Electroless gas gun
The non-electric gas gun uses mechanical linkage to achieve mixing and ignition of gas and air, solving the safety hazards and power dependence problems of existing gas guns and achieving improvements in safety and cost-effectiveness.
Patent Information
- Application Number
- CN202422539266.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-21
- Publication Date
- 2025-09-12
- Estimated Expiration
- 2034-10-21
AI Technical Summary
Existing gas guns rely on batteries and blowers, which pose safety risks and are limited in use when there is a lack of charging facilities or unstable power supply.
It adopts a non-electric design, achieves the mixing of gas and air through structures such as contact arms, valve stems, and explosion cylinders, eliminates batteries and blowers, and uses mechanical linkage for ignition and air intake.
The safety of the gas gun is improved, the cost is reduced, and the gas gun can still be used normally in an environment without power supply.
Smart Images
Figure CN223326328U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of fastening equipment, in particular to a non-electric gas gun. Background Art
[0002] A gas nail gun uses gas combustion as a driving force for fastening operations. Its main structure consists of a magazine, a handle, and a gun body. The combustion cavity is located at the rear end of the gun head, and a gas canister is placed in the handle, connected to the combustion cavity via a switch. A battery pack and a connected blower are located within the gun body. The blower draws ambient air into the combustion chamber to mix with the gas inside. The battery is connected to an ignition device, an ignition switch, and a power switch. The ignition device is controlled by the ignition switch, and the blower is controlled by the power switch. Therefore, throughout the entire process of mixing gas with ambient air and igniting the gas, the battery serves as the power source to control the activation and deactivation of the corresponding components. While battery-powered ignition and blower-powered mixing of air and gas offer the advantages of convenience and reduced reliance on external power sources, they also present certain safety risks, such as short circuits and leakage. Furthermore, the gun is significantly affected by temperature. While it does not require an external power supply, it still requires regular charging. In the absence of charging facilities or in unstable power sources, the proper operation of the gas gun can be affected. Summary of the Invention
[0003] In view of the shortcomings of the existing technology, the utility model provides a non-electric gas gun, which completely abandons the built-in power supply in the gas gun and does not require air supply through a blower or battery power for ignition, thereby improving the operational safety of the gas gun.
[0004] In order to achieve the above objectives, the present invention is implemented through the following technical solutions:
[0005] The utility model discloses a non-electric gas gun, which comprises a shell, a cylinder body arranged in the shell, and an ignition mechanism and an air intake mechanism arranged at the bottom of the cylinder body. A trigger is arranged at the bottom of the cylinder body, an explosion cylinder communicated with the cylinder body is arranged at one end of the cylinder body, a second spring is arranged at the top of the trigger, a trigger block is arranged at the top of the trigger, the ignition mechanism comprises a sparker arranged between the trigger block and a clamp, the clamp is fixed in the circumferential direction of the cylinder body, a spark plug is inserted into the end surface of the connection between the explosion cylinder and the cylinder body, and the spark plug is connected to the sparker.
[0006] Preferably, a nail tube seat is provided at the other end of the cylinder body, and the other end of the nail tube seat is inserted into a nail tube. A piston rod is coaxially provided in the cylinder body, and a piston disk is provided at the end of the piston rod facing the explosion cylinder. The piston disk is adapted to the cylinder body, and a buffer block is provided at the end of the cylinder body corresponding to the piston disk.
[0007] Preferably, the air intake mechanism includes an air intake seat arranged at the bottom of the cylinder body, a first air intake pipe is embedded in the air intake seat, a second air intake pipe is arranged on the end face of the connection between the explosion cylinder and the cylinder body, the first air intake pipe and the second air intake pipe are connected by a silicone tube, a gas tank is arranged below the air intake seat, and the gas nozzle of the gas tank extends into the first air intake pipe; the trigger is arranged beside the gas tank.
[0008] Preferably, a compressed air component is provided on the cylinder body, so that when the nail tube moves, the compressed air component is driven to press the gas tank, so that the gas nozzle on the gas tank is compressed and the gas enters the explosion cylinder.
