6-172383-6

TE Connectivity AMP Connectors's 6-172383-6 represents a breakthrough in Terminals - Housings, Boots technology, designed for mission-critical connectivity solutions. This component combines advanced materials science with precision engineering to deliver unmatched performance in harsh operating conditions.The Housing architecture incorporates strain relief features that exceed MIL-STD-1344 requirements. Its multi-chamber design provides independent isolation for each contact, significantly improving insulation resistance.Specialized for Quick Connect, Disconnect implementations, this product features gold-plated contacts that maintain stable contact resistance below 5m . The proprietary contact geometry ensures positive engagement throughout the product lifecycle.Engineered with Male, Tab interfaces, this solution prevents accidental disconnection in high-vibration environments. The self-cleaning contact design maintains reliable electrical continuity despite contamination exposure.Precision-machined to 0.250" (6.35mm) specifications, these terminals demonstrate exceptional resistance to fretting corrosion. The optimized contact geometry reduces insertion wear by 40% compared to conventional designs.The 2 configuration supports modular system expansion while maintaining signal integrity. Each position features independent polarization to prevent misinsertion during field servicing.With Perpendicular alignment capability, this product enables customized wiring topologies. The interlocking feature prevents accidental separation during vibration or shock events.Compatible with 0.250" (6.35mm) Quick Connects, this housing maintains stable mechanical properties from -40 C to 105 C. The halogen-free material composition meets stringent environmental regulations.Panel Mount implementation allows for space-efficient panel designs without compromising serviceability. The integrated locking mechanism provides audible engagement confirmation during installation.The Gray coding system facilitates quick identification in complex wiring harnesses. The high-temperature resistant pigment remains stable under prolonged thermal exposure.