TWM615344U - Toy gun - Google Patents

Abstract

A toy gun capable of ejecting a shell, wherein the shell includes a ring groove and a recess, and the toy gun includes a lower receiver, a reciprocating slide, a magazine, a trigger assembly, a chamber, a shell ejector assembly, and a shell-holder assembly. The reciprocating slide is connected to the lower receiver and can move relative to the lower receiver, and the reciprocating slide includes a shell ejection port. The magazine is detachably installed inside the lower receiver, and the magazine is used for accommodating multiple magazine shells. The trigger assembly is installed inside the lower receiver and able to move freely to induce the reciprocating movement of the slide. The lower part of the chamber is fixed onto the lower receiver whereas the upper part is accommodated inside the reciprocating slide. The shell ejector assembly is situated on the lower receiver, and the shell ejector assembly has an ejecting part. The shell-holder assembly is attached on the slide wherein the assembly includes a telescopic protrusion and a shell extractor. The shell extractor is used for grabbing the shell’s ring groove, and the telescopic protrusion is used for securing the shell in place with the protrusion part extended into the concave part of the shell. When the trigger assembly drives the slide to move accordingly toward the first direction, the bottom of the shell’s casing is being pushed by the ejector while the ring groove is being pulled by the extractor. As a result, the shell is ejected out of the ejection port in a rotating fashion.

Description

Toy gun

This creation is about a toy gun, and especially about a toy gun that can be thrown out and covered with a sliding sleeve. .

The development of toy guns in recent years not only emphasizes the simulation of appearance and quality, some toy guns emphasize the shooting like a real gun when used. In addition to using mechanism actions to produce action effects such as shooting, it is also necessary to produce simulated throwing. The effect of the shell, some shooting training abroad, it is necessary to simulate the real shooting effect of the toy gun, so that you can quickly get started in the live ammunition practice in the future.

How to improve the lack of customary structure is a topic that the relevant industry actively solves.

This creation provides a realistic toy gun.

This creation provides a toy gun capable of ejecting a shell, wherein the shell includes a ring groove and a recess, and the toy gun includes a gun body, a sliding sleeve, a magazine, a trigger assembly, a barrel, a shell ejection piece, and a device containing a bullet. The sliding sleeve is connected to the gun body and can move relative to the gun body, and the sliding sleeve includes a shell ejection hole. The magazine is detachably installed on the gun body, and the magazine is used for accommodating a plurality of magazine shells. The trigger assembly is movably arranged in the gun body and slides continuously when moving set. Part of the barrel is accommodated in the gun body and the other part is accommodated in the sliding sleeve, wherein the barrel is fixed to the gun body. The shell ejection piece is arranged on the gun body, and the shell ejection piece has a pushing part. The elastic device is arranged on the sliding sleeve, wherein the elastic device includes an elastic protrusion and a shell catching hook. The shell catching hook is used for hooking the ring groove, and the elastic protrusion is used for elastically supporting the concave portion. When the trigger assembly drives the sliding sleeve to move in the first direction, the bottom of the cartridge case is pushed by the ejection part and cooperates with the force of the shell hook to hook the ring groove to generate the force to rotate the cartridge case toward the ejection part and make the cartridge case self-ejection hole Get out of the sliding sleeve.

In an embodiment, the magazine includes a magazine body, a magazine bottom plate, an elastic plate, and an elastic spring. The bottom plate of the box is detachably installed on the bottom of the box body. The bullet-bearing plate is movably arranged in the box body for carrying the bullet shell. The elastic spring has two ends, one end abuts the bottom plate of the top box, and the other end abuts the elastic plate.

In one embodiment, the bottom plate of the box and the surface of the elastic plate facing each other each have a cylinder, and the end of the elastic spring is sleeved on the corresponding cylinder.

In an embodiment, the box body has a first guiding and limiting structure, and the ball bearing plate has a second guiding and limiting structure, and the first guiding and limiting structure and the second guiding and limiting structure are fitted with each other to limit The bullet-bearing plate moves linearly in the box.

In an embodiment, one of the first guiding and limiting structure and the second guiding and limiting structure is a convex rib, and the other of the first guiding and limiting structure and the second guiding and limiting structure is track.

In one embodiment, the bullet-bearing plate has a ridge for supporting the bullet shell placed in the box.

In one embodiment, the trigger assembly includes a trigger, a return spring, a limiter Position boss and tenon. The flip piece has a groove. The return spring is installed in the groove, and one end of the return spring abuts against the gun body, and the other end abuts against the trigger. The limiting convex column is arranged in the groove and has a convex column part and an arc-shaped fixing part. One end of the return spring is sleeved on the convex column part, and the arc-shaped fixing part correspondingly abuts against the locking element provided through the trigger. The tenon is arranged at the front end of the trigger, and can rotate relative to the trigger to tilt upwards.

In one embodiment, the trigger has a body portion and a triggering portion, the triggering portion is connected to the rear end of the body, and the triggering portion has an arc shape suitable for contact with the gun body to limit the distance of the trigger relative to the gun body. Flange.

In one embodiment, the flip part further has a slot at the front side of the connection between the main body part and the flip part.

In one embodiment, the trigger assembly further includes a slider force accumulating assembly, which is installed at the front end of the trigger.

In an embodiment, the slider force accumulating assembly includes a fixing seat, a slider, and a force accumulating elastic member. The fixing seat is arranged on the sliding sleeve and has a sliding groove. The sliding block is movably arranged in the chute. The accumulating elastic member is connected to the fixed seat and the sliding block to provide elastic restoring force to the sliding block.

In an embodiment, the force-storing elastic member is a rubber band, an O-ring or a spring.

In an embodiment, the fixing seat has a buckle groove, and the latch of the trigger assembly is correspondingly locked into the buckle groove when the trigger assembly is tilted upward.

In an embodiment, the fixing base further has a locking groove for accommodating the elastic switch of the locking element of the barrel.

In an embodiment, the slider force accumulating assembly further includes a tongue, and the tongue is The cantilever is arranged on the fixed seat and located between the fixed seat and the barrel, and is used to unlock the locking groove by the elastic switch in the locking groove.