[0009] Preferably, the explosion cylinder is open at one end away from the cylinder body, and a contact arm is fixed on the side wall of the nail tube. There are two contact arms, which are correspondingly arranged on both sides of the cylinder body. A valve stem is fixed to the other end of the contact arm. One end of the valve stem extends into the explosion cylinder and is fixed with a cylinder cover adapted to the explosion cylinder. A sealing ring is provided on the valve stem and the connecting end with the contact arm. The sealing ring is adapted to the through hole of the valve stem passing through the explosion cylinder. A retaining ring for limiting the cylinder cover is provided at the open end of the explosion cylinder, and a reset spring is provided at the center of the cylinder cover toward the open end of the explosion cylinder; when the cylinder cover gradually moves toward the open end of the explosion cylinder, outside air enters the explosion cylinder.
[0010] Preferably, the compressed air assembly includes a V-shaped pressure block, the two ends of the pressure block are located on both sides of the cylinder body and are rotatably connected to the support block, the support block is fixed on the clamp, and a first spring is provided between the clamp and the pressure block, and push plates are provided at both ends of the pressure block toward the direction of the nail tube, and a pin is provided on the push plate, and a slide with an inclined side is provided at the bottom of the contact arm, and the pin is located in the slide; when the contact arm moves toward the explosion cylinder, under the action of the slide, the push plate is pushed to make the pressure block rotate toward the gas tank, thereby compressing the gas nozzle of the gas tank.
[0011] Preferably, a guide plate is provided on the end face where the explosion cylinder is connected to the cylinder body, one end of the valve stem passes through the guide plate and extends into the explosion cylinder, the valve stem is adapted to the guide plate, an air outlet is provided on the guide plate near the position of the valve stem, and an inclined groove facing the air outlet and communicating with the air outlet is provided on the side wall of the through hole; the air outlet and the inclined groove are arranged in a central symmetrical manner.
[0012] Preferably, a second safety mechanism is provided on the top of the nail tube seat, and the second safety mechanism includes a safety plate, one end of the safety plate is rotatably connected to the nail tube seat, and the other end is provided with a protrusion, which is inserted into the nail tube seat and abuts against the tube mouth of the nail tube extending into the nail tube seat. A steel ball is embedded in the nail tube seat, and a second magnet is provided on the position of the safety plate corresponding to the steel ball. The end of the safety plate close to its hinge is connected to the nail tube seat through a third spring.
[0013] Preferably, a first safety mechanism is provided above the trigger, and the first safety mechanism includes a safety plate, one end of the safety plate is rotatably connected by a rotating shaft, and the other end passes through a "convex" shaped limiting hole opened on the trigger block, and upwardly bent wing plates are respectively provided on both sides of the safety plate, and a strip-shaped notch is provided on the bottom surface of the contact arm, and the end of the wing plate extends into the strip-shaped notch.
[0014] Preferably, the shell is provided with openings at the open end of the explosion cylinder and near the through hole, a guide tube is provided at the center of the cylinder cover, a first magnet is provided in the guide tube, the return spring is sleeved on the guide tube, and the other end is connected to the shell.
[0015] The utility model has the following beneficial effects:
[0016] 1. The utility model provides a contact arm on the nail tube, which is connected to the explosion cylinder at one end of the cylinder body. One end of the contact arm is connected to the valve stem, which extends into the explosion cylinder. The end of the valve stem in the explosion cylinder is connected to the cylinder head. At the same time, a gas tank is provided below the cylinder body, which is connected to the explosion cylinder through an air inlet pipe. A pressure block is also provided below the cylinder body, which corresponds to the gas tank. A slide is provided at the bottom of the contact arm, which corresponds to the push piece on the pressure block. When the contact arm moves toward the explosion cylinder, the slide pushes the pressure block to rotate toward the gas tank, causing the gas nozzle on the gas tank to be compressed, thereby achieving the purpose of letting air into the explosion cylinder through the air inlet pipe. During the movement of the contact arm toward the explosion cylinder, the wing plate on the first safety mechanism rotates downward under the action of the strip-shaped notch on the contact arm, causing the safety plate to rotate from the groove above the restriction hole to the groove below, releasing the restriction on the trigger. At this time, the trigger is pulled, compressing the spark plug, and igniting the spark plug. In the utility model, no fan or battery is used for either air intake or ignition. Instead, structures such as a contact arm, a valve stem, an explosion cylinder, and a pressure block are adopted. Through the linkage effect, gas and external air are allowed to enter the cavity formed by the explosion cylinder and the cylinder cover for mixing, and finally the trigger is directly pulled to realize the tightening operation.
