Repeating car array toy launching device and toy car

Abstract

The invention provides a running-firing array toy launching device and a toy car. The running-firing array toy launching device comprises a running-firing storage mechanism and a running-firing mechanism. The running-firing storage mechanism comprises a base shell, and a running-firing limiting assembly is installed in the base shell. The continuous launching mechanism comprises a launching shell, and the launching shell is provided with a clamping groove and an inlet end corresponding to the base shell; the output end of the base shell is connected with a protrusion matched with the clamping groove, installation of the base shell is facilitated, and the outlet end of the emitting shell is connected with an emitting plate. A launching assembly and a power input assembly are installed in the continuous launching mechanism. The invention relates to the technical field of toy cars, in particular to a repeating car array toy launching device and a toy car. In order to overcome the defects in the prior art, the running-firing car array toy launching device and the toy car are developed, storage of a plurality of motorcycle mechanisms is achieved through the running-firing storage mechanism, the running-firing mechanism is controlled, running firing of a car array is achieved, and the interestingness of toys is enhanced.

Description

Technical Field

[0001] The present invention relates to the technical field of toy vehicles, and in particular to a continuous-fire vehicle array toy launching device and a toy vehicle. Background Art

[0002] Toy cars are usually small and light, colorful, and easy to operate. They can be scaled-down versions of real cars or creative and imaginative designs. Toy cars can not only make children have fun while playing, but also cultivate their hands-on ability, imagination, and creativity.

[0003] Inertia toy cars rely on the inertia of the wheels to travel, and do not require batteries or other power sources. They are simple and easy to play, and are a favorite toy for children, suitable for younger children. In the current field of inertia toy cars, the way to play with toy cars is relatively simple, and most of them are accelerated manually, which is not suitable for young children to operate; and the fun is monotonous. The toy car launchers currently on the market are difficult to load and place, the gear transmission is relatively low, and the acceleration of the rear wheels of the car is slow. Only one car can be put into the launcher at a time, and two or more cannot be put in. It is impossible to achieve multiple cars being launched continuously, and the playability is low.

[0004] Therefore, in view of the above problems, a continuous-fire vehicle array toy launching device and a toy car are proposed to solve the above problems. Summary of the invention

[0005] In view of the deficiencies in the prior art, the present invention develops a continuous-fire vehicle array toy launching device and a toy car. The invention adopts a continuous-fire storage mechanism to realize the storage of multiple motorcycle mechanisms, controls the continuous-fire launching mechanism, realizes continuous firing of the vehicle array, and enhances the fun of the toy.

[0006] The technical solution to the technical problem solved by the present invention is as follows: the present invention provides a continuous-fire vehicle array toy launching device and a toy car, comprising: a continuous-fire storage mechanism and a continuous-fire launching mechanism; the continuous-fire storage mechanism comprises a base shell, in which a continuous-fire limiting assembly is installed; the continuous-fire launching mechanism comprises a launching shell, in which a card slot and an inlet end are provided corresponding to the base shell; the output end of the base shell is connected with a protrusion matching the card slot, which is convenient for the installation of the base shell, and the outlet end of the launching shell is connected to a launching plate; the continuous-fire launching mechanism is installed with a launching assembly and a power input assembly. A motorcycle mechanism is placed in the base shell or a motorcycle mechanism is placed in an extended single shell, which is installed on the launching shell to realize single firing. By adopting the base shell to realize the storage of multiple motorcycle mechanisms, the continuous-fire launching mechanism is controlled, continuous firing of vehicles is realized, and the fun of the toy is enhanced.

[0007] As an optimization, the launching assembly includes a launching handle, the launching handle passes through the launching shell, the launching handle is rotatably connected to the transition plate, the launching shell is connected to the ramp, the transition plate matches the ramp, one end of the transition plate is a cylindrical protrusion, the ramp is provided with a guide groove matching therewith, when the launching handle is pressed, the transition plate swings, and its cylindrical protrusion moves along the guide groove, the ramp is provided with a contact groove, and the ramp is provided with a group of anti-slip grooves, the launching handle is L-shaped as a whole, the upper end of its vertical part is a horizontal protrusion, matching the continuous firing U shell, the end of its horizontal part is a vertical protrusion, the vertical protrusion matches the end of the ramp, and when the launching handle is pressed downward, the continuous firing U shell is driven The shell moves downward, and the launching handle drives the transition plate to swing, so that the motorcycle mechanism in the base shell enters the launching shell and is blocked by the transition plate. When the hand is released, the transition plate swings in the opposite direction, so that the motorcycle mechanism enters the ramp. The vertical protrusion of the launching handle is lower than the lower end of the ramp, which is convenient for the motorcycle mechanism to be launched. After the motorcycle mechanism is launched, the vertical protrusion of the launching handle is reset to block the front wheel of the next motorcycle mechanism. The launching handle is connected to the guide column, and the launching handle is connected to the launching shell through a handle spring. The launching shell is connected to a symmetrical spring guard plate corresponding to the handle spring. The handle spring is ringed around the guide column. By setting the handle spring, automatic reset is achieved after the launching handle is released.

