Is A Chinese Military Helmet Bulletproof?

This video tests the ballistic resistance of a Soviet-era hammer against various calibers. While smaller rounds like .22 LR caused minimal damage, larger calibers like 9mm, 7.62x39mm, .223 Remington, and .308 Winchester inflicted progressively more damage, with the .308 ultimately causing significant structural failure to the hammer's handle.

This video tests the ballistic resistance of a 24-inch adjustable wrench against various calibers, from .22 LR to .50 BMG. The wrench demonstrated significant durability, withstanding multiple impacts from intermediate rifle cartridges and even showing resistance to .308 Winchester. The .50 BMG round, however, completely destroyed the wrench's internal gearing mechanism.

This video tests the bullet resistance of a Soviet-era hammer against various calibers of ammunition, from birdshot to .50 BMG. The hammer's head showed minimal damage from smaller calibers, with paint chips and small craters, but was significantly penetrated and damaged by larger rounds like 7.62x39mm and .308 Winchester.

This video tests the bullet resistance of a 2-lb rubber mallet against various calibers, from birdshot to .50 BMG. The mallet demonstrates surprising durability, absorbing impacts from smaller calibers without penetration. However, larger calibers like .223 Remington shatter the handle, and .308 Winchester penetrates the head. The experiment highlights the potential for unexpected stopping power in common tools.

This video tests the ballistic resistance of steel-toe boots against various calibers, from .22LR up to .50 BMG. While smaller calibers like .22LR and .380 ACP were completely stopped with minimal deformation, larger calibers like 9mm and .45 ACP caused significant bulging and potential toe injury, though they were still stopped. The .44 Magnum partially penetrated the steel on one attempt, and the 50 AE and 50 BMG successfully penetrated the steel toe, rendering the boots ineffective against these high-powered rounds.

This video tests the ballistic resistance of a sledgehammer against various calibers, from .22 LR to .50 BMG. It demonstrates that even smaller rounds cause superficial damage, while larger calibers like 7.62x39mm and 5.56mm create significant dents and fragmentation. The .50 BMG round causes the most substantial damage, but the hammer remains intact, suggesting a high degree of ballistic resistance.

This video presents a humorous skit emphasizing the critical importance of wearing eye protection at the shooting range. It visually demonstrates a handgun malfunction and uses a relatable, albeit exaggerated, scenario with a spent casing to highlight the potential dangers of inadequate eye safety. The creator, experienced in firearm handling and tactical gear, reinforces this essential safety message.

This video features a 'bulletproof' test where a tree is used as a ballistic medium to test various calibers from .22 LR up to .50 BMG. The Civilian Tactical host, demonstrating high-level firearms expertise, shows that even powerful rounds like .50 BMG can be significantly stopped by a dense tree, with none of the tested rounds achieving a complete pass-through. The test highlights the surprising terminal ballistics of different ammunition types against natural barriers.

This video from Civilian Tactical explores the concept of using a human body, simulated with ballistic gel, as a suppressor. The host fires a Derya Arms .22 rifle directly against a ballistic gel head and block, noting the shot sounded 'dead silent.' The experiment demonstrates the penetration depth of a .22 LR round through the simulated head and into the gel block.

This video demonstrates a ballistic test on a Belgian M1 steel helmet, evaluating its resistance against various calibers from birdshot to .223. The test, conducted by Civilian Tactical Host, shows that the helmet is not bulletproof against common handgun and rifle rounds like 9mm and .223. The host's energetic and demonstration-oriented style, coupled with expertise in tactical gear, provides a clear assessment of the helmet's limitations.