CN218905257U

CN218905257U - Nail shooting energy storage assembly, nail shooting energy storage control mechanism and nail shooting gun

Info

Publication number: CN218905257U
Application number: CN202222461506.5U
Authority: CN
Inventors: 黄锦全; 杨涛; 李海军; 周卫荣
Original assignee: Taizhou Dajiang Industry Co Ltd
Current assignee: Taizhou Dajiang Industry Co Ltd
Priority date: 2022-09-15
Filing date: 2022-09-15
Publication date: 2023-04-25
Anticipated expiration: 2032-09-15

Abstract

The utility model belongs to the technical field of fastening tools, and particularly relates to a nail shooting energy storage assembly, a nail shooting energy storage control mechanism and a nail shooting gun. Comprising the following steps: the guide rod is arranged in the shell through the fixing seat, the piston is movably arranged on the guide rod, and a firing pin for striking the gun nail to make the gun nail hit is arranged on the guide rod; the force supply spring is sleeved on the periphery of the guide rod, and one end of the force supply spring is abutted with the piston and is used for compressing and storing energy under the pushing of the piston; the periphery of the guide rod is also sleeved with a guide sleeve, and the guide sleeve is positioned between the force supply spring and the guide rod. Because the guide sleeve is arranged between the guide rod and the force supply spring, the guide sleeve not only can play a guide role on the movement direction of the force supply spring and prevent the spring from bending deformation in other directions during contraction, but also can reduce the abrasion and friction force of the force supply spring in the moving process, so that the service life of the force supply spring is longer, the contraction is smoother, and the energy storage is carried out more rapidly.

Description

Nail shooting energy storage assembly, nail shooting energy storage control mechanism and nail shooting gun

Technical Field

The utility model belongs to the technical field of fastening tools, and particularly relates to a nail shooting energy storage assembly, a nail shooting energy storage control mechanism and a nail shooting gun.

Background

The utility model provides a nail gun is a fastening tool, is used for construction more, and at present, the wide application is an electronic nail gun of adopting the lithium cell for the nail gun, and this kind of nail gun passes through the lithium cell power supply, and driving motor and corresponding drive structure promote the piston, and then the piston compression power spring carries out energy storage, and when the nail, relies on the elasticity of power spring to drive the piston motion, and then drives the firing pin that installs on the piston and strike the nail and shoot. Reference is made in particular to the applicant's prior patent CN215395034U.

However, in the above-described patent technology, there are still some drawbacks, such as: the force supply spring is directly sleeved on the guide rod, deformation is easy to generate in the compression process when the force supply spring is driven by the piston, scraping is easy to generate between the force supply spring and the guide rod after deformation, the scraping belongs to rigid scraping, and the force supply spring is easy to wear after long-time use, so that the service life of the force supply spring is shortened.

Disclosure of Invention

In order to solve the problems, the utility model provides a nail shooting energy storage component which can effectively reduce the abrasion of a force supply spring in the moving process and prolong the service life of the force supply spring, and a nail shooting energy storage control mechanism and a nail shooting gun containing the nail shooting energy storage component, and the utility model adopts the following technical scheme:

The utility model provides a nail shooting energy storage component, which is arranged in a nail shooting gun with a shell and is used for shooting accumulated energy for a nail of the gun, and has the characteristics that: the guide rod is arranged in the shell through the fixing seat, the piston is movably arranged on the guide rod, and a firing pin for striking the gun nail to make the gun nail hit is arranged on the guide rod; the force supply spring is sleeved on the periphery of the guide rod, and one end of the force supply spring is abutted with the piston and is driven by the piston to perform compression energy storage; the periphery of the guide rod is also sleeved with a guide sleeve, and the guide sleeve is positioned between the force supply spring and the guide rod.

The nail shooting energy storage assembly provided by the utility model can also have the characteristics that the fixed seat comprises a front fixed plate and a rear fixed plate which are used for respectively fixing the front end and the rear end of the guide rod, and the other end of the force supply spring is abutted against the rear fixed plate; the piston is arranged at one end of the guide rod, which is close to the front fixed plate, and a buffer cushion is arranged between the piston and the front fixed plate; the length of the guide sleeve is smaller than the length of the force supply spring when the force supply spring is compressed to the set maximum compression position.

The nail shooting energy storage assembly provided by the utility model can also have the characteristics that the piston is provided with: the fixing part is used for fixing the firing pin, the mounting part is used for mounting the force supply spring, the mounting part is conical and comprises a large end and a small end, and a through hole for the guide rod to pass through is formed in the middle of the mounting part; the guide sleeve is movably arranged on the guide rod, a central hole for the guide rod to pass through is formed in the middle of the guide sleeve, and the aperture of the central hole is smaller than the diameter of the small end.

The nail shooting energy storage assembly provided by the utility model can be characterized by further comprising a pushing component which is rotatably arranged in the shell and provided with a pushing end facing the piston, wherein the pushing component is used for pushing the piston to move towards the force supply spring so as to enable the force supply spring to compress and store energy, and the piston is provided with a pushing end matched with the pushing end, and the pushing end is provided with: a first pushing end extending from the piston in a nail-shooting direction of the nail-shooting gun, a second pushing end extending from the piston toward the pushing member, the pushing end having: the first pushing end is matched with the first pushing end, the second pushing end is matched with the second pushing end, and the outer diameter of the first pushing end is smaller than that of the first pushing end.

The nail shooting energy storage assembly provided by the utility model can also have the characteristics that the pushing component is also provided with a crank, and the crank comprises: the first crank arm is used for installing a first pushing end, the second crank arm is used for installing a second pushing end and is equal to the first crank arm in length, an included angle is formed between the first crank arm and the second crank arm, the first pushing end and the second pushing end are both cylindrical and are respectively arranged at the outer end parts of the first crank arm and the second crank arm, the outer end parts of the first crank arm and the second crank arm are arc-shaped, and the outer edge of the first pushing end protrudes out of the outer end part of the first crank arm.

The utility model also provides a nail-shooting energy-storage control mechanism which is arranged in the nail-shooting gun with the shell and is used for controlling and driving the nail of the nail-shooting gun to strike, and the nail-shooting energy-storage control mechanism has the characteristics that: the energy storage subassembly, control assembly for control energy storage mechanism carries out the operation, wherein, control assembly has: the main switch is provided with a pressing part, a main switch element, a safety switch, a toggle part, a safety switch element and a driving motor, wherein the driving motor is used for driving a pushing member of the energy storage assembly to rotate; the energy storage component is a nail shooting energy storage component.

The nail shooting energy storage control mechanism provided by the utility model can also have the characteristics that the stirring part comprises: the plectrum, be used for contacting with the touch point of safety switch component and make it produce the signal of telecommunication, the driving lever, its one end links with pushing component, and the other end links with the plectrum for promote the plectrum and make its disconnection with the contact of safety switch component, the plectrum contains: the contact plate is used for contacting with a touch point of the safety switch element, the toggle plate is used for contacting with the toggle rod, and when the touch point of the safety switch element contacts with the contact plate, the safety switch element generates an electric signal; when the contact point of the safety switching element is separated from the contact plate, the safety switching element turns off the electrical signal.