[0008] As an optimization, the power input assembly includes a power handle, the launch shell is provided with a movable groove matching the power handle, the power handle is connected to a half gear, the gear shaft of the half gear is rotatably connected to the launch shell, the gear shaft of the half gear passes through a lower torsion spring, one end of the lower torsion spring is connected to the launch shell, one end of the lower torsion spring is connected to the eccentricity of the half gear, the launch shell bearing is connected to the gear shaft of the primary output gear, the gear shaft of the primary output gear is connected to the input ratchet, the gear shaft bearing of the primary output gear is connected to the primary input gear, the primary input gear is connected to the input ring, the input ring is connected to the input ratchet, the input ratchet matches the input ratchet, the primary input gear meshes with the half gear, the launch shell bearing is connected to the secondary input shaft, the secondary input shaft is connected to the friction wheel and the secondary input gear, the primary output gear meshes with the secondary input gear, and the friction wheel matches the contact groove. By pressing the power handle, under the limiting action of the ratchet, the friction wheel is rotated in one direction to realize the energy storage of the energy accumulator.

[0009] As an optimization, the output end of the base shell is provided with a limit arc groove, the continuous limit assembly includes a continuous U shell, the output end of the base shell is provided with a guide groove corresponding to the continuous U shell, the U shell is rotatably connected to a U-shaped blocking rod, the two ends of the U-shaped blocking rod are respectively connected to limit cylinders, and the symmetrical limit cylinders are respectively arranged in the corresponding limit arc grooves, the continuous U shell is connected to a continuous L rod, the continuous L rod is connected to a mounting column, the base shell is connected to a contact plate corresponding to the continuous L rod, the mounting column is connected to a continuous spring, the continuous spring contacts the contact plate, and the continuous U shell matches the firing handle. By adopting the continuous spring and the U-shaped blocking rod, when placing the motorcycle mechanism, the motorcycle mechanism is prevented from being separated from the base shell, and when the firing handle is pressed, the U-shaped blocking rod swings to enable the lowermost motorcycle mechanism to enter the firing shell, and when the firing handle is no longer pressed, the continuous spring recovers, so that the U-shaped blocking rod is reset to block the next motorcycle mechanism.

[0010] As an optimization, the burst storage mechanism further includes an extended single shell, the base shell matches the extended single shell, the extended single shell includes two half shells, the two half shells are respectively connected to the cover shell, one half shell is respectively connected to a group of half shell connecting protrusions on both sides, and the other half shell is connected to two limit groove groups, and the two groups of half shell connecting protrusions match the two limit groove groups. The cover shell matches the base shell and the extended single shell. By using the half shell connecting protrusions and the limit groove group, it is convenient for two half shells to form an extended single shell for placing a motorcycle mechanism.

[0011] As an optimization, the shell connection handle is raised to facilitate users to take it.

[0012] As an optimization, each of the half shells is provided with a connection groove, each of the connection grooves extends to the corresponding sleeve shell, and both sides of the input end of the base shell and each of the half shells are connected to the shell connection protrusions, and the shell connection protrusions match the connection grooves. By using the shell connection protrusions and connection grooves, the extended single shell and the base shell, as well as the adjacent extended single shells, are connected.

[0013] As an optimization, the extended single shell and the base shell match the closed shell. The closed shell is provided with two positioning grooves, and the positioning grooves match the shell connecting protrusions. Each of the half shells is provided with guide grooves, and the closed shell is connected with two sets of symmetrical guide plates, and the symmetrical guide grooves match the corresponding guide plates.

[0014] A toy car, characterized in that it comprises: a motorcycle mechanism, wherein the motorcycle mechanism comprises a vehicle shell, a front end bearing of the vehicle shell is connected to a front wheel, a mounting shell is connected inside the vehicle shell, an energy storage component is mounted inside the mounting shell, and the mounting shell is provided with an anti-wear opening corresponding to the energy storage group.

[0015] As an optimization, the energy storage assembly includes an energy storage device, the energy storage device is connected to the mounting shell, the mounting shell bearing is connected to the energy storage shaft, the energy storage shaft is connected to the input roller, and the input roller is connected to the input end of the energy storage device. The energy storage device is an existing flywheel energy storage device. When the input roller rotates, the flywheel rotates at high speed to achieve energy storage. After the motorcycle mechanism is launched, the rear wheel rotates due to inertia, and the motorcycle mechanism moves forward.

