Pressing type spinning top toy

Abstract

The utility model relates to a push type gyro toy, including toy base, press drive subassembly, clutch transmission subassembly, clamping subassembly, gyro body, press drive subassembly can be set up on the toy base in the automatic springback mode, clutch transmission subassembly and clamping subassembly are set up on the toy base respectively, and the gyro body is set up on the toy base. The clamping assembly is used for movably clamping the gyroscope body, the pressing driving assembly is in driving connection with the clutch transmission assembly, and the clutch transmission assembly is connected with the gyroscope body in a clutch mode. According to the pressing type spinning top toy, the spinning top body can rotate by pressing the pressing driving assembly, the playing method of the spinning top toy is novel and interesting, and the interestingness and entertainment of the spinning top toy can be effectively improved.

Description

Technical Field

[0001] The utility model relates to the technical field of toys, in particular to a push-type gyroscope toy. Background Art

[0002] With the development of the toy industry, toys with different styles and functions have not only brought a lot of fun to people's lives, but also helped people relax and relieve stress in their daily entertainment. Among them, spinning top toys are deeply favored by users due to their unique gameplay.

[0003] Common spinning top toys typically use a rack-and-pinion acceleration system to accelerate the top's rotation. Specifically, the acceleration rack passes through a drive gear, which then pulls the rack, in turn driving the drive gear. The drive gear then accelerates the top, which then launches the top after it has accumulated energy. However, these launching toys, which rely on the acceleration rack to accelerate the top's rotation, lack novelty and have a relatively short energy storage range, making them less interesting and entertaining. Utility Model Content

[0004] Based on this, the purpose of the present invention is to overcome the shortcomings of the existing technology and provide a push-type gyroscope toy, which can rotate the gyroscope body by pressing the push drive component. The gameplay is novel and interesting, and can effectively improve the fun and entertainment of the gyroscope toy.

[0005] In order to achieve the above purpose, the technical solution adopted by the utility model is:

[0006] A push-type gyroscope toy comprises a toy base, a push-type drive assembly, a clutch transmission assembly, a clamping assembly, and a gyroscope body. The push-type drive assembly is automatically resiliently disposed on the toy base. The clutch transmission assembly and the clamping assembly are respectively disposed on the toy base. The clamping assembly is used to movably clamp the gyroscope body. The push-type drive assembly is drivingly connected to the clutch transmission assembly. The clutch transmission assembly is detachably connected to the gyroscope body.

[0007] When the pressing drive assembly is pressed by an external force, the pressing drive assembly drives the clutch transmission assembly to rotate, and makes the clutch transmission assembly connected to the gyroscope body; when the external force is removed, the pressing drive assembly automatically rebounds and drives the clutch transmission assembly to rotate in the opposite direction, and makes the clutch transmission assembly and the gyroscope body separate from each other.

[0008] Therefore, according to the push-type gyroscope toy of the embodiment of the present invention, the push-drive component can be rotated by applying a pressing force to the push-drive component, and then the clutch transmission component is driven to rotate by the push-drive component, and the clutch transmission component is connected to the gyroscope body, thereby driving the gyroscope body to rotate; when the pressing force is released, the push-drive component can automatically rebound and reset. During the automatic reset of the push-drive component, the push-drive component drives the clutch transmission component to rotate in the opposite direction, and separates the clutch transmission component from the gyroscope body, so as to prevent the clutch transmission component from applying a reverse force to the gyroscope body and avoid the gyroscope body from causing resistance to the automatic rebound reset of the push-drive component in the opposite direction; that is, by repeatedly pressing the push-drive component multiple times, the gyroscope body can be continuously driven to rotate, which can not only effectively improve the fun and entertainment of the gyroscope toy, but also provide a certain degree of stress relief for the user during the pressing process.

[0009] In one embodiment, the toy base is provided with an ejection slot, which is a slot structure with one end open; the clamping assembly is slidably disposed in the ejection slot, and a ejection spring is disposed between the end of the clamping assembly away from the opening of the ejection slot and the toy body; the toy base is telescopically provided with a trigger assembly, and when the clamping assembly slides to the end of the ejection slot away from the opening thereof, the trigger assembly engages with the clamping assembly, and the ejection spring is in a compressed state;

[0010] When the trigger assembly is triggered, the clamping assembly is separated from the trigger assembly, and the ejection spring drives the clamping assembly to slide toward the opening of the ejection slot and ejects the gyro body from the opening of the ejection slot.