In an embodiment, the barrel includes a main body, a locking element, and a barrel. The main body is arranged on the trigger assembly. The locking element is installed on the front side of the main body. The barrel is installed on the locking element, and the locking element is located between the main body and the barrel.

A toy gun includes a gun body, a sliding sleeve, a barrel, a trigger assembly, and a slider power accumulating assembly. The sliding sleeve is connected to the gun body, and the gun bore is fixed to the gun body. The gun bore includes a locking element, and the locking element has an elastic switch that can move up and down. The trigger assembly is movably arranged in the gun body. The trigger assembly includes a trigger and a tenon. The tenon is arranged at the front end of the trigger and can rotate relative to the trigger to tilt upwards. The sliding block power storage assembly includes a fixed seat, a sliding block and a power storage elastic member. The fixing seat is connected to the sliding sleeve and is located on the trigger assembly. The fixing seat has a sliding groove, a locking groove and a buckle groove, wherein the elastic switch of the locking element can correspondingly snap into the locking groove to restrict the movement of the fixing seat in the first direction. The sliding block is movably arranged in the sliding groove, and the sliding block has an unlocking front edge. The accumulating elastic member is connected to the fixed seat and the slider, wherein the accumulating elastic member is used to generate an elastic restoring force when the slider moves in the chute, so that when the trigger assembly moves in the first direction, the tenon tilts upward After pressing the buckle groove and driving the sliding block to move a certain distance in the sliding groove, the unlocking front edge pushes the elastic switch up to leave the locking groove, and the elastic restoring force causes the fixing seat to drive the sliding sleeve to move in the first direction.

In an embodiment, the trigger assembly further includes a return spring pressed between the gun body and the trigger.

In an embodiment, the toy gun further includes a bottom cover and a sliding sleeve resetting elasticity The bottom cover is arranged on the rear side of the sliding sleeve, the ejecting component is fixed on the gun body, and the sliding sleeve reset elastic piece is connected between the bottom cover and the ejecting component.

In an embodiment, the elastic force of the sliding sleeve resetting elastic element is less than the elastic force of the accumulating elastic element.

Based on the above, in the toy gun of this creation, the sliding sleeve is used to cover the assembly and the shell ejection structure, so it can simulate the recoil force of the bullet fired by the real gun and the ejection of the shell, so that the toy gun of this creation can be closer to the real gun. Use the way to enhance the interest of the players.

1: toy gun

11: gun body

111: first structure

12: Sliding sleeve

12a: Shell ejection hole

12b: Second structure

13: Magazine

131: box body

131a: The first guide limit structure

132: Box bottom plate

132a, 133a: cylindrical

133: Bullet Bearing Plate

133b: The second guide limit structure

133c: convex ridge

134: Elastic spring

14: Trigger assembly

141: Flip

141a: Groove

141b: body part

141c: Pulling part

141d: curved flange

141e: Let notch

141f: stop

142: return spring

143: Limit convex column

143a: Convex column

143b: Arc-shaped fixed part

144: Tenon

15: barrel

151: Subject

151a: Uphill

151b: Embedded hole

152: Locking element

152a: Flexible switch

152b: Front surface

152c: rear surface

152d: Part One

152e: part two

153: Barrel

154: Shell unit

155: Sliding sleeve release element

156: Limit bump

157: Outer shell elastic part

16: Shell throwing parts

161: Launch Department

17: Ammunition device

171: Elastic bulge

172: Catch the Shell Hook

173: Bouncing rail

18: Slider power storage assembly

181: fixed seat

181a: Chute

181b: Locking groove

181c: Guide slope

182: Slider

182a: buckle slot

182b: Unlock the leading edge

183: accumulating elastic parts

184: Tongue

191: bottom cover

192: Sliding sleeve reset elastic piece

2: bullet case

21: Ring groove

22: recess

D1: First direction

d1, d2: width

Fig. 1 is a schematic diagram of a toy gun capable of ejecting cartridge cases according to an embodiment of the creation.

Fig. 2 is an exploded schematic diagram of the toy gun of Fig. 1.

FIG. 3 is a schematic view of the magazine of FIG. 1 from another angle.

Fig. 4 is a schematic diagram of the trigger assembly in the toy gun of Fig. 2.

Fig. 5A is a schematic diagram of the power storage assembly of the slider.

Fig. 5B is a schematic view of another view of the power storage assembly of the slider.

Fig. 6 is a schematic diagram of the barrel of Fig. 2 after being assembled.

6A and 6B are schematic diagrams of different viewing angles of the flexible switch.

Figure 7 is a schematic diagram of the bottom cover and the sliding sleeve resetting elastic member and the shell ejecting member assembling.

Fig. 8A is a schematic diagram of pulling the sliding sleeve to move the gun body backward relative to the sliding sleeve.

Fig. 8B is a schematic diagram of the bullet casing entering the upward bullet slope.

Figure 9 is a schematic diagram of the bullet being loaded after the sliding sleeve is reset.

Figure 10 is a schematic diagram of pulling the trigger to load the bullet.

Fig. 11 is a schematic diagram showing that the fixing seat is driven by the force-storing elastic member to drive the sliding sleeve to move.

Figures 12 to 13 are schematic diagrams of the linkage of shell ejection after shooting.

Figure 14 is a schematic diagram of the empty warehouse hanging up.

The foregoing and other technical content, features and effects of this creation will be clearly presented in the following detailed description of a preferred embodiment with reference to the accompanying drawings. The terms of direction or orientation mentioned in the following embodiments, for example: up, down, left, right, front or back, and above, below, and on the left (side) of , On the right (side) of, in front (side) of, or behind (side) of, etc., are only the directions with reference to the drawings. Therefore, the terms used in the direction or orientation are only used to illustrate, not to limit this creation.

