Energy storage starting engine

Abstract

The problem that in the starting process of an existing engine, the rotating continuity of a rotating shaft is poor, and starting is difficult is solved. According to the engine capable of being started through energy storage, the force storage coil spring box is arranged to be matched with the one-way bearing and the second coil spring, tension is converted into elastic force of the second coil spring to be stored and continuously released, the shaft body of the engine body can be kept rotating, and the engine is conveniently started.

Description

Technical Field

[0001] The invention relates to the technical field of engines, and in particular to an energy storage-started engine. Background Art

[0002] When starting a traditional engine, it is usually necessary to start it by stretching the starter, such as the content shown in the patent application publication number CN116025465A. However, in the existing engine starter, the engine starting process is to pull the rope manually, which then drives the rope wheel and the rotating shaft in the engine to rotate; and when the rope wheel rotates and retracts the rope, if the engine is started, its rotating shaft will continue to rotate, and if the engine is not started, its rotating shaft will stop after following the inertia rotation for a while; at this time, in order to maintain the continuous rotation of the engine shaft to start the engine, it is necessary to quickly repeat the process of pulling and retracting the rope, which consumes a lot of manpower and is difficult to start the engine. Therefore, there is a need for an engine that can store energy to maintain the continuous rotation of the rotating shaft. Summary of the invention

[0003] The purpose of the present invention is to solve the deficiencies of the prior art and provide an energy storage-started engine.

[0004] In order to solve the above problems, the present invention adopts the following technical solutions: An energy storage-started engine comprises an engine body and a hand-pull disk structure, wherein the hand-pull disk structure is transmission-connected to the engine body and is used to drive a shaft in the engine body to rotate; it is characterized in that the hand-pull disk structure comprises a pull disk housing, a pull rope, a pulley, a pawl, a power storage disc spring box, a one-way bearing and a transmission structure for transmission connection with the engine body; wherein the pull disk housing is fixedly connected to the engine body, and a connecting shaft for connecting the pulley and the power storage disc spring box is provided on the pull disk housing; the pulley is rotatably arranged on the connecting shaft, and a pull rope is also wound around the pulley; one side of the pulley is close to the inner wall of the pull disk housing, and the other side of the pulley is close to the inner wall of the pull disk housing. A force storage coil spring box is provided on one side; a first coil spring for helping the rope wheel to retract the pull rope is provided between the rope wheel and the pull disc housing; the force storage coil spring box is rotatably provided on the connecting shaft through a one-way bearing, and the rotation direction of the one-way bearing is consistent with the rotation direction when the rope wheel pulls the pull rope; a first ratchet is provided on the side of the force storage coil spring box close to the rope wheel; a pawl corresponding to the first ratchet is provided on the side of the rope wheel close to the force storage coil spring box; a transmission structure is provided on the side of the force storage coil spring box away from the rope wheel; the transmission structure is rotatably provided on the connecting shaft; a second coil spring for storing elastic force is also provided between the transmission structure and the force storage coil spring box; the transmission structure is also transmission-connected to the engine body.

[0005] Furthermore, two pawls are rotatably provided on the rope wheel, and the two pawls are rotationally symmetrical about the center of the rope wheel; the pawls cooperate with the first ratchet on the force storage coil spring box, so that when the rope wheel rotates, the force storage coil spring box is driven to rotate.

[0006] Furthermore, a protruding connecting column is provided on the rope wheel, and the connecting column is used to rotate the connecting pawl; a torsion spring is also provided between the pawl and the rope wheel to help the pawl to reset.

[0007] Furthermore, an embedding hole for embedding the one-way bearing is provided in the middle portion of the energy storage disc spring box; the embedding hole is a cylindrical concave hole as a whole, and a through hole for passing the connecting shaft is also provided at the bottom of the embedding hole.

[0008] Furthermore, a protruding snap-in strip is provided on the side wall of the embedding hole, and the snap-in strip abuts against the outer side surface of the one-way bearing.

[0009] Furthermore, the outer side surface of the one-way bearing is provided with a clamping groove matching the clamping strip, and the extending direction of the clamping groove is parallel to the axis of the one-way bearing; the clamping strip is embedded in the clamping groove.