[0011] Therefore, according to the push-type gyroscope toy of the embodiment of the present invention, the push-drive assembly can be rotated by applying a pressing force to the push-drive assembly, and then the push-drive assembly drives the clutch transmission assembly to rotate, and the clutch transmission assembly is connected to the gyroscope body, thereby driving the gyroscope body to rotate; when the pressing force is released, the push-drive assembly can automatically rebound and reset. During the automatic reset of the push-drive assembly, the push-drive assembly drives the clutch transmission assembly to rotate in the opposite direction, and separates the clutch transmission assembly from the gyroscope body, so as to prevent the clutch transmission assembly from applying a reverse force to the gyroscope body and avoid the gyroscope body from causing resistance to the automatic rebound reset of the push-drive assembly; further By pressing the trigger assembly, the trigger assembly and the clamping assembly can be disengaged, and the clamping assembly can slide quickly toward the opening of the ejection slot under the action of the ejection spring, and the gyroscope body can be ejected from the opening of the ejection slot; that is, the sliding gyroscope toy according to the embodiment of the utility model can not only continuously drive the gyroscope body to rotate by repeatedly pressing the pressing drive assembly multiple times, so that the gyroscope body can reach a state of explosive spinning, but also can trigger the trigger assembly to cause the ejection spring to drive the clamping assembly to slide quickly, and eject the gyroscope body from the ejection slot, further enriching the play function of the gyroscope body and making the gyroscope toy more interesting and entertaining.

[0012] As an embodiment, the clutch transmission assembly includes a dual-gear transmission shaft and a clutch gear box. The dual-gear transmission shaft is rotatably arranged in the toy base. The two ends of the dual-gear transmission shaft are respectively coaxially and rigidly connected with drive gears, one of the drive gears is meshed and connected with the press drive assembly, and the other drive gear is meshed and connected with the clutch gear box. The clutch gear box is clutchably connected to the gyroscope body. By adopting such a structural design, the clutch transmission assembly can drive the gyroscope body to rotate in one direction. When the pressing drive assembly is pressed by an external force, the pressing drive assembly drives the clutch transmission assembly to rotate. The clutch transmission assembly is connected to the gyroscope body and drives the gyroscope body to rotate. When the pressing drive assembly is released, the pressing drive assembly automatically rebounds and resets in the opposite direction, and at the same time drives the clutch transmission assembly to rotate in the opposite direction. At this time, the clutch transmission assembly and the gyroscope body are separated from each other to prevent it from generating a reverse force on the gyroscope body. In this way, when the pressing drive assembly is repeatedly pressed, the gyroscope body can be continuously rotated in one direction through the clutch transmission assembly to store energy, thereby greatly improving the rotation effect of the gyroscope body.

[0013] As an embodiment, the clutch gear box includes a gear box, a driving gear, and a clutch gear. The driving gear is rotatably arranged in the gear box, and the driving gear is meshed and connected with the adjacent driving gear. An arc groove is provided in the gear box, and the clutch gear is slidably arranged in the arc groove, and the clutch gear is meshed and connected with the driving gear; when the clutch gear slides to the end of the arc groove close to the gyroscope body, the clutch gear is meshed and connected with the gyroscope body, and when the clutch gear slides to the end of the arc groove away from the gyroscope body, the clutch gear is separated from the gyroscope body.

[0014] As an embodiment, the clutch gear box also includes a passive gear, which is rotatably arranged in the gear box, and the passive gear is located between the clutch gear and the gyroscope body, and the passive gear is meshed and connected with the gyroscope body; when the clutch gear slides to the end of the arc groove close to the passive gear, the clutch gear is meshed and connected with the passive gear, and when the clutch gear slides to the end of the arc groove away from the passive gear, the clutch gear is separated from the passive gear.

[0015] As an embodiment, the pressing drive assembly includes a pressing shell, a pressing arc rod, a rebound reset torsion spring, and a pressing rotating gear. The toy base is provided with an arc-shaped limiting groove for the pressing shell to slide. The pressing shell is connected to the pressing arc rod. The pressing arc rod is torsionally arranged in the toy base through the rebound reset torsion spring. The pressing rotating gear is rotatably arranged in the toy base, and the pressing arc rod is meshed with the pressing rotating gear. The pressing rotating gear is meshed with one of the driving gears of the dual-gear transmission shaft.