[Toy Gun]

FIG. 1 is a schematic diagram of a toy gun capable of ejecting cartridge cases according to an embodiment of the creation, and FIG. 2 is an exploded schematic diagram of the toy gun in FIG. 1. Please refer to FIGS. 1 and 2 at the same time. The cartridge case 2 of the toy gun 1 used in this embodiment includes a ring groove 21 and a recess 22. It should be noted that in one of the embodiments of this creation, the bullet only includes the cartridge case and does not include the warhead. Therefore, the toy gun 1 does not fire the bullet that fires the bullet. Instead, the cartridge case 2 will be ejected after the bullet is fired by simulating a real gun shot. Therefore, if the following description involves the term "bullet", it should be regarded as equivalent to the term "bullet".

The toy gun 1 of this embodiment includes a gun body 11, a sliding sleeve 12, a magazine 13, The trigger assembly 14, the barrel 15, the shell ejector 16, and the bullet-containing device 17. The sliding sleeve 12 is connected to the gun body 11 and can move relative to the gun body 11, and the sliding sleeve 12 includes a shell ejection hole 12a. The magazine 13 is detachably installed on the gun body 11, wherein the magazine 13 is used for accommodating a plurality of magazine cases 2. The trigger assembly 14 is movably disposed in the gun body 11 and links the sliding sleeve 12 when moving. Part of the barrel 15 is accommodated in the gun body 11 and the other part is accommodated in the sliding sleeve 12, wherein the barrel 15 is fixed to the gun body 11. The shell ejection member 16 is disposed on the gun body 11, and the shell ejection member 16 has a pushing part 161. The elastic device 17 is disposed on the sliding sleeve 12, wherein the elastic device 17 includes an elastic protrusion 171 and a shell hook 172. The shell hook 172 is used for hooking the ring groove 21, and the elastic protrusion 171 is used for elastically supporting the recess 22. When the trigger assembly 14 drives the sliding sleeve 12 to move in the first direction D1, the bottom of the cartridge case 2 is pushed by the ejection portion 161 and cooperates with the force of the shell hook 172 to hook the ring groove 21 to rotate the cartridge case 2 toward the ejection portion 161 The force of the force and make the cartridge case 2 escape the sliding sleeve 12 from the shell ejection hole 12a.

FIG. 3 is a schematic view of the magazine of FIG. 1 from another angle. Please refer to FIGS. 1 to 3 at the same time. The magazine 13 includes a magazine body 131, a magazine bottom plate 132, an elastic plate 133 and an elastic spring 134. The box bottom plate 132 is detachably installed on the bottom of the box body 131. The bullet-bearing plate 133 is movably arranged in the box body 131 for supporting the bullet shell 2. The elastic spring 134 is disposed in the box body 131 and has two ends, one end of which is against the bottom plate 132 of the box, and the other end is against the elastic plate 133.

In view of the above, the cassette bottom plate 132 and the elastic bearing plate 133 respectively have cylinders 132a and 133a on the surfaces facing each other, and the ends of the elastic spring 134 are sleeved on the corresponding cylinders 132a and 133a. Cylinders 132a, 133a are provided for the end of the elastic spring 134 to be sleeved correspondingly, which can prevent the end of the elastic spring 134 from running due to excessive deformation when the elastic spring 134 is compressed. Bit situation.

In addition, the box body 131 has a first guiding and limiting structure 131a, and the ball bearing plate 133 has a second guiding and limiting structure 133b, wherein the first guiding and limiting structure 131a and the second guiding and limiting structure 133b are embedded in each other Together to limit the linear movement of the bullet-bearing plate 133 in the box body 131. In an embodiment, the first guiding and limiting structure 131a is a rib, and the second guiding and limiting structure 133b is a track; however, it is not limited to this, and the first guiding and limiting structure 131a can also be used as a rail. It is a track, and the second guiding and limiting structure 133b is a rib. Through the cooperation of the first guiding and limiting structure 131 a and the second guiding and limiting structure 133 b, the ball bearing plate 133 can only move linearly in the box body 131.

Through the arrangement of the above-mentioned cylinders 132a, 133a and the cooperation of the first guiding and limiting structure 131a and the second guiding and limiting structure 133b, the elastic spring 134 can be compressed or stretched during the deformation process. Maintaining the positions of the bottom plate 132 of the box and the end of the elastic plate 133 will not cause the end of the elastic spring 134 to run out of position and cause the jam.

On the other hand, the bullet-bearing plate 133 has a ridge 133c for supporting the bullet shell 2 placed in the box body 131. Incidentally, the contour inside the box body 131 can be designed so that two rows of the cartridge cases 2 can be accommodated at the bottom of the box body 131, and as the bullet-bearing plate 133 gradually moves the cartridge case 2 to the upper part of the box body 131, the cartridge case 2 Gradually arrange from two rows into one row. Specifically, one of the two opposite inner walls in the box body 131 is gradually inclined toward the other from bottom to top. Through such a design, a larger number of cartridge cases 2 can be accommodated in the magazine 13.

FIG. 4 is a schematic diagram of the trigger assembly 14 in the toy gun 1 of FIG. 2. Please refer Referring to FIGS. 2 and 5A, the trigger assembly 14 includes a trigger 141, a return spring 142, a limiting protrusion 143 and a tenon 144. The flipper 141 has a groove 141a. The return spring 142 is installed in the groove 141a. The limiting protrusion 143 is arranged in the groove 141a, and has a protrusion portion 143a and an arc-shaped fixing portion 143b. One end of the return spring 142 is sleeved on the protrusion portion 143a, and the arc-shaped fixing portion 143b is correspondingly abutted and penetrated The trigger 141 is provided with a locking element 152. The tenon 144 is arranged at the front end of the trigger 141 and can rotate relative to the trigger 141 to tilt upward or sink.

In an embodiment of this creation, the two sides of the tenon 144 are connected by pivoting plates 141, and the lower half of the tenon 144 is heavier. When the tenon 144 is not affected by external force, the lower half of the tenon 144 is affected by The gravity affects the sinking, so that the tenon 144 can rotate relative to the trigger 141 to tilt upward. Alternatively, the first structure 111 can be provided inside the gun body 11 to tilt the tenon 144 up.

