An Apparatus for Target Shooting and Projectile Containment, known as a Frag Shield, comprising a first, absorption, layer and a backing layer with an open space between the layers, thereby dissipating energy from projectiles as they pass through the first layer, stopping the projectile with the backing layer, and containing the projectile or particle fragments between the layers.

An Apparatus for Target Shooting and Projectile Containment, known as a Frag Shield, comprising a first, absorption, layer and a backing layer with an open space between the layers, thereby dissipating energy from projectiles as they pass through the first layer, stopping the projectile with the backing layer, and containing the projectile or particle fragments between the layers.

A bullet containment trap (1) with a modular backstop (7) is disclosed. The device (1) with the modular backstop (7) comprises of at least one open ended bullet receiving chamber (4), at least one electronic target assembly (not shown) configured to project at least one target placed at a rear end of the said open-ended bullet receiving chamber (4). The bullet fired compasses the said bullet receiving chamber (04) while in contact with boundary wall and enters a terminal part of said boundary wall over a throat (6) of a passageway and moves through said throat (6) to dissipate on hitting a modular backstop (7) of a deceleration chamber (5). The said modular backstop (7) with at least two impact zones are made by stacking multiple individual armored plates (12) vertically and/or horizontally in to a plurality of cassettes (11), wherein the said cassettes and/or the individual armored plates (12) within each of the said cassettes (11) are all replaceable for deformation.

A bullet containment trap (1) with a modular backstop (7) is disclosed. The device (1) with the modular backstop (7) comprises of at least one open ended bullet receiving chamber (4), at least one electronic target assembly (not shown) configured to project at least one target placed at a rear end of the said open-ended bullet receiving chamber (4). The bullet fired compasses the said bullet receiving chamber (04) while in contact with boundary wall and enters a terminal part of said boundary wall over a throat (6) of a passageway and moves through said throat (6) to dissipate on hitting a modular backstop (7) of a deceleration chamber (5). The said modular backstop (7) with at least two impact zones are made by stacking multiple individual armored plates (12) vertically and/or horizontally in to a plurality of cassettes (11), wherein the said cassettes and/or the individual armored plates (12) within each of the said cassettes (11) are all replaceable for deformation.

A firing target for firearms shooting training including a bullet collecting casing having a lattice structure disposed inside the bullet collecting casing in front of a rear wall thereof, which lattice structure is designed to dissipate kinetic energy of incident bullets and includes at least a first series of deflecting plates designed to deflect the trajectory of the incident bullets, with the first series of deflecting plates arranged according to a first inclined plane relative to the rear wall. The firing target further includes a protective screen placed in front of the lattice structure of the bullet collecting casing, on the trajectory of the incident bullets, and designed to halt any bullet fragments. The lattice structure includes at least a second series of deflecting plates arranged according to a second inclined plane relative to the rear wall and arranged between the first series of deflecting plates and the rear wall.

A firing target for firearms shooting training including a bullet collecting casing having a lattice structure disposed inside the bullet collecting casing in front of a rear wall thereof, which lattice structure is designed to dissipate kinetic energy of incident bullets and includes at least a first series of deflecting plates designed to deflect the trajectory of the incident bullets, with the first series of deflecting plates arranged according to a first inclined plane relative to the rear wall. The firing target further includes a protective screen placed in front of the lattice structure of the bullet collecting casing, on the trajectory of the incident bullets, and designed to halt any bullet fragments. The lattice structure includes at least a second series of deflecting plates arranged according to a second inclined plane relative to the rear wall and arranged between the first series of deflecting plates and the rear wall.

Electronically controlled target in the form of metal cube that has rotating disc with different aperture sizes 5 and more holes to cover the hit plate of the target for different difficultness to hit the target by the air gun, air rifle or firearm projectile designed to be used for long distance shooting (min 20 yards to max 200 yards). This device will indicate hit by flashing light or on the 2 way RF remote control device by showing exact count of hits to the shooter. This device is fully controlled by the shooter with wireless remote control, shooter does not have to walk to the target to change its hole size. Made from mostly steel and aluminum durable enough to withstand the hits of a projectile. Includes electronic components to control this unit remotely and if needed locally as well. Powered by the battery or solar system.

A dust containment manifold includes an angled, broadened head with one or more openings through which suction is applied to bullets as they fall from a deceleration chamber or bullet trap. The dust containment manifold may be disposed generally beneath the bullet trap and angled so as to reduce the chance that small fragments will enter the bullet trap ventilation system and become lodged in the ventilation filters.

A dust containment manifold includes an angled, broadened head with one or more openings through which suction is applied to bullets as they fall from a deceleration chamber or bullet trap. The dust containment manifold may be disposed generally beneath the bullet trap and angled so as to reduce the chance that small fragments will enter the bullet trap ventilation system and become lodged in the ventilation filters.

A modular firing range includes a first subset of modular containers that form a first end of the firing range. The first subset includes outer walls that define the first end of the firing range and side walls that define a portion of a side of the firing range. A second subset of modular containers form a second end of the firing range. The second subset includes outer walls that define the second end of the firing range and side walls that define a portion of the side of the firing range. A third subset of modular containers is coupleable between the first subset and the second subset to form a medial portion of the firing range. The third subset includes outer walls that define a portion of the side of the firing range. The firing range includes an armored outer perimeter that provides complete ballistic containment in all directions.