[0016] As an optimization, the mounting shell bearing is connected to the wheel axle, the wheel axle is connected to the wheel disc, the wheel disc is connected to the wheel ratchet, the wheel ratchet is installed in the rear wheel, the wheel axle bearing is connected to the wheel axle gear, the wheel axle gear is connected to the wheel disc, the wheel disc is connected to the symmetrical wheel ratchet, the symmetrical wheel ratchet matches the wheel ratchet, the wheel axle gear meshes with the wheel transmission large tooth, the mounting shell bearing is connected to the wheel transmission large tooth, the wheel transmission large tooth is connected to the wheel transmission small tooth, the wheel transmission small tooth meshes with the energy storage gear, and the energy storage gear is connected to the input roller. By adopting the rear wheel, when it is in the launch shell, the rear wheel contacts the friction wheel, and when the friction wheel rotates, the rear wheel rotates, and the energy storage device stores energy.

[0017] The effects provided in the summary of the invention are only the effects of the embodiments, rather than all the effects of the invention. The above technical solution has the following advantages or beneficial effects: 1. This device uses a base shell and an extended single shell to store multiple motorcycle mechanisms and realize continuous firing. Each extended single shell stores a motorcycle mechanism, which is convenient for placing the motorcycle mechanism. To prevent the motorcycle mechanism from accidentally detaching, a closed shell is used to close the base shell or the extended single shell to prevent the motorcycle mechanism from being lost. A motorcycle mechanism is placed in the base shell or a motorcycle mechanism is placed in the extended single shell, which is installed on the launch shell to achieve single firing. Multiple motorcycle mechanisms are placed in the base shell and installed on the launch shell to achieve continuous firing, which enhances the fun.

[0018] 2. This device adopts a continuous firing mechanism, which makes it easy to realize that the previous motorcycle mechanism is fired while the next motorcycle mechanism enters the firing shell. The motorcycle mechanism that has stored energy can break through the resistance of the upper torsion spring and be fired along the ramp and the launching plate. The firing handle is reset, and the next motorcycle mechanism enters the ramp. The firing handle protrudes vertically, and the vehicle clamp head cooperates with it to limit the motorcycle mechanism, so that when the power handle is pressed, the energy storage device can store energy. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0020] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention.

[0021] Figure 2 It is a partial three-dimensional structural schematic diagram of the burst storage mechanism of the present invention.

[0022] Figure 3 It is a schematic diagram of the three-dimensional structure of the continuous firing limiting assembly of the present invention.

[0023] Figure 4 It is an exploded view of the extended single shell of the present invention.

[0024] Figure 5 It is a partial exploded view of the burst storage mechanism of the present invention.

[0025] Figure 6 It is a partial three-dimensional structural schematic diagram of the burst storage mechanism of the present invention.

[0026] Figure 7 It is a schematic diagram of the three-dimensional structure of the continuous firing mechanism of the present invention.

[0027] Figure 8 The schematic diagram of the local three-dimensional structure of the burst firing mechanism of the present invention is shown in FIG. Figure 1 .

[0028] Fig. 9 The schematic diagram of the local three-dimensional structure of the burst firing mechanism of the present invention is shown in FIG. Figure 2 .

[0029] Fig.10 The schematic diagram of the local three-dimensional structure of the burst firing mechanism of the present invention is shown in FIG. Figure 3 .

[0030] Fig.11 It is an exploded view of the power input assembly of the present invention.

[0031] Fig.12 The schematic diagram of the local three-dimensional structure of the burst firing mechanism of the present invention is shown in FIG. Figure 4 .

[0032] Fig.13 It is a schematic diagram of the three-dimensional structure of the motorcycle mechanism of the present invention.

[0033] Fig.14 It is a schematic diagram of the three-dimensional structure of the energy storage component of the present invention.

[0034] Fig.15 The schematic diagram of the local three-dimensional structure of the energy storage component of the present invention is shown in FIG. Figure 1 .

[0035] Fig.16 The energy storage component of the present invention is partially exploded Figure 1 .

[0036] Fig.17 The energy storage component of the present invention is partially exploded Figure 2 .

[0037] Fig.18 The schematic diagram of the local three-dimensional structure of the energy storage component of the present invention is shown in FIG. Figure 2 .

[0038] In the figure: 1. burst storage mechanism, 11. base shell, 12. limit arc groove, 13. burst U shell, 14. U-shaped stop rod, 15. burst L rod, 16. mounting column, 17. limit cylinder, 18. half shell, 19. half shell connecting protrusion, 110. plug hole, 111. plug column, 112. limit groove group, 113. shell connecting protrusion, 114. sleeve shell, 115. connecting groove, 116. handle protrusion, 117. closing shell, 118. guide plate, 119. positioning groove, 120. guide groove, 121. contact plate; 2. Continuous firing mechanism, 21. Launch shell, 22. Card slot, 23. Power handle, 24. Half gear, 25. Friction wheel, 26. Secondary input gear, 27. Secondary input shaft, 28. Lower torsion spring, 29. Launch handle, 210. Upper torsion spring, 211. Car clamp head, 212. Ramp, 213. Handle spring, 214. Spring guard plate, 215. Guide column, 216. Contact groove, 217. Anti-skid groove, 218. Primary output gear, 219. Input ratchet, 220. Input ring, 221. Input ratchet, 222. Primary input gear, 223. Launch plate, 224. Transition plate; 3. Motorcycle mechanism, 31. Vehicle shell, 32. Front wheel, 33. Mounting shell, 34. Anti-wear mouth, 35. Energy storage gear, 36. Wheel transmission large tooth, 37. Wheel axle, 38. Wheel disc, 39. Wheel ratchet, 310. Rear wheel, 311. Wheel disc, 312. Wheel ratchet, 313. Wheel axle gear, 314. Energy storage shaft, 315. Input roller, 316. Energy storage device, 317. Wheel transmission small tooth. DETAILED DESCRIPTION