Specifically, the flip piece 141 has a body portion 141b and a flip portion 141c, and the flip portion 141c is connected to the rear end of the main portion 141b. Normally, the player pulls the flip part 141c to shoot. In order to limit the moving distance of the trigger 141 relative to the gun body 11, the rear side of the trigger part 141 c has an arc-shaped flange 141 d suitable for contact with the gun body 11.

In view of the above, the flip piece 141 also has a slot 141e located on the front side of the connection between the main body portion 141b and the flip portion 141c. The arrangement of the slot 141e can increase the movable distance of the trigger 141 relative to the gun body 11.

Fig. 5A is a schematic diagram of the power storage assembly of the slider. Please refer to FIG. 1, FIG. 2 and FIG. 5A at the same time. The toy gun 1 also includes a slider force accumulating assembly 18 installed at the front end of the trigger 141.

The aforementioned sliding block force storage assembly 18 includes a fixed seat 181, a sliding block 182 and a force accumulating elastic member 183. The fixing seat 181 is disposed on the sliding sleeve 12 and is located at the front end of the trigger member 141, and the fixing member 181 has a sliding groove 181a. The slider 182 is movably provided in the sliding groove 181a. The accumulating elastic member 183 is connected to the fixing base 181 and the sliding block 182 to provide elastic restoring force to the sliding block 182 or the fixing base 181. The accumulating elastic member 183 can be a rubber band, an O-ring or a spring.

Fig. 5B is a schematic diagram from another perspective of the power storage assembly of the slider. The bottom of the slider 182 is provided with a buckle groove 182a(, and when the tenon 144 is upwardly tilted, it will correspondingly snap into the buckle groove 182a, so as to interfere with the force storage assembly 18 of the slider.

The fixing base 181 also has a locking groove 181b for accommodating the elastic switch 152a of the locking element 152 of the barrel 15 (details will be described later). The slide force accumulating assembly 18 further includes a tongue piece 184, wherein the tongue piece 184 is arranged on the fixed seat 181 in a cantilever manner and is located between the fixed seat 181 and the barrel 15. The tongue piece 184 is used to contact the elastic switch 152a of the locking element 152, and the tongue piece 184 interferes with the elastic switch 152a to a certain extent, the tongue piece 184 will cause the elastic switch 152a to escape the locking groove 181b.

Fig. 6 is a schematic diagram of the barrel of Fig. 2 after being assembled, in which Fig. 6 does not show the barrel and the locking element. Please refer to FIGS. 1, 2 and 6 at the same time. The barrel 15 includes a main body 151, a locking element 152 and a barrel 153. The main body 151 is provided on the trigger assembly 14. The locking element 152 is installed on the front side of the main body 151. The barrel 153 is installed on the locking element 152, and the locking element 152 is located between the main body 151 and the barrel 153. The locking element 152 and the main body 151 are assembled together by structural cooperation. The locking element 152 also includes an elastic switch 152a, which will be locked into the locking groove of the fixing base 181 181b. Therefore, when the locking element 152 is assembled to the main body 151, it is necessary to have a structure that facilitates the identification of the assembly direction. Therefore, a cross-shaped protrusion is provided on the locking element 152, and a cross-shaped recess is provided on the main body 151. The locking element 152 is installed on the main body 151 in this way, but the creation is not limited to this.

The elastic switch 152a may be capable of protruding from the locking element 152 relative to the locking element 152 by using its own weight or using an elastic member, and can be retracted into the locking element 152 by an external force. In another embodiment not shown, the elastic switch 152a can also be protruded or retracted into the locking element 152 by means of magnetic attraction, or correspondingly snapped into the locking groove 181b of the fixing seat 181.

In response to the elastic switch 152a of the locking element 152 being locked into the locking groove 181b of the fixing base 181, the slider 182 has an unlocking front edge 182b for pushing the elastic switch 152a upward when the trigger assembly 14 moves to release the elastic switch 152 from being fixed. The position of the locking groove 181b of the seat 181 is limited. In addition, the aforementioned tongue 184 is also used to release the elastic switch 152 from restricting the locking groove 181b of the fixing base 181.

Specifically, the elastic switch 152a faces the unlocking front edge 182b or the front surface 152b and the rear surface 152c of the tongue 183 are set in the form of an inclined surface (as shown in FIG. 2), wherein the sliding groove 181a has a guiding inclined surface 181c to unlock The front edge 182b and the tongue piece 183 facing the front end of the elastic switch 152a are also provided as slopes. When the slider force accumulating assembly 18 moves forward relative to the barrel 15 (that is, toward the reverse of the first direction D1), it is guided by the cooperation of the rear surface 152c of the elastic switch 152a and the guiding inclined surface 181c of the sliding groove 181a. The elastic switch 152a is correspondingly locked into the locking groove 181b; and when the slide force accumulating assembly 18 moves backward relative to the barrel 15 (that is, in the first direction D1), it passes through the front surface of the elastic switch 152a. The guiding of the surface and the inclined surface provided at the front end of the unlocking front edge 182b and the tongue piece 183 can allow the unlocking front edge 182b or the tongue piece 183 to lift the elastic switch 152a upward to retract into the locking element 152.

6A and 6B are schematic diagrams of different viewing angles of the flexible switch. Please refer to FIGS. 2, 6A and 6B at the same time. Incidentally, the bottom of the elastic switch 152a corresponding to the locking groove 181b has a width change, so that the elastic switch 152a and the locking groove 181b can be better locked with each other. In detail, the elastic switch 152a has a first part 152d and a second part 152e, wherein the first part 152d has a wider width d1 and is correspondingly locked into the locking groove 181b, and the second part 152e has a narrower width d2 and is locked into In the chute 181a.

In addition, the side of the main body 151 close to the magazine 13 also has an upward elastic slope 151a, and the bullet-containing device 17 also has an upward elastic rail 173, wherein the upward elastic rail 173 is used to push the case 2 into the upward elastic slope 151a to guide the case 2 loaded.

The barrel 15 also includes a housing unit 154 installed on the main body 151. The shell unit 154 normally covers the ejection hole 12a, and only when the sliding sleeve 12 moves relative to the gun body 11, the ejection hole 12a is exposed, and the cartridge case 2 is ejected from the ejection hole 12a.

