532900980

Headers, Male Pins Overview

The Molex 53290-0980 is a SlimStack board-to-board header connector designed for vertical mounting on printed circuit boards. It features a single row configuration with a 2.00mm pitch and accommodates nine circuits. The connector utilizes 0.50mm square pins equipped with friction locks to ensure secure mating. It includes kinked PC tails, which facilitate automated pick-and-place assembly processes while maintaining reliable electrical connections in compact electronic designs.

Headers, Male Pins Feature Summary

• Vertical single-row board-to-board connection architecture
• Friction lock mechanism secures mating engagement
• Kinked PC tails enable automated assembly handling

Headers, Male Pins Applications

• Compact consumer electronics interconnects
• Industrial control module signal routing
• Medical device internal circuit linking

Headers, Male Pins Procurement Notes

Verify the exact part number against official Molex documentation to confirm current availability status. Ensure compatibility with mating receptacles regarding pin dimensions and locking mechanisms. Check for any recent design changes or obsolescence notices directly from the manufacturer before finalizing procurement plans.

Headers, Male Pins Selection Notes

Select this component when space constraints require a low-profile vertical header with a 2.00mm pitch. The friction lock feature provides mechanical stability without additional fasteners. Kinked tails are essential for high-volume automated manufacturing environments requiring efficient placement.

Headers, Male Pins Part Context

This connector belongs to the SlimStack family, known for high-density interconnect solutions. It addresses the need for reliable vertical stacking in modern electronics where board real estate is limited. The design supports standard surface-mount technology processes.

Headers, Male Pins Replacement Considerations

Consult official Molex cross-reference guides for verified substitute part numbers. Do not assume generic equivalents match the specific friction lock and tail geometry requirements.