The Tyrant CNC I.T.T.S (Improved Tactical Trigger System) delivers enhanced trigger control with its precision-machined gold and black finish combination. This drop-in trigger assembly reduces pull weight while maintaining reliability for tactical applications.
What Makes This Different
Unlike standard mil-spec triggers, the I.T.T.S features CNC-machined components with tighter tolerances for consistent break and reset. The system incorporates anti-walk pins and a captured spring design that eliminates common trigger creep issues. Pull weight typically measures 3.5-4.5 pounds compared to standard 6-8 pound military triggers.
Key Features
- CNC-machined aluminum trigger shoe with gold anodized finish
- Drop-in installation compatible with AR-15/AR-10 lower receivers
- Anti-walk trigger and hammer pins included
- Captured spring system prevents component loss during assembly
- Reduced pull weight range of 3.5-4.5 pounds
- Crisp break with short tactile reset
- Mil-spec dimensions ensure proper fit in standard trigger guards
The trigger performs consistently across temperature ranges and maintains function after extended firing sessions. Competition shooters benefit from the predictable break point, while tactical users appreciate the balance between light pull weight and safety margins. The gold anodizing provides corrosion resistance while the contrasting black components offer visual appeal in custom builds.
Technical Specs
- Material: CNC-machined 6061-T6 aluminum trigger shoe
- Finish: Type III hard anodized gold and black
- Pull Weight: 3.5-4.5 pounds (approximate)
- Compatibility: AR-15, AR-10, and similar platforms
- Installation: Drop-in design with anti-walk pins
- Package: Trigger assembly, hammer, springs, and pins
- Manufacturing: CNC-machined in precision facility
This trigger system addresses the limitations of standard military triggers without compromising reliability. The combination of reduced pull weight and consistent break point makes it suitable for both precision shooting and tactical applications where trigger control directly impacts accuracy.