Battle Arms Development Bad-Rack-15-C Rack15 Mod C Charging Handle Ar-15 Am

The Battle Arms Development Rack15 Mod C is an ambidextrous AR-15 charging handle built for shooters who want reliable, ergonomic control over their rifle. Whether you're running drills at the range, hunting, or training for defensive scenarios, a quality charging handle makes a tangible difference in how your rifle handles—and the Rack15 Mod C delivers a solid, purpose-built upgrade from mil-spec.

Battle Arms Development engineered this handle with a monolithic design that emphasizes durability and consistent operation. The ambidextrous configuration means lefties and righties both get a natural manipulation point without fumbling or reaching awkwardly. Size C geometry is built to fit AR-15 platforms, so compatibility is straightforward if you're working within the standard platform.

Finished in black, the Rack15 Mod C integrates cleanly into any AR-15 build without fuss. If you're tired of flimsy charging handles that rattle or require a death grip to cycle your bolt, or if you simply want the kind of no-nonsense control that comes from thoughtful design, this is a solid choice. It's the kind of component that doesn't steal the show—it just works, consistently, whenever you need it.

Key Features

• Ambidextrous design for both left- and right-handed shooters
• Monolithic construction for durability and reliability
• Fits AR-15 platforms
• Size C geometry
• Black finish

Specifications

Frequently Asked Questions

Will this charging handle work on my AR-15?

Yes, the Rack15 Mod C is designed to fit AR-15 platforms. Size C is the standard geometry for most AR-15 builds, so compatibility is straightforward.

Is this charging handle ambidextrous?

Yes, the Rack15 Mod C features an ambidextrous design, making it equally accessible for both left- and right-handed shooters without modification.

What does the monolithic design mean?

Monolithic construction means the handle is built as a single solid unit, which enhances durability and reduces potential failure points compared to multi-part designs.