0351510410

Designed for next-generation power systems, the 0351510410 by Molex sets new standards in Blade Type Power Connectors - Housings performance. This connector combines military-grade reliability with cutting-edge materials science to deliver uncompromising power transmission capabilities. Its innovative architecture supports both current and future power delivery requirements.The Receptacle interface provides foolproof mating in low-visibility conditions. The hermaphroditic design reduces inventory complexity by 50% compared to gendered alternatives.Female Blade Socket, Male Blade contacts employ beryllium copper alloys for exceptional spring properties. The multi-finger contact design distributes current flow evenly across multiple contact points.Configurable in 4 positions, this connector adapts to evolving system architectures. The position count can be customized without tooling changes for prototype development.With 0.244" (6.20mm) pitch configuration, this connector supports high-voltage differential signaling. The optimized spacing minimizes mutual inductance between adjacent circuits.The 2 row matrix configuration supports parallel power paths for redundancy. This arrangement maintains circuit integrity even if individual contacts degrade.0.350" (8.90mm) row spacing accommodates reinforced insulation for medical applications. The extended clearance meets reinforced insulation requirements for patient-connected devices.Free Hanging (In-Line) versions include integrated EMI shielding for sensitive applications. The panel-mount variant features conductive gaskets for chassis grounding.Employing Crimp technology, this connector achieves gas-tight connections resistant to thermal cycling. The mechanical crimp produces metallurgical bonding without heat-affected zones.The Natural housing incorporates flame-retardant additives meeting UL94 V-0 standards. Color-coded versions support quick visual verification during quality inspections.The Top to Bottom and Side to Side stacking orientation enables compact power distribution in rack-mounted systems. The interlocking design prevents misalignment during vibration.