Specifically, the barrel 15 further includes a housing ejecting elastic member 157 disposed in the main body 151, and the housing ejecting elastic member 157 is used to press the housing unit 154.

The front edge of the shielding hole 12 a of the sliding sleeve 12 contacts the housing unit 154 so that the sliding sleeve 12 interferes with the housing unit 154. When the sliding sleeve 12 retreats, the sliding sleeve 12 will press down the housing unit 154 of the barrel 15, and because the housing unit 154 is restricted to move only in the vertical direction, when the sliding sleeve 12 retreats, the housing unit 154 No longer cover the shell throwing The hole 12a exposes the ejection hole 12a.

When the sliding sleeve 12 is reset, the elastic restoring force of the shell ejecting the elastic member 157 causes the shell unit 154 to move along the vertical direction and return to the original position. With the reset of the sliding sleeve 12, the ejection hole 12a also returns to its original position and is covered by the housing unit 154.

The inner surface of the sliding sleeve 12 contacting the housing unit 154 or the outer surface of the housing unit 154 contacting the sliding sleeve 12 can be set as a slope to increase the amount of interference to the housing unit 154 during the backward movement of the sliding sleeve 12.

The barrel 15 further includes a sliding sleeve releasing element 155, and the main body 151 has an insertion hole 151b for the sliding sleeve releasing element 155 to be inserted. The action and function of the sliding sleeve release element 155 will be described in detail later. In addition, in order to limit the rotation of the sliding sleeve release element 155, the main body 151 also has a limiting protrusion 156, which is arranged beside the embedding hole 151b. When the sliding sleeve releasing element 155 rotates to contact the limiting protrusion 156, the limiting protrusion 156 interferes with the sliding sleeve releasing element 155, so that the sliding sleeve releasing element 155 can no longer rotate. The limiting protrusion 156 may be formed of rubber, and is arranged beside the embedding hole 151b by means of installation.

The limit protrusion 156 also provides a weak upward force of the sliding sleeve releasing element 155, so that the sliding sleeve releasing element 155 will not jump up and jam the sliding sleeve 12 due to the vibration generated when the sliding sleeve 12 moves back and forth; When the warehouse hangs up, in addition to releasing the sliding sleeve 12 by pressing the sliding sleeve release element 155, you can also manually continue to pull the sliding sleeve 12 back a little, because at this time the sliding sleeve release element 155 no longer touches the slot of the sliding sleeve 12 , The force provided by the aforementioned limit protrusion 156 prompts the sliding sleeve release element 155 to rotate and fall. At this time, the sliding sleeve 12 is released, and the sliding sleeve 12 can be reset without being blocked by the sliding sleeve release element 155, completing the simulation operation (this action is called Power Stroke).

Figure 7 is a schematic diagram of the bottom cover and the sliding sleeve resetting elastic member and the shell ejecting member assembling. Please refer to FIGS. 1, 2 and 7 at the same time. The toy gun 1 further includes a bottom cover 191 and a sliding sleeve reset elastic member 192, wherein the bottom cover 191 is disposed on the rear side of the sliding sleeve 12, and the sliding sleeve The reset elastic member 192 is connected between the bottom cover 191 and the shell ejection member 16.

[Operation of toy gun 1]

Please refer to Figure 1 to Figure 7 at the same time.

When the player operates toy gun 1, he must first load the bullet. Then, the player pulls the trigger 141 of the trigger assembly 14, and through the mechanism of the gun body 11, the sliding sleeve 12, the magazine 13, the trigger assembly 14, the barrel 15, the shell ejector 16, and the bullet-containing device 17, etc. The cooperation of the components allows the cartridge case 2 to be ejected from the shell ejection hole 12a of the sliding sleeve 12, so as to simulate the situation where the cartridge case 2 is ejected after the bullet is fired by a real gun.

The actual operating conditions of the toy gun 1 when the toy gun 1 is used will be described in detail below.

There are two ways to load the bullet, one is to pull the sliding sleeve 12 to load the bullet, and the other is to pull the trigger directly to load the bullet.

First, the method of pulling the sliding sleeve 12 to load the bullet will be explained.

Please refer to FIGS. 1 and 2 at the same time. Generally, the first structure 111 of the gun body 11 pushes up the tenon 144 of the trigger assembly 14, and the tenon 144 is upwardly tilted and engages in the slide force accumulating assembly 18 The buckle groove 182a of the slider 182, so the slider 182 is restricted and fixed at this time.

Fig. 8A is a schematic diagram of pulling the sliding sleeve to move the gun body backward relative to the sliding sleeve. picture 8B is a schematic diagram of the bullet casing entering the uphill slope. Please refer to Figure 2, Figure 8A and Figure 8B at the same time. The player first pulls the sliding sleeve 12 to move the sliding sleeve 12 backward relative to the gun body 11.

Since the bottom cover 191 is fixed to the rear end of the sliding sleeve 12, and one end of the sliding sleeve resetting elastic member 192 is fixed to the bottom cover 191 and the other end of the sliding sleeve resetting elastic member 192 is fixed to the shell ejection member 16 provided on the gun body 11. Therefore, when the player pulls the sliding sleeve 12 to move backward, the bottom cover 191 provided at the rear end pulls the sliding sleeve reset elastic member 192 to deform and accumulate the elastic restoring force. The fixing seat 181 of the sliding block accumulating assembly 18 is fixed to the sliding sleeve 12 and moved by the linkage of the sliding sleeve 12, and the sliding block 182 moves with the linkage of the fixing base 181 and the sliding sleeve 12, so that the tenon 144 and the sliding sleeve 12 move together. The engagement of the buckle groove 182a is released, and the tenon 144 is pressed by the front end of the sliding sleeve 12 to rotate and sink, and the tenon 144 is no longer tilted. The tongue 184 disposed above the fixing base 181 will move the elastic switch 152a of the locking element 152 upward along with the movement of the fixing base 181 to release the locking of the elastic switch 152a on the locking groove 181b of the fixing base 181.