[0016] As an embodiment, the pressing arc rod is provided with arc teeth, and the pressing rotating gear includes a coaxially arranged pressing connecting gear and a pressing ring tooth, the pressing connecting gear is meshed and connected with the arc teeth, and the pressing ring tooth is meshed and connected with one of the driving gears of the dual-gear transmission shaft.

[0017] As an embodiment, the clamping assembly includes an ejection clamping piece and a movable clamping block, the ejection clamping piece is provided with a U-shaped clamping portion, the ejection clamping piece is slidably arranged in the ejection slot, one end of the ejection spring abuts against the end of the opening of the ejection clamping piece away from the clamping portion; the opening direction of the clamping portion is the same as the opening direction of the ejection slot, the movable clamping block is telescopically arranged in the ejection clamping piece, and a wedge block is provided on the movable clamping block, the wedge block can be extended into or out of the clamping portion, and the wedge block and the clamping portion are used together to movably clamp the gyroscope body; when the ejection clamping piece slides to the end of the ejection slot away from its opening, the trigger assembly cooperates and engages with the ejection clamping piece.

[0018] As an embodiment, the ejection clamp is provided with a through slot connecting the clamping portion and the ejection slot, the movable blocking block is rotatably arranged in the through slot, the ejection slot is provided with the protrusion, and the protrusion extends into the through slot; when the ejection clamp slides to the end of the ejection slot away from its opening and engages with the trigger assembly, the protrusion presses the movable blocking block and makes the wedge block on the movable blocking block extend into the clamping portion, and the wedge block and the clamping portion jointly clamp the gyroscope body; when the ejection clamp slides toward the open end of the ejection slot, the movable blocking block separates from the protrusion and makes the wedge block on the movable blocking block exit the clamping portion, and the gyroscope body can be ejected from the opening of the clamping portion and the opening of the ejection slot.

[0019] As an embodiment, the trigger assembly includes a pushing piece and a rotating clamping piece. The pushing piece can be telescopically arranged on the toy base, and the rotating clamping piece can be rotatably arranged in the toy base. One end of the rotating clamping piece is engaged with the ejection clamping piece, and the other end of the rotating clamping piece is engaged with the pushing piece; the pushing piece is used to drive the rotating clamping piece to rotate and make the rotating clamping piece disengage and separate from the ejection clamping piece.

[0020] In order to better understand and implement the present invention, the present invention is described in detail below with reference to the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 This is a schematic structural diagram of the push-type gyroscope toy of the utility model;

[0022] Figure 2 This is a schematic structural diagram of the push-type gyroscope toy of the utility model;

[0023] Figure 3 This is a schematic structural diagram of the push-type gyroscope toy of the utility model;

[0024] Figure 4 This is a schematic structural diagram of the push-type gyroscope toy of the utility model;

[0025] Figure 5 This is a schematic structural diagram of the push-type gyroscope toy of the utility model;

[0026] Figure 6 This is a schematic structural diagram of the push-type gyroscope toy of the utility model;

[0027] Figure 7 The figure is a schematic structural diagram of a push-type gyroscope toy of the present invention.

[0028] Description of reference numerals:

[0029] 10. Gyro base; 11. Ejection slot; 20. Press drive assembly; 21. Press shell; 22. Press arc rod; 23. Rebound reset torsion spring; 24. Press rotation gear; 30. Clutch transmission assembly; 31. Double gear transmission shaft; 32. Drive gear; 33. Active gear; 34. Clutch gear; 35. Passive gear; 40. Clamping assembly; 41. Ejection clamp; 42. Ejection spring; 43. Clamping part; 44. Movable clamping block; 45. Wedge block; 50. Gyro body; 51. Gyro shaft; 52. Gyro gear; 53. Limiting ring; 60. Trigger assembly; 61. Pushing piece; 62. Rotating clamping piece. DETAILED DESCRIPTION

[0030] To further illustrate various embodiments, this utility model is provided with accompanying drawings. These drawings form part of the disclosure of this utility model and are primarily used to illustrate the embodiments and, in conjunction with the relevant description in the specification, to explain the operating principles of the embodiments. By referring to these drawings, those skilled in the art will be able to understand other possible implementations and the advantages of this utility model.

[0031] Common spinning top toys typically use a rack-and-pinion acceleration system to accelerate the top's rotation. Specifically, the acceleration rack passes through a drive gear, which then pulls the rack, in turn driving the drive gear. The drive gear then accelerates the top, which then launches the top after it has accumulated energy. However, these launching toys, which rely on the acceleration rack to accelerate the top's rotation, lack novelty and have a relatively short energy storage range, making them less interesting and entertaining.