The nail shooting energy storage control mechanism provided by the utility model can also have the characteristics that the poking part is also provided with a poking piece seat, a poking piece reset spring is arranged in the poking part, one end of the poking piece is abutted against the poking piece reset spring, and the other end extends out of the poking piece seat to be linked with the poking rod.

The nail shooting energy storage control mechanism provided by the utility model can also have the characteristics that: the knee lever subassembly is used for pushing the plectrum to link with the safety switch component, and has: the outer end of the outer curved rod extends out of a gun nozzle mechanism of the nail gun, the inner end of the outer curved rod is linked with the poking piece and is used for enabling the contact plate to be in contact with a touch point of the safety switch element, the outer end of the inner curved rod is linked with the outer curved rod, the inner end of the inner curved rod is combined with the poking piece seat, and a curved rod reset spring is arranged at one end of the inner curved rod, which is close to the outer curved rod.

The utility model also proposes a nail gun having the characteristics of at least: the gun nozzle mechanism is arranged at the front end of the shell, and the energy storage control mechanism is arranged in the mounting cavity, wherein the energy storage control mechanism is a nail shooting energy storage control mechanism as described above.

The actions and effects of the utility model

According to the nail shooting energy storage assembly, the nail shooting energy storage control mechanism and the nail shooting gun, the guide sleeve is arranged between the guide rod and the force supply spring, so that the guide sleeve can not only play a role in guiding the movement direction of the force supply spring and prevent the spring from bending deformation in other directions when the spring is contracted, but also reduce the abrasion and friction force of the force supply spring in the moving process, so that the service life of the force supply spring is longer, the contraction is smoother, and the energy storage is performed more rapidly.

Drawings

Fig. 1 is a structural view of a nail gun of embodiment 1 of the present utility model.

Fig. 2 is a block diagram of the nail gun of embodiment 1 of the present utility model with a portion of the housing removed.

Fig. 3 is a partial construction view of a gun nozzle mechanism according to embodiment 1 of the present utility model.

Fig. 4 is a structural diagram of a nail shooting energy storage control mechanism of embodiment 1 of the present utility model.

Fig. 5 is a mounting structure diagram of a gun nozzle mechanism according to embodiment 1 of the present utility model.

Fig. 6 is an exploded view of the structure of the piston and the pushing member of embodiment 1 of the present utility model.

Fig. 7 is a schematic view showing the mounting structure of the piston and cylinder head base of embodiment 1 of the present utility model.

Fig. 8 is a mounting structure of a unidirectional rotating member and a speed reducer according to embodiment 1 of the present utility model.

Fig. 9 is one of the process drawings of the pushing member of embodiment 1 of the present utility model which cooperates with the piston and pushes the piston to move.

Fig. 10 is a second diagram of the process of the pushing member of embodiment 1 of the present utility model cooperating with the piston and pushing the piston to move.

Fig. 11 is a schematic diagram showing the stroke analysis of the pushing member and the pushing end of the piston according to embodiment 1 of the present utility model.

Fig. 12 is a schematic diagram of a stroke analysis formed by the cooperation of the control group pushing member and the piston pushing end.

Fig. 13 is a schematic view showing a structure in which a safety switch of embodiment 1 of the present utility model is installed in a cabinet.

Fig. 14 is a partial enlarged view at a of fig. 13.

Fig. 15 is a schematic view of a structure in which a paddle according to an embodiment of the present utility model is mounted in a paddle holder.

Fig. 16 is an exploded view of the mounting structure of the plectrum and the plectrum holder according to the embodiment of the present utility model.

Fig. 17 is a partial enlarged view at B of fig. 13.

Fig. 18 is a schematic view showing the installation position of the safety switch and the bent lever assembly according to embodiment 1 of the present utility model.

Fig. 19 is a second schematic view of the installation position of the safety switch and the toggle assembly according to embodiment 1 of the present utility model.

Fig. 20 is a schematic view showing a structure in which a safety switch of embodiment 2 of the present utility model is mounted in a cabinet.

Fig. 21 is a schematic view showing the installation position of the safety switch and the bent lever assembly according to embodiment 2 of the present utility model.

Reference numerals: the nail gun 10, the housing 20, the housing 21, the front cover 211, the rear cover 212, the mounting portion 2121, the handle 213, the shoe 214, the mounting groove 2141, the gun nozzle mechanism 30, the cartridge clip 31, the gun nozzle bottom plate 32, the gun nozzle cover 33, the nail passing channel 34, the nail driving mechanism 40, the piston 41, the first pushing end 411, the second pushing end 412, the fixing portion 413, the socket 4131, the fixing hole 4132, the mounting portion 414, the mounting seat 4141, the connecting portion 415, the force spring 42, the rear fixing plate 421, the guide rod 48, the guide sleeve 481, the pushing member 43, the crank 430, the first crank arm 4301, the second crank arm 4302, the first pushing end 431, the second pushing end 432, the driving motor 44, the motor 441, the speed reducer 442, the unidirectional rotating member 45 ratchet 451, ratchet 4511, pawl 452, pawl spring 453, main switch 46, pressing portion 461, main switch element 462, safety switch 47, toggle portion 471, contact plate 47111, toggle plate 47112, connection plate 47113, toggle return spring 47114, toggle lever 4712, first toggle lever 47121, guide surface 471211, second toggle lever 47122, pin 47123, toggle seat 4713, spring seat 47131, jack 47132, safety switch element 472, trigger point 4721, front fixed plate 422, mounting plate 4221, screw 4222, through hole 4223, cushion 423, striker 49, toggle assembly 50, outer toggle 51, inner toggle 52, short side 521, long side 522, strike section 5221, platen 53, protective cover 54, toggle return spring 55, lithium battery 60.

Detailed Description

In order to make the technical means, creation characteristics, achievement purposes and effects of the utility model easy to understand, the nail shooting energy storage assembly, the energy storage control mechanism and the nail shooting gun of the utility model are specifically described below with reference to the embodiments and the accompanying drawings.

Example 1 ]

The embodiment provides a lithium-ion power nail gun.

As shown in fig. 1-2, the nail gun 10 of the present embodiment includes a housing 20, a gun nozzle mechanism 30, a nail emission energy storage control mechanism 40, and a power supply unit (lithium battery 60). The casing 20 is a casing 21 arranged on the outer side, the casing 21 is formed by buckling two front cover plates 211 and two rear cover plates 212 which are arranged front and back, a mounting cavity for mounting the nail-shooting energy storage control mechanism 40 is formed inside, and the casing 21 not only can accommodate internal components such as the nail-shooting energy storage control mechanism 40, but also can protect the internal components. The main body casing 21 includes a handle 213 for holding by a user and a base 214 connected to the handle 213, the handle 213 and the base 214 are hollow, a mounting groove 2141 is formed in the base 214, and the lithium battery 60 is detachably mounted in the mounting groove 2141. The power supply unit is used for supplying power to the whole nail gun; the gun nozzle mechanism 30 is used for storing gun nails and allowing the gun nails to be hit and discharged; the nail emission energy storage control mechanism 40 is used for driving the firing pin to move along a preset reciprocating motion direction, so that the nail emission energy storage control mechanism can fire nails from the gun nozzle mechanism 30 to emit the nails.