[0017] 2. Compared to the ignition assembly, or control circuit assembly, installed in existing gas guns, whose input is connected to a battery and whose output is connected to a fan motor assembly, a high-voltage ignition cap, a position switch, and a trigger switch, and which is expensive, the present invention completely eliminates these structures and eliminates the need for a battery or a charger that comes with the gun. Instead, a contact arm is directly provided on the nail tube, which drives the valve stem and cylinder cover to move within the explosion cylinder. This not only triggers the gas nozzle of the gas tank to allow gas to enter the explosion cylinder, but also allows air to pass through the inclined hole, generating vortexes to mix the gas and air. The entire process is achieved without the need for battery power. Compared to existing gas guns, the gas gun disclosed in the utility model greatly saves costs and improves safety. BRIEF DESCRIPTION OF THE DRAWINGS
[0018] Figure 1 This is a schematic diagram of the structure of the utility model (initial state);
[0019] Figure 2 for Figure 1 The main view (initial state);
[0020] Figure 3 for Figure 2 Longitudinal cross-sectional view (initial state);
[0021] Figure 4 for Figure 2 Middle AA view (initial state);
[0022] Figure 5 The setting of the inclined slot and air outlet on one side of the cylinder body;
[0023] Figure 6 The setting of the chute and tuyere on the other side of the cylinder body;
[0024] Figure 7 This is a diagram showing the state of the gas gun of the present invention after the upper contact arm has moved into position;
[0025] Figure 8 for Figure 7 Middle BB view;
[0026] Figure 9 for Figure 8 Middle CC view;
[0027] Figure 10 for Figure 7 Middle A is a partial enlarged view;
[0028] Figure 11 for Figure 7 Middle B is a partial enlarged view;
[0029] Figure 12 This is a structural diagram of the First Insurance Institution;
[0030] In the figure: housing 1, cylinder body 2, explosion cylinder 3, nail tube 4, contact arm 5, valve stem 6, cylinder cover 7, sealing ring 8, through hole 9, retaining ring 10, return spring 11, exhaust hole 12, valve plate 13, arc plate 14, flame extinguisher block 15, intake seat 16, first intake pipe 17, second intake pipe 18, silicone tube 19, gas tank 20, pressure block 21, support block 22, hoop 23, first spring 24, push piece 25, pin 26, Slide 27, trigger 28, second spring 29, trigger block 30, sparker 31, spark plug 32, safety plate 33, limiting hole 34, wing plate 35, strip notch 36, piston rod 37, piston disc 38, buffer block 39, nail tube seat 40, nail magazine 41, safety plate 42, steel ball 43, second magnet 44, third spring 45, guide tube 46, first magnet 47, deflector 48, chute 49, air vent 50. DETAILED DESCRIPTION
[0031] The following will be combined with the accompanying drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.
[0032] Unless otherwise specified, the technical means used in the embodiments are conventional means well known to those skilled in the art.
[0033] refer to Figures 1-10 The utility model discloses a non-electric gas gun, comprising a housing 1, a cylinder 2 disposed within the housing 1, and an ignition mechanism and an air intake mechanism disposed at the bottom of the cylinder 2. Specifically, the ignition mechanism, cylinder, explosion cylinder, and gas tank are all enclosed within the housing. An explosion cylinder 3 is provided at one end of the cylinder 2, communicating therewith, and a nail tube 4 is inserted into the other end. Specifically, one end of the cylinder is inserted into and secured within the explosion cylinder, and the end surface of the cylinder at the end where the cylinder is secured to the explosion cylinder is flush with the inner wall of the explosion cylinder.