[0032] In view of this, the present invention provides a push-type gyroscope toy. According to the push-type gyroscope toy of the embodiment of the present invention, the gyroscope body 50 can be rotated by pressing the push drive component 20. The playing method is novel and interesting, which can effectively improve the fun and entertainment of the gyroscope toy.

[0033] See also Figures 1 to 7The embodiment of the present invention provides a push-type gyroscope toy, including a toy base, a push-drive assembly 20, a clutch transmission assembly 30, a clamping assembly 40, and a gyroscope body 50. The push-drive assembly 20 can be automatically rebounded and arranged on the toy base, the clutch transmission assembly 30 and the clamping assembly 40 are respectively arranged on the toy base, and the clamping assembly 40 is used to movably clamp the gyroscope body 50. The push-drive assembly 20 is drivingly connected to the clutch transmission assembly 30, and the clutch transmission assembly 30 and the gyroscope body 50 can be clutched and transmission-connected; when the push-drive assembly 20 is pressed by an external force, the push-drive assembly 20 drives the clutch transmission assembly 30 to rotate, and makes the clutch transmission assembly 30 and the gyroscope body 50 transmission-connected; when the external force is removed, the push-drive assembly 20 automatically rebounds and drives the clutch transmission assembly 30 to rotate in the opposite direction, and makes the clutch transmission assembly 30 and the gyroscope body 50 separate from each other.

[0034] Therefore, according to the push-type gyroscope toy of the embodiment of the present invention, the push-type gyroscope toy can rotate by applying a pressing force to the push-type gyroscope toy 20, and then the push-type gyroscope toy 20 drives the clutch transmission assembly 30 to rotate, and makes the clutch transmission assembly 30 connected to the gyroscope body 50, thereby driving the gyroscope body 50 to rotate; when the pressing force is released, the push-type gyroscope toy 20 can automatically rebound and reset. During the automatic reset of the push-type gyroscope toy 20, the push-type gyroscope toy 20 drives the clutch transmission assembly 30 to rotate in the opposite direction, and makes the clutch transmission assembly 30 and the gyroscope body 50 separate from each other, so as to prevent the clutch transmission assembly 30 from applying a reverse force to the gyroscope body 50 and avoid the gyroscope body 50 from causing resistance to the automatic rebound reset of the push-type gyroscope toy; that is, by repeatedly pressing the push-type gyroscope toy multiple times, the gyroscope body 50 can be continuously driven to rotate, which can not only effectively improve the fun and entertainment of the gyroscope toy, but also provide a certain stress relief effect for the user during the pressing process.

[0035] Optionally, in some embodiments of the present invention, an ejection slot 11 is provided on the toy base, and the ejection slot 11 is a slot structure with an opening at one end; the clamping assembly 40 is slidably arranged in the ejection slot 11, and an ejection spring 42 is provided between the end of the clamping assembly 40 away from the opening of the ejection slot 11 and the toy body; a trigger assembly 60 is telescopically provided on the toy base, and when the clamping assembly 40 slides to the end of the ejection slot 11 away from its opening, the trigger assembly 60 cooperates with the clamping assembly 40 and the ejection spring 42 is in a compressed state; when the trigger assembly 60 is triggered, the clamping assembly 40 disengages from the trigger assembly 60, and the ejection spring 42 drives the clamping assembly 40 to slide toward the opening direction of the ejection slot 11 and causes the gyroscope body 50 to be ejected from the opening of the ejection slot 11.

[0036] Therefore, according to the push-type gyroscope toy of the embodiment of the present invention, the push-drive assembly 20 can be rotated by applying a pressing force to the push-drive assembly 20, and then the clutch transmission assembly 30 is driven to rotate by the push-drive assembly 20, and the clutch transmission assembly 30 is connected to the gyroscope body 50 for transmission, thereby driving the gyroscope body 50 to rotate; when the pressing force is withdrawn, the push-drive assembly 20 can automatically rebound and reset. During the process of the push-drive assembly 20 automatically resetting, the push-drive assembly 20 drives the clutch transmission assembly 30 to rotate in the opposite direction, and separates the clutch transmission assembly 30 from the gyroscope body 50, so as to prevent the clutch transmission assembly 30 from applying a reverse force to the gyroscope body 50, and to avoid the gyroscope body 50 from causing resistance to the automatic rebound and reset of the push-drive assembly 20; further By pressing the trigger assembly 60, the trigger assembly 60 and the clamping assembly 40 can be disengaged, and the clamping assembly 40 can slide quickly toward the opening direction of the ejection slot 11 under the action of the ejection spring 42, and the gyro body 50 can be ejected from the opening of the ejection slot 11; that is, according to the sliding gyro toy of the embodiment of the present invention, not only can the gyro body 50 be continuously driven to rotate by repeatedly pressing the pressing drive assembly 20, so that the gyro body 50 can reach a state of explosive spinning, but the trigger assembly 60 can also be triggered to cause the ejection spring 42 to drive the clamping assembly 40 to slide quickly, and eject the gyro body 50 from the ejection slot 11, further enriching the play function of the gyro body 50 and making the gyro toy more interesting and entertaining.

