1703510002

The 1703510002 from Molex is a high-performance Blade Type Power Connectors - Housings engineered for mission-critical power distribution systems. With superior contact reliability and robust construction, this connector ensures uninterrupted power transmission in demanding environments. Its advanced design features cater to modern electrical infrastructure requirements while maintaining backward compatibility.Featuring Receptacle configuration, this connector provides versatile mating options for flexible system integration. When compared to standard gendered connectors, this design eliminates orientation errors during assembly.The Female Blade Socket contact system delivers optimal current-carrying capacity with minimal insertion loss. Precision-formed contacts ensure consistent impedance characteristics across the entire operating range.Available in 2 positions, this connector supports scalable power distribution architectures. Multiple position options allow designers to balance space constraints with power requirements.The 0.433" (11.00mm) pitch configuration balances current capacity with packaging density. This spacing minimizes crosstalk between adjacent power circuits in compact assemblies.With 1 row configuration, the connector maintains compact dimensions while providing sufficient current paths. The multi-row design enhances thermal dissipation under high-load conditions.The Free Hanging (In-Line) option enables both permanent installations and flexible cable management. Panel mount variants feature reinforced strain relief for vibration-resistant applications.Crimp termination method ensures gas-tight connections that resist oxidation. This process achieves superior mechanical strength and electrical conductivity compared to standard soldering techniques.The Black housing provides visual identification while meeting industry-standard color coding. High-contrast markings improve maintenance accessibility in crowded control panels.Side to Side stacking capability enables high-density configurations in space-constrained applications. The interlocking mechanism maintains alignment during thermal cycling.