TWM505962U - Shooter emulation device - Google Patents

Description

Shooter simulation device

This creation is about a shooter simulation device, especially for a toy gun, a prop gun or an air gun, which can emit or not fire a bullet, and provides a shot-capturing force when the trigger of the trigger is fired. A shooter simulation device, in particular, a hammer, an elastic device and a pusher of the device.

Currently, there are guns that can fire or not fire bullets in the city, including toy guns, prop guns or air guns. The toy guns are mainly used for people to play. Usually, springs or air can be used to launch BB bombs or launch water. Air guns are mainly used in survival games or shooting competitions. High-pressure gas can be used to launch BB or paintballs. Prop guns are used for performances or exercises. Therefore, prop guns can generally use springs or air to fire fake bullets. It is also possible to use only a small amount of gunpowder to produce an acousto-optic effect, or to completely omit the effect of a projectile.

However, the above-mentioned various types of shooters can not generate the rest after shooting the bullets like a real gun when the user buckles the trigger, especially in the use of play, survival games, performances or exercises, and there is no recoil force when launching. The toy gun, prop gun and air gun significantly reduce their operational interest.

In addition, since the real gun has a certain amount of recoil force when shooting, users who do not have shooting experience are very likely to be affected by the recoil force when shooting with a real gun, often after the user has not adapted to the shooting. Before the force, the bullets were exhausted. Therefore, before practicing the target, letting the user adapt to the post-shooting force will help improve the performance of the exercise, but there is no such technology on the market.

In view of this, the creator specializes in the production, manufacturing and design of toy guns, prop guns and air guns and other related products, and then develops the creation to overcome the above prior art. Missing.

Therefore, the main purpose of this creation is to provide a shooter simulation device relating to a shooter simulation device capable of generating a post-shooting force when the trigger of the trigger is triggered. In order to improve the above-mentioned prior art, the traditional toy guns, prop guns and air guns, etc., can not produce the post-shooting force as a real gun, which significantly reduces the operational interest, and can not be practiced before the target is shot. Let the user first adapt to problems such as seating force after shooting.

In order to achieve the above object, the present invention relates to a shooter simulation device, which comprises a hammer disposed in a trigger having a trigger, an elastic device capable of driving the hammer in a direction opposite to the firing of the shooter, and a The firing direction of the shooter drives the pusher of the hammer, the pusher can drive the hammer to move to the position where the trigger is received and release the hammer, and the elastic device can be opposite to the firing when the trigger is buckled The direction drives the hammer to create a recoil, which simulates the shot.

By the above, the pusher can first push the hammer toward the shooting direction to a position to be fired, so that the hammer and the trigger are snapped together, and the pusher can be returned to the original position, when the user buckles the trigger. The elastic device can drive the hammer to move in the opposite direction of the shooting, and the hammer can generate the simulated rear seat force, thereby simulating the shooting live condition, allowing the user to practice adapting to the recoil force generated by the shooting, and improving the operation fun. Sex.

According to the above main structural features, a ring groove is disposed outside the moving path of the hammer, and the pusher includes a connecting rod disposed between the ring groove and the hammer, and the driving link is driven to the shooting direction and the opposite direction. a moving motor, and a swinging member pivotally connected to the connecting rod, the annular groove includes a first guiding groove extending along the shooting direction, a first inclined groove, and a reversed a second guiding groove extending in a direction, and a second inclined groove, the swinging member is provided with a guiding portion extending into the first guiding groove, and a moving path extending to the hammer and capable of shooting toward the shooting The pushing portion of the hammer is pushed in the direction, and the guiding portion drives the pushing portion of the swinging member to swing to a position deviating from the moving path of the hammer when the guiding portion enters the second guiding groove. A rotating member is disposed on the rotating shaft of the motor, and the connecting rod is pivotally disposed on the rotating member in a manner deviating from the axis of the rotating shaft. In this way, the pushing portion of the swinging member can swing to a position deviating from the moving path of the hammer when the hammer is pushed to the position to be fired, so that the pushing of the swinging member is not hit when the hammer moves in the opposite direction of the shooting. The department makes the pusher work more smoothly.

According to the above main structural features, the hammer is slidably disposed between the elastic device and the pusher, and has the aforementioned position to be fired close to the elastic device, and a firing position close to the pusher, the trigger is disposed on the fired to be fired. Position to brake and release the hammer.

According to the above main structural features, the shooter is provided with a guiding groove extending along the moving path of the hammer, the hammer is slidably disposed in the guiding slot, and the elastic device and the pusher are respectively disposed on the guiding Both ends of the slot.