[0037] Optionally, in some embodiments of the present invention, the pressing drive assembly 20 includes a pressing shell 21, a pressing arc rod 22, a rebound reset torsion spring 23, and a pressing rotating gear 24. An arc-shaped limiting groove for the pressing shell 21 to slide is provided on the toy base. The pressing shell 21 is connected to the pressing arc rod 22. The pressing arc rod 22 can be twistedly set in the toy base through the rebound reset torsion spring 23. The pressing rotating gear 24 can be rotatably set in the toy base, and the pressing arc rod 22 is meshed and connected with the pressing rotating gear 24. The pressing rotating gear 24 is drive-connected to the clutch transmission assembly 30. It can be understood that in these embodiments, a limiting space for the pressing arc rod 22 to rotate is provided in the toy base, so that the pressing arc rod 22 can rotate smoothly and without deviation, and the pressing shell 21 is correspondingly slidably arranged in the arc limiting groove. In this way, when the pressing shell 21 is pressed by an external force, the pressing shell 21 drives the pressing arc rod 22 to rotate. The pressing arc rod 22 can drive the clutch transmission assembly 30 to rotate during the rotation process, and then drive the gyro body 50 to rotate through the clutch transmission assembly 30. At the same time, the rebound reset torsion spring 23 is correspondingly pressed. The arc rod 22 twists so that the rebound reset torsion spring 23 is in a twisted energy storage state. In this way, when the external force pressing the shell 21 is removed, under the torsion of the rebound reset torsion spring 23, the pressing arc rod 22 drives the pressing shell 21 to rotate in the opposite direction, and drives the clutch transmission assembly 30 to rotate in the opposite direction. At this time, the clutch transmission assembly 30 is separated from the gyroscope body 50 to prevent the gyroscope body 50 from generating a reverse force. At the same time, it avoids the gyroscope body 50 from generating a reaction force on the clutch transmission assembly 30 due to the rotation, preventing it from forming an obstacle to the automatic rebound of the pressing arc rod 22.

[0038] Furthermore, in the above embodiments, arc-shaped teeth are provided on the pressing arc rod 22, and the pressing rotating gear 24 includes a coaxially arranged pressing connecting gear and a pressing ring tooth, the pressing connecting gear is meshed with the arc-shaped teeth, and the pressing ring tooth is drive-connected with the clutch transmission assembly 30.

[0039] Optionally, in some embodiments of the present invention, the clutch transmission assembly 30 includes a dual-gear transmission shaft 31 and a clutch gear 34 box. The dual-gear transmission shaft 31 is rotatably arranged in the toy base. The two ends of the dual-gear transmission shaft 31 are respectively coaxially rigidly connected with drive gears 32, one of which is meshed with the press-rotate gear 24 of the press-drive assembly 20, and the other is meshed with the clutch gear 34 box. The clutch gear 34 box is clutchably connected to the gyroscope body 50. By adopting such a structural design, the clutch transmission assembly 30 can drive the gyroscope body 50 to rotate in one direction. When the pressing drive assembly 20 is pressed by an external force, the pressing drive assembly 20 drives the clutch transmission assembly 30 to rotate. The clutch transmission assembly 30 is connected to the gyroscope body 50 and drives the gyroscope body 50 to rotate. When the pressing drive assembly 20 is released, the pressing drive assembly 20 automatically rebounds and resets in the opposite direction, and at the same time drives the clutch transmission assembly 30 to rotate in the opposite direction. At this time, the clutch transmission assembly 30 and the gyroscope body 50 are separated from each other to prevent it from exerting a reverse force on the gyroscope body 50. In this way, when the pressing drive assembly 20 is repeatedly pressed, the gyroscope body 50 can be continuously unidirectionally rotated and stored with energy through the clutch transmission assembly 30, thereby greatly improving the rotation effect of the gyroscope body 50.

