The present disclosure relates to a toy gun and its accessories, and in particular to a toy gun and the gas cylinder piercing structure thereof.
Currently, toy guns that use gas cylinders as the power of propulsion for firing bullets utilize a gas cylinder barrel having a compressed gas cylinder inside a gun body. One end of the gas cylinder barrel is provided with a top needle arranged corresponding to a mouth (valve mouth) of the compressed gas cylinder, while the other end is threadedly connected to a screw base that pushes against the compressed gas cylinder. Rotating the screw base may push the compressed gas cylinder to be positioned inside the gun body. At the same time, the top needle pierces the mouth of the compressed gas cylinder, thereby releasing the pressure inside the compressed gas cylinder to provide the power for launching plastic bullets.
However, the above-mentioned method of using the screw base to push the compressed gas cylinder, causing the top need to pierce the mouth of the compressed gas cylinder, has the following disadvantages. Because the screw base needs to be turned multiple times to push the compressed gas cylinder into the gas cylinder barrel. The operation is time-consuming, labor-intensive, and inconvenient for the users. Furthermore, it requires the pressure inside the gas cylinder barrel to balance with the external pressure before the screw base may be unscrewed and detached from the gas cylinder barrel. Therefore, there is a need for improvement.
Accordingly, the inventor of the present disclosure has recognized the shortcomings of the related-art techniques. With a dedicated focus on research and the application of relevant knowledge, the inventor has made every effort to address the aforementioned issues, making them the primary objectives of the improvements pursued in this disclosure.
The present disclosure provides a toy gun and a gas cylinder piercing structure thereof, which utilizes an air vent channel to release a gas pressure inside a gas cylinder barrel, thereby achieving the advantages of convenient and quick disassembly of the gas cylinder piercing structure.
According to one embodiment of the present disclosure, a gas cylinder piercing structure is provided, including: a screw base including a circular through-hole and an annular block disposed on a periphery of the circular through-hole, a top portion of the annular block being provided with at least one slot; and a movable push rod unit, including a round push rod movably inserted in the circular through-hole and a return spring elastically disposed between the screw base and the round push rod, wherein a top end of the round push rod is provided with a striker pin, the top end of the striker pin extends with a needle portion, and an outer periphery of the striker pin extends with at least one engagement lug and is provided with at least one notch; wherein when the at least one engagement lug is blocked by the annular block, the round push rod completely fills and seals the circular through-hole; when the at least one engagement lug is engaged with the at least one slot, the at least one notch and the circular through-hole are disposed correspondingly to define an air vent channel.
According to one embodiment of the present disclosure, a toy gun for loading at least one gas cylinder is provided. The toy gun includes: a gun body including a gas cylinder barrel and a connecting pipe communicating with one end of the gas cylinder barrel, another end of the gas cylinder barrel being provided with a threaded pipe, the at least one gas cylinder is accommodated in the gas cylinder barrel; and a gas cylinder piercing structure, including: a screw base, one end of the screw base being threadedly connected to the threaded pipe, the screw base including a circular through-hole and an annular block disposed on a periphery of the circular through-hole, a top portion of the annular block being provided with at least one slot; and a movable push rod unit, including a round push rod movably inserted in the circular through-hole and a return spring elastically disposed between the screw base and the round push rod, wherein a top end of the round push rod is provided with a striker pin, the top end of the striker pin extends with a needle portion, and an outer periphery of the striker pin extends with at least one engagement lug and is provided with at least one notch; wherein when the at least one engagement lug is blocked by the annular block, the round push rod completely fills and seals the circular through-hole, and the needle portion punctures the gas cylinder; and when the at least one engagement lug is engaged with the at least one slot, the at least one notch and the circular through-hole are disposed correspondingly to define an air vent channel.
When the gas cylinder piercing structure cannot be detached from the gas cylinder barrel due to high internal pressure, the user may rotate the movable push rod unit, the return spring may drive the round push rod to return to a state where the engagement lug is engaged with the slot. When the engagement lug is engaged with the slot, the notch is arranged corresponding to the circular through-hole to form the air vent channel, allowing the gas pressure inside the gas cylinder barrel to be relieved through the air vent channel. This balances the internal and external pressures of the gas cylinder barrel, facilitating the detachment of the gas cylinder piercing structure, thereby achieving the advantage of convenient and quick disassembly of the gas cylinder piercing structure.
The details and technical content of the present disclosure, are explained in conjunction with the accompanying drawings. However, the accompanying drawings are for illustrative purposes and are not intended to limit the present disclosure.