As shown in fig. 2-3, the gun nozzle mechanism 30 is disposed at the front end of the casing 21, the gun nozzle mechanism 30 has a cartridge clip 31 for storing gun nails, a gun nozzle bottom plate 32 and a gun nozzle cover plate 33 mounted on the top of the cartridge clip 31, a nail passing channel 34 for ejecting gun nails is disposed between the gun nozzle bottom plate 32 and the gun nozzle cover plate 33, and a nail ejection energy storage control mechanism 40 is used for impacting the gun nails to eject the gun nails from the nail passing channel 34.

As shown in fig. 4, the nail shooting energy storage control mechanism 40 comprises an energy storage component and a control component, wherein the energy storage component is used for driving the gun nail to be shot out along the striking direction, and the control component controls the operation of the energy storage component. The energy storage assembly has a piston 41 movably arranged in the housing 20, at least one force spring 42, at least one guide bar 48, at least one guide sleeve 481, a pushing member 43 and a driving motor 44 for driving the pushing member 43 to rotate. The guide rod 48 is installed in the housing 20 through a fixing seat, the piston 41 is movably arranged on the guide rod 48, a firing pin 49 for striking a gun nail to strike the gun nail is installed, the force supply spring 42 is sleeved on the periphery of the guide rod 48, one end of the force supply spring 42 is abutted against the piston 41 and is compressed and stored under the pushing of the piston 41, the guide rod periphery is further sleeved with a guide sleeve 4221, and the guide sleeve 4221 is located between the force supply spring 42 and the guide rod 48.

Specifically, as shown in fig. 2, the fixing base includes a front fixing plate 422 and a rear fixing plate 421 for fixing the front and rear ends of the guide rod 48 respectively, a clamping groove structure is disposed in a mounting cavity in the housing 21, the front fixing plate 422 is fixed at the front end of the clamping groove structure (in this embodiment, the front fixing plate 422 is a sheet structure), the rear fixing plate 421 is fixed at the rear end (in this embodiment, the rear fixing plate 421 is also a sheet structure), a pair of parallel guide rods 48 are disposed between the front fixing plate 422 and the rear fixing plate 421, the piston 41 is located at one side of the guide rod 48 near the front fixing plate 422, the guide rod 48 passes through the piston 41 and is fixed on the front fixing plate 422 through bolts, a buffer cushion 423 is further disposed between the front fixing plate 422 and the piston 41, and collision between the front fixing plate 422 and the front fixing plate 422 is slowed down during moving of the piston 41. As shown in fig. 4, in this embodiment, two parallel force supply springs 42 are provided, the front ends of the force supply springs 42 are abutted against the piston 41, the rear ends are abutted against the rear fixing plate 421, the two force supply springs 42 are respectively sleeved on the peripheries of the two guide rods 48, one ends of the guide rods 48 are fixed with the rear fixing plate 421 through screws, and the other ends pass through the piston 41 to be fixed on the front fixing plate 422. The guide rod 48 is used to guide the piston 41 to reciprocate in a predetermined direction.

Similarly, two guide sleeves 481 are also provided, and are respectively movably sleeved on the outer circumferences of the two guide rods 48 and positioned at the inner sides of the force supply springs, and the length of the guide sleeve 4221 is smaller than the length when the force supply springs 42 are compressed to a set limit position (when the length of the guide sleeve is designed to be the length that the piston moves towards one side of the force supply springs to the limit position, the guide sleeve and the piston do not interfere with each other, and the longer the guide rods are, the better the longer the guide rods are, the longer the length is, and the length is generally greater than the length after the force supply springs are compressed, so that the force supply springs 42 can be normally compressed. The guide sleeve 481 is in the shape of a cylinder with a small coefficient of friction (typically made of nylon and polyoxymethylene, but other similar materials may be used instead).

The guide sleeve 481 can be fixedly arranged or movably arranged, and one end of the guide sleeve 481 is fixed on the rear fixing plate 421 during the fixed arrangement; when the guide rod is movably arranged, the guide sleeve is directly sleeved on the periphery of the guide rod, and when the force supply spring 42 is compressed or restored, the guide sleeve can move on the guide rod along the compression or restoration direction (the movable arrangement is taken as an example in the drawing of the embodiment). The guide sleeve 481 not only plays a role in guiding the force supply spring 42, but also can prevent deformation of the force supply spring in other directions, reduce abrasion of the force supply spring, prolong service life of the force supply spring, and simultaneously reduce friction force of the force supply spring during compression, so that the compression process of the force supply spring is smoother.

The front end of the piston 41 is provided with a firing pin 49 for striking the gun nail to launch the gun nail, the rear end of the piston 41 is matched with the force supply spring 42, and the piston 41 can be driven to move by the force supply spring 42 (namely, the force supply spring 42 is used for providing power for the movement of the piston 41). The pushing member 43 has a pushing end toward the piston 41 for pushing the piston 41 toward the end of the force supply spring 42, thereby compressing and accumulating the force supply spring 42. Correspondingly, the piston 41 is provided with a pushing end matched with the pushing end, the pushing end is provided with a first pushing end 411 and a second pushing end 412, the first pushing end 411 extends from the piston 41 along the nail shooting direction of the nail shooting gun, and the second pushing end 412 extends from the piston 41 towards the pushing member 43. The pushing end has a first pushing end 431 cooperating with the first pushing end 411 and a second pushing end 432 cooperating with the second pushing end 412, the first pushing end 431 and the second pushing end 432 are both in a cylindrical structure, the pushing member 43 can drive the first pushing end 431 and the second pushing end 432 to rotate in the rotation process, the outer diameter of the second pushing end 432 is smaller than the outer diameter of the first pushing end 431, and the height of the second pushing end 432 is also lower than the height of the first pushing end 431.

As shown in fig. 5, in the first embodiment of the front fixing plate 422, the front fixing plate 422 is located in front of the piston 41 in the striking direction, and a mounting plate 4221 is formed by extending forward from the lower end portion, the nozzle bottom plate 32 and the nozzle cover plate 33 are fixed above the mounting plate 4221 by bolts, the front end of the striker 49 in the middle of the piston 41 passes through the middle of the front fixing plate 422 and is inserted into the nail passing passage 34 between the nozzle bottom plate 32 and the nozzle cover plate 33, and the left and right sides of the front fixing plate 422 are fixed to the housing by screws 4222.