[0034] The explosion cylinder 3 is open at one end away from the cylinder body 2, and a contact arm 5 is fixed on the side wall of the nail tube 4. The contact arm is arranged along the axial direction of the cylinder body. There are two contact arms 5, and they are correspondingly arranged on both sides of the cylinder body 2. A valve stem 6 is fixed to the other end of the contact arm 5. One end of the valve stem 6 extends into the explosion cylinder 3 and is fixed with a cylinder cover 7 adapted to the explosion cylinder 3. A piston ring is provided on the circumference of the cylinder cover. A sealing ring 8 is provided on the valve stem 6 and the connecting end with the contact arm 5. The sealing ring 8 is adapted to the through hole 9 of the valve stem 6 passing through the explosion cylinder 3, thereby sealing the explosion cylinder. A retaining ring 10 for limiting the cylinder cover 7 is provided at the open end of the explosion cylinder 3, and a return spring 11 is provided at the center of the cylinder cover 7 toward the open end of the explosion cylinder 3. It should be noted that when the contact arm moves toward the explosion cylinder, it drives the valve stem to move, and in turn pushes the cylinder head toward the open end of the explosion cylinder. During this process, outside air enters the explosion cylinder through the through hole (the gap between the valve stem and the through hole) and mixes with the gas inside the explosion cylinder. The retaining ring is provided to support the cylinder head. When the sealing ring on the valve stem just seals the through hole, the cylinder head and the retaining ring come into contact. At this time, the space inside the explosion cylinder forms an independent space from the outside world, ensuring that there will be no leakage when the gas explodes. The high-pressure gas can only act on the piston disc of the piston rod, thereby performing work to the left. The setting of the reset spring can prevent the cylinder head from colliding with the retaining ring, and at the same time, it can reset the cylinder head.
[0035] Furthermore, the end surface where the explosion cylinder 3 is connected to the cylinder body 2 is provided with a guide plate 48, and the piston disc in the cylinder body rests on the guide plate to position and support it. One end of the valve stem 6 extends into the explosion cylinder 3 through the guide plate 48, and the valve stem 6 is adapted to the guide plate 48. An air port 50 is provided on the guide plate 48 near the position of the valve stem 6, and an inclined groove 49 facing the air port 50 and communicating with the air port 50 is provided on the side wall of the through hole 9. It should be noted that there is no gap between the valve stem and the guide plate, so that the outside air enters the explosion cylinder through the air inlet formed by the through hole, the inclined groove and the air port in sequence. At the same time, due to the setting of the inclined groove and the air port, a sloped hole is formed, which causes the air entering the explosion cylinder to generate a vortex, thereby stirring and mixing the gas entering the explosion cylinder. Since there are two contact arms, there are also two inclined holes. In order to make the air entering the explosion cylinder form a spiral, the inclined grooves in the through hole and the air outlets on the guide plate are arranged symmetrically with respect to the center. Furthermore, an exhaust hole 12 is provided on the side wall of the cylinder body 2. The exhaust hole is provided on the cylinder body near the nail tube. A valve plate 13 is provided above the exhaust hole 12 outside the cylinder body 2. The valve plate is not fixed to the exhaust hole, but directly covers the exhaust hole. One end of the valve plate 13 is fixed by an arc plate 14, that is, one end of the arc plate presses the valve plate. A flame extinguishing block 15 is provided between the arc plate 14 and the cylinder body 2. The area formed by the arc plate 14 and the flame extinguishing block 15 corresponds to the exhaust hole 12. It should be noted that the cavity between the arc plate and the cylinder body constitutes an exhaust channel connected to the exhaust hole, and the flame extinguishing block and the arc plate are fixed on both sides of the exhaust hole. Above the exhaust hole is a cavity supported by the arc plate and the flame extinguishing block. The high-temperature and high-pressure gas in the cylinder body is discharged by lifting the valve plate to prevent the valve plate from being deformed too much and unable to recover. The flame extinguishing block is a block pressed into a certain density by fine steel wire. The high-temperature and high-pressure gas carries a flame when discharged, and the flame is extinguished after passing through the flame extinguishing block. The channel supported by the arc plate and the flame extinguishing block is connected to the outer shell with an outlet, so that the high-temperature and high-pressure gas is discharged to the outside after passing through the flame extinguishing block. Among them, one end of the arc plate fixing the valve plate is fixed by a clamp 23, that is, the clamp is fixed on the circumference of the cylinder body, and one end of the arc plate is fixed to the cylinder body by the clamp. The number of exhaust holes and arc plates is set according to needs.
