Gold formulation prevents oxidation while maintaining biocompatibility. Extensive testing confirms no cytotoxic effects according to ISO 10993-5 standards.Flexible 1mm options accommodate various enclosure designs in medical equipment. The stackable configuration supports modular device architectures.The 0.038" (0.97mm) profile allows for proper cleaning under the connector in surgical instruments. This design consideration prevents biological material accumulation.