Please refer to
As shown in
A detailed description is provided as follows. The gun body 1 includes a gas cylinder barrel 11. One end of a gas cylinder barrel 11 is provided with a connecting pipe 12, and the other end of the gas cylinder barrel 11 is provided with a threaded pipe 111. The connecting pipe 12 communicates with a gun barrel (not illustrated in figures) of the gun body 1, and the connecting pipe 12 is used to guide the gas pressure generated by the gas cylinders 100 to flow into the gun barrel for firing bullets (not illustrated in figures). An inner periphery of the threaded pipe 111 is provided with an internal thread 113.
Furthermore, there are two gas cylinders 100 in this embodiment, the present disclosure is not limited in this regard. The two gas cylinders 100 are accommodated inside the gas cylinder barrel 11 and are arranged in an up-down manner. A mouth 101 of one of the gas cylinders 100 is disposed corresponding to the connecting pipe 12. A mouth 101 of the other one of the gas cylinders 100 is disposed corresponding to the threaded pipe 111. The bottoms 102 of the two gas cylinders 100 abuts against each other, and the gun body 1 further includes a piercing needle 13 installed between the gas cylinder 11 and the connecting pipe 12.
As shown in
As further explained below, the screw base 3 is provided with a concave groove 33 and an external thread 34, and has a bottom wall 331 formed inside the concave groove 33. The external thread 34 is formed on an outer periphery of the screw base 3 and is threadedly connected to the internal thread 113, so that the top end of the screw base 3 is screwed to the threaded pipe 111. The circular through-hole 31 is defined on the bottom wall 331, and the bottom wall 331 forms an annular block 32 on the periphery of the circular through-hole 31.
Furthermore, the inner perimeter size of the concave groove 33 is increased in a stepped manner in the direction away from the bottom wall 331, to facilitate the insertion of the valve mouth 101 of the gas cylinder 100 into the concave groove 33.
Furthermore, a side of the bottom wall 331 away from the concave groove 33 is provided with an annular groove 332. An inner wall of the annular groove 332 is provided with a first insertion hole 333. The outer periphery of the screw base 3 is provided with two limiting recesses 334. A first annular recess 35 is located between the limiting recesses 334 and the external thread 34. An inner periphery of the circular through-hole 31 is provided with a second annular recess 335.
As shown in
In this embodiment, there are two slots 321, two engagement lugs 4112, and two notches 4113, the present disclosure is not limited in this regard. The two engagement lugs 4112 extend from the outer periphery of the striker pin 411 on its front and rear sides, and two notches are defined on left and right sides of the outer periphery of the striker pin 411.
Additionally, the movable push rod unit 4 includes a rotatable press block 412 and a latch 413. The rotatable press block 412 has a first fixing hole 4121 and a second fixing hole 4122 communicating with each other. The round push rod 41 has a third fixing hole 4114. The round push rod 41 is inserted in the first fixing hole 4121, and the latch 413 passes through the second fixing hole 4122 and the third fixing hole 4114 to make the round push rod 41 be firmly fixed to the rotatable press block 412 and rotate with the rotatable press block 412.
Furthermore, the rotatable press block 412 is provided with a second insertion hole 4123. The return spring 42 is a coil spring 421 placed in the annular groove 332. One end of the coil spring 421 is inserted into the first insertion hole 333, and the other end of the coil spring 421 is inserted into the second insertion hole 4123. The coil spring 421 is used to drive the round push rod 41 to return to the state where the engagement lugs 4112 are engaged with the slots 321.
Moreover, the rotatable press block 412 extends with two protruding blocks 4124. Each protruding block 4124 is fitted and slidable in each of the limiting recesses 334, thereby restricting a rotation angle of the rotatable press block 412.
As shown in
When the engagement lugs 4112 are blocked by the annular block 32, the round push rod 41 completely fills and seals the circular through-hole 31. The round push rod 41 may first drive the needle portion 4111 to pierce the mouth 101 of one of the gas cylinders 100, and then push the other gas cylinder 100 closer to the piercing needle 13 for the mouth 101 to be pierced, allowing the gas pressure generated after piercing the gas cylinder 100 to flow into the gun barrel through the connecting pipe 12 to fire bullets.
Furthermore, when the engagement lugs 4112 are engaged with the slots 321, the notches 4113 are disposed corresponding to the circular through-hole 31, forming an air vent channel S. This allows the gas pressure inside the gas cylinder barrel 11 and the threaded pipe 111 to be vented through the air vent channel S, balancing the internal and external pressures of the gas cylinder barrel 11 and the threaded pipe 111. This facilitates loosening the threaded connection between the external thread 34 and the internal thread 113, allowing the gas cylinder piercing structure 2 to be detached from the threaded pipe 111.
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In summary, the toy gun and the gas cylinder piercing structure thereof in the present disclosure may indeed achieve the expected purposes, address the shortcomings of related-art techniques.
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