Rugged Suppressor OP005 Piston M16x1 RH Copper 17-4 Stainless

The Rugged Suppressor OP005 Piston delivers reliable gas sealing and consistent performance for threaded barrel suppressors. This precision-manufactured component features M16x1 right-hand threading and copper construction with 17-4 stainless steel reinforcement for maximum durability.

What Makes This Different

The OP005 piston incorporates copper material properties that provide superior heat dissipation compared to standard steel pistons. The 17-4 stainless steel construction resists corrosion while maintaining structural integrity under repeated cycling. This hybrid material approach extends service life and maintains consistent lockup torque across thousands of rounds.

Key Features

• M16x1 right-hand threading for secure barrel attachment
• Copper construction with 17-4 stainless steel reinforcement
• Precision-machined tolerances for consistent gas sealing
• Compatible with Rugged suppressor mounting systems
• Corrosion-resistant finish for extended service life
• Heat-dissipating copper material reduces thermal stress
• Drop-in replacement for worn or damaged pistons

Field testing demonstrates consistent cycling performance across various ammunition weights and powder charges. The copper material maintains dimensional stability under rapid-fire conditions while dissipating heat more effectively than traditional steel components. This piston works reliably in tactical applications, competitive shooting, and hunting scenarios where suppressor performance cannot be compromised.

Technical Specs

• Thread pitch: M16x1 right-hand
• Material: Copper with 17-4 stainless steel
• Compatibility: Rugged suppressor systems
• Finish: Corrosion-resistant coating
• Manufacturing: Precision CNC machined
• Part number: OP005
• Country of origin: USA

This piston represents essential maintenance equipment for suppressor owners who demand consistent performance. The copper construction and precision manufacturing ensure reliable operation when standard components reach their service limits.