[0040] Furthermore, in the above embodiments, the clutch gear 34 box includes a gear box, a driving gear 33, and a clutch gear 34. The driving gear 33 is rotatably disposed in the gear box, and the driving gear 33 is meshed and connected with the adjacent driving gear 32. An arcuate groove is provided in the gear box, and the clutch gear 34 is slidably disposed in the arcuate groove, and the clutch gear 34 is meshed and connected with the driving gear 33. When the clutch gear 34 slides to the end of the arcuate groove close to the gyro body 50, the clutch gear 34 is meshed and connected with the gyro body 50. When the clutch gear 34 slides to the end of the arcuate groove away from the gyro body 50, the clutch gear 34 is separated from the gyro body 50. It can be understood that in these embodiments, the clutch gear 34 is cleverly designed to achieve a clutch connection between the clutch gear 34 and the gyroscope body 50. The driving gear 33 overlaps with the axis of the arc-shaped groove. In this way, the driving gear 33 and the clutch gear 34 are always in meshing connection, and the clutch gear 34 can be driven to slide to the two ends of the arc-shaped groove by the forward and reverse rotation of the driving gear 33. As a result, the driving gear 33 can drive the clutch gear 34 to rotate while using centrifugal force to push the clutch gear 34 to slide in the arc-shaped groove, thereby achieving a clutch connection between the clutch gear 34 and the gyroscope body 50.

[0041] In addition, in the above embodiments, the gyro body 50 includes a coaxially designed gyro shaft 51, and a gyro gear 52 is coaxially and rigidly connected to the gyro shaft 51. In this way, when the gyro body 50 is movably clamped on the clamping assembly 40, the gyro gear 52 on the gyro body 50 can be clutched and connected with the clutch gear 34.

[0042] In the above embodiments, the clutch gear 34 box further includes a driven gear 35, which is rotatably disposed in the gear box and is located between the clutch gear 34 and the gyro body 50. The driven gear 35 is meshed and connected with the gyro body 50. When the clutch gear 34 slides to the end of the arc groove near the driven gear 35, the clutch gear 34 is meshed and connected with the driven gear 35. When the clutch gear 34 slides to the end of the arc groove away from the driven gear 35, the clutch gear 34 is separated from the driven gear 35. It can be understood that in these embodiments, by adding the driven gear 35, the output end of the clutch transmission assembly 30 is the driven gear 35, and the driven gear 35 is always meshed and connected with the gyro gear 52 on the gyro body 50. In this way, the connection between the clutch transmission assembly 30 and the gyro body 50 is more stable. In addition, the design layout of the clutch gear 34 box is also more reasonable.

[0043] Optionally, in some embodiments of the present invention, the clamping assembly 40 includes an ejection clamping member 41 and a movable clamping block 44. A U-shaped clamping portion 43 is provided in the ejection clamping member 41. The ejection clamping member 41 is slidably disposed in the ejection slot 11. One end of the ejection spring 42 abuts against an end of the opening of the ejection clamping member 41 away from the clamping portion 43. The opening direction of the clamping portion 43 is the same as the opening direction of the ejection slot 11. The movable clamping block 44 is telescopically disposed in the ejection clamping member 41, and a wedge block 45 is provided on the movable clamping block 44. The wedge block 45 can extend into or out of the clamping portion 43, and the wedge block 45 and the clamping portion 43 are used together to movably clamp the gyro body 50. When the ejection clamping member 41 slides to the end of the ejection slot 11 away from its opening, the trigger assembly 60 cooperates and engages with the ejection clamping member 41.