[0036] Furthermore, the air intake mechanism includes an air intake seat 16 disposed at the bottom of the cylinder body 2. A first air intake pipe 17 is embedded in the air intake seat 16. A second air intake pipe 18 is provided on the end surface where the explosion cylinder 3 and the cylinder body 2 are connected. The first and second air intake pipes are respectively fixed to the air intake seat and the explosion cylinder. The first and second air intake pipes 17 and 18 are connected by a silicone tube 19. A gas tank 20 is provided below the air intake seat 16. The gas nozzle of the gas tank 20 extends into the first air intake pipe 17. A sealing gasket is provided between the gas nozzle and the first air intake pipe. A gas pressure assembly is provided on the cylinder body 2. When the nail tube 4 moves, the gas pressure assembly drives the gas pressure assembly to press the gas tank 20, compressing the gas nozzle on the gas tank 20, and gas enters the explosion cylinder through the air intake pipe. The gas tank is arranged in the outer shell, forming the handle of the gas gun.
[0037] Furthermore, the air compression assembly includes a V-shaped pressure block 21, with its ends positioned on either side of the cylinder body 2 and rotatably connected to a support block 22. The support block 22 is secured to a clamping hoop 23 positioned outside the cylinder body 2, which is positioned transversely. A first spring 24 is positioned between the clamping hoop 23 and the pressure block 21, ensuring that the pressure block returns to its original position after rotation. Pushing tabs 25 are positioned at each end of the pressure block 21, facing the nail tube 4. The pushing tabs are angled with the ends of the pressure block, such as approximately 90°. A pin 26 is inserted through the pusher tabs 25. The bottom of the contact arm 5 is provided with a slideway 27 with a sloped surface on one side. The slideway can be understood as a notch with a sloped surface. The pin 26 is positioned within the slideway 27. The slope of the slideway is positioned toward the nail tube. When the contact arm 5 moves toward the explosion cylinder 3, the slope of the slideway pushes the pin on the pusher tab downward, causing the pressure block to rotate toward the gas cylinder, thereby compressing the gas nozzle of the gas cylinder.
[0038] Furthermore, a trigger 28 is provided beside the gas tank 20 and at the bottom of the cylinder body 2. Specifically, the trigger is mounted on a housing outside the gas tank. A second spring 29 is mounted on top of the trigger 28, allowing it to reset under the action of the spring when the trigger is pulled. A trigger block 30 is mounted on top of the trigger 28. The ignition mechanism includes a sparker 31 disposed between the trigger block 30 and the clamp 23. A spark plug 32 is inserted into the end surface where the explosion cylinder 3 connects to the cylinder body 2. The spark plug 32 is connected to the sparker 31 via an electrical wire. It should be noted that preferably, two sparkers and two spark plugs are provided. The sparkers are arranged horizontally, one on each side of the pressure block. One end of the sparker can be fixed to the clamp or directly clipped into a groove in the clamp; the other end is directly fixed to the trigger block. When the trigger is pulled, the sparker is compressed, generating an electric current, causing the spark plug to produce an electric spark, thereby igniting the gas.
[0039] Furthermore, a first safety mechanism is provided above the trigger 28. When the contact arm is not in position, the first safety mechanism prevents accidental triggering and ignition. Specifically, the first safety mechanism includes a safety plate 33. One end of the safety plate 33 is rotatably connected via a rotating shaft, and the hinged end is the end closest to the nail tube. The other end passes through a "convex" limiting hole 34 provided on the trigger block 30. Upwardly bent wings 35 are provided on both sides of the safety plate 33. The bottom surface of the contact arm 5 is provided with a strip-shaped notch 36, and the end of the wing plate extends into the strip-shaped notch. The strip-shaped notch is connected to the slide, and the two form a stepped shape. It should be noted that in the initial state, the end of the wing plate extending into the strip-shaped notch is located close to the slide. When the contact arm moves, the end surface of the notch contacts the wing plate, thereby driving the safety plate to rotate downward. At this time, pulling the trigger realizes the ignition operation. Among them, the limiting hole is set through the trigger block. In the initial state, the safety plate is located in the groove above the limiting hole; when the contact arm moves, the safety plate is located in the groove below the limiting hole, which releases the restriction on the trigger.