According to the above main structural features, the hammer is driven by the elastic to strike the inner wall of the shooter, and the elastic can be a spring. In this way, a more realistic vibration effect can be produced.

According to the above main structural features, the two ends of the hammer are respectively provided with an inclined surface for pushing the trigger, and a knocking surface which can receive the pushing of the pusher.

In order to be able to clearly and fully disclose the present creation, and to illustrate the preferred embodiment, a detailed description of the embodiments will be described as follows:

Referring to Figures 1 to 3, a schematic diagram of an embodiment of the present invention is disclosed. The above-described diagram illustrates the present projector simulation device, which is disposed inside a shooter 7 having a trigger 6, and the device includes a The hammer 1, an elastic device 2 that can drive the hammer 1 in the opposite direction to the firing of the shooter 7, and a pusher 3 that can drive the hammer 1 toward the shooting direction of the shooter 7.

The shooter 7 can be a toy gun, an item gun or an air gun. The elastic device 2 can be a spring. The pusher 3 can drive the hammer 1 to move to a position where the trigger 6 is braked, and the trigger 6 is used to brake the hammer 1 The position releases the hammer 1 (as shown in Figures 4, 7 and 9), and the spring 2 can drive the hammer 1 in the opposite direction of the shot when the trigger 6 is engaged, causing the hammer 1 to face the opposite direction of the shot Quickly ejecting a distance to produce a simulated post-seat force (as shown in Fig. 12); wherein the hammer 1 can be driven by the elastic device 2 to strike the inner wall of the shooter 7, or not hit the shooter 7 inner wall, can produce recoil.

The figure also shows that the hammer 1 is slidably disposed between the elastic body 2 and the pusher 3, and has the aforementioned to-be-fired position 41 close to the elastic body 2, and a firing position 42 close to the pusher 3, the shooting The trigger 6 of the device 7 is disposed at the to-be-fired position 41, and the trigger 6 is capable of braking and releasing the hammer 1. Moreover, the firing device 7 is provided with a tubular body 4, and the tubular body 4 is provided with a guiding groove 40 extending along the moving path 10 of the hammer 1. The hammer 1 is slidably disposed in the guiding slot 40. The elastic device 2 and the pusher 3 are respectively disposed at the front and rear ends of the guiding groove 40. The two ends of the hammer 1 are respectively provided with an inclined surface 11 for pushing the trigger 6, and a knocking surface 12 which can be pushed by the pusher 3.

Referring to FIGS. 2 to 4 , in a possible embodiment, the outer side of the moving path 10 of the hammer 1 is provided with a ring groove 5 , and the pusher 3 includes a connection between the ring groove 5 and the hammer 1 . The rod 33, a motor 31 that can drive the link 33 to move in the shooting direction and the reverse direction, and a swinging member 34 pivotally connected to the end of the link 33. Further, a rotating member 32 having a disk shape is disposed on the rotating shaft of the motor 31, and the connecting rod 33 is pivotally placed on the rotating member 32 in a manner deviating from the axis of the rotating shaft.

The annular groove 5 can be disposed on the inner wall of the fire detector 7 and located at the periphery of the guiding groove 40, so that the annular groove 5 communicates with the guiding groove 40, and the annular groove 5 includes one of the sequentially connected ones along the shooting direction. An extended first guiding groove 51, a first inclined groove 52, a second guiding groove 53 extending in the opposite direction of the shooting, and a second inclined groove 54. The oscillating member 34 is provided with a guiding portion 35 which can extend into the first guiding groove 51, and a pushing portion 36 which extends to the moving path 10 of the hammer 1 and can push the hammer 1 toward the shooting direction. When the guiding portion 35 enters the second guiding groove 53 via the first oblique groove 52 (as shown in FIG. 11 ), the pushing portion 36 of the swinging member 34 can be swung to a position away from the moving path 10 of the hammer 1 . .

Referring to Figures 4 to 6, the hammer 1 is located in the firing position 42 when not in use, and the guiding portion 35 of the swinging member 34 is located in the first guiding groove 51 of the annular groove 5, so that the pushing portion 36 of the swinging member 34 is provided. Located on the moving path 10 of the hammer 1, and the hammer 1 is located between the pushing portion 36 of the pusher 3 and the elastic body 2.