As the sliding sleeve 12 continues to move toward the first direction D1, the bottom of the slider 182 will abut the stopper 141f, thereby driving the puller 141 to move backward, and compress the return spring 142 (as shown in FIGS. 9 and 10) Compression of the return spring 142).

At this time, the elastic device 17 is driven by the sliding sleeve 12 to leave above the magazine 13, and the elastic spring 134 installed in the box body 131 of the magazine 13 provides elastic restoring force to push the elastic plate 133 upward, and then The uppermost bullet is allowed to enter the upper bullet 151a of the main body 151 of the barrel 15.

Figure 9 is a schematic diagram of the bullet being loaded after the sliding sleeve is reset. Please refer to Figure 2, Figure 8B, and Figure 9 at the same time, and after the player's hand leaves the sliding sleeve 12, reset the bomb through the sliding sleeve The elastic restoring force of the sex member 192 drives the sliding sleeve 12 to slide forward, and the sliding sleeve 12 returns to the original position.

At this time, as the sliding sleeve 12 slides forward, the bullet-containing device 17 is linked by the sliding sleeve 12, and the upper bullet guide 173 pushes the bullet located on the upper bullet slope 151a into the main body 151 of the barrel 15 to The bullet is loaded.

Another way is to directly pull the trigger 141 of the trigger assembly 14 to load the bullet.

Figure 10 is a schematic diagram of pulling the trigger to load the bullet. Please refer to Figure 1, Figure 2 and Figure 10 at the same time. Specifically, the player directly pulls the trigger 141 and moves to the rear side of the gun body 11 with the trigger 141. A structure 111 pushes up and warps up against the buckle groove 182a of the slider 182. Therefore, the slider 182 can be driven to move relative to the fixed seat 181 toward the first direction D1 (ie, the rear side) along with the movement of the trigger 141.

As the sliding block 182 moves relative to the fixing base 181, the unlocking front edge 182b of the sliding block 182 pushes the elastic switch 152a of the locking element 152 upward to unlock the locking groove 181b of the fixing base 181 by the elastic switch 152a.

Fig. 11 is a schematic diagram showing that the fixing seat is driven by the force-storing elastic member to drive the sliding sleeve to move. Please refer to Figure 1, Figure 2 and Figure 11 at the same time, after the elastic switch 152a unlocks the locking groove 181b, because the slider 182 moves relative to the fixing seat 181, the elastic restoring force accumulated by the deformation of the force-storing elastic member 183 drives the fixing The seat 181 moves, and then the sliding sleeve 12 is linked to drive the bullet-containing device 17 to move to the rear side of the gun body 11.

The elastic device 17 is driven by the sliding sleeve 12 to leave above the magazine 13, and the elastic spring 134 installed in the box body 131 of the magazine 13 provides elastic restoring force to hold the elastic plate 133 pushes upwards, so that the uppermost bullet enters the upward bullet 151a of the main body 151 of the barrel 15 (please refer to FIG. 8B).

After the player stops exerting force on the puller 141, the elastic restoring force of the return spring 142 drives the puller 141 back to the original position, and the sliding sleeve 12 is driven by the elastic restoring force of the sliding sleeve restoring elastic member 192 to return to the original position.

Incidentally, if the player continues to hold down the trigger, the sliding sleeve 12 will also automatically reset (because the latch 144 is still in a sinking state), which is a simulation operation feature.

At this time, as the sliding sleeve 12 slides forward, the bullet-containing device 17 is linked by the sliding sleeve 12 and uses its upper bullet rail 173 to push the bullets located on the upper bullet slope 151a into the main body 151 of the barrel 15 and the containing The position between the bullet device 17 to load the bullet.

Incidentally, the elastic restoring force of the sliding sleeve reset elastic member 192 is smaller than the elastic restoring force of the accumulating elastic member 183. This is because the direction of the elastic restoring force provided by the sliding sleeve restoring elastic member 192 is opposite to the direction of the elastic restoring force provided by the accumulating elastic member 183, so when the elastic restoring force of the sliding sleeve restoring elastic member 192 is greater than that of the accumulating elastic member With the elastic restoring force of 183, the movement stroke of the sliding sleeve will be affected and cannot move to the preset position.

Figures 12 to 13 are schematic diagrams of the linkage of shell ejection after shooting. Please refer to Figure 2 and Figure 12 to Figure 13 at the same time. After the bullet is loaded, the player then pulls the trigger 141.

The movement of the trigger 141 drives the slider 182 of the slider force storage assembly 18 to move. At this time, the sliding sleeve 12 still does not move because the fixed seat 181 has not moved, and as the slider 182 moves relative to the fixed seat 181, the force is stored elastically. Piece 183 began to accumulate power.

When the trigger 141 and the slider 182 connected to the trigger 141 move a certain distance After being separated, the sliding block 182 moves in the sliding rail of the fixed seat 181, and the unlocking front edge 182b of the sliding block 182 pushes the elastic switch 152a of the locking element 152 upward. At this time, the entire sliding sleeve 12 receives the elasticity of the accumulating elastic member 183. Release to move in the first direction D1.

When the sliding sleeve 12 starts to move, the sliding sleeve resetting elastic member 192 arranged between the bottom cover 191 and the shell ejection member 16 accumulates force. After the sliding sleeve 12 is moved, the elastic restoring force provided by the sliding sleeve resetting elastic member 192 makes the Set 12 back to the original position.

At the same time, if the bomb-containing device 17 already holds the cartridge case 2, as the sliding sleeve 12 moves backward, the cartridge case 2 will be driven to move toward the shell ejection member 16, and when the cartridge case 2 is moved backward, it touches the ejection part 161. , The cartridge case 2 is pushed by the pushing part 161 and at the same time it is gripped by the shell hook 172, thus generating the force of rotation, and the cartridge case 2 is rotatably ejected from the shell ejection hole 12a of the sliding sleeve 12.

As the player pulls the trigger 141 again to make the sliding sleeve 12 move backward, the elastic spring 134 arranged in the box body 131 of the magazine 13 pushes the elastic plate 133 to push the next shell 2 on top, and the sliding sleeve 12 When starting to move forward, the upper bullet guide 173 of the bullet-containing device 17 moves the next bullet shell 2 into the gun bore 15 along the upper bullet slope 151a of the gun bore 15 and returns with the sliding sleeve 12 forward.

