335-10-127-00-160000

Headers, Male Pins Overview

The Mill-Max 335-10-127-00-160000 is a low-profile header connector designed for surface-mount or board-to-board applications. It features a 127-position configuration with a 2.54mm pitch, providing reliable interconnectivity in compact spaces. The component utilizes gold-plated contacts to ensure stable electrical performance and corrosion resistance over time.

Headers, Male Pins Feature Summary

• Low-profile design minimizes vertical height requirements
• Gold-plated contacts ensure reliable signal transmission
• High-density 127-position layout for compact integration

Headers, Male Pins Applications

• Board-to-board interconnects
• Surface-mount PCB assemblies
• Compact electronic device integration

Headers, Male Pins Procurement Notes

Verify the exact pin count and pitch against schematic requirements before ordering. Confirm that the low-profile form factor aligns with the mechanical envelope constraints of the target assembly. Ensure compatibility with standard reflow soldering profiles for surface-mount technology implementation.

Headers, Male Pins Selection Notes

Select this model when space constraints necessitate a low-height header solution. The 2.54mm pitch offers standard spacing compatibility with common through-hole and surface-mount components. Consider the 127-pin density for high-channel-count applications requiring minimal footprint area.

Headers, Male Pins Part Context

This part belongs to the Mill-Max 335 series, which specializes in low-profile interconnect sockets and headers. The series is engineered for applications where minimizing vertical clearance is critical while maintaining robust electrical connectivity standards across various industrial and consumer electronics sectors.

Headers, Male Pins Replacement Considerations

Direct substitutes within the 335 series with matching pin counts should be evaluated. Verify that alternative headers maintain identical pitch dimensions and contact plating specifications to ensure functional equivalence without mechanical interference.