[0010] Furthermore, the one-way bearing includes a bearing sleeve, a needle roller, an elastic sheet and a sealing sheet; the bearing sleeve is generally annularly columnar, and a movable groove is provided on the side close to the inner wall of the bearing sleeve; a square hole is provided on the side of the movable groove close to the inside of the bearing sleeve, and the square hole connects the inner side of the bearing sleeve and the movable groove; the two ends of the movable groove have different distances from the inner wall of the bearing sleeve, and the square hole is located at one end of the movable groove close to the inner wall of the bearing sleeve; the needle roller is generally cylindrical, and the needle roller is located in the movable groove; an elastic sheet is also provided in the movable groove, and the two ends of the elastic sheet respectively abut against the inside of the movable groove and the needle roller, so as to push the needle roller toward the end of the movable groove where the square hole is provided; the sealing sheet is provided at the end of the bearing sleeve.

[0011] Furthermore, a handle is provided at one end of the pull rope away from the rope wheel; the handle includes a rope connecting frame and a grip; the grip is provided with a slot for embedding the rope connecting frame, and the grip is also provided with a first rope hole connecting the outside of the grip and the inside of the slot; the rope connecting frame is provided with a second rope hole for connecting the pull rope.

[0012] Furthermore, the transmission structure includes a second ratchet, and the second ratchet is transmission-connected to the engine body.

[0013] Furthermore, a flat washer for limiting is provided at one end of the connecting shaft away from the connecting pull plate housing, and the flat washer is fixedly connected to the connecting shaft by screws; the flat washer limits the transmission structure, the energy storage disc spring box and the rope pulley on the connecting shaft.

[0014] The beneficial effects of the present invention are: By providing a force storage coil spring box in conjunction with a one-way bearing and a second coil spring, the pulling force is converted into the elastic force of the second coil spring for storage and continuous release, so that the shaft of the engine body can maintain rotation, making it convenient to start the engine; By arranging a pawl to cooperate with the first ratchet, the rope wheel can drive the energy storage coil spring box to rotate in one direction, and reduce the interference to the energy storage coil spring box when the rope wheel retracts the pull rope; By arranging a clamping strip in the embedding hole of the energy storage disc spring box and cooperating with the clamping groove on the one-way bearing, the one-way bearing can be kept to rotate stably following the energy storage disc spring box; By arranging the roller needle in the one-way bearing to cooperate with the elastic sheet and the movable groove structure, the one-way rotation of the one-way shaft when it is sleeved on the connecting shaft is achieved. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the engine of Example 1; Figure 2 This is an exploded view of the hand-pull tray structure of Example 1; Figure 3 Schematic diagram of the rope pulley of Example 1; Figure 4 This is a schematic diagram of the pull tray housing of Example 1; Figure 5 is a schematic diagram of a one-way bearing of Example 1; Figure 6 Schematic diagram of the transmission structure of Example 1; Figure 7 The schematic diagram of the power storage coil spring box of Example 1 is shown in FIG. Figure 1 ; Figure 8 The schematic diagram of the power storage coil spring box of Example 1 is shown in FIG. Figure 2 ; Fig. 9 Exploded view of the handle of Example 1 Fig.10 is a schematic diagram of a one-way bearing of Example 1; Fig.11 This is an exploded view of the one-way bearing of Example 1.

[0016] Description of the accompanying drawings: engine body 1, hand pull plate structure 2, pull plate housing 21, connecting shaft 211, rope frame 222, handle 223, notch 224, pulley 23, connecting column 232, pawl 24, energy storage disc spring box 25, first ratchet 251, embedding hole 252, snap-on strip 253, one-way bearing 26, snap-on groove 261, bearing sleeve 262, needle roller 263, square hole 264, sealing plate 265, movable groove 266, transmission structure 27, second ratchet 271, flat washer 272, nameplate 28. DETAILED DESCRIPTION

[0017] The following describes the embodiments of the present invention by specific examples, and those skilled in the art can easily understand other advantages and effects of the present invention from the contents disclosed in this specification. The present invention can also be implemented or applied through other different specific embodiments, and the details in this specification can also be modified or changed in various ways based on different viewpoints and applications without departing from the spirit of the present invention. It should be noted that the following embodiments and features in the embodiments can be combined with each other without conflict.

[0018] It should be noted that the illustrations provided in the following embodiments are only used to schematically illustrate the basic concept of the present invention. The figures only show components related to the present invention rather than being drawn according to the number, shape and size of components in actual implementation. In actual implementation, the type, quantity and proportion of each component may be changed arbitrarily, and the component layout may also be more complicated.