As shown in fig. 6 and 7, the piston 41 has a fixing portion 413 for fixing the striker 49 (the fixing portion 413 is like a cylinder as a whole, a linear insertion hole 4131 is formed in the middle portion thereof in the axial direction, and a fixing hole 4132 is formed through the entire cylinder in the radial direction, and one end of the striker 49 is inserted into the insertion hole 4131 and inserted into the fixing hole 4132 with a pin, thereby fixing the striker 49 to the fixing portion 413). The rear side of the fixing portion 413 is provided with an installation portion 414 for installing the force supply spring 42, the installation portion 414 is two conical installation seats 4141 (as shown in fig. 6 and 7, the specific conical shape is cylindrical, a plurality of triangular reinforcing structures are distributed on the periphery of the cylindrical shape), the installation seats 4141 comprise large ends with large width and small ends with small width, a central hole for the guide rod 48 to pass through is formed in the middle of the guide sleeve 481, the aperture of the central hole is smaller than the diameter of the small end, and the guide sleeve 481 can be prevented from being clamped on the installation seats 4141 of the piston 41 in the moving process of the guide rod 48. Through holes 4223 are formed in the middle of the mounting seat 4141 and in corresponding positions of the front fixing plate 422 and the cushion pad 423, and the front ends of the two guide rods 48 pass through the corresponding through holes 4223 and are fixed to the front fixing plate 422.

The fixing portion 413 is connected to the mounting portion 414 through a plate-shaped connecting portion 415, the lower end of the connecting portion 415 extends downward (in the direction of the pushing member 43) to form a second pushing end 412, one side of the second pushing end 412 extends toward the direction of the fixing portion 413 to form a first pushing end 411, and the second pushing end 412 is approximately perpendicular to the first pushing end 411. As shown in fig. 7, in the second embodiment of the front fixing plate 422, the gun nozzle mechanism is simply a square sheet-like structure, and in this case, the gun nozzle base plate 32 is fixed to the housing 20 by bolts without being fixed to the front fixing plate 422.

The first pushing end 431 and the second pushing end 432 are in a cylindrical structure, the pushing member 43 further comprises a crank 430, the crank comprises a first crank arm 4301 and a second crank arm 4302, the first pushing end 431 is installed at the outer end portion of the first crank arm 4301, the second pushing end 432 is installed at the outer end portion of the second crank arm 4302, the first crank arm 4301 and the second crank arm 4302 are equal in length, an included angle is formed between the first pushing end 431 and the second crank arm 4302, the outer end portions of the first pushing end 431 are in a circular arc shape, the outer edge of the first pushing end 431 protrudes out of the outer end portion of the first crank arm 4301, and the outer edge of the second pushing end 432 is flush with the outer end portion of the second crank arm 4302 or is slightly concave.

As shown in fig. 4, the driving motor 44 includes a motor body 441 and a speed reducer 442, the speed reducer 442 is mounted on an output shaft of the motor body 441, the pushing member 43 is mounted at an output end of the speed reducer 442, and a unidirectional rotating member 45 is disposed therebetween, and the pushing member 43 performs unidirectional rotation under the driving of the motor body 441 and the speed reducer 442. The motor body 441 of the present embodiment is a brushless motor. The speed reducer 442 is mounted on the output shaft of the motor body 441, and is used for reducing the output rotation speed of the motor body 441, so as to obtain higher output torque, i.e. obtain larger driving force. The unidirectional rotation member 45 is used to limit the rotation direction of the output end 443 of the drive motor 44 (i.e., the output shaft of the speed reducer 442) so that it can only perform unidirectional rotation. The unidirectional rotation member 45 is mounted on the output shaft of the speed reducer 442 and is engaged with the output shaft to form a hole shaft, so that the output shaft can perform unidirectional rotation only. Meanwhile, when the urging member 43 receives an urging force that causes it to rotate in the reverse direction, the unidirectional rotation member 45 receives the urging force so that the urging force is not transmitted to the output shaft, thereby protecting the motor body 441. The specific structure of the motor body 441 and the speed reducer 442 may be a structure in the prior art. And as shown in fig. 1, 2 and 4, the driving motor and the pushing member 43 are almost positioned under the piston 41, so that the whole structure is more compact, the gravity is concentrated in the middle of the whole nail gun, and compared with the arrangement of the motor and the driving component on the side surface, the driving motor and the driving component are more stable and more uniformly stressed, and the driving motor and the pushing component do not occupy redundant space.

When in installation, the middle part of the crank 430 is provided with a through hole at the connecting part between the first crank arm 4301 and the second pushing end 432, the crank 430 is installed at the output end of the speed reducer 442 through the through hole, and the crank 430 can rotate along with the motor body 441 and the speed reducer 442. The pushing member 43 is designed into a crank 430 shape, so that the structure is lighter than that of a disc and the like in the prior art, the material can be saved, the energy consumption can be reduced, and the transmission effect is better.

When the pushing member 43 rotates, the first pushing end 431 and the second pushing end 432 thereon move in an arc along with the crank 430, and cooperate with the first pushing end 411 and the second pushing end 412 on the piston 41 to push the piston 41 in the energy storage direction. The shape and height of the first pushing end 431 correspond to the arrangement of the first pushing end 411, and the shape and height of the second pushing end 432 correspond to the arrangement of the second pushing end 412.

In this embodiment, the unidirectional rotation member may be a unidirectional bearing, or may be a ratchet structure as shown in fig. 8. The unidirectional bearing is a common structure, and will not be described in any more detail herein, and the ratchet structure in this embodiment is mainly described. As shown in fig. 8, the unidirectional rotation member 45 has a ratchet 451, a pawl 452 and a pawl shrapnel 453, the ratchet 451 is sleeved on the output end 443 and has a plurality of ratchets 4511, the pawl 452 is arranged on the speed reducer 442 positioned at the side edge of the ratchet 451, the pawl 452 is used for being inserted between the ratchets 4511 to cooperate with the ratchet 452 so as to enable the ratchet 451 to rotate unidirectionally, one end of the pawl shrapnel 453 is fixed on the speed reducer 443 through a bolt, and the other end of the pawl shrapnel 453 is abutted against the pawl 453 so as to enable the pawl shrapnel to always have a trend of moving towards the pawl 452 and being inserted into the ratchets 4511.

As shown in fig. 9 and 10, the pushing member 43 is driven by the motor body 441 to rotate clockwise, and as the pushing member 43 rotates, the second pushing end 432 moves to the second pushing end 412 and abuts against the second pushing end 412, at this time, the pushing member 43 continues to rotate, the second pushing end 432 moves in an arc shape in a direction substantially toward the energy storage direction, an arc pushing force in the direction substantially toward the energy storage direction is applied to the piston 41 by the second pushing end 412, and the piston 41 can move in the energy storage direction along the guide rod 48 under the pushing force, and compresses the force supply spring 42 to store energy.

