50BMG M2 AP - Armor Piercing Ammunition Testing

This video tests the penetration capabilities of .50 BMG rounds, including standard ball and M2 Armor Piercing (AP), against various steel plates. It reveals that 3/4-inch mild steel can stop standard ball rounds, while 1.5-inch mild steel is required to embed authentic M2 AP rounds. AR550 steel, even at 1/2-inch thickness, demonstrates superior resistance, stopping both types of rounds with minimal damage.

This video empirically tests the .30-06 Springfield cartridge's effectiveness, particularly against steel penetration, debunking the 'fudd cartridge' myth. While some loads like the Hornady 178gr ELD-X failed to penetrate 1/2 inch steel, others like the Federal 165gr Bonded Soft Point succeeded. Specialized rounds, including military M2 AP and M14A1 API, demonstrated significant penetration capabilities, with the M2 AP penetrating up to 1 inch of mild steel. The .30-06 is concluded to be a highly capable cartridge, comparable to modern alternatives like the .308 Winchester, especially with high-pressure or specialized loads.

This video tests the penetration capabilities of .338 Lapua Magnum rounds against various steel thicknesses. Standard precision loads were stopped by 5/8 inch mild steel, while the RUAG Swiss P 260gr AP round, featuring a tungsten carbide core, penetrated up to 1 1/4 inch mild steel and 1/2 inch AR500/AR550 steel. The AP round was finally stopped by 1 1/2 inches of mild steel.

This experiment tests the ballistic resistance of a cast iron sewer lid against various calibers. While 9mm, 10mm, .44 Magnum, and 12-gauge slugs failed to penetrate, the 7.62x51mm round from an FN SCAR successfully penetrated the lid and a dummy. The .50 BMG round demonstrated extreme power, easily destroying the lid and the target.

This video tests the myth that a .50 BMG round's shockwave can explode a target without a direct hit. Using a Big Kahuna Firearms Raptor 50 BMG, the host demonstrates that the pressure wave from a .50 BMG round passing near pumpkins is powerful enough to destroy them. The Raptor 50 BMG is highlighted as an affordable entry into .50 caliber ownership.

This video tests the penetration capabilities of the .300 Winchester Magnum armor-piercing round against various steel thicknesses and RMA's XRT Special Threat Plate. The Swiss P AP round successfully penetrated 1.25 inches of mild steel and the XRT plate, demonstrating significant armor-piercing power. While the XRT plate stopped the standard MK 248 Mod 1 round, it was defeated by the AP variant. The test concludes that the .300 Win Mag AP round is highly effective against most common barriers.

This video demonstrates the critical failure of a Bulgarian Arsenal SLR104 AK-74 variant when subjected to a mud test. Despite its platform's reputation, the rifle experienced immediate failures to go into battery, eject, and feed due to mud ingress. Repeated attempts to clear the weapon revealed significant friction and a complete mechanical stoppage, highlighting potential reliability issues under extreme conditions.

This video details the anatomy and historical use of 1700s grenades, focusing on their components like the external fuse and internal charge. It demonstrates the ignition process using a slow match and highlights the safety precautions necessary when handling replicas. The content also briefly showcases the hand mortar as an alternative deployment method for these early explosive devices.

This video provides a detailed instructional guide on applying a Gaza-style tourniquet, emphasizing proper technique for effective hemorrhage control. It highlights the importance of initial strap tightening before using the windlass for occlusion and securing it properly. The content also touches upon patient comfort and potential challenges during application.

This video details the historical loading process for the 1836 Colt Paterson revolver. It covers the unique disassembly required, including removing the barrel wedge and the barrel itself. The process involves setting the cylinder to half-cock, charging each chamber with 20 grains of powder and a lead ball, and using a specialized arbor tool to seat the projectile before capping and reassembly.