Dangler Pouch - AMP
Dangler Pouch image 1
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Tactical Pouches & Panels

Dangler Pouch - AMP

$79.95 $99.95

Dangler Pouch - AMP

Built in Australia · Free delivery over $99

Detail

The specification.

Dangler Pouch - AMP

Australian Multi Pattern (AMP) is AMCU Compatible

The Krieger Industries Dangler Pouch is a purpose-built under-panel pouch designed to mount beneath plate carriers or chest rigs, providing additional storage in an otherwise unused space. Positioned centrally below the front plate bag, it offers rapid access to essential items while maintaining a streamlined, balanced load-out.

The pouch features a forward-facing zip orientation, allowing easy access when standing, kneeling, or prone. Internally, elastic retention helps organise and secure items, preventing unnecessary movement during dynamic activity.

By expanding storage downward rather than outward, the Dangler Pouch preserves front-panel real estate and supports mobility, comfort, and efficient equipment management during training and operational tasks.


Key Features

  • Australian Multi Pattern (AMP) is AMCU Compatible
  • Under-panel dangler pouch design for expanded storage
  • 2 pockets with external front access
  • Forward-facing zip orientation for intuitive access
  • 1 external zipper access on the rear main compartment
  • Internal elastic retention to secure and organise contents
  • Low-profile construction to minimise bulk and snag risk
  • Elastic loops under the pouch for additional mission essential equipment
  • Front velcro patch for morale patch attachment

Attachment & Integration

  • Designed to mount beneath plate carriers and chest rigs
  • Hook and loop velcro attachment system
  • Compatible with modern modular load-bearing platforms
  • Can be removed or repositioned based on mission requirements

Operational Applications

Commonly used for:

  • Organising small tools or mission essential items using internal retention
  • Expanding storage without stacking front-mounted pouches
  • Training and operational load-outs requiring efficient access