The second pushing end 432 is rotated in the energy storage direction to the maximum stroke, thereby completing the first energy storage. At this time, the pushing member 43 continues to rotate, the second pushing end 432 rotates along with it and is separated from the second pushing end 412, meanwhile, the first pushing end 431 rotates to the first pushing end 411 and abuts against the first pushing end 411, and then, the first pushing end 431 pushes the piston 41 to move further towards the energy storage direction in the same manner until the first pushing end 431 rotates to the maximum stroke along the energy storage direction, so as to complete the second energy storage section, thereby completing the whole spring energy storage process.

After the second section of energy storage is completed, the nail can be shot. When the nail is ejected, the motor body 441 drives the pushing member 43 to continue to rotate, the first pushing end 431 rotates along with the first pushing end 411 and is separated from the first pushing end 411, at this time, the first pushing end 431 and the second pushing end 432 are both located outside the moving path of the piston 41, so that the piston 41 can move towards the direction of ejecting the nail under the action of the elastic force of the force supply spring 42 until the firing pin 49 impacts the nail to eject the nail, and the nail ejecting process is completed. In the first stage energy storage or the second stage energy storage, the crank 430 does not rotate reversely under the acting force of the piston 41 due to the arrangement of the one-way bearing, so that the false nail is caused.

The motor body 441 is used for driving the pushing member 43 to rotate, so that the pushing member 43 pushes the piston 41 to move, so that the force supply spring 42 is compressed and stored, and finally the piston 41 is pushed out under the elastic force of the force supply spring 42.

The first pushing end 431 and the second pushing end 432 of the present embodiment are both cylindrical, and the outer diameter of the second pushing end 432 is smaller than that of the first pushing end 431, and the outer diameters of the two ends are unequal. The inventors conducted reference experiments on this as follows:

As shown in fig. 11, in the present embodiment, the outer diameter of the first pushing end 431 is 18mm (radius is 9 mm), the outer diameter of the second pushing end 432 is 14mm (radius is 7 mm), the distance between the first pushing end 411 and the second pushing end 412 of the piston is 35mm, and the working stroke that can be achieved by the experiment is 81.5mm.

As shown in fig. 12, as a control group of the present embodiment, the outer diameters of the first pushing end 431 and the second pushing end 432 are 14mm (the radius is 7 mm), the distance between the first pushing end 411 and the second pushing end 412 of the piston is 35mm, and the working stroke achieved by the experiment is 79.5mm, which is significantly smaller than the stroke achieved by the present embodiment.

The operation mode formed by the work is as follows:

the working stroke is S, the distance between the first pushing end and the second pushing end of the piston is L, the included angle between the first pushing end 431 and the second pushing end 432 is n (i.e. the included angle between the first crank arm 4301 and the second pushing end 432), and the arc length calculation formula bypassed when the first pushing end 431 and the second pushing end 432 rotate is: l=nrr/180 °; when the first pushing end 431 and the second pushing end 432 are equal in diameter (the radius is R), the working stroke of the piston is s=l+l=l+ (n pi R/180 °); when the first pushing end 431 and the second pushing end 432 are not equal in diameter (radius R1 and R2 respectively), s=l+l+ (R1-R2). It is apparent that at unequal diameters, the working stroke of the piston is greater than at equal diameters by a distance (R1-R2). That is, the maximum working stroke is obtained by adjusting the outer diameter of the pushing end as much as possible without changing the length of the pushing end of the piston, and the larger the working stroke, the larger the amount by which the force spring 42 is compressed, so that the larger energy can be obtained, and the gun nail can be ejected more forcefully and promptly. Meanwhile, the structure of the nail gun needs to be compact, so that the design length of the nail gun is reduced as much as possible, and the operation, the packaging and the transportation are facilitated.

As shown in fig. 2, the nail shooting energy storage control mechanism 40 further includes a control assembly, the control assembly includes a main switch 46 and a safety switch 47, the main switch 46 is connected in series with the safety switch 47 and is connected to the lithium battery 60 and the motor body 441, and when the main switch 46 and the safety switch 47 have electrical signals at the same time, the motor body 441 can be controlled to start to operate.

The main switch 46 is a button switch, and the specific structure can be a structure in the prior art, and has a pressing portion 461 and a main switch element 462, and the main switch element 462 can generate a corresponding start electric signal when the pressing portion 461 is pressed down; the safety switch 47 is a linked switch, and includes a toggle part 471 and a safety switch element 472, and the safety switch element 472 can generate an electric signal when it contacts the toggle part 471. In the present embodiment, the main switch element 462 and the safety switch element 472 are micro switches. When the main switch element 462 and the safety switch element 472 generate electrical signals, the motor body 441 operates to drive the pushing member 43 to rotate, thereby completing the spring energy storage process.

Fig. 14 is a partial enlarged view at a of fig. 13.

As shown in fig. 13 to 16, the toggle part 471 of the safety switch 47 includes a toggle 4711, a toggle lever 4712, and a toggle seat 4713 for mounting the toggle 4711, and the toggle 4711 is located on the side of the safety switch member 472 and is interlocked therewith. The linkage mode is as follows: one side of the safety switch member 472 is provided with a touch point 4721, and a paddle 4711 is hooked and mounted on the paddle seat 4713, the paddle 4711 having a contact plate 47111, a paddle 47112, and a connection plate 47113 for connecting the contact plate 47111 and the paddle 47112. The contact plate 47111 is disposed toward the contact point 4721 of the safety switching element 472 for contacting the contact point 4721, and the safety switching element generates an electrical signal when the contact point 4721 contacts the contact plate 47111; the outer end of the toggle plate 47112 extends out of the toggle seat 4713 and is used for contacting with the toggle lever 4712, the length of the contact plate 47111 is smaller than that of the toggle plate 47112, a gap is formed by the difference of the two lengths, the toggle plate 47112 moves towards one side of the toggle seat 4713 under the pushing of the toggle lever 4712, so that the contact plate 47111 is carried to move and gradually separate from the touch point 4721, and when the touch point 4721 is located in the gap, the safety switch element 472 can break an electrical signal. In order to enable the plectrum 4711 to reset, a spring seat 47131 is further arranged on the plectrum seat 4713, a plectrum reset spring 47114 is arranged at the inner end of the spring seat 47131 towards one end of the plectrum 4711, and the plectrum reset spring 47114 is abutted against the connecting plate 47113 of the plectrum 4711.

Fig. 17 is a partial enlarged view at B of fig. 13.

