Abstract: 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.

Abstract: A motion platform system for displacing the top frame in three degrees of translational freedom and three degrees of rotational freedom along and about the three axes comprising a base frame, a middle frame, a center column and six actuators and; wherein said base frame is connected to said middle frame by three links capable of providing translational freedom to the said middle frame, said center column and said top frame along the X-axis and Y-axis and sway actuator and surge actuator to control the said translational freedom; said middle frame is connected to said center column by a cylindrical joint capable of providing translational and rotational freedom to the said center column and said top frame along and about the Z-axis and heave actuator and yaw actuator to control the said translational and rotational freedom; said center column is connected to said top frame by a joint capable of providing rotational freedom to the said top frame about the X-axis and Y-axis and pitch actuator and roll actuator t

Abstract: The present disclosure relates to firearm or gunnery training system. More particularly relates to a device and method for providing multiple movements of a target for firearm or gunnery practice. The device (20) comprising a frame unit (8) configured to accommodate a drive mechanism (28), which is configured to rotate a first shaft (1) within a first predetermined range of angle. The frame unit (8) comprises more than one face and at least one of the faces is configured as a base for the device (20). The device (20) further comprises a target holding bracket (6) removably connectable to a target (10) at one end (6a) and a holder mating block (5) at other end (6b). Also, an eccentric target holder (3) is removably connectable to the first shaft (1) at a first end (3a) and a holder mating block (5) at a second end (3b).

Abstract: The present disclosure relates to firearm or gunnery training system. More particularly relates to a device and method for providing multiple movements of a target for firearm or gunnery practice. The device (20) comprising a frame unit (8) configured to accommodate a drive mechanism (28), which is configured to rotate a first shaft (1) within a first predetermined range of angle. The frame unit (8) comprises more than one face and at least one of the faces is configured as a base for the device (20). The device (20) further comprises a target holding bracket (6) removably connectable to a target (10) at one end (6a) and a holder mating block (5) at other end (6b). Also, an eccentric target holder (3) is removably connectable to the first shaft (1) at a first end (3a) and a holder mating block (5) at a second end (3b).

Abstract: The present invention relates to a motion platform system comprising of a base (1), a moving platform (2) displaceable by five actuators along and about the three axes in five degrees of freedom, said moving platform (2), connected to said base (1) by at least three links, wherein one of the said links is a column (3) capable of having at least one rotational freedom at the base of the column (3); the other two links include actuators controlling rotational degrees of freedom about the ‘X’ and ‘Y’ axes; another actuator controlling rotational degree of freedom about the ‘Z’ axis; other two actuators controlling translational degrees of freedom along the ‘X’ and ‘Y’ axes; said column (3) including a joint (12) at the top of the said column (3), said joint (12) capable of providing at least one rotational degree of freedom about any of the three axes.

Abstract: A motion platform system for displacing the top frame in three degrees of translational freedom and three degrees of rotational freedom along and about the three axes comprising a base frame, a middle frame, a centre column and six actuators and; wherein said base frame is connected to said middle frame by three links capable of providing translational freedom to the said middle frame, said centre column and said top frame along the X-axis and Y-axis and sway actuator and surge actuator to control the said translational freedom; said middle frame is connected to said centre column by a cylindrical joint capable of providing translational and rotational freedom to the said centre column and said top frame along and about the Z-axis and heave actuator and yaw actuator to control the said translational and rotational freedom; said centre column is connected to said top frame by a joint capable of providing rotational freedom to the said top frame about the X-axis and Y-axis and pitch actuator and roll actuator t

Abstract: The subject matter described herein is directed to gear shifting and in particular is related to the field of simulation of gear shifting in a vehicle. The present subject matter proposes a strategic solution to eliminate the challenges experienced in the simulation of conventional gear shifting.

Abstract: The invention describes a simulated steering apparatus provided with a base (2), a driving shaft (11) with a first and second ends. A first plate (21) is rigidly mounted to the driving shaft and a second plate (18) is freely mounted to the driving shaft. The first plate is disposed at a close proximity to the second plate. A friction means (19) is disposed between the first plate and the second plate. A motor (34) is operably connected to the second plate. A force exerting means (20), which is disposed in the vicinity of the first and the second plate, holds them together. A position sensing means (40) operably connected to the driving shaft, actuates the motor when the driving shaft is not in a neutral position. The motor is actuated, such that, the second plate rotates in a direction opposite to that of the first plate.