[0039] In order to clearly illustrate the technical features of the present solution, the present invention is described in detail below through specific implementation methods and in combination with the accompanying drawings. The disclosure below provides many different embodiments or examples for realizing different structures of the present invention. In order to simplify the disclosure of the present invention, the components and settings of specific examples are described below. In addition, the present invention may repeat reference numbers and / or letters in different examples. This repetition is for the purpose of simplification and clarity, and does not itself indicate the relationship between the various embodiments and / or settings discussed. It should be noted that the components illustrated in the accompanying drawings are not necessarily drawn to scale. The present invention omits the description of known components and processing technologies and processes to avoid unnecessary limitations on the present invention. The orientation or position relationship indicated by the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inside", "outside", etc. is based on the orientation or position relationship shown in the accompanying drawings, which is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on the present invention. In addition, the terms "first", "second", and "third" are used only for descriptive purposes and cannot be understood as indicating or implying relative importance. In the description of the present invention, it should be noted that, unless otherwise clearly specified and limited, the terms "installed", "connected", and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be indirectly connected through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0040] like Figures 1 to 18 As shown, embodiment 1: a continuous-fire vehicle array toy launching device and a toy car, comprising: a continuous-fire storage mechanism 1 and a continuous-fire launching mechanism 2; the continuous-fire storage mechanism 1 comprises a base shell 11, in which a continuous-fire limiting assembly is installed; the continuous-fire launching mechanism 2 comprises a launching shell 21, in which a card slot 22 and an inlet end are provided corresponding to the base shell 11; the output end of the base shell 11 is connected with a protrusion matching the card slot 22, which is convenient for the installation of the base shell 11, and the outlet end of the launching shell 21 is connected to a launching plate 223; the continuous-fire launching mechanism 2 is installed with a launching assembly and a power input assembly. A motorcycle mechanism 3 is placed in the base shell 11 or a motorcycle mechanism 3 is placed in an extended single shell, and is installed on the launching shell 21 to realize single firing. By adopting the base shell 11 to realize the storage of multiple motorcycle mechanisms 3, the continuous-fire launching mechanism 2 is controlled, and the continuous firing of vehicles is realized, thereby enhancing the fun of the toy.

[0041] The launching assembly includes a launching handle 29, which passes through the launching shell 21. The launching handle 29 is rotatably connected to a transition plate 224. The launching shell 21 is connected to a ramp 212. The transition plate 224 matches the ramp 212. One end of the transition plate 224 is a cylindrical protrusion. The ramp 212 is provided with a guide groove matching therewith. When the launching handle 29 is pressed, the transition plate 224 swings, and its cylindrical protrusion moves along the guide groove. The ramp 212 is provided with a contact groove 216. The ramp 212 is provided with a group of anti-slip grooves 217. The launching handle 29 is L-shaped as a whole, and the upper end of its vertical part is a horizontal protrusion, which matches the continuous-fire U shell 13. The end of its horizontal part is a vertical protrusion, and the vertical protrusion matches the end of the ramp 212. When the launching handle 29 is pressed downward, the continuous-fire U shell 13 is driven to move downward. The launching handle 29 drives the transition plate 224 to swing, so that the motorcycle mechanism 3 in the base shell 11 enters the launching shell 21 and is blocked by the transition plate 224. When the hand is released, the transition plate 224 swings in the opposite direction, so that the motorcycle mechanism 3 enters the ramp 212. The vertical protrusion of the launching handle 29 is lower than the lower end of the ramp 212, which is convenient for the launching of the motorcycle mechanism 3. After the motorcycle mechanism 3 is launched, the vertical protrusion of the launching handle 29 is reset to block the front wheel 32 of the next motorcycle mechanism 3. The launching handle 29 is connected to the guide column 215. The launching handle 29 is connected to the launching shell 21 through the handle spring 213. The launching shell 21 is connected to a symmetrical spring guard plate 214 corresponding to the handle spring 213. The handle spring 213 is encircled by the guide column 215. By setting the handle spring 213, automatic reset is achieved after the launching handle 29 is released.

[0042] The transition plate 224 prevents the motorcycle mechanism 3 from directly sliding out of the launching housing 21 when the launching handle 29 is pressed and held.