[0019] Embodiment 1: like Figure 1 to Figure 11As shown, an energy storage-started engine comprises an engine body 1 and a hand-pull disc structure 2, wherein the hand-pull disc structure 2 is transmission-connected with the engine body 1 and used to drive the shaft body in the engine body 1 to rotate, and in this example, the shaft body inside the engine body 1 is a crankshaft; it is characterized in that the hand-pull disc structure 2 comprises a pull disc housing 21, a pull rope, a pulley 23, a pawl 24, a power storage disc spring box 25, a one-way bearing 26 and a transmission structure 27 for transmission connection with the engine body 1; wherein the pull disc housing 21 is fixedly connected with the engine body 1, and a connecting shaft 211 for connecting the pulley 23 and the power storage disc spring box 25 is provided on the pull disc housing 21; the pulley 23 is rotationally arranged on the connecting shaft 211, and a pull rope is also wound around the pulley 23; one side of the pulley 23 is close to the inner wall of the pull disc housing 21, and the other side of the pulley 23 is provided with the power storage disc spring box 25; a pulley 23 is provided between the pulley 23 and the pull disc housing 21 A first coil spring is used to help the rope pulley 23 to retract the pull rope; the energy storage coil spring box 25 is rotatably set on the connecting shaft 211 through a one-way bearing 26. It should be noted that the rotation direction of the one-way bearing 26 is consistent with the rotation direction when the rope pulley 23 pulls the pull rope; a first ratchet 251 is arranged on the side of the energy storage coil spring box 25 close to the rope pulley 23; a pawl 24 corresponding to the first ratchet 251 is arranged on the side of the rope pulley 23 close to the energy storage coil spring box 25, and the pawl 24 abuts against the first ratchet 251, so that when the rope pulley 23 rotates following the pulling of the pull rope, the cooperation between the pawl 24 and the first ratchet 251 can drive the energy storage coil spring box 25 to rotate; a transmission structure 27 is arranged on the side of the energy storage coil spring box 25 away from the rope pulley 23; the transmission structure 27 is rotatably set on the connecting shaft 211; a second coil spring for storing elastic force is also arranged between the transmission structure 27 and the energy storage coil spring box 25; the transmission structure 27 is also transmission-connected to the engine body 1. During implementation, the pull rope is pulled and the rope wheel 23 is driven to rotate, and the rope wheel 23 then presses against the ratchet on the force storage coil spring box 25 through the pawl 24, so that the force storage coil spring box 25 rotates with the rope wheel 23. After the force storage coil spring box 25 rotates, it drives the second coil spring to reel in, and transmits the rotational force to the transmission structure 27 through the second coil spring; then, when the rope wheel 23 is acted upon by the first coil spring to retract the pull rope, the force storage coil spring box 25 is difficult to rotate in the opposite direction due to the action of the one-way bearing 26, so the force storage coil spring box 25 will not rotate back, and the second coil spring continues to release the stored elastic force, and uses the elastic force to push the transmission structure 27 to continue to rotate; then the process of pulling the pull rope is repeated, so that the transmission structure 27 can drive the shaft body to maintain continuous rotation. It should be noted that when the elastic force stored in the second coil spring is too much, the force storage disc spring box 25 can drive the one-way bearing 26 to rotate on the connecting shaft 211. Although the one-way bearing 26 can only rotate in one direction, the one-way bearing 26 and the connecting shaft 211 are connected by friction. Therefore, the one-way bearing 26 can overcome the friction and rotate in the opposite direction to protect the second coil spring from damage.

[0020] The rope wheel 23 is rotatably provided with two pawls 24, and the two pawls 24 are rotationally symmetrically arranged about the center of the rope wheel 23; the pawls 24 cooperate with the first ratchet 251 on the power storage coil spring box 25, so that when the rope wheel 23 rotates following the pull rope, the pawls 24 abut against the first ratchet 251, driving the power storage coil spring box 25 to rotate. The rope wheel 23 is also provided with a raised connecting column 232, and the connecting column 232 is used to rotate and connect the pawl 24; a torsion spring is also provided between the pawl 24 and the rope wheel 23 to help the pawl 24 reset, and under the action of the torsion spring, the pawl 24 is always in close contact with the outer side of the first ratchet 251 on the power storage coil spring box 25.

