Jul 21, 2026
A projectile impact simulation device comprising a housing, a mounting attachment, at least two high-voltage pins, and a shock zone. The housing has a circuit board electrically coupled to high-voltage receptacles that are configured to receive a first end of a high-voltage pin. The housing also has a back surface configured to rest adjacent to a user when the user wears the device. The mounting attachment is coupled to the back surface and configured to couple the device to the user. The high-voltage pins are embedded within the housing and configured to couple with the high-voltage receptacles. Two contact pads exposed on the back surface each have an electrical contact coupled with the high-voltage pins. When a voltage differential is applied across the contact pads, the device is configured to cause an electric arc in the shock zone. When the device is worn by a user, the electric arc shocks the user.
Jul 21, 2026
A mortar training device includes a barrel body including a bore; a shot detector contained in the barrel body and including a shot detection sensor and configured to output an electronic signal indicating a firing of an inert mortar projectile from the barrel body; a battery; a plurality of orientation sensors contained in the barrel body; and one or more processors and memory storing instructions that, when executed by the one or more processors, cause the one or more processors to receive the electronic signal from the shot detection sensor indicating that an inert mortar projectile is fired from the barrel body, and determine an elevation of the barrel body and an azimuth of the barrel body when the inert mortar projectile is fired from the barrel body based on sensor data received from the plurality of orientation sensors.
Jun 23, 2026
Disclosed embodiments provide systems and methods for simulation of firearm discharge and training of armed forces and/or law enforcement personnel. A motion tracking system tracks motion of one or more users. In embodiments, the users wear one or more sensors on their bodies to allow tracking by the motion tracking system. A scenario management system utilizes position, orientation, and motion information provided by the motion tracking system to evaluate user performance during a scenario. A weapon simulator includes sensors that indicate position of the weapon and/or orientation of the weapon. The weapon simulator may further provide trigger activation indications to the scenario management system. In embodiments, the scenario management system generates, plays, reviews, and/or evaluates simulations. The evaluation can include scoring based on reaction times, posture, body position, body orientation, and/or other attributes.
May 5, 2026
A weapon emulator has a muzzle flash emulator attachment coupled to a first end of a barrel. The muzzle flash emulator attachment includes: a body defining a plurality of slots, a cover disposed in the body, a light source at least partially disposed in the cover, and a circuit coupled to the light source and including a power source and a switch. The switch is transitionable from an open state to a closed state to turn on the light source in response to pulling a trigger. In another embodiment, a muzzle flash emulator assembly includes a magnet operatively aligned with a reed switch. In a further embodiment, a muzzle flash emulator has a member coupled to a barrel and moveable to strike the switch in response to pulling the trigger to transition the switch from the open state to the closed state.
Apr 7, 2026
Provided herein are systems and methods for shooting simulation of a target with a projectile. More particularly, the invention relates to virtual reality optical projection systems to monitor and simulate shooting.
Feb 17, 2026
Disclosed herein is a shell simulated shooting simulation system for performing a shell simulated shooting similar to a live shell shooting includes an execution module loading and aiming a shell to perform a shell simulated shooting, a display module visually displaying shooting of a shell according to loading and aiming through the execution module, and a server module collecting information to visually display a result of the live shell shooting on the display module based on the information on the loading and aiming of the shell of the execution module.
Feb 3, 2026
A conducted electrical weapon (“CEW”) may comprise a handle and a deployment unit. A CEW may be adapted for use in a simulation system comprising a simulator and a display. A simulation deployment unit may be used with a handle to adapt the CEW for use in the simulation system. The simulation deployment unit may be configured to detect motion data corresponding with at least one of a change in position, a change in orientation, and an initial orientation of the CEW. The simulation deployment unit may be configured to pass the motion data to the handle so the motion data may be transmitted to a simulator via a communication circuit of the handle. The simulation deployment unit may require power from the handle to operate, and the handle may require motion data provided by the simulation deployment unit so that the CEW may be used in the simulation system.
Jan 27, 2026
A handgun simulation assembly that mates a virtual reality (VR) controller having a trigger finger button with a handgun grip and trigger in order to better simulate the feel of a typical handgun for a VR environment. The handgun simulation assembly includes a handgun body with a mating cradle that is designed to receive and hold a VR controller. The mating cradle has an engaged position where the VR controller is affixed to the handgun body and an unengaged position where the VR controller is released. When the mating cradle is in the engaged position, the VR controller can be oriented such that the trigger finger button is positioned downward, and the control pad is positioned rearward and facing the user. The mating cradle allows various subassemblies to access the buttons on the VR controller to provide a more realistic handgun experience when in a VR environment.
Jul 29, 2025
The present disclosure provides systems and techniques for testing guns by simulating firing a round of live ammunition. A striker may be used to apply force onto a gun, and one or more compressible rods may be used to modulate the application of force onto the gun. A system may include a striking mechanism configured for displacement along an arcuate path of travel that includes a first compressible rod, a second compressible rod coupled with a first component of the gun, an attachment mechanism coupled with a second component of the gun such that the second compressible rod is located in the arcuate path of travel, and a backstop mechanism coupled with the attachment mechanism. The attachment mechanism may stably hold the gun and the backstop mechanism may accommodate planar movement of the attachment mechanism, so as to simulate a shooter holding the gun.