Referring to Figures 7 and 8, in use, the motor 31 of the pusher 3 can drive the rotating member 32 to rotate to drive the connecting rod 33 and the swinging member 34 to move toward the elastic member 2, so that the pushing portion 36 of the swinging member 34 faces the The shooting direction pushes the striking surface 12 of the hammer 1 to move the hammer 1 in the direction of the elastic body 2, thereby compressing the elastic member 2; during which the guiding portion 35 of the swinging member 34 is along the annular groove 5 A guide groove 51 moves in the shooting direction. When the inclined surface 11 of the hammer 1 pushes the trigger 6 toward the shooting direction, the trigger 6 can be slid along the inclined surface 11 to be elastically retracted, so that the hammer 1 is pushed away by the inclined surface 11 and passes through the trigger 6.

Referring to FIGS. 9-11, when the pushing portion 36 of the swinging member 34 pushes the hammer 1 toward the shooting position 41 in the shooting direction, the trigger 6 can elastically extend to the moving path 10 of the hammer 1, so that The hammer 1 is self-aligned with the trigger 6; during this time, the guiding portion 35 of the swinging member 34 of the pusher 3 enters the second guiding groove 53 via the first oblique groove 52 of the annular groove 5, and the guiding portion 35 is driven. The swinging member 34 is swung, so that the pushing portion 36 is swung with the swinging member 34 to a position deviated from the moving path 10 of the hammer 1.

Referring to Figures 12 to 14, the motor 31 can drive the guiding portion 35 of the oscillating member 34 to move in the opposite direction of the shooting along the second guiding groove 53 of the annular groove 5, and the pushing portion 36 of the oscillating member 34 is retained. At a position deviating from the movement path 10 of the hammer 1, the push portion 36 is urged to retreat in the opposite direction of the shot. During the period when the guiding portion 35 of the swinging member 34 of the pusher 3 enters the first guiding groove 51 via the second oblique groove 54 of the annular groove 5, the swinging member 34 and the pushing portion 36 are swung and reset with the guiding portion 35. The push portion 36 is swung to the moving path 10 of the hammer 1.

Referring to FIG. 15, when the user buckles the trigger 6, the elastic device 2 can drive the hammer 1 to move in the opposite direction of the shooting to the firing position 42, and the hammer 1 can generate the imaginary rear seat force, and can borrow The hammer 1 is driven by the elastic member 2 to strike the inner wall of the shooter 7 to produce a more realistic vibration effect. According to this, in the simulated shooting live, the user is allowed to practice adapting to the recoil generated by the shooting, and to enhance the fun of the operation. In order to improve the above-mentioned prior art, the traditional toy guns, prop guns and air guns, etc., can not produce the post-shooting force as a real gun, which significantly reduces the operational interest, and can not be practiced before the target is shot. Let the user first adapt to problems such as seating force after shooting.

It can be understood that, when the pusher 3 pushes the hammer 1 to the position to be fired 41, the pushing portion 36 of the swinging member 34 swings to a position away from the moving path 10 of the hammer 1, so that when the hammer 1 is directed toward the shot When the vehicle moves in the opposite direction, it does not strike the push portion 36 of the swinging member 34, so that the operation of the pusher 3 is smoother.

In summary, it is only a preferred embodiment of the present invention, and is not intended to limit the present invention. All other equivalent modifications or substitutions that have been made without departing from the spirit of the present invention should be included in the following patent application. Within the scope.

1‧‧‧ hammer

10‧‧‧Moving path

11‧‧‧Sloping surface

12‧‧‧Knocking surface

2‧‧‧elastic

3‧‧‧Pusher

31‧‧‧Motor

32‧‧‧Rotating parts

33‧‧‧ Connecting rod

34‧‧‧Swinging parts

35‧‧‧Guidance

36‧‧‧Parts

4‧‧‧ tube body

40‧‧‧ guiding slot

41‧‧‧ position to be fired

42‧‧‧Scoring position

5‧‧‧Circle

51‧‧‧First guiding groove

52‧‧‧ first oblique ditch

53‧‧‧Second guiding groove

54‧‧‧Second oblique ditch

6‧‧‧ trigger

7‧‧‧shooter

Figure 1 is a perspective view of a preferred embodiment of the present invention.

Fig. 2 is a partially enlarged perspective view of Fig. 1.

Fig. 3 is an exploded perspective view of Fig. 2.

Fig. 4 is a partially enlarged cross-sectional view showing a perspective of Fig. 1;

Fig. 5 is a partially enlarged cross-sectional view showing another angle of view of Fig. 1.

Fig. 6 is a partially enlarged cross-sectional view showing still another view of Fig. 1.

Fig. 7 is a cross-sectional view showing the next use state of Fig. 4.

Fig. 8 is a cross-sectional view showing the next use state of Fig. 5.

