Videos tagged with Fluid Transfer Monolithic

This video provides a detailed ballistic gel test of the Lehigh Defense Xtreme Defense 9mm 90-grain bullet. It specifically highlights the "Fluid Transfer Monolithic Flutes" by comparing a bullet with and without them. The test demonstrates how these flutes create a "massive energy dump," causing the bullet to stop within 18 inches of gel. A high-speed camera captures the wound cavity at 4000 frames per second. The description emphasizes that the projectiles have identical meplat diameter and ogive shape, with the only difference being the presence or absence of flutes, achieved by removing weight from the 'fluteless' version. The Xtreme Defense is described as a solid copper projectile utilizing advanced technology for deep, straight penetration and a permanent wound cavity exceeding that of most expanding bullets, with reduced negative effects from barrier penetration.

This video compares Lehigh Defense's 90-grain Xtreme Defense 9mm bullet against a 124-grain premium hollow-point bullet. Both were fired from a Wilson Combat 4-inch Professional pistol through a plywood barrier and into ballistic gelatin. The test demonstrates the Xtreme Defense's superior barrier penetration compared to the hollow-point, which clogged and failed to expand. The video highlights the Xtreme Defense's solid copper construction and Fluid Transfer Monolithic technology, emphasizing its deep penetration and wound cavity. High-speed footage at 4000 frames per second captures the bullet performance.

This video from Lehigh Defense and Wilson Combat demonstrates the performance of their 9mm 90-grain Xtreme Defense bullet using FBI-calibrated gelatin. The test compares a bullet with their Fluid Transfer Monolithic (FTM) flutes against one without, highlighting the flutes' role in creating a significant energy dump and controlled penetration of 18 inches. A high-speed camera at 4000 fps captures the wound cavity. The description emphasizes the advanced monolithic copper construction and its ability to create a large permanent wound cavity, outperforming traditional hollow points, especially after barrier penetration.