MK LP 43 32 G

Headers, Male Pins Overview

The MK LP 43 32 G is a low-profile electronic component manufactured by Fischer Elektronik. It features a tin-plated contact surface and a contact sleeve with Ni+46µm Sn plating. The connector provides 32 positions with a pitch of 0.100 inches (2.54mm). It is designed for reliable performance in demanding industrial applications, offering shock resistance and vibration resistance up to 15 g.

Headers, Male Pins Feature Summary

• Low-profile design suitable for space-constrained environments
• Tin-plated contact surface with nickel underplating for durability
• High vibration resistance rated at 15 g for industrial stability

Headers, Male Pins Applications

• Demanding industrial electronic assemblies
• Space-constrained circuit board layouts
• Vibration-prone equipment connections

Headers, Male Pins Procurement Notes

Verify the specific plating thickness and material composition against the official datasheet before procurement. Ensure compatibility with mating connectors regarding pitch and profile height. Confirm that the vibration resistance rating meets the operational requirements of the target application environment.

Headers, Male Pins Selection Notes

Select this component when low profile and high vibration resistance are critical. The 32-position count and 2.54mm pitch define its connectivity scope. Consider the tin-plated contacts for corrosion resistance in standard industrial conditions rather than harsh chemical environments.

Headers, Male Pins Part Context

This part belongs to the MK LP series from Fischer Elektronik, which focuses on low-profile PCB connectors. The series is engineered for robustness in industrial settings, distinguishing itself through enhanced mechanical stability compared to standard commercial-grade connectors.

Headers, Male Pins Replacement Considerations

Direct substitutes within the same series include other position variants like the MK LP 43 33 G or MK LP 43 32 G ECO, provided the electrical and mechanical specifications remain identical.