[0043] The launch shell 21 is rotated to connect the rotating shaft of the vehicle clamp head 211, and the rotating shaft of the vehicle clamp head 211 passes through the upper torsion spring 210, one end of the upper torsion spring 210 is connected to the launch shell 21, and the other end of the upper torsion spring 210 is connected to the vehicle clamp head 211. When the motorcycle mechanism 3 enters the ramp 212 from the base shell 11, the launch handle 29 vertically protrudes to reset and block the motorcycle mechanism 3, and the vehicle clamp head 211 clamps the rear part of the motorcycle mechanism 3 seat, so as to limit the motorcycle mechanism 3, and facilitate the power handle 23 to store energy in its energy storage device 316. When the motorcycle mechanism 3 is launched, it moves along the ramp 212, driving the vehicle clamp head 211 to swing, and the upper torsion spring 210 to twist. After the motorcycle mechanism 3 leaves, the upper torsion spring 210 is restored, so as to reset the vehicle clamp head 211.

[0044] The power input assembly includes a power handle 23, the launch shell 21 is provided with a movable groove matching the power handle 23, the power handle 23 is connected to the half gear 24, the gear shaft of the half gear 24 is rotatably connected to the launch shell 21, the gear shaft of the half gear 24 passes through the lower torsion spring 28, one end of the lower torsion spring 28 is connected to the launch shell 21, one end of the lower torsion spring 28 is connected to the eccentric part of the half gear 24, the launch shell 21 bearing is connected to the gear shaft of the first-stage output gear 218, the gear shaft of the first-stage output gear 218 is connected to the input ratchet 219, The gear shaft bearing of the primary output gear 218 is connected to the primary input gear 222, the primary input gear 222 is connected to the input ring 220, the input ring 220 is connected to the input ratchet 221, the input ratchet 221 matches the input ratchet ring 219, the primary input gear 222 meshes with the half gear 24, the launch shell 21 is connected to the secondary input shaft 27, the secondary input shaft 27 is connected to the friction wheel 25 and the secondary input gear 26, the primary output gear 218 meshes with the secondary input gear 26, and the friction wheel 25 matches the contact groove 216. By pressing the power handle 23, under the limiting action of the ratchet ring, the friction wheel 25 is rotated in one direction, and the energy storage device 316 is stored.

[0045] A limiting arc groove 12 is provided at the output end of the base shell 11, and the continuous firing limiting assembly includes a continuous firing U shell 13. A guide groove is provided at the output end of the base shell 11 corresponding to the continuous firing U shell 13. The firing U shell 13 is rotatably connected to a U-shaped baffle rod 14. Both ends of the U-shaped baffle rod 14 are respectively connected to limiting cylinders 17. The symmetrical limiting cylinders 17 are respectively arranged in the corresponding limiting arc groove 12. The continuous firing U shell 13 is connected to a continuous firing L rod 15. The continuous firing L rod 15 is connected to a mounting column 16. The base shell 11 is connected to a contact plate 121 corresponding to the continuous firing L rod 15. The mounting column 16 is connected to a continuous firing spring. The continuous firing spring contacts the contact plate 121. The continuous firing U shell 13 matches the launching handle 29. By adopting the continuous-firing spring and the U-shaped blocking rod 14, it is possible to prevent the motorcycle mechanism 3 from being separated from the base shell 11 when the motorcycle mechanism 3 is placed. When the firing handle 29 is pressed, the U-shaped blocking rod 14 is swung to allow the lowermost motorcycle mechanism 3 to enter the firing shell 21. When the firing handle 29 is no longer pressed, the continuous-firing spring is restored to reset the U-shaped blocking rod 14 to block the next motorcycle mechanism 3.

[0046] A toy car, characterized in that it includes: a motorcycle mechanism 3, the motorcycle mechanism 3 includes a vehicle shell 31, the front end bearing of the vehicle shell 31 is connected to a front wheel 32, the vehicle shell 31 is connected to a mounting shell 33, an energy storage component is installed in the mounting shell 33, and the mounting shell 33 is provided with an anti-wear port 34 corresponding to the energy storage group.

[0047] The energy storage assembly includes an energy storage device 316, the energy storage device 316 is connected to the mounting shell 33, the mounting shell 33 is connected to the energy storage shaft 314 through a bearing, the energy storage shaft 314 is connected to the input roller 315, and the input roller 315 is connected to the input end of the energy storage device 316. The energy storage device 316 is an existing flywheel energy storage device, when the input roller 315 rotates, the flywheel rotates at a high speed to store energy, and after the motorcycle mechanism 3 is launched, the rear wheel 310 rotates due to inertia, so that the motorcycle mechanism 3 moves forward.