The lever 4712 has a long lever shape with one end bent, and is used to control the movement of the dial 4711. The method comprises the following steps: the shift lever 4712 includes a first shift lever 47121 and a second shift lever 47122, and an end portion of the first shift lever 47121 is disposed near a pushing end of the pushing member 43 and collides (scrapes) during rotation of the pushing end; the end of the second toggle rod 47122 is located at the inner side of the toggle plate 4711, a pin shaft 47123 is arranged at the connecting section where the first toggle rod 47121 and the second toggle rod 47122 are connected, a mounting portion 2121 for mounting the pin shaft 47123 is arranged in the rear cover plate 212 of the housing 20 in a protruding manner, and the toggle rod 4712 is rotatably mounted on the mounting portion 2121 through the pin shaft 47123. Meanwhile, in this embodiment, the first toggle rod 47121 and the second toggle rod 47122 are arranged in a staggered manner, that is, the first toggle rod 47121 and the second toggle rod 47122 are not collinear, the whole toggle rod 4712 is similar to a zigzag shape, the length of the first toggle rod 47121 is smaller than that of the second toggle rod 47122, and the lever principle is adopted, so that once the first toggle rod 47121 is scraped by the pushing end, the second toggle rod 47122 can reversely rotate with the first toggle rod 47121, and therefore the toggle piece 4711 is touched and pushed. The two are designed to be offset, so that the first toggle lever 47121 can have enough space when rotating, and the second toggle lever 47122 can obtain the required stroke when pushing the toggle plate 4711.

As shown in fig. 18, when the safety switch element 472 is in a state with an electrical signal, that is, the contact point 4721 is in contact with the contact plate 47111 of the paddle, and when the pushing end of the pushing member 43 rotates clockwise, once the pushing end is scraped against the first paddle 47121, the first paddle 47121 is driven to rotate inwards, and according to the lever principle, the second paddle 47122 rotates outwards to touch the paddle 47112 of the paddle 4711 and push the paddle 4711 to move outwards, so that the contact plate 47111 is separated from the contact point 4721, and when the electrical signal is disconnected from the safety switch element 472, the driving motor also stops working immediately.

Because the poking reset spring 47114 is arranged between one side of the poking plate 4711 and the poking plate seat, when the pushing end is not contacted with the first poking end 47121, the poking reset spring 47114 pushes the poking plate 4711 inwards to reset, and the first poking rod 47121 and the second poking rod 47122 are reset successively. The outside of first poke rod 47121 can be provided with the guide surface of slope, more is convenient for push the end and bump with first poke rod 47121 when rotating.

The nail emission energy storage control mechanism 40 further comprises a curved lever assembly 50, wherein the curved lever assembly 50 is used for pushing the pulling piece 4711 to be linked with the safety switch element 472. The crank assembly 50 has an outer crank 51 and an inner crank 52, as shown in fig. 1 and 2, the outer end of the outer crank 51 extends out of the housing 20 and is mounted on the gun nozzle cover 33 of the gun nozzle mechanism by a pressing plate 53, and the outer end portion protrudes out of the gun nozzle mechanism, and the inner end of the outer crank 51 is inserted into the housing 20 to be interlocked with the inner crank 52. As shown in fig. 18 and 19, the inner curved lever 52 has a short side 521 and a long side 522 which are disposed perpendicular to each other, the outer side of the short side 521 is in contact with the inner end of the outer curved lever 51, the long side 522 extends to the vicinity of the dial seat 4713 and is bent at the end toward the dial seat 4713 to form a contact section 5221, a receptacle 47132 is provided in the dial seat 4713, and the end of the contact section 5221 is inserted into the receptacle 47132 so that the contact section 5221 is connected to the dial seat 4713.

The linkage of the knee lever assembly with the safety switching element 472 is specifically as follows:

when the nail gun is used, the gun nozzle mechanism positioned at the front side is aligned with a target position to be nailed, as the outer end part of the outer curved rod 51 protrudes out of the gun nozzle mechanism, when the outer end part is propped against the target position, a reaction force is generated on the outer curved rod 51, so that the outer curved rod 51 moves towards one side of the nail gun, the inner end of the outer curved rod 51 contacts the short side 521 of the inner curved rod 52, the inner curved rod 52 is pushed to move inwards, the outer curved rod 51 drives the shifting plate seat 4713 to move towards the safety switch element 472 together in the moving process, and a contact plate 47111 on a shifting plate 4711 in the shifting plate seat 4713 contacts with and presses a contact point 4721 of the safety switch element 472, so that the safety switch element 472 generates an electric signal; then, the user presses the pressing portion 461 to trigger the main switch element 462 to be turned on to generate an electric signal, when both switch elements are in the on state, the motor body 441 is started, the force supply spring starts to store energy, and then the gun nails are hit and discharged, so that the nail shooting is realized.

As shown in fig. 19, a curved lever return spring 55 for urging the curved lever assembly to return is provided between the short side 521 of the inner curved lever 52 and the front fixed plate 422, and when the user removes the nail gun after the nail is completed and the outer end of the outer curved lever 51 is separated from the target portion, the curved lever return spring 55 drives the inner curved lever 52 and the outer curved lever 51 to return. The outer end of the outer curved rod 51 is further provided with a protective cover 54, and wear of the outer end of the outer curved rod 51 can be reduced and the service life of the outer curved rod can be prolonged by contacting the protective cover 54 with a target position.

The working principle of the embodiment is as follows:

when the nail gun is used, the gun nozzle mechanism positioned at the front side is aligned with a target position needing nailing, the outer curved rod 51 is pushed, the inner curved rod drives the pulling piece seat to move towards the safety switch element 472, the safety switch element 472 is driven to be opened to generate an electric signal, then a user opens the main switch element 462 to generate an electric signal, and at the moment, the main switch and the safety switch generate electric signals, so that the motor body 441 is started to drive the pushing member 43 to rotate. During the rotation, the pushing member 43 urges the piston 41 to move toward the force supply spring 42, thereby compressing the force supply spring 42 and gradually performing the first-stage energy storage and the second-stage energy storage. After the second stage of energy storage is completed, the nailing can be performed. When the nail is ejected, the motor body 441 drives the pushing member 43 to continue to rotate, the first pushing end 431 rotates along with the first pushing end 411 and is separated from the first pushing end 411, at this time, the first pushing end 431 and the second pushing end 432 are both located outside the moving path of the piston 41, so that the piston 41 can move towards the direction of ejecting the nail under the action of the elastic force of the force supply spring 42 until the firing pin 49 impacts the nail to eject the nail, and the nail ejecting process is completed. Meanwhile, since the outer edge of the first pushing end 431 protrudes out of the outer end of the first crank arm 4311, the outer edge of the first pushing end protrudes out of the outer end of the first crank arm 4311, so that the first toggle rod 47121 is scratched in the rotation process, the first toggle rod 47121 is driven to rotate inwards, the second toggle rod 47122 is driven outwards to touch the toggle piece 4711, the toggle piece 4711 is enabled to move outwards, the contact plate 47111 is enabled to leave the contact point 4721, the contact point 4721 is just aligned with the open slot 47112, and the safety switch element 472 is disconnected, so that the motor stops rotating.