[0040] Furthermore, a piston rod 37 is coaxially disposed within the cylinder body 2. A piston disc 38 is disposed on the end of the piston rod 37 facing the explosion cylinder 3. The piston disc 38 is adapted to fit within the cylinder body 2 and is circumferentially provided with piston rings. A buffer block 39 is provided on the end of the cylinder body 2 corresponding to the piston disc 38 to mitigate impacts caused by the piston disc. The deflector plate 48 has an inner diameter smaller than the inner diameter of the cylinder body 2. An annular groove adapted to fit the deflector plate is provided at the edge of the piston disc facing the explosion cylinder. In the initial state, the annular groove engages the deflector plate, preventing the piston disc from extending into the explosion cylinder and providing support for the piston disc. Furthermore, a nail tube holder 40 is disposed at one end of the cylinder body 2. One end of the nail tube 4 is inserted into the holder 40. A second safety mechanism is provided at the top of the holder 40, and a nail magazine 41 is provided at the bottom of the holder 40. This second safety mechanism is designed to restrain the nail tube, preventing it from moving into the holder when not in use.
[0041] Specifically, the second safety mechanism includes a safety plate 42, one end of which is rotatably connected to the nail tube holder 40, and the other end is provided with a protrusion that is inserted into the nail tube holder 40 and abuts against the tube opening of the nail tube 4 extending into the nail tube holder 40. A steel ball 43 is embedded in the nail tube holder 40, and a second magnet 44 is provided on the safety plate 42 at a position corresponding to the steel ball 43. The end of the safety plate 42 near its hinge is connected to the nail tube holder 40 via a third spring 45. It should be noted that the hinged end of the safety plate is provided near the cylinder body, and the second magnet is provided near the hinged end of the safety plate. The provision of the third spring enables the safety plate to automatically reset after the gas gun completes a shot.
[0042] Furthermore, openings are provided on the outer shell 1 at the open end of the explosion cylinder 3 and near the through hole 9 to facilitate the entry of outside air and the discharge of exhaust gas; a guide tube 46 is provided at the center of the cylinder head 7, and a first magnet 47 is provided in the guide tube 46 to attract the cylinder head and the end of the piston disc or the piston rod, and the return spring 11 is sleeved on the guide tube 46, and the other end is connected to the outer shell 1.
[0043] Figures 1-4 This is the initial state of the gas gun of the utility model, that is, the unused state (the shell is removed). Figure 5-Figure 9 This is a diagram of the gas gun of the present invention in use (including the outer shell).
[0044] by Figures 1-4 This is the initial state. During use, the compressed nail tube 4 moves rightward, driving the contact arm 5 to also move rightward. The contact arm 5 in turn drives the valve stem 6, which in turn drives the cylinder head 7 to move rightward within the explosion cylinder 3, gradually forming a cavity. External air enters the cavity through the gap between the valve stem 6 and the explosion cylinder 3. Simultaneously, during the initial movement of the contact arm 5, it causes the pressure block 21 to rotate, pushing the gas cylinder to the right. The gas nozzle of the compressed gas cylinder then fills the space formed by the explosion cylinder 3 and the cylinder head 7 with gas. The gas is then introduced before the cylinder head 7 reaches approximately one-third of its travel within the explosion cylinder 3. It should be noted that the amount of gas introduced into the explosion cylinder is fixed, specifically determined by the structure of the gas nozzle. To change the amount of gas introduced, simply replace the gas nozzle on the gas cylinder. Varying the amount of gas introduced allows for gas guns of varying power.