[0021] The middle part of the energy storage disc spring box 25 is provided with an embedding hole 252 for embedding the one-way bearing 26; the embedding hole 252 is a cylindrical concave hole as a whole, and the bottom of the embedding hole 252 is also provided with a through hole for passing the connecting shaft 211; wherein the one-way bearing 26 is located in the embedding hole 252, and the connecting shaft 211 passes through the one-way bearing 26 and the through hole at the bottom of the embedding hole 252 respectively. The side wall of the embedding hole 252 is provided with a raised clamping strip 253, which abuts against the outer side surface of the one-way bearing 26 to clamp the one-way bearing 26; the extending direction of the clamping strip 253 is parallel to the central axis of the embedding hole 252. In this example, the outer side of the one-way bearing 26 is provided with a clamping groove 261 matching the clamping strip 253, and the extension direction of the clamping groove 261 is parallel to the axis of the one-way bearing 26, so that the clamping strip 253 can be embedded in the clamping groove 261, ensuring the relative position stability of the one-way bearing 26 and the power storage disc spring box 25, and preventing the one-way bearing 26 from rotating in the embedding hole 252. The end of the clamping strip 253 close to the opening of the embedding hole 252 is also provided with a rounded corner, which facilitates the installation of the one-way bearing 26 in the embedding hole 252 and enables the clamping groove 261 on the one-way bearing 26 to form a match with the clamping strip 253.

[0022] The one-way bearing includes a bearing sleeve 262, a needle roller 263, an elastic sheet and a sealing sheet 265; the bearing sleeve 262 is generally annular and cylindrical, and a movable groove 266 is provided on the side close to the inner wall of the bearing sleeve 262, and the movable groove 266 is used to provide a movable space for the needle roller 263; the movable groove 266 is also provided with a square hole 264 on the side close to the inside of the bearing sleeve 262, and the square hole 264 connects the inner side of the bearing sleeve 262 and the movable groove 266; it should be noted that the two ends of the movable groove 266 are at different distances from the inner wall of the bearing sleeve 262, and the square hole 264 is located at one end of the movable groove 266 close to the inner wall of the bearing sleeve 262; the needle roller 263 is generally cylindrical, and the needle roller 263 is located in the movable groove 266, and the outer circumferential arc surface of the needle roller 263 can pass through the square hole 264 and enter the bearing The area inside the sleeve 262 is used to clamp the connecting shaft passing through the bearing sleeve 262, but the aperture of the square hole 264 is smaller than the outer diameter of the needle roller 263 to prevent the needle roller from escaping from the movable groove from the square hole; an elastic sheet is also provided in the movable groove 266, and the two ends of the elastic sheet respectively abut against the inside of the movable groove 266 and the needle roller 263, and are used to push the needle roller 263 to the end of the movable groove 266 where the square hole 264 is provided; a sealing sheet 265 is provided at the end of the bearing sleeve 262, and is used to cover the end of the needle roller 263 and seal the needle roller 263 in the movable groove 266. In this example, one end of the movable groove passes through the bearing sleeve, and the other end is in the bearing sleeve, and the sealing sheet 265 is located on the side where the movable groove passes through the bearing sleeve; in this example, seven movable grooves 266 are provided on the bearing sleeve 262, which are rotationally symmetrical about the axis of the bearing sleeve 262. The elastic sheet is V-shaped as a whole, and the elastic sheet is located on the side of the movable groove 266 away from the square hole 264. The clamping groove is located on the outer periphery of the bearing sleeve 262 , and the direction of the clamping groove is parallel to the axis of the bearing sleeve 262 . When the connecting shaft passes through the one-way bearing, when the connecting shaft rotates toward the side of the movable groove 266 away from the one-way bearing where the elastic sheet is provided, the needle roller 263 is pressed against the square hole 264 by the force of the elastic sheet. As the one-way bearing rotates, the needle roller 263 in the movable groove 266 continues to be pushed toward the side of the movable groove 266 away from the elastic sheet. When the one-way bearing moves in the direction away from the elastic sheet, the one-way bearing is restricted by the movement of the movable groove 266, and more parts are exposed to the square hole 264, further squeezing the connecting shaft inside the bearing sleeve 262 to achieve clamping of the connecting shaft; conversely, when the connecting shaft rotates toward the side of the elastic sheet, the part of the needle roller 263 exposed to the square hole 264 is affected by the friction force of the connecting shaft and moves toward the direction of the elastic sheet provided in the movable groove 266. At this time, the part of the needle roller 263 exposed to the square hole 264 is reduced, making it difficult for the needle roller 263 to clamp the connecting shaft, thereby achieving one-way rotation.