Example 2 ]

The present embodiment is substantially the same as embodiment 1 described above, except for the structure of the toggle portion and the toggle lever assembly in the control assembly. The method comprises the following steps: as shown in fig. 20, the toggle part 471 'of the safety switch 47' has a toggle 4711 'and a toggle lever 4712', and the toggle 4711 'is located at one side of the safety switch member 472' and is interlocked therewith. The linkage mode is as follows: one side of the safety switch element 472' is provided with a switch bulge 4721', and the toggle piece 4711' is provided with a trigger end 47111', so that when the trigger end 47111' contacts the switch bulge 4721', the safety switch element 472' can be triggered to be started to generate an electric signal. An open slot 47112 'is provided beside the trigger end 47111' and the safety switch element 472 'turns off the electrical signal when the toggle 4711' is moved, the trigger end 47111 'moves away from the switch tab 4721', and the switch tab 4721 'is aligned with the open slot 47112'.

As shown in fig. 21, the tap 4712 'has a long bar shape with one end bent, which is used to control the movement of the tap 4711'. The method comprises the following steps: the toggle lever 4712' includes a first toggle end 47121' and a second toggle end 47122', wherein an end of the first toggle end 47121' is disposed near the pushing end of the pushing member 43', and collision (scratch) occurs during rotation of the pushing end; the end of the second poking end 47122' is located at the inner side of the poking plate 4711', a pin shaft 47123' is arranged at the connecting section where the first poking end 47121' and the second poking end 47122' are connected, a mounting part for mounting the pin shaft 47123' is arranged in a protruding mode in the rear cover plate 212' of the shell, and the poking rod 4712' is rotatably mounted on the mounting part through the pin shaft 47123 '. (the structure of the tap lever and its mounting structure with the housing are the same as those of embodiment 1).

As shown in fig. 21, when the pushing end of the pushing member 43' rotates clockwise, once the pushing end is scraped to the first pulling end 47121', the first pulling end 47121' is caused to rotate inwards, so that the second pulling end 47122' is pulled outwards, and hits the pulling piece 4711', so that the pulling piece 4711' moves outwards, and the triggering end 47111' is separated from the switch protrusion 4721', and the safety switch element 472 is disconnected '. A toggle reset spring 47113' is arranged between the outer side of the toggle plate 4711' and the shell, when no contact exists between the pushing end and the first toggle end 47121', the toggle reset spring 47113' pushes the toggle plate 4711' inwards to reset, and the first toggle end 47121' and the second toggle end 47122' are reset successively. The outer side of the first toggle end 47121' is provided with an inclined guide surface 471211' so that the push end collides with the first toggle end 47121' when rotating.

The staple driving mechanism 40 further includes a toggle lever assembly 50', the toggle lever assembly 50' being configured to urge the driver blade 4711 'to engage the safety switch element 472'. The crank assembly 50' has an outer crank 51' and an inner crank 52', the outer end of the outer crank 51 extending out of the housing 20 and the outer end protruding beyond the gun nozzle mechanism, the inner end of the outer crank 51' being interlocked with the inner crank 52 '. As shown in fig. 21, the inner curved lever 52' has a short side 521' and a long side 522' which are disposed perpendicular to each other, the outer side of the short side 521' being in contact with the inner end of the outer curved lever 51', the long side 522' extending to the vicinity of the dial 4711' and being bent at the end toward the dial 4711' to form a contact portion 5221'. The striking plate 4711 'is provided with a striking plate 47114' at a position close to the striking section 5221', the open groove 47112' is located between the striking plate 47114 'and the trigger end 47111', and one side of the striking section 5221 'is provided with a curved lever return spring 55'.

The linkage of the knee lever assembly with the safety switching element 472' is specifically as follows:

when the nail gun is used, the gun nozzle mechanism positioned at the front side is aligned with a target position to be nailed, as the outer end part of the outer curved rod 51 'protrudes out of the gun nozzle mechanism, when the outer end part is propped against the target position, a reaction force is generated on the outer curved rod 51', so that the outer curved rod 51 'moves towards one side of the nail gun, the inner end of the outer curved rod 51' contacts the short side 521 'of the inner curved rod 52', the inner curved rod 52 'is pushed to move inwards, the outer curved rod 51' can promote the contact section 5221 'to contact with the contact plate 47114' on the poking plate 4711 'in the moving process, the poking plate 4711' is pressed towards one side of the safety switch element 472', the safety switch element 472' is started to generate an electric signal, then a user presses the pressing part 461', the main switch element 462' is started to generate an electric signal, when both the two switch elements are in the on state, the motor is started, the force supply spring starts to store energy, and then the nail gun is driven out, and nail is shot, so that nail shooting is realized. After the nail is shot, when the outer end of the outer curved rod 51 'is separated from the target portion, the curved rod return spring 55' drives the inner curved rod 52 'and the outer curved rod 51' to return. As in embodiment 1, the outer end of the outer curved rod 51 'is further provided with a protective cover 54', and wear of the outer end of the outer curved rod 51 'can be reduced and the service life of the outer curved rod can be prolonged by the contact of the protective cover 54' with the target portion.

Example operation and Effect

According to the nail shooting energy storage assembly in the above embodiment, since the guide sleeve 481 is arranged between the guide rod 48 and the force supply spring 42, the guide sleeve 481 not only can guide the movement direction of the force supply spring 42 and prevent the force supply spring 42 from bending deformation in other directions when contracting, but also can reduce the abrasion and friction of the force supply spring 42 in the moving process, so that the service life of the force supply spring 42 is longer, the contraction is smoother, and the energy storage is performed more rapidly.

According to the nail shooting energy storage control mechanism and the nail shooting gun of the above embodiments, since the poking part 471 of the safety switch 47 is provided with the poking sheet 4711, the poking rod 4712 and the poking sheet seat 4713, the poking sheet 4711, the poking rod 4712, the poking sheet seat 4713 and the pushing member 43 are mutually linked to play a role of turning on and off the electric signal of the safety switch 47, and the nail shooting energy storage control mechanism belongs to a mechanical structure control mode without additionally arranging a controller, thereby saving the cost and ensuring more stable control.

According to the nail shooting energy storage control mechanism and the nail shooting gun of the embodiment, the pushing member 43 is arranged and is directly matched with the piston 41, so that the piston 41 is pushed to move towards the force supply spring 42, the force supply spring 42 is enabled to compress and store energy, the pushing member 43 is not in direct contact with the firing pin 49, the movement of the piston 41 is prevented from being influenced due to the contact with the firing pin 49, and the whole energy storage process is smoother and stable.

In addition, the pushing member 43 has a pushing end facing the piston 41, and is configured to move the piston by contacting with a pushing end on the piston 41 during the re-rotation of the pushing end, and the pushing end has a first pushing end 431 and a second pushing end 432, so that the first section of energy storage and the second section of energy storage can be performed respectively, and the energy storage capacity of the force supply spring 42 is maximized; meanwhile, the outer diameters of the first pushing end 431 and the second pushing end 432 are unequal, so that the maximum working stroke of the movement of the piston 41 can be obtained by adjusting the outer diameter of the pushing end as much as possible under the condition of not changing the length of the pushing end of the piston 41, and the larger the working stroke is, the larger the compressed amount of the force supply spring 42 is, so that larger energy can be obtained, and the gun nails can be ejected more forcefully and rapidly.