From the above, as the player pulls the trigger, the cartridge case 2 will be continuously ejected from the shell ejection hole 12a until all the cartridge cases 2 in the magazine 13 are ejected out of the shell ejection hole 12a.

It can be seen from the above that the toy gun 1 of the present invention can imitate the real shell ejection action without the need of gas or battery to provide power, and the shell ejection action is smooth.

In addition, when pulling the trigger 141 to simulate firing a bullet, the sliding sleeve 12 It will also be inverted back and forth relative to the gun body 11, simulating the recoil of a real gun, adding more realism.

In addition, the toy gun 1 of this creation can be matched with a laser target, and will not shoot off offensive bullets, thus providing a safe and realistic shooting environment.

Of course, the toy gun 1 of the present invention is not limited to the method of not firing bullets. In other embodiments, in order to add fun or simulation, it can also be changed to a toy gun capable of firing bullets as required.

[Disposal when the empty warehouse hangs up]

Figure 14 is a schematic diagram of the empty warehouse hanging up. Please refer to Figures 2 and 14, after all the shells 2 in the magazine 13 of the toy gun 1 are ejected out of the shell ejection hole 12a, the bearing plate 133 is pushed against the sliding sleeve due to the elastic restoring force of the bearing spring 134. The element 155 makes the sliding sleeve release element 155 tilt up relative to the main body 151 of the barrel 15. The sliding sleeve 12 has a second structure 12b corresponding to the sliding sleeve releasing element 155, and therefore during the resetting process of the sliding sleeve 12, the interference of the sliding sleeve releasing element 155 and the second structure 12b makes the return stroke of the sliding sleeve 12 be reduced. It stops, but the sliding sleeve 12 does not return to the original position, and the stopper 141f of the puller 141 will be caught by the rear edge of the slider 182 of the slider force accumulating assembly 18, and the return spring 142 is compressed at this time.

After the interference between the sliding sleeve releasing element 155 and the second structure 12b is released, the sliding sleeve resetting elastic member 192 and the return spring 142 will simultaneously provide elastic restoring force to prompt the sliding sleeve 12 and the flipper 141 to return to the initial position at the same time.

Incidentally, in the empty warehouse on-hook state, because the player mostly inserts the magazine 13 full of bullets, and the bearing spring 134 is compressed by the full bullets, the friction force that the sliding sleeve 12 must resist to push the bullet is caused. Become stronger, so it only depends on the elastic element of the sliding sleeve The reset force of piece 192 is usually insufficient. Therefore, the setting of the return spring 142 helps to strengthen the loading force.

Specifically, after the sliding sleeve release element 155 is pressed, the sliding sleeve 12 is reset and loaded. At this time, in addition to the weaker covering force provided by the sliding sleeve elastic element 192 (compared to the return spring 142), the return spring 142 provides a stronger restoring force (compared to the sliding sleeve elastic element 192). To strengthen the loading force.

To sum up, the toy gun created by this invention has an extremely simulated effect, but it can provide safety because it does not fire offensive bullets, so it can provide players with a safe and realistic use situation.

In addition, the toy gun created by this invention can imitate the real shell ejection action without the need of gas or battery to provide power, and the shell ejection action is smooth.

In addition, when the trigger is pulled to simulate firing a bullet, the sliding sleeve will also fold back and forth relative to the gun body, simulating the recoil of a real gun and adding more realism.

The above are only the preferred embodiments of this creation. When the scope of implementation of this creation cannot be limited by this, that is, all simple equivalent changes or modifications made according to the scope of patent application and creation description of this creation still belong to this creation. The scope of the creation patent. In addition, any embodiment of the creation or the scope of the patent application does not need to achieve all the purposes or advantages or features disclosed in the creation. In addition, the abstract and the creation name are only used to assist in the search of patent documents, not to limit the scope of rights of the creation. In addition, the terms "first", "second", "third" or "fourth" mentioned in this specification or the scope of the patent application are only used to name elements or distinguish different embodiments or scopes. It is not used to limit the upper or lower limit of the number of components.

1: toy gun

11: gun body

111: first structure

12: Sliding sleeve

12a: Shell ejection hole

12b: Second structure

13: Magazine

131: box body

131a: The first guide limit structure

132: Box bottom plate

132a, 133a: cylindrical

133: Bullet Bearing Plate

133b: The second guide limit structure

133c: convex ridge

134: Elastic spring

14: Trigger assembly

141: Flip

141a: Groove

141b: body part

141c: Pulling part

141d: curved flange

141e: Let notch

142: return spring

143: Limit convex column

143a: Convex column

143b: Arc-shaped fixed part

144: Tenon

15: barrel

151: Subject

151a: Uphill

151b: Embedded hole

152: Locking element

152a: Flexible switch

152b: Front surface

152c: rear surface

153: Barrel

154: Shell unit

155: Sliding sleeve release element

156: Limit bump

157: Outer shell elastic part

16: Shell throwing parts

161: Launch Department

17: Ammunition device

171: Elastic bulge

172: Catch the Shell Hook

173: Bouncing rail

18: Slider power storage assembly

181: fixed seat

181a: Chute

181b: Locking groove

181c: Guide slope

182: Slider

182b: Unlock the leading edge

183: accumulating elastic parts

184: Tongue

191: bottom cover

192: Sliding sleeve reset elastic piece

2: bullet case

21: Ring groove

22: recess

D1: First direction

Claims (19)