[0023] A handle is also provided at the end of the pull rope away from the rope wheel 23; the handle includes a rope connecting frame 222 and a grip 223; a notch 224 for embedding the rope connecting frame 222 is provided on the grip 223; in this example, the overall shape of the grip 223 is T-shaped, and a T-shaped hollow groove is provided in the middle area of ​​the grip 223 as the notch 224. The pull rope is wound around the rope connecting frame 222 and then inserted into the grip 223 to achieve the connection between the handle and the pull rope; a first rope hole connecting the outer side of the grip 223 and the inside of the notch 224 is also provided on the grip 223; a second rope hole for connecting the pull rope is provided on the rope connecting frame 222.

[0024] The transmission structure 27 includes a second ratchet 271 , which is in transmission connection with the engine body 1 , so that the transmission structure 27 can drive the shaft in the engine body 1 to rotate, and after the engine is started, the rotation of the shaft will not affect the transmission structure 27 .

[0025] The end of the connecting shaft 211 away from the connecting pull plate housing 21 is provided with a flat washer 272 for limiting, and the flat washer 272 is fixedly connected to the connecting shaft 211 by screws; the flat washer 272 limits the transmission structure 27, the power storage coil spring box 25 and the rope pulley 23 on the connecting shaft 211. In this example, a spring washer is also provided between the flat washer 272 and the transmission structure 27 to prevent the screws from loosening and falling off due to the vibration generated by the operation of the engine body 1.

[0026] The pull tray housing 21 is also provided with a rope hole for passing a pull rope. In addition, a nameplate 28 is also provided on the pull tray housing 21 to indicate product information and name.

[0027] During the implementation process, by setting a force storage disc spring box 25 in conjunction with the one-way bearing 26 and the second coil spring, the pulling force is converted into the elastic force of the second coil spring for storage and continuous release, so as to keep the shaft of the engine body 1 able to maintain rotation and facilitate starting the engine; by setting a pawl 24 in conjunction with the first ratchet 251, the rope wheel 23 can drive the force storage disc spring box 25 to rotate in one direction, and reduce the interference to the force storage disc spring box 25 when the rope wheel 23 retracts the pull rope; by setting a clamping strip 253 in the embedding hole 252 of the force storage disc spring box 25, in conjunction with the clamping groove 261 on the one-way bearing 26, the one-way bearing 26 can be kept able to rotate stably with the force storage disc spring box 25; by setting a needle roller 263 in the one-way bearing in conjunction with the elastic sheet and the movable groove 266 structure, the one-way rotation of the one-way shaft when it is sleeved on the connecting shaft is realized.

[0028] The above description is only a specific example of the present invention and does not constitute any limitation to the present invention. It is obvious that for professionals in this field, after understanding the content and principle of the present invention, various modifications and changes in form and details may be made without departing from the principle and structure of the present invention, but these modifications and changes based on the idea of ​​the present invention are still within the scope of protection of the claims of the present invention.

Claims

1. An energy storage start engine, comprising an engine body (1) and a hand-pull plate structure (2), wherein the hand-pull plate structure (2) is drivingly connected to the engine body (1) and is used to drive a shaft body in the engine body (1) to rotate; characterized in that: The hand pull disc structure (2) comprises a pull disc housing (21), a pull rope, a rope wheel (23), a ratchet (24), a power storage coil spring box (25), a one-way bearing (26), and a transmission structure (27) for transmission connection with the engine body (1); wherein the pull disc housing (21) is fixedly connected to the engine body (1), and a connecting shaft (211) for connecting the rope wheel (23) and the power storage coil spring box (25) is provided on the pull disc housing (21); the rope wheel (23) is rotatably arranged on the connecting shaft (211), and a pull rope is also wound around the rope wheel (23); one side of the rope wheel (23) is close to the inner wall of the pull disc housing (21), and the other side of the rope wheel (23) is provided with a power storage coil spring box (25); a shaft for helping the rope wheel (23) a first coil spring for retracting the pull rope; a power storage coil spring box (25) is rotatably arranged on the connecting shaft (211) via a one-way bearing (26), the rotation direction of the one-way bearing (26) being consistent with the rotation direction of the rope wheel (23) when pulling the pull rope; a first ratchet (251) is arranged on the side of the power storage coil spring box (25) close to the rope wheel (23); a ratchet pawl (24) corresponding to the first ratchet (251) is arranged on the side of the rope wheel (23) close to the power storage coil spring box (25); a transmission structure (27) is arranged on the side of the power storage coil spring box (25) away from the rope wheel (23); the transmission structure (27) is rotatably arranged on the connecting shaft (211); a second coil spring for storing elastic force is also arranged between the transmission structure (27) and the power storage coil spring box (25); and the transmission structure (27) is also transmission-connected to the engine body (1).

