351-10-141-00-010000

Headers, Male Pins Overview

The Mill-Max 351-10-141-00-010000 is a vertical header connector designed for through-hole mounting. It features 141 positions arranged in a single row with a 0.100-inch (2.54mm) pitch. The contacts are tin-plated brass alloy pins, offering a gold-free surface finish suitable for general interconnect applications. This component provides reliable electrical connectivity for PCB assemblies requiring high-density pin configurations.

Headers, Male Pins Feature Summary

• Vertical orientation for standard board stacking
• Through-hole termination method for secure PCB attachment
• Tin-plated contact surfaces for corrosion resistance

Headers, Male Pins Applications

• General purpose electronic circuit boards
• Industrial control panel interconnections
• Consumer electronics assembly

Headers, Male Pins Procurement Notes

Verify the specific suffix codes against official Mill-Max documentation to ensure exact dimensional and plating compliance. Confirm that the tin-plated finish meets the environmental requirements of the target application, as this variant differs from gold-plated counterparts in the same series.

Headers, Male Pins Selection Notes

Select this part when a high-pin-count vertical header is required for through-hole implementation. The 141-position count necessitates careful PCB layout planning to accommodate the full length. Ensure mating connectors are compatible with the 0.100-inch pitch and tin-plated interface specifications.

Headers, Male Pins Part Context

This component belongs to the Mill-Max 351 series of vertical headers. It is distinct from the 350 series by its specific pin configuration and from spring-loaded variants like the 2955 series. It serves as a passive interconnect solution rather than a pressure-contact device.

Headers, Male Pins Replacement Considerations

Direct substitutes within the 351 series must match the 141-position count and vertical orientation. Cross-series replacements require verification of pitch compatibility and mechanical height constraints.