A toy gun for ejecting a cartridge case, wherein the cartridge case includes a ring groove and a recess, and the toy gun includes: Gun body A sliding sleeve connected to the gun body and capable of moving relative to the gun body, the sliding sleeve including a shell ejection hole; A magazine, detachably installed on the gun body, and the magazine is used for accommodating a plurality of the magazine shells; The trigger assembly is movably arranged in the gun body and links the sliding sleeve when moving; A gun bore, partly accommodated in the gun body and partly accommodated in the sliding sleeve, the gun bore is fixed to the gun body; The shell ejection piece is arranged on the gun body, and the shell ejection piece has a pushing part; The elastic device is arranged on the sliding sleeve, the elastic device includes an elastic protrusion and a shell hook, the shell hook is used for hooking the ring groove, and the elastic protrusion is used for elastically supporting the concave portion , Wherein when the trigger assembly drives the sliding sleeve to move toward the first direction, the bottom of the cartridge case is pushed by the pushing portion and cooperates with the force of the grab case hooking the ring groove to produce The force of the cartridge case rotating toward the pushing part causes the cartridge case to escape from the sliding sleeve from the shell ejection hole. The toy gun described in item 1 of the scope of patent application, wherein the magazine includes: Box body The bottom plate of the box is detachably installed on the bottom of the box body; A bullet-bearing plate is movably arranged in the box body for carrying the bullet shell; and The elastic spring has two ends, one of which abuts against the bottom plate of the box, and the other abuts against the elastic plate. The toy gun described in item 2 of the scope of patent application, wherein the cassette bottom plate and the ball-bearing plate each have a cylinder on the surfaces facing each other, and the end of the ball-bearing spring is sleeved on the corresponding cylinder. The toy gun described in item 2 of the scope of patent application, wherein the box body has a first guiding and limiting structure, and the ball bearing plate has a second guiding and limiting structure, and the first guiding and limiting structure The structure and the second guiding and limiting structure are fitted with each other to limit the linear movement of the elastic plate in the box. For the toy gun described in item 4 of the scope of patent application, one of the first guiding and limiting structure and the second guiding and limiting structure is a convex rib, and the first guiding and limiting structure The other of the structure and the second guiding and limiting structure is a track. The toy gun described in item 2 of the scope of patent application, wherein the bullet bearing plate has a ridge for supporting the bullet case placed in the box. The toy gun described in item 1 of the scope of patent application, wherein the trigger assembly includes: The flip piece has a groove; The return spring is installed in the groove, one end abuts against the gun body, and one end abuts against the trigger member; The limiting convex column is arranged in the groove and has a convex column portion and an arc-shaped fixing portion, wherein one end of the return spring is sleeved on the convex column portion, and the arc-shaped fixing portion is correspondingly abutted Pass through the locking element provided by the trigger; and The tenon is arranged at the front end of the trigger and can be rotated relative to the trigger to tilt upward. The toy gun as described in item 1 of the scope of patent application, which also includes a slider force accumulating assembly, which is installed at the front end of the trigger assembly to provide a reset elastic force to the sliding sleeve or the trigger assembly . The toy gun described in item 8 of the scope of patent application, wherein the slider power storage assembly includes: The fixing seat is arranged on the sliding sleeve and has a sliding groove; A sliding block movably arranged on the sliding groove; and The accumulating elastic member is connected to the fixed base and the sliding block to provide elastic restoring force to the sliding block or the fixed base. The toy gun described in item 9 of the scope of patent application, wherein the slider has a snap groove, and the latch of the trigger assembly is correspondingly snapped into the snap groove when it is upwardly tilted. For the toy gun described in item 8 of the scope of patent application, the fixing seat further has a locking groove, and the elastic switch of the locking element of the gun barrel can be correspondingly locked into the locking groove. As for the toy gun described in item 11 of the scope of patent application, the slider power storage assembly further includes a tongue, and the tongue is arranged in a cantilever manner on the fixing seat and located between the fixing seat and the Between the barrels, it is used to unlock the locking groove by the elastic switch in the locking groove. The toy gun described in item 1 of the scope of patent application, wherein the barrel includes: The main body is arranged on the trigger assembly; The locking element is installed on the front side of the main body; and The barrel is installed on the locking element, and the locking element is located between the main body and the barrel. The toy gun described in item 13 of the scope of patent application, wherein the main body further has an upward bullet slope to guide the loading of the bullet casing, and the bullet-containing device also has an upward bullet rail for pushing the bullet casing into the upward bullet slope. A toy gun, including: Gun body Sliding sleeve, connected to the gun body; A gun bore fixed to the gun body, the gun bore comprising a locking element, the locking element has an elastic switch, and the elastic switch can move up and down; The trigger assembly is movably arranged in the gun body, and the trigger assembly includes: Wrench The tenon is provided at the front end of the trigger and can be rotated relative to the trigger to tilt upward; Slider power storage assembly, including: A fixing seat connected to the sliding sleeve and located on the trigger assembly, the fixing seat having a sliding groove, a locking groove, and a buckle groove, wherein the elastic switch of the locking element can correspondingly snap into the locking groove , To restrict the fixed seat from moving in the first direction; A sliding block movably arranged in the sliding groove, the sliding block having an unlocking front edge; and A force-storing elastic member is connected to the fixed seat and the slider, wherein the force-storing elastic member is used to generate an elastic restoring force when the slider moves in the chute; Thereby, when the trigger assembly moves in the first direction, the tenon is tilted upward to resist the buckle groove and drive the slider to move a certain distance in the sliding groove, and the unlocking The front edge pushes the elastic switch up to leave the locking groove, and the elastic restoring force causes the fixing seat to drive the sliding sleeve to move in the first direction. The toy gun described in item 15 of the scope of patent application, wherein the trigger assembly further includes a return spring, which is pressed between the gun body and the trigger. As described in item 15 of the scope of patent application, the toy gun further includes a bottom cover, a sliding sleeve resetting elastic member and a shell ejection member, wherein the bottom cover is arranged on the rear side of the sliding sleeve, and the shell ejection member is fixed In the gun body, the sliding sleeve resetting elastic member is connected between the bottom cover and the shell ejection member. The toy gun described in item 17 of the scope of patent application, wherein the elastic force of the sliding sleeve resetting elastic member is less than the elastic force of the accumulating elastic member. The toy gun described in the 15th item of the scope of patent application, wherein the barrel further includes a sliding sleeve releasing element, and the main body has an embedded hole, the sliding sleeve releasing element is embedded in the embedding hole, and the main body also It has a limiting convex point, which is arranged beside the embedding hole to limit the rotation of the sliding sleeve releasing element.

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