2. The energy storage start engine according to claim 1, characterized in that: The rope wheel (23) is rotatably provided with two ratchet pawls (24), and the two ratchet pawls (24) are rotationally symmetrical about the center of the rope wheel (23); the ratchet pawls (24) cooperate with a first ratchet wheel (251) on the power storage coil spring box (25), so that when the rope wheel (23) rotates, the power storage coil spring box (25) is driven to rotate.

3. The energy storage start engine according to claim 2, characterized in that: The rope wheel (23) is provided with a protruding connection column (232), and the connection column (232) is used to rotate and connect the pawl (24); a torsion spring is also provided between the pawl (24) and the rope wheel (23) to help the pawl (24) to return to its original position.

4. The energy storage start engine according to claim 1, characterized in that: An embedding hole (252) for embedding the one-way bearing (26) is provided in the middle of the energy storage disc spring box (25); the embedding hole (252) is in the form of a cylindrical concave hole as a whole, and a through hole for passing the connecting shaft (211) is also provided at the bottom of the embedding hole (252).

5. The energy storage start engine according to claim 4, characterized in that: A protruding clamping strip (253) is provided on the side wall of the embedding hole (252), and the clamping strip (253) abuts against the outer side surface of the one-way bearing (26).

6. The energy storage start engine according to claim 5, characterized in that: The outer side surface of the one-way bearing (26) is provided with a clamping groove (261) matching the clamping strip (253); the extending direction of the clamping groove (261) is parallel to the axis of the one-way bearing (26); and the clamping strip (253) is embedded in the clamping groove (261).

7. The energy storage start engine according to claim 1, characterized in that: The one-way bearing (26) comprises a bearing sleeve (262), a needle roller (263), an elastic sheet and a sealing sheet (265); the bearing sleeve (262) is in an annular column shape as a whole, and a movable groove (266) is provided on a side close to the inner wall of the bearing sleeve (262); a square hole (264) is provided on a side close to the inside of the bearing sleeve (262), and the square hole (264) communicates with the inner side of the bearing sleeve (262) and the movable groove (266); both ends of the movable groove (266) are connected to the inner wall of the bearing sleeve (262). The spacing is different, the square hole (264) is located at one end of the movable groove (266) close to the inner wall of the bearing sleeve (262); the needle roller (263) is cylindrical as a whole, and the needle roller (263) is located in the movable groove (266); an elastic sheet is also provided in the movable groove (266), and the two ends of the elastic sheet respectively abut against the inside of the movable groove (266) and the needle roller (263), and are used to push the needle roller (263) toward the end of the movable groove (266) where the square hole (264) is provided; and a sealing sheet (265) is provided at the end of the bearing sleeve (262).

8. The energy storage start engine according to claim 1, characterized in that: The end of the pull rope away from the rope wheel (23) is also provided with a handle; the handle comprises a rope connecting frame (222) and a grip (223); the grip (223) is provided with a notch (224) for embedding the rope connecting frame (222), and the grip (223) is also provided with a first rope hole connecting the outside of the grip (223) and the inside of the notch (224); the rope connecting frame (222) is provided with a second rope hole for connecting the pull rope.

9. The energy storage start engine according to claim 1, characterized in that: The transmission structure (27) comprises a second ratchet (271), and the second ratchet (271) is in transmission connection with the engine body (1).

10. The energy storage start engine according to claim 9, characterized in that: A flat washer (272) for limiting position is provided at one end of the connecting shaft (211) away from the connecting pull plate housing (21); the flat washer (272) is fixedly connected to the connecting shaft (211) via screws; the flat washer (272) limits the transmission structure (27), the power storage coil spring box (25) and the rope wheel (23) on the connecting shaft (211).

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