[0048] The mounting shell 33 is connected to the wheel shaft 37 by a bearing, the wheel shaft 37 is connected to the wheel disc 38, the wheel disc 38 is connected to the wheel ratchet 39, the wheel ratchet 39 is mounted in the rear wheel 310, the wheel shaft 37 is connected to the wheel shaft gear 313 by a bearing, the wheel shaft gear 313 is connected to the wheel disc 311, the wheel disc 311 is connected to the symmetrical wheel ratchet 312, the symmetrical wheel ratchet 312 matches the wheel ratchet 39, the wheel shaft gear 313 meshes with the wheel transmission large tooth 36, the mounting shell 33 is connected to the wheel transmission large tooth 36 by a bearing, the wheel transmission large tooth 36 is connected to the wheel transmission small tooth 317, the wheel transmission small tooth 317 meshes with the energy storage gear 35, and the energy storage gear 35 is connected to the input roller 315. By adopting the rear wheel 310, when it is in the launching shell 21, the rear wheel 310 contacts the friction wheel 25, and when the friction wheel 25 rotates, the rear wheel 310 rotates, and the energy storage device 316 stores energy.

[0049] The workflow of this embodiment is: The motorcycle mechanism 3 is continuously placed into the base housing 11 , and under the action of the continuous spring, the U-shaped blocking rod 14 is kept blocking the motorcycle mechanism 3 .

[0050] The burst storage mechanism 1 is installed into the card slot 22 , so that the output end of the base shell 11 matches the inlet end of the launch shell 21 , and the launch handle 29 contacts the burst U shell 13 and is located on the upper side of the burst U shell 13 .

[0051] The launching handle 29 is pressed once and held, and the launching handle 29 drives the guide column 215 to move, the launching handle 29 squeezes the handle spring 213, and the launching handle 29 drives the transition plate 224 to swing. The firing handle 29 drives the continuous-firing U-shell 13 to move downward, and the continuous-firing U-shell 13 drives the U-shaped baffle rod 14 to swing, and the U-shaped baffle rod 14 drives the limiting cylinder 17 to move along the limiting arc groove 12, and the continuous-firing U-shell 13 drives the continuous-firing L-rod 15 and the mounting column 16 to move, and the mounting column 16 and the contact plate 121 work together to squeeze the continuous-firing spring, so that the lowermost motorcycle mechanism 3 enters the transition baffle plate 224 under the action of gravity, blocking the motorcycle mechanism 3 from entering the ramp 212, and releasing the firing handle 29, the transition baffle plate 224 swings, and the handle spring 213 and the continuous-firing spring recover, realizing the recovery of related components, and blocking the motorcycle mechanism 3 from entering the ramp 212. Since the vertical protrusion of the firing handle 29 is reset to block the motorcycle mechanism 3, the vehicle clamp head 211 clamps the rear part of the seat of the motorcycle mechanism 3, realizing the limitation of the motorcycle mechanism 3, and the rear wheel 310 contacts the friction wheel 25.

[0052] The power handle 23 is pressed multiple times, and the half gear 24 is driven to rotate when the power handle 23 is pressed. The half gear 24 drives the lower torsion spring 28 to move, and the half gear 24 drives the primary input gear 222, the input ring 220 and the input ratchet 221 to rotate. The input ratchet 221 contacts the protrusion with a larger slope of the input ratchet ring 219, such as Fig.11 As shown, the primary input gear 222 rotates clockwise, driving the input ratchet 219 and the primary output gear 218 to rotate, the primary output gear 218 drives the secondary input gear 26, the secondary input shaft 27 and the friction wheel 25 to rotate, and the friction wheel 25 drives the rear wheel 310 to rotate, as shown in FIG. Fig.16 As shown, the rear wheel 310 rotates counterclockwise, and the rear wheel 310 drives the wheel disc 38 and the wheel ratchet 39 to rotate. The protrusion with a larger slope of the wheel ratchet 39 contacts the wheel ratchet 312, driving the wheel ratchet 312 to move, realizing the rapid rotation of the wheel shaft gear 313, and the wheel shaft gear 313 drives the wheel transmission small tooth 317 and the wheel transmission large tooth 36 to rotate, and the wheel transmission large tooth 36 drives the energy storage gear 35 and the input roller 315 to rotate, and the input roller 315 drives the energy storage device 316 to move to store energy. When the power handle 23 is released, the lower torsion spring 28 is restored, the half gear 24 rotates in the opposite direction, the power handle 23 swings in the opposite direction, the primary input gear 222, the input ring 220 and the input ratchet 221 rotate in the opposite direction, and the input ratchet 221 moves along the protrusion with a relatively gentle slope of the input ratchet 219, and does not drive the input ratchet 219 to rotate. Under the friction force between the friction wheel 25 and the rear wheel 310, the rear wheel 310 is kept stationary.

