Skip to content

H-Pin®

Stamped Contact

The H-Pin is a stamped spring probe with the mechanical, electrical, and thermal performance of a spring probe, and the ease of use and high volume manufacturability of a stamped contact. The H-Pin serves applications without the typical compromises that are generally required when considering cost versus performance.

Download Brochure

Features & Benefits

  • Compliancy for large package warpage
  • Stable contact resistance and force
  • Solid beam electrical performance
  • Compliancy at high temperatures (180 °C)
  • Correlated bi, system evaluation and test
  • Reliable power and ground contact
  • Stocked inventory and better lead time
  • High volume capacity, quality control, and ease of use

Feature Options

  • 0.40 mm to 0.70 mm travel
  • Flat-spring rate
  • BeCu H-Pin
  • Stainless steel core spring
  • Bandwidth –1dB @ 15 GHz
  • Current carrying capacity
  • High-volume stamping
  • Reel-to-reel pin insertion

Overview

Excellent mechanical and electrical performance.
Utilizing high volume BeCu stamping technology, combined with a stainless steel spring for mechanical travel, the H-Pin has a working range up to 0.70 mm with a flat spring rate and can be utilized up to 15 GHz with –1.0 dB loss, carry up to 4 A of current and withstand temperatures up to 200 °C.

High volume stamping and quality control.
From pin one to one million, you’ll get the same pin every time. Because of our automated H-Pin manufacturing process, you’ll be the first person to make contact with your pins.

Documents & Literature

Related Products

  • Image of M-Series H-Pin® Socket

    M-Series H-Pin® Socket

    The small outline footprint provides design flexibility and allows for high socket density on the burn-in board.

Related News

  • Image of Space Flare

    Optical Interconnect Design Challenges in Space

    Aeronautical applications face many design challenges that are unique to their intended environment. The best practices for optical interconnect design for space applications include the use of radiation-resistant technology to defend against space radiation, the use of components and devices that are designed to operate in harsh environments, and meeting size, weight, and power (SWaP) and long-term reliability requirements. Finally, it is recommended to follow open standards like VPX and to look for solutions that comply with MIL and quality standards.

  • Image of BGA electrical interface

    Understanding the Test Criteria of Optical Fiber Transceivers Used in Space

    In space, high performance components must be able to deliver reliably in the punishing environment. It is optical transceivers that drive transmissions, converting signals to and from a copper-resident format. Fiber optics communications provide high bandwidth and low latency signaling. Signal transmissions through fiber optic cables (FOCs) provide immunity to EM/RFI interference, crosstalk, and voltage level surges. Fiber optics’ accuracy and reliability exceeds traditional cabling. Covering 1,000 feet requires four pounds of FOC versus 39 pounds of copper wiring, and fiber optics also consume less energy than copper. To convert electrical signals from circuitries with copper output to fiber optics, optical fiber transceivers are usually required.

  • Image of Optical Transceivers

    Reflex Photonics Legal Name Change

    Continuing that journey, we are pleased to inform you that we have begun the process of changing the legal name of our company from Reflex Photonics Inc. to Smiths Interconnect Canada Inc.