[0045] At this point, the nail tube 4 continues to press, and the cylinder cover 7 continues to move rightward until it approaches the right edge of the endpoint. During this process, external air continues to enter through the gap between the valve stem 6 and the explosion cylinder 3. However, due to the presence of the outer shell, gas enters the shell through the opening in the outer shell, forming a vortex through the two through-holes and the inclined hole between the explosion cylinder (the inclined hole formed by the inclined groove and the air vent), thereby stirring the gas and achieving thorough mixing of the gas. At the endpoint, the sealing ring 8 at the connection between the valve stem 6 and the contact arm 5 blocks the through-hole 9, and at the same time, the wing plate 35, driven by the strip-shaped notch 36, rotates the safety plate 33 into the groove below the restriction hole 34, thereby releasing the trigger.
[0046] At this time, the trigger 28 is pulled, and the trigger 28 presses the spark igniter 31, which causes the spark plug 32 to ignite and generate a high-pressure spark that is sent into the mixed gas in the cavity formed by the explosion cylinder 3 and the cylinder cover 7, causing an explosion. The high-pressure gas generated by the explosion pushes the piston rod 37 to move left at high speed, driving the nail out of the body and into the fastened substrate, completing the firing.
[0047] After firing, high-temperature, high-pressure gas lifts valve disc 13 and vents through exhaust port 12. After being vented, valve disc 13 automatically rebounds, creating a temporary vacuum within cylinder body 2, drawing piston rod 37 rightward back to its original position. The gas gun leaves the fired base, and cylinder head 7, acted upon by return spring 11, moves leftward, simultaneously pushing the valve stem, contact arm, and nail tube leftward. The sealing ring on the left side of the valve stem leaves the through-hole, and exhaust gas is discharged through these two through-holes until cylinder head 7 returns to its leftmost end, completing a cycle.
[0048] In the description of the present invention, it should be understood that the terms "longitudinal", "transverse", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", etc., indicating the orientation or position relationship, are based on the orientation or position relationship shown in the accompanying drawings, and are only for the convenience of describing the present invention, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, they should not be understood as limitations on the present invention.
[0049] The embodiments described above are merely preferred embodiments of the present invention and are not intended to limit the scope of the present invention. Without departing from the spirit of the present invention, various modifications and improvements to the technical solutions of the present invention made by ordinary technicians in this field should fall within the scope of protection determined by the claims of the present invention.
Claims
1. A non-electric gas gun comprising a housing (1), a cylinder (2) disposed within the housing (1), and an ignition mechanism and an air intake mechanism disposed at the bottom of the cylinder (2), characterized in that: A trigger (28) is provided at the bottom of the cylinder body (2), an explosion cylinder (3) communicating therewith is provided at one end of the cylinder body (2), a second spring (29) is provided at the top of the trigger (28), a trigger block (30) is provided at the top of the trigger (28), the ignition mechanism comprises a sparker (31) provided between the trigger block (30) and the clamp (23), the clamp (23) is fixedly mounted on the circumference of the cylinder body (2), a spark plug (32) is inserted into the end surface of the connection between the explosion cylinder (3) and the cylinder body (2), and the spark plug (32) is connected to the sparker (31).
2. The non-electric gas gun according to claim 1, characterized in that: The other end of the cylinder body (2) is provided with a nail tube seat (40), and the other end of the nail tube seat (40) is inserted into the nail tube (4). A piston rod (37) is coaxially provided in the cylinder body (2), and a piston disc (38) is provided at one end of the piston rod (37) facing the explosion cylinder (3). The piston disc (38) is adapted to the cylinder body (2), and a buffer block (39) is provided at one end of the cylinder body (2) corresponding to the piston disc (38).
3. The non-electric gas gun according to claim 2, characterized in that: The air intake mechanism includes an air intake seat (16) arranged at the bottom of the cylinder body (2), a first air intake pipe (17) is embedded in the air intake seat (16), a second air intake pipe (18) is arranged on the end surface of the connection between the explosion cylinder (3) and the cylinder body (2), the first air intake pipe (17) and the second air intake pipe (18) are connected by a silicone tube (19), a gas tank (20) is arranged below the air intake seat (16), and the gas nozzle of the gas tank (20) extends into the first air intake pipe (17); the trigger (28) is arranged beside the gas tank (20).