[0053] When the motorcycle mechanism 3 is launched, the ramp 212 swings, the friction wheel 25 is out of contact with the rear wheel 310, the energy storage device 316 releases energy, and drives the energy storage gear 35 to rotate. The energy storage gear 35 drives the wheel transmission large tooth 36 and the wheel transmission small tooth 317 to rotate. The wheel transmission small tooth 317 drives the wheel shaft gear 313, the wheel disc 312 and the wheel ratchet 312 to rotate. The wheel ratchet 312 moves along the gentle slope of the wheel ratchet ring 39, driving the wheel ratchet ring 39 to rotate, realizing slow energy release, realizing the rotation of the rear wheel 310, the wheel disc 38 and the wheel shaft 37, so that the motorcycle mechanism 3 moves along the ramp 212, driving the vehicle clamp head 211 to swing, and twisting the upper torsion spring 210. After the motorcycle mechanism 3 is separated from the launching shell 21, the upper torsion spring 210 twists in the opposite direction, and the vehicle clamp head 211 swings in the opposite direction to clamp the next motorcycle mechanism 3.

[0054] Embodiment 2: This embodiment is further described on the basis of embodiment 1. The burst storage mechanism 1 further includes an extended single shell. The base shell 11 matches the extended single shell. The extended single shell includes two half shells 18. The two half shells 18 are respectively connected to the cover shell 114. The two sides of one half shell 18 are respectively connected to a group of half shell connecting protrusions 19. The other half shell 18 is connected to two limit groove groups 112. The two groups of half shell connecting protrusions 19 match the two limit groove groups 112. The cover shell 114 matches the base shell 11 and the extended single shell. By using the half shell connecting protrusions 19 and the limit groove group 112, it is convenient for the two half shells 18 to form an extended single shell for placing a motorcycle mechanism 3.

[0055] The casing 114 is connected to the handle protrusion 116 for convenient handling by the user.

[0056] Each of the half shells 18 is provided with a connecting groove 115, each of which extends to the corresponding sleeve shell 114. Both sides of the input end of the base shell 11 and each of the half shells 18 are connected to the shell connecting protrusion 113, and the shell connecting protrusion 113 matches the connecting groove 115. By using the shell connecting protrusion 113 and the connecting groove 115, the extended single shell and the base shell 11, as well as the adjacent extended single shells, are connected.

[0057] The extended single shell and the base shell 11 match the closed shell 117. The closed shell 117 is provided with two positioning grooves 119, and the positioning grooves 119 match the shell connecting protrusions 113. Each of the half shells 18 is provided with guide grooves 120, and the closed shell 117 is connected with two sets of symmetrical guide plates 118, and the symmetrical guide grooves 120 match the corresponding guide plates 118.

[0058] One side of the base shell 11 and the half shell 18 on one side are respectively connected to the plug post 111 , and the other side of the base shell 11 and the half shell 18 on the other side are respectively connected to the socket 110 , and the plug post 111 matches the socket 110 .

[0059] The workflow of this embodiment is: When there are a large number of motorcycle mechanisms 3 to be launched, multiple extended single shells are used for connection. The first extended single shell is connected to the base shell 11 to place the motorcycle mechanism 3, and the closed shell 117 is used to seal the last extended single shell.

[0060] The device adopts a base shell 11 and an extended single shell to achieve storage of multiple motorcycle mechanisms 3 and realize a continuous vehicle formation. Each extended single shell stores a motorcycle mechanism 3, which facilitates the placement of the motorcycle mechanism 3. To prevent the motorcycle mechanism 3 from accidentally detaching, a closed shell 117 is used to close the base shell 11 or the extended single shell to prevent the motorcycle mechanism 3 from being lost.

[0061] The device adopts a continuous firing mechanism 2, so that the previous motorcycle mechanism 3 is fired while the next motorcycle mechanism 3 enters the firing shell 21. The motorcycle mechanism 3 after storing energy can break through the resistance of the upper torsion spring 210 and be fired along the ramp 212 and the launching plate 223. The launching handle 29 is reset, and the next motorcycle mechanism 3 enters the ramp 212. The launching handle 29 protrudes vertically, and the vehicle clamp head 211 cooperates with it to limit the motorcycle mechanism 3, so that when the power handle 23 is pressed, its energy storage device 316 can store energy.

[0062] Although the above describes the specific implementation mode of the invention in conjunction with the drawings, it is not intended to limit the scope of protection of the invention. Based on the technical solution of the present invention, various modifications or variations that can be made by those skilled in the art without creative work are still within the scope of protection of the present invention.

Claims

1. A toy launcher for a continuous-fire vehicle array, characterized in that: include: A burst storage mechanism (1) and a burst firing mechanism (2); The burst storage mechanism (1) comprises a base shell (11), and a burst limiting assembly is installed in the base shell (11); The burst firing mechanism (2) comprises a firing shell (21), wherein the firing shell (21) is provided with a slot (22) and an inlet end corresponding to the base shell (11); the outlet end of the firing shell (21) is connected to a firing plate (223); The continuous firing mechanism (2) is equipped with a firing assembly and a power input assembly; A motorcycle mechanism (3) is placed in the base shell (11), or a motorcycle mechanism (3) is placed in the extended single shell, which is mounted on the launching shell (21) to achieve single-shot firing.

