399-90-126-10-009000

Headers, Male Pins Overview

The Mill-Max 399-90-126-10-009000 is a right-angle header connector featuring 26 positions with a 0.100-inch (2.54mm) pin spacing. Designed for through-hole termination, it utilizes gold-plated contacts to ensure reliable signal transmission. The unit incorporates a push-pull locking mechanism for secure mating and includes an integrated keying feature to prevent incorrect insertion during assembly.

Headers, Male Pins Feature Summary

• Right-angle design facilitates compact board layout configurations
• Gold-plated contact surfaces provide corrosion resistance and stable conductivity
• Push-pull locking system ensures secure mechanical retention

Headers, Male Pins Applications

• Industrial control systems requiring robust interconnects
• Telecommunications equipment interfaces
• Test and measurement instrumentation boards

Headers, Male Pins Procurement Notes

Verify the specific suffix codes against official Mill-Max documentation to confirm exact plating thickness and insulation material specifications. Ensure compatibility with mating receptacles regarding keying orientation and pin count before finalizing procurement orders.

Headers, Male Pins Selection Notes

Select this component when right-angle mounting is required for space-constrained applications. Confirm that the 26-position count matches the circuit requirements and that the through-hole termination method aligns with the printed circuit board manufacturing capabilities.

Headers, Male Pins Part Context

This part belongs to the Mill-Max 399 series of precision-machined connectors. The series is characterized by high-reliability spring-loaded or fixed contact designs intended for rigorous environments. It represents a standard solution for board-to-board or cable-to-board connections within industrial and defense sectors.

Headers, Male Pins Replacement Considerations

Consult official cross-reference data for direct substitutes. Verify that any alternative maintains identical pin count, spacing, and locking mechanism characteristics to ensure functional equivalence.