Lanyard Release/Quick Disconnect Connectors

Lanyard Release/Quick Disconnect Connectors are D38999-style connectors with a durable built-in lanyard for safe and quick-disconnection in mission-critical systems.


Our MIL-DTL-38999 Series III and TV Breakaway Fail-Safe connectors are built for rugged weapons-release and other harsh-environment applications. MIL-DTL-5015 Matrix connectors with rear-release crimp contacts, environmental sealing, and high-power options are also available with lanyard release/quick-disconnect capability. For smaller, weight-sensitive systems, Amphenol’s 2M804 push-pull connectors bring quick-disconnect capability, EMI shielding, waterproof and dustproof performance, customizable separation forces, and up to 85 signals. Amphenol/Pyle-National T-Line Series push-pull connectors provide a space-saving subminiature cylindrical option, combining rugged construction, MIL-C-38999 Series III-qualified inserts, standard M39029 contacts, full-mating indication, and easy adaptation for lanyard-release applications.

Product D38999 Series III Breakaway Fail-Safe
D38999 Series III Breakaway Fail-Safe
D38999/29, /30, /31 and MIL-STD-1760 Type II-qualified breakaway connectors for weapons-release applications.
Product D38999 Series I LJT Breakaway
D38999 Series I LJT Breakaway
Provide unequaled performance in environments requiring instant disengagement.
Product Matrix 5015 Breakaway Lanyards
Matrix 5015 Breakaway Lanyards
MIL-DTL-5015 Push-Pull, quick disconnect coupling is available in a straight plug that can be ordered with or without a lanyard release mechanism.
Product 2M804 Push-Pull Quick-Disconnect
2M804 Push-Pull Quick-Disconnect
Ruggedized, push-pull miniature connectors with multiple options for soldier-worn applications.
Product T-Line Push-Pull Connectors
T-Line Push-Pull Connectors
A push-pull mating connector that incorporates a retention spring in the receptacle and a full-mating indicator band on the plug.

Lanyard Release/Quick Disconnect Solutions for Harsh Environments

 

 

D38999 Series I/III Lanyard Release/Quick-Disconnect:

  • Quick-disconnect and lanyard-release options for applications requiring fast mating, secure retention, and clean separation.
  • MIL-DTL-38999 Series III-based solutions built for rugged military, aerospace, and harsh-environment applications.
  • Breakaway fail-safe connectors support axial-pull lanyard release for weapons release, stores separation, and mission-critical disconnects.
  • Available low-force separation capabilities for applications where predictable unmating is required.
  • Compatible with existing D38999 receptacles, mil-spec backshells, and accessories.
  • Commercial D38999/31-style options available with expanded insert arrangements beyond the standard mil-spec offering.
  • Hybrid breakaway designs with metal shells and composite operating sleeves for reduced weight and improved durability after release.
  • Tested for harsh operating conditions including random and sine vibration, ice resistance, fluid immersion, and hydrolytic stability.

Matrix 5015 Breakaway Lanyards:

  • MIL-DTL-5015 Matrix connectors offer environmentally sealed rear-release crimp contact designs for medium- to heavy-weight cylindrical applications.
  • MIL-DTL-5015 options include threaded coupling, self-locking plugs, proprietary quick-disconnect plugs, and lanyard configurations.
  • Environmental sealing through contact seals, interfacial seals, peripheral gaskets, rear wire seals, and insert-to-shell seals.
  • High-power RADSOK contact options available for increased current carrying capability, low insertion force, and minimal voltage loss.

2M804 Push-Pull Quick-Disconnect Connectors:

  • 2M804 push-pull connectors deliver quick-disconnect performance in a micro-miniature package averaging less than half the size and weight of traditional 38999 connectors.
  • 2M804 connectors support up to 85 signals, panel-mounting options, customizable separation forces, and 1,000 minimum mating cycles.
  • Waterproof, dustproof, EMI-resistant connector options built for soldier-worn systems, C4I, IFE, unmanned systems, and other rugged land, sea, and air applications.

T-Line Push-Pull Connectors:

  • Push-pull mating subminiature cylindrical connector designed to reduce size and weight in military and industrial electrical systems.
  • Incorporates a receptacle retention spring, plug full-mating indicator band, and rugged shell construction for reliable connection in demanding environments.
  • Uses MIL-C-38999 Series III-qualified inserts, standard M39029-56/-58 contacts, and can be adapted for lanyard-release applications.

 

 

Many modern defense and aerospace systems require a connection that must remain secure until the exact moment it needs to separate. Amphenol Aerospace lanyard release and quick disconnect connectors are designed for these mission profiles. These quick-disconnecting electrical connectors are designed for applications where clean, instantaneous disengagement, and rugged connector reliability are imperative to performance and execution across land, sea, and air platforms.

 

Key Components for Weapons-Release Applications

 

The lanyard release/quick disconnect family features D38999 Series III Breakaway Fail-Safe connectors and D38999 Series I LJT Breakaway connectors. These MIL-SPEC connectors feature quick-release lanyards that support weapons-release applications, high-stakes system and component separation where interconnects must perform cleanly under bruising mechanical and environmental conditions.

 

Designed for Flexible Integration and Shielding Needs

 

Available with rugged shell designs, lanyard release options, standard backshell compatibility, and contact configurations that support demanding interconnect requirements, Amphenol Aerospace lanyard release and quick-disconnect connectors give system designers flexibility without sacrificing performance. For applications where EMI/RFI protection is critical, compatible backshells and select D38999 configurations help support shielding, signal integrity, and mechanical reliability in dense system architectures.