2. A toy launcher for a continuous-fire vehicle array according to claim 1, characterized in that: The launching assembly comprises a launching handle (29), the launching handle (29) passes through the launching shell (21), the launching handle (29) is rotatably connected to a transition plate (224), the launching shell (21) is connected to a ramp (212), the transition plate (224) matches the ramp (212), the launching handle (29) is connected to a guide column (215), and the launching handle (29) is connected to the launching shell (21) via a handle spring (213).

3. A toy launcher for a continuous-fire vehicle array according to claim 2, characterized in that: The power input assembly comprises a power handle (23), the power handle (23) is connected to a half gear (24), the gear shaft of the half gear (24) is rotatably connected to the launch shell (21), the launch shell (21) is connected to the gear shaft of a primary output gear (218) through a bearing, the gear shaft of the primary output gear (218) is connected to an input ratchet (219), the gear shaft of the primary output gear (218) is connected to a primary input gear (222) through a bearing, the primary input gear (222) is connected to an input ring (220), the input ring (220) is connected to an input ratchet (221), the input ratchet (221) matches the input ratchet (219), the primary input gear (222) meshes with the half gear (24), the launch shell (21) is connected to a secondary input shaft (27) through a bearing, the secondary input shaft (27) is connected to a friction wheel (25) and a secondary input gear (26), and the primary output gear (218) meshes with the secondary input gear (26).

4. A toy launcher for a continuous-fire vehicle array according to claim 2, characterized in that: The output end of the base shell (11) is provided with a limit arc groove (12); the continuous firing limit assembly comprises a continuous firing U shell (13); the firing U shell (13) is rotatably connected to a U-shaped blocking rod (14); both ends of the U-shaped blocking rod (14) are respectively connected to limit cylinders (17); the symmetrical limit cylinders (17) are respectively arranged in corresponding limit arc grooves (12); the continuous firing U shell (13) is connected to a continuous firing L rod (15); the continuous firing L rod (15) is connected to a mounting column (16); and the base shell (11) is connected to a contact plate (121) corresponding to the continuous firing L rod (15).

5. The continuous-fire vehicle array toy launching device according to claim 1, characterized in that: The burst storage mechanism (1) further comprises an extended single shell, the base shell (11) matches the extended single shell, the extended single shell comprises two half shells (18), the two half shells (18) are respectively connected to the sleeve shell (114), two sides of one half shell (18) are respectively connected to a group of half shell connecting protrusions (19), and the other half shell (18) is connected to two limit groove groups (112), and the two groups of half shell connecting protrusions (19) match the two limit groove groups (112).

6. A toy launcher for a continuous-fire vehicle array according to claim 5, characterized in that: each The half shells (18) are respectively provided with connection grooves (115), each of the connection grooves (115) respectively extending to the corresponding sleeve shell (114), and both sides of the input end of the base shell (11) and each of the half shells (18) are respectively connected to the shell connecting protrusions (113), and the shell connecting protrusions (113) match the connection grooves (115).

7. The toy launcher for a continuous-fire vehicle array according to claim 5, characterized in that: The extended single shell and the base shell (11) match the closed shell (117).

8. A toy car for a toy launching device for a continuous-fire vehicle array according to claim 1, characterized in that: include: The motorcycle mechanism (3) comprises a vehicle shell (31), a front end bearing of the vehicle shell (31) being connected to a front wheel (32), a mounting shell (33) being connected inside the vehicle shell (31), and an energy storage component being mounted inside the mounting shell (33).

9. The toy car according to claim 8, characterized in that: The energy storage assembly comprises an energy accumulator (316), the energy accumulator (316) being connected to the mounting shell (33), the mounting shell (33) having a bearing connected to an energy storage shaft (314), the energy storage shaft (314) being connected to an input roller (315), and the input roller (315) being connected to an input end of the energy accumulator (316).

10. The toy car according to claim 9, characterized in that: The mounting shell (33) is connected to a wheel axle (37) by a bearing, the wheel axle (37) is connected to a wheel disc (38), the wheel disc (38) is connected to a wheel ratchet (39), the wheel ratchet (39) is mounted in a rear wheel (310), the wheel axle (37) is connected to a wheel axle gear (313), the wheel axle gear (313) is connected to a wheel disc (311), the wheel disc (311) is connected to symmetrical wheel ratchets (312), the symmetrical wheel ratchets (312) match the wheel ratchet (39), the wheel axle gear (313) meshes with a wheel transmission large tooth (36), the mounting shell (33) is connected to a wheel transmission large tooth (36), the wheel transmission large tooth (36) is connected to a wheel transmission small tooth (317), the wheel transmission small tooth (317) meshes with an energy storage gear (35), and the energy storage gear (35) is connected to the input roller (315).

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