Sco Charlie Asr Mount

The SilencerCo Charlie ASR Mount is a quick-attach/detach accessory system engineered for rapid suppressor transitions across multiple SilencerCo platforms. Built around the Active Spring Retention mechanism, this mount enables one-hand attachment and removal cycles without tools or special equipment—a critical advantage during tactical operations, dynamic range training, or multi-mission firearms platforms where suppressor swapping between rifles demands speed and reliability.

Compatibility spans the Chimera 300, Omega 36M, and Saker ASR suppressors, making the Charlie ASR Mount a versatile backbone for operators maintaining multiple silencers across calibers. The locking ring secures the suppressor post-shouldering, preventing rotational migration or loosening under sustained fire—a durability characteristic verified in high-round-count applications. Weighing just 0.25 pounds, the mount introduces negligible mass to the platform while maintaining structural integrity across recoil cycles. The compact footprint (4.25 × 1.75 × 6.5 inches) ensures minimal length-of-pull extension and preserves ergonomic weapon handling.

This accessory serves operators, law enforcement tactical teams, and precision shooters who require suppressor modularity without sacrifice. Range shooters benefit from rapid platform configuration changes during load development or ammunition testing. Hunters and precision rifle enthusiasts leverage the mount's repeatability—quick detachment for transport or zeroing changes, with confidence in reattachment consistency. The ASR system's simplicity eliminates common failure points found in older QD designs, making it suitable for high-stress environments where gear reliability is non-negotiable.

SilencerCo's ASR platform remains industry-standard across military and law enforcement adoption, backed by years of field validation. The Charlie ASR Mount represents the evolution of quick-change suppressor technology—engineered for operators who demand speed, safety, and system simplicity without performance compromise.