Opening a Safe with a Grenade?

This short demonstrates the process of throwing a fragmentation grenade and taking cover. It highlights the importance of immediate safety procedures post-throw. The video also shows a cautious inspection of the undetonated grenade after a significant delay, emphasizing the unpredictable nature of ordnance.

This video demonstrates the destructive power of an M67 fragmentation grenade by detonating it inside a Bank of America ATM. The experiment highlights the significant blast force and fragmentation generated by the grenade, completely destroying the ATM's internal components. It showcases the raw power of military-grade explosives in a controlled, albeit destructive, test.

This video humorously demonstrates what happens when a gamer forgets to throw a grenade after pulling the pin. It highlights that a grenade only detonates once the safety lever (spoon) is released, showing a comedic explosion after the pin is pulled but the lever is held. The content uses a tactical gear aesthetic for comedic effect.

This video details the destructive testing of an M67 fragmentation grenade detonated inside a SentrySafe. The experiment highlights the significant containment capabilities of the safe, with the internal explosion completely destroying the unit and propelling its door a considerable distance. The findings suggest internal detonations are far more destructive to the container than external ones.

This experiment demonstrates the destructive power of a fragmentation grenade when detonated inside an appliance. The M67 grenade, when ignited within an electric stove using a Pulsefire flamethrower, caused a violent explosion, completely destroying the stove and scattering debris. The footage highlights the significant force generated by such ordnance and the importance of safety protocols when handling explosives.

This video tests the theoretical possibility of defusing a live grenade by unscrewing the fuse assembly within its 4-5 second delay. While the host successfully simulates this, the experiment highlights extreme risks. Factors like 'cooking off' the grenade significantly reduce survival chances, estimated at only 25%. The host advises throwing it back as a safer alternative.

This video tests how many cast iron skillets are needed to stop various bullets, from .22 LR to 500 S&W Magnum. Most common handgun rounds like 9mm and .45 ACP are stopped by two skillets. Rifle rounds like 5.56mm and 7.62x39mm also require two to three skillets, while the powerful 500 S&W Magnum penetrates three and is stopped by the fourth. The .22 LR failed to penetrate even the first skillet.

This video tests the penetration capabilities of a .50 BMG rifle, specifically the Serbu BFG-50A, against a section of railroad track. Various .50 caliber rounds, including Raufoss Mk 211 API and silver tip API, were fired. While the rifle and ammunition demonstrated the ability to penetrate even the thickest parts of the rail (over 1.5 inches), bullet deflection and shifting upon impact with the dense steel were observed.

This video demonstrates launching an M67 fragmentation grenade using an X Products Can Cannon towards a distant frozen lake. The Can Cannon, firing .223 blanks, successfully propels the grenade, which detonates upon impact, creating a visible hole in the ice. The experiment highlights the launcher's capability for extreme projectile delivery in challenging outdoor conditions.

This video tests the destructive power of a .50 caliber spotter round against 1.25-inch thick bulletproof glass, comparing it to a standard FMJ round. The spotter round, designed to spark and flash, created a larger crater and more surface damage than the FMJ round, demonstrating its specialized impact characteristics. The Serbu BFG-50A rifle was used for both tests.