[0044] Furthermore, in the above embodiments, a through slot is provided on the ejection clamp 41, connecting the clamping portion 43 and the ejection slot 11, and the movable clamping block 44 is rotatably arranged in the through slot. A protrusion is provided in the ejection slot 11, and the protrusion extends into the through slot; when the ejection clamp 41 slides to the end of the ejection slot 11 away from its opening and engages with the trigger assembly 60, the protrusion presses the movable clamping block 44 and causes the wedge block 45 on the movable clamping block 44 to extend into the clamping portion 43, and the wedge block 45 and the clamping portion 43 jointly movably clamp the gyro body 50; when the ejection clamp 41 slides toward the open end of the ejection slot 11, the movable clamping block 44 separates from the protrusion and causes the wedge block 45 on the movable clamping block 44 to exit the clamping portion 43, and the gyro body 50 can be ejected from the opening of the clamping portion 43 and the opening of the ejection slot 11. It can be understood that, in these embodiments, such a structural design is adopted, so that when the ejection clamp 41 is engaged with the trigger assembly 60 in the ejection slot 11, the gyro body 50 can be movably clamped in the ejection clamp 41, and the ejection spring 42 is in a compressed state; when the ejection clamp 41 and the trigger assembly 60 are disengaged, the ejection clamp 41 slides rapidly in the ejection slot 11 under the elastic force of the ejection spring 42. During the sliding process, the wedge block 45 of the movable clamp can withdraw from the clamping portion 43 by utilizing the ingenious design of the movable clamping block 44 and the clamping portion 43, so that the gyro body 50 can be ejected from the opening of the clamping portion 43 and the opening of the ejection slot 11.

[0045] To facilitate the cooperation between the gyro body 50 and the clamping portion 43, in the above embodiments, the gyro shaft 51 on the gyro body 50 is coaxially rigidly connected to a limit ring 53. The limit ring 53 is located between the gyro body 50 and the gyro gear 52 and is spaced apart from the gyro gear 52. In this way, when the gyro shaft 51 on the gyro body 50 extends from the opening of the clamping portion 43 to the inner end of the clamping portion 43, the limit ring 53 on the gyro shaft 51 can abut against the top of the clamping portion 43. At the same time, the gyro gear 52 on the gyro shaft 51 is clutched and connected to the clutch transmission assembly 30. In addition, the wedge block 45 of the movable clamping block 44 limits the gyro shaft 51 of the gyro body 50 to prevent the gyro body 50 from slipping out of the clamping portion 43 when rotating circumferentially.

[0046] In addition, in the above embodiments, the trigger assembly 60 includes a pushing member 61 and a rotating clamping member 62. The pushing member 61 can be telescopically arranged on the toy base, and the rotating clamping member 62 can be rotatably arranged in the toy base. One end of the rotating clamping member 62 is engaged with the ejection clamping member 41, and the other end of the rotating clamping member 62 is engaged with the pushing member 61; the pushing member 61 is used to drive the rotating clamping member 62 to rotate and make the rotating clamping member 62 disengage and separate from the ejection clamping member 41. It can be understood that in these embodiments, the pushing member 61 is retractably arranged on the toy base through a spring, the middle part of the rotating clamping member 62 is rotatably sleeved on the toy base, and the end of the rotating clamping member 62 and the ejection clamping member 41 that are mutually clamped is a wedge-shaped design, and the other end of the rotating clamping member 62 is pressed on the toy base by a spring, and a clamping groove is provided on the outer side of the ejection clamping member 41. In this way, when the ejection clamping member 41 slides in the ejection slot 11, the outer side of the ejection clamping member 41 presses the rotating clamping member 62 and compresses the spring on the rotating clamping member 62, thereby making the clamping groove of the ejection clamping member 41 slide to the wedge-shaped end of the rotating clamping member 62, and the rotating clamping member 62 is clamped with the ejection clamping member 41.

[0047] Therefore, in the above embodiments, the pushing member 61 can be designed with one end extending out of the outside of the toy base to facilitate the user to press it. When the pushing member 61 is pressed by the user, the pushing member 61 pushes the rotating clamping member 62 to rotate so that the rotating clamping member 62 and the ejection clamping member 41 are disengaged, thereby realizing the unlocking action of the ejection clamping member 41. In this way, the ejection clamping member 41 can quickly slide toward the opening direction of the ejection slot 11 under the action of the ejection spring 42, and in the process of sliding of the ejection clamping member 41, the wedge block 45 of the movable clamping block 44 exits the clamping portion 43 to realize the unlocking action of the gyroscope body 50, so that the gyroscope body 50 can be quickly ejected from the clamping portion 43 and the opening of the ejection slot 11.

[0048] Reference below Figures 1 to 7 A push-type spinning top toy according to an optional embodiment of the present invention is described in detail. It is worth noting that the following description is merely illustrative and should not be construed as limiting the present invention.