Fig. 9 is a cross-sectional view showing the next use state of Fig. 7.

Fig. 10 is a cross-sectional view showing the next use state of Fig. 8.

Fig. 11 is a cross-sectional view showing the second use state of Fig. 6.

Fig. 12 is a cross-sectional view showing the second use state of Fig. 9.

Fig. 13 is a cross-sectional view showing the next use state of Fig. 10.

Fig. 14 is a cross-sectional view showing the next use state of Fig. 11.

Fig. 15 is a cross-sectional view showing the second use state of Fig. 12.

1‧‧‧ hammer

2‧‧‧elastic

3‧‧‧Pusher

31‧‧‧Motor

32‧‧‧Rotating parts

33‧‧‧ Connecting rod

34‧‧‧Swinging parts

35‧‧‧Guidance

36‧‧‧Parts

4‧‧‧ tube body

40‧‧‧ guiding slot

5‧‧‧Circle

51‧‧‧First guiding groove

52‧‧‧ first oblique ditch

53‧‧‧Second guiding groove

54‧‧‧Second oblique ditch

6‧‧‧ trigger

Claims (18)

A shooter simulation device includes a hammer disposed in a trigger having a trigger, an elastic device capable of driving the hammer in a direction opposite to the firing of the shooter, and a drive capable of driving the shooter toward the shooter a pusher of the hammer, the pusher can drive the hammer to move to a position to receive the trigger and release the hammer, and the elastic device can drive the hammer in the opposite direction of the shot when the trigger is buckled The force is used to simulate shooting. The shooter simulation device of claim 1, wherein the outer side of the moving path of the hammer is provided with a ring groove, and the pusher comprises a connecting rod disposed between the ring groove and the hammer, and the driving device can drive the ring a motor that moves in the shooting direction and the opposite direction, and a swinging member pivotally connected to the connecting rod, the annular groove includes a first guiding groove extending along the shooting direction, and a first a slanting groove, a second guiding groove extending in a direction opposite to the shooting, and a second inclined groove, the oscillating member is provided with a guiding portion extending into the first guiding groove, and an extension to the hammer And a pushing portion of the hammer that can be pushed toward the shooting direction, and the guiding portion drives the pushing portion of the swinging member to swing away from the hammer when the guiding portion enters the second guiding groove The location of the path. The shooter simulation device of claim 2, wherein the rotating shaft of the motor is provided with a rotating member, and the connecting rod is pivoted on the rotating member in a manner deviating from the axis of the rotating shaft. The shooter simulation device of claim 1 or 2 or 3, wherein the hammer is slidably disposed between the elastic device and the pusher, and has a position to be fired close to the elastic device, and a proximity to the The firing position of the pusher, the trigger being disposed at the position to be fired to brake and release the hammer. The shooter simulation device of claim 1, wherein the shooter is provided with a guiding groove extending along the moving path of the hammer, and the hammer is slidably disposed in the guiding groove. The elastic device and the pusher are respectively disposed at two ends of the guiding groove. The ejector simulation device of claim 4, wherein the ejector is provided with a guiding slot extending along the moving path of the hammer, and the hammer is slidably disposed in the guiding slot, the elastic device And the pushers are respectively disposed at two ends of the guiding groove. The shooter simulation device of claim 1 or 2 or 3, wherein the hammer is driven by the elastic to strike the inner wall of the shooter. The shooter simulation device of claim 4, wherein the hammer is driven by the elastic to strike the inner wall of the shooter. The shooter simulation device of claim 5, wherein the hammer is driven by the elastic to strike the inner wall of the shooter. The shooter emulation device of claim 1, wherein each of the two ends of the hammer is provided with an inclined surface that can push the trigger, and a tapping surface that can be pushed by the pusher. The shooter emulation device of claim 4, wherein the hammer is provided with an inclined surface for pushing the trigger and a tapping surface for accepting the push of the pusher. The shooter emulation device of claim 5, wherein the hammer is provided with an inclined surface for pushing the trigger and a tapping surface for accepting the push of the pusher. The shooter emulation device of claim 7, wherein the hammer has an inclined surface that can push the trigger, and a tapping surface that can be pushed by the pusher. The shooter simulation device of claim 1 or 2 or 3, wherein the elastic device is a spring. The shooter simulation device of claim 4, wherein the elastic device is a spring. The shooter simulation device of claim 5, wherein the elastic device is a spring. The shooter simulation device of claim 7, wherein the elastic device is a spring. The shooter simulation device of claim 10, wherein the elastic device is a spring.