The Reptilia DOT Mount 100004 delivers precise lower 1/3 co-witness positioning for red dot optics on AR-15 platforms. This mount eliminates the common height-over-bore issues that plague standard mounts while maintaining backup iron sight functionality.
What Makes This Different
Unlike basic picatinny mounts that force awkward cheek welds, the Reptilia DOT Mount positions optics at the optimal lower 1/3 height. The black anodized 7075-T6 aluminum construction provides military-grade durability while weighing just 1.6 ounces. CNC machining ensures consistent return-to-zero performance across temperature extremes and heavy recoil.
Key Features
- Lower 1/3 co-witness height allows natural sight picture with backup irons
- 7075-T6 aluminum construction with Type III hard anodizing
- Fits Aimpoint T1/T2, Holosun HS403/503 series, and similar footprint optics
- Torx hardware included with thread locker pre-applied
- 1.535-inch centerline height above rail
- Cross-bolt design distributes clamping force evenly
- Made in USA with lifetime warranty
Field testing demonstrates consistent point of impact shifts under 0.5 MOA when removing and reinstalling the mount. The lower 1/3 positioning works effectively for both precision shooting and close-quarters applications. Law enforcement agencies report improved target acquisition speed compared to absolute co-witness mounts. The anodized finish resists wear from tactical lights and maintains appearance through thousands of rounds.
Technical Specs
- Height: 1.535 inches from rail centerline to optic centerline
- Weight: 1.6 ounces
- Material: 7075-T6 aluminum with Type III anodizing
- Finish: Black anodized
- Compatibility: Aimpoint Micro footprint (T1, T2, H1, H2)
- Rail interface: MIL-STD-1913 Picatinny
- Hardware: Torx bolts with thread locker
- Country of origin: USA
- Warranty: Lifetime manufacturer warranty
The Reptilia DOT Mount 100004 represents proven engineering for serious shooters who demand both precision and reliability. Professional users choose this mount for its consistent performance and optimal sight picture geometry.