Videos tagged with PLA Pro

This video details the design and testing of a prototype 3D-printed lower receiver intended for the Lima Six belt-fed upper. Key design considerations include a high dovetail for a short belt feed path to minimize jams and a two-piece construction for optimal print orientation and strength. The presenter discusses findings after 600 rounds, including issues with gas deflection and potential improvements for takedown pin placement and bolt catch functionality.

This video details the 'Rog Locks' Glock 43X, an additively manufactured frame designed by Phil Fiser, remixed from Vin Win's DD 43 frame. It highlights the Minecraft/Roblox-inspired aesthetic, the use of PLA Pro filament printed on a Bambu Lab X1 Carbon, and compatibility with Shield Arms 15-round magazines. The creator discusses shooting impressions, the frame's robustness, a comparison to standard Glock frames, and the non-fitment with standard EDC holsters.

This guide synthesizes expert analysis from Hoffman Tactical on selecting 3D printing filaments for firearm components. It details material properties like stiffness, moisture resistance, yield strength, and creep, comparing common options like Carbon Fiber Nylon, PLA Pro, and PET-CF. The information is crucial for users aiming to print reliable and durable firearm parts, emphasizing the trade-offs between different materials based on extensive testing data.

This guide details the assembly and testing of the 3D-printed Orca AR-15, designed by Hoffman Tactical. It covers the use of specific materials like PLA Pro and Carbon Fiber Nylon, structural reinforcement techniques with hose clamps, and the installation of a high-speed trigger. The video demonstrates impressive accuracy at 300 yards, showcasing the potential of 3D-printed firearm platforms when engineered with expertise.

This guide details the process of accuracy and durability testing for the Orca, a 3D-printed AR-15, as demonstrated by Hoffman Tactical. It covers initial zeroing, simulating field use, rapid fire testing to induce heat, and post-test inspection for thermal effects on polymer components and accuracy. The testing highlights the impact of heat and mechanical stress on the performance of 3D-printed firearm parts.