4. The non-electric gas gun according to claim 3, characterized in that: The cylinder body (2) is provided with a gas compression assembly, so that when the nail tube (4) moves, the gas compression assembly is driven to press the gas tank (20), so that the gas nozzle on the gas tank (20) is compressed and the gas enters the explosion cylinder.
5. The non-electric gas gun according to claim 4, characterized in that: The explosion cylinder (3) is open at one end away from the cylinder body (2), and a contact arm (5) is fixed on the side wall of the nail tube (4). Two contact arms (5) are provided and are correspondingly arranged on both sides of the cylinder body (2). A valve stem (6) is fixed at the other end of the contact arm (5). One end of the valve stem (6) extends into the explosion cylinder (3) and is fixed with a cylinder cover (7) adapted to the explosion cylinder (3). A sealing ring (8) is sleeved on the valve stem (6) and the connection end with the contact arm (5). The sealing ring (8) is adapted to the through hole (9) through which the valve stem (6) passes through the explosion cylinder (3). A retaining ring (10) for limiting the cylinder cover (7) is provided at the open end of the explosion cylinder (3), and a return spring (11) is provided at the center of the cylinder cover (7) toward the open end of the explosion cylinder (3); when the cylinder cover (7) gradually moves toward the open end of the explosion cylinder (3), outside air enters the explosion cylinder (3).
6. The non-electric gas gun according to claim 5, characterized in that: The compressed air assembly includes a V-shaped pressing block (21), the two ends of which are located on both sides of the cylinder body (2) and are rotatably connected to the support block (22), the support block (22) being fixed on the clamping hoop (23), a first spring (24) being provided between the clamping hoop (23) and the pressing block (21), a pushing piece (25) being provided at both ends of the pressing block (21) in the direction of the nail tube (4), a pin (26) being provided on the pushing piece (25), a slideway (27) having an inclined surface on one side being provided at the bottom of the contact arm (5), the pin (26) being located in the slideway (27); when the contact arm (5) moves toward the explosion cylinder (3), the pushing piece (25) is pushed under the action of the slideway (27) to rotate the pressing block (21) toward the gas cylinder (20), thereby compressing the gas nozzle of the gas cylinder (20).
7. The non-electric gas gun according to claim 5, characterized in that: The end surface of the explosion cylinder (3) connected to the cylinder body (2) is provided with a guide plate (48), one end of the valve stem (6) passes through the guide plate (48) and extends into the explosion cylinder (3), the valve stem (6) is adapted to the guide plate (48), an air outlet (50) is provided on the guide plate (48) near the position of the valve stem (6), and an inclined groove (49) facing the air outlet (50) and communicating with the air outlet (50) is provided on the side wall of the through hole (9); the air outlet (50) and the inclined groove (49) are centrally symmetrically arranged.
8. The non-electric gas gun according to claim 2, characterized in that: A second safety mechanism is provided on the top of the nail tube seat (40), and the second safety mechanism includes a safety plate (42). One end of the safety plate (42) is rotatably connected to the nail tube seat (40), and the other end is provided with a protrusion, which is inserted into the nail tube seat (40) and abuts against the tube opening of the nail tube (4) extending into the nail tube seat (40). A steel ball (43) is embedded in the nail tube seat (40), and a second magnet (44) is provided on the safety plate (42) at a position corresponding to the steel ball (43). One end of the safety plate (42) near its hinge is connected to the nail tube seat (40) through a third spring (45).
9. The non-electric gas gun according to claim 5, characterized in that: A first safety mechanism is provided above the trigger (28), comprising a safety plate (33), one end of the safety plate (33) being rotatably connected via a rotating shaft, and the other end passing through a convex limiting hole (34) provided on the trigger block (30), and upwardly bent wing plates (35) being provided on both sides of the safety plate (33), a strip-shaped notch (36) being provided on the bottom surface of the contact arm (5), and an end of the wing plate (35) extending into the strip-shaped notch (36).
10. The non-electric gas gun according to claim 5, characterized in that: The housing (1) is provided with openings at the open end of the explosion cylinder (3) and near the through hole (9). A guide tube (46) is provided at the center of the cylinder cover (7). A first magnet (47) is provided in the guide tube (46). The return spring (11) is sleeved on the guide tube (46), and the other end is connected to the housing (1).