The pushing member 43 is designed into the shape of the crank 430, which is lighter than the disc and other structures in the prior art, so that not only can the material be saved, but also the energy consumption can be reduced, and the transmission effect is better.

The nail shooting energy storage control mechanism provided in the above embodiment further has a control component, the control component comprises a main switch 46 and a safety switch 47, the two switches are connected in series and are connected to the driving motor, so that the motor body 441 of the nail shooting gun 10 can be controlled directly according to the nail shooting electric signals and the safety electric signals generated by the main switch 46 and the safety switch 47, the main switch 46 and the safety switch 47 are arranged in series, and therefore the motor body 441 can be controlled to start only when the nail shooting electric signals and the safety electric signals are received simultaneously and are valid, and nail shooting is performed. Because the nail shooting energy storage control mechanism adopts the design of double switches and double insurance, the safety in the nail shooting process is also ensured. Further, by the nail emission energy storage control mechanism of the above embodiment, the nail emission gun 10 can start the safety switch by the crank assembly when touching the target position, and automatically start energy storage when the main switch 46 is pressed, that is, started, and keep in the energy storage completion state, so that the user can directly discharge nails by pressing only one switch, and the operation is very convenient.

The above examples are only for illustrating the specific embodiments of the present utility model, and the present utility model is not limited to the description scope of the above examples. For example, in the implementation process, the unidirectional rotation component at the output end of the driving motor can be replaced by a unidirectional bearing through a ratchet and pawl structure, and the same purpose can be achieved.

Claims

1. A nail shooting energy storage assembly disposed in a nail shooting gun having a housing for shooting accumulated energy for a nail of the gun, comprising:

the guide rod is arranged in the shell through the fixing seat;

a piston movably arranged on the guide rod and provided with a firing pin for striking the gun nail to be struck; and

the force supply spring is sleeved on the periphery of the guide rod, and one end of the force supply spring is abutted against the piston and is driven by the piston to perform compression energy storage;

the periphery of the guide rod is also sleeved with a guide sleeve, and the guide sleeve is positioned between the force supply spring and the guide rod.

2. The nail shooting energy storage assembly of claim 1, wherein,

the fixed seat comprises a front fixed plate and a rear fixed plate which are used for respectively fixing the front end and the rear end of the guide rod, and the other end of the force supply spring is abutted against the rear fixed plate;

The piston is arranged at one end of the guide rod, which is close to the front fixing plate, and a buffer cushion is arranged between the piston and the front fixing plate;

the length of the guide sleeve is smaller than the length of the force supply spring when the force supply spring is compressed to the set position.

3. The nail shooting energy storage assembly of claim 2, wherein,

wherein the piston has:

a fixing part for fixing the firing pin,

a mounting part for mounting the force supply spring,

the installation part is conical and comprises a large end and a small end, and a through hole for the guide rod to pass through is formed in the middle of the installation part; the guide sleeve is movably arranged on the guide rod, a central hole for the guide rod to pass through is formed in the middle of the guide sleeve, and the aperture of the central hole is smaller than the diameter of the small end.

4. A nail energy storage assembly according to any one of claims 1 to 3, further comprising

A pushing component which is rotatably arranged in the shell and is provided with a pushing end facing the piston and is used for pushing the piston to move towards the force supply spring so as to enable the force supply spring to compress and store energy,

the piston is provided with a pushing end matched with the pushing end, and the pushing end is provided with:

a first pushing end extending from the piston along the nail shooting direction of the nail shooting gun,

A second pushing end extending from the piston toward the pushing member,

the pushing end has:

the first pushing end is matched with the first pushing end,

the second pushing end is matched with the second pushing end, and the outer diameter of the second pushing end is smaller than that of the first pushing end.

5. The nail shooting energy storage assembly of claim 4, wherein,

wherein the pushing member further has a crank comprising:

a first crank arm for mounting the first push end,

a second crank arm for mounting the second pushing end and having the same length as the first crank arm, wherein an included angle is formed between the first crank arm and the second crank arm,

the first pushing end and the second pushing end are cylindrical, the first pushing end and the second pushing end are respectively arranged at the outer end parts of the first crank arm and the second crank arm, the outer end parts of the first crank arm and the second crank arm are arc-shaped, and the outer edge of the first pushing end protrudes out of the outer end parts of the first crank arm.

6. A nail emission energy storage control mechanism provided in a nail emission gun having a housing for controlling and driving nail emission of the nail emission gun, comprising:

The energy storage component is arranged on the upper surface of the shell,

the control component is used for controlling the energy storage component to operate,

wherein the control assembly has:

a main switch having a pressing portion and a main switch element;

a safety switch having a toggle portion and a safety switch element; and

the driving motor is used for driving the pushing component of the energy storage component to rotate;

the main switch, the safety switch and the driving motor are connected, and when the main switch element and the safety switch element generate electric signals, the driving motor operates; the energy storage assembly is a nail shooting energy storage assembly as claimed in any one of claims 1 to 5.

7. The nail shooting energy storage control mechanism according to claim 6, wherein,

wherein, the stirring portion has:

the pulling piece is used for contacting with the touch point of the safety switch element to generate an electric signal,

one end of the shifting lever is linked with the pushing component, the other end of the shifting lever is linked with the shifting piece and is used for pushing the shifting piece to disconnect the shifting piece from contact with the safety switch element,

the plectrum contains:

a contact plate for contacting with the contact point of the safety switch element,

the toggle plate is used for contacting with the toggle rod, and when the contact point of the safety switch element contacts with the contact plate, the safety switch element generates an electric signal; when the contact point of the safety switching element is separated from the contact plate, the safety switching element turns off an electrical signal.

8. The nail shooting energy storage control mechanism according to claim 7, wherein,

the poking part is also provided with a poking piece seat, a poking piece reset spring is arranged in the poking part, one end of the poking piece is propped against the poking piece reset spring, and the other end of the poking piece extends out of the poking piece seat to be linked with the poking rod.

9. The nail shooting energy storage control mechanism of claim 8, further comprising:

and a toggle assembly for pushing the paddle to be interlocked with the safety switching element, and having:

an outer curved lever, the outer end of which extends to the outside of the gun nozzle mechanism of the nail gun, the inner end of which is linked with the poking plate and is used for enabling the contact plate to be contacted with the touch point of the safety switch element,

an inner curved lever, the outer end of which is linked with the outer curved lever, the inner end of which is combined with the plectrum seat,

and one end of the inner curved rod, which is close to the outer curved rod, is provided with a curved rod return spring.

10. A nail gun comprising at least:

a shell, the inside of which is provided with a mounting cavity,

a gun nozzle mechanism mounted at the front end of the shell, and

the energy storage control mechanism is arranged in the mounting cavity,

wherein the energy storage control mechanism is a nail shooting energy storage control mechanism as claimed in any one of claims 6 to 9.