[0049] See also Figures 1 to 7The present embodiment provides a push-type gyroscope toy, including a toy base, a push-drive assembly 20, a clutch transmission assembly 30, a clamping assembly 40, and a gyroscope body 50. The push-drive assembly 20 is automatically resiliently arranged on the toy base, the clutch transmission assembly 30 and the clamping assembly 40 are respectively arranged on the toy base, the clamping assembly 40 is used to movably clamp the gyroscope body 50, the push-drive assembly 20 is drivingly connected to the clutch transmission assembly 30, and the clutch transmission assembly 30 and the gyroscope body 50 are clutchably connected to each other; when the push-drive assembly 20 is pressed by an external force, the push-drive assembly 20 drives the clutch transmission assembly 30 to rotate, and causes the clutch transmission assembly 30 to be transmission-connected to the gyroscope body 50; when the external force is removed, the push-drive assembly 20 automatically rebounds and drives the clutch transmission assembly 30 to rotate in the opposite direction, and causes the clutch transmission assembly 30 and the gyroscope body 50 to separate from each other.

[0050] Specifically, in this embodiment, the pressing drive assembly 20 includes a pressing housing 21, a pressing arc rod 22, a rebound return torsion spring 23, and a pressing rotation gear 24. The toy base is provided with an arc-shaped limiting groove for the pressing housing 21 to slide. The pressing housing 21 is connected to the pressing arc rod 22. The pressing arc rod 22 is twistably disposed in the toy base via the rebound return torsion spring 23. The pressing rotation gear 24 is rotatably disposed in the toy base. The pressing arc rod 22 is meshed and connected with the pressing rotation gear 24. The pressing rotation gear 24 is drivingly connected to the clutch transmission assembly 30. The pressing arc rod 22 is provided with arc-shaped teeth. The pressing rotation gear 24 includes a coaxially arranged pressing connection gear and a pressing ring gear. The pressing connection gear is meshed and connected with the arc-shaped teeth. The pressing ring gear is drivingly connected to the clutch transmission assembly 30.

[0051] Furthermore, in this embodiment, the clutch transmission assembly 30 includes a dual-gear transmission shaft 31 and a clutch gear 34 box. The dual-gear transmission shaft 31 is rotatably arranged in the toy base. The two ends of the dual-gear transmission shaft 31 are respectively coaxially rigidly connected with drive gears 32. One of the drive gears 32 is meshed with the press-rotate gear 24 of the press-drive assembly 20, and the other drive gear 32 is meshed with the clutch gear 34 box. The clutch gear 34 box is clutchably connected to the gyroscope body 50. The clutch gear 34 includes a gear box, a driving gear 33, and a clutch gear 34. The driving gear 33 is rotatably disposed in the gear box and meshes with the adjacent driving gear 32. The gear box is provided with an arcuate slot, and the clutch gear 34 is slidably disposed in the arcuate slot and meshes with the driving gear 33. When the clutch gear 34 slides to the end of the arcuate slot near the gyro body 50, the clutch gear 34 meshes with the gyro body 50. When the clutch gear 34 slides to the end of the arcuate slot away from the gyro body 50, the clutch gear 34 separates from the gyro body 50. In addition, the gyro body 50 of this embodiment includes a coaxial gyro shaft 51, to which a gyro gear 52 is coaxially rigidly connected. In this way, when the gyro body 50 is movably clamped on the clamping assembly 40, the gyro gear 52 on the gyro body 50 can be clutched with the clutch gear 34.

[0052] Therefore, according to the push-type gyroscope toy of this embodiment, the push-type gyroscope toy can rotate by applying a pressing force to the push-type gyroscope toy 20, and then the push-type gyroscope toy 20 drives the clutch transmission assembly 30 to rotate, and makes the clutch transmission assembly 30 connected to the gyroscope body 50, thereby driving the gyroscope body 50 to rotate; when the pressing force is released, the push-type gyroscope toy 20 can automatically rebound and reset. During the automatic reset of the push-type gyroscope toy 20, the push-type gyroscope toy 20 drives the clutch transmission assembly 30 to rotate in the opposite direction, and makes the clutch transmission assembly 30 and the gyroscope body 50 separate from each other, so as to prevent the clutch transmission assembly 30 from applying a reverse force to the gyroscope body 50 and avoid the gyroscope body 50 from causing resistance to the automatic rebound reset of the push-type gyroscope toy; that is, by repeatedly pressing the push-type gyroscope toy multiple times, the gyroscope body 50 can be continuously driven to rotate, which can not only effectively improve the fun and entertainment of the gyroscope toy, but also provide a certain stress relief effect for the user during the pressing process.

[0053] Reference below Figures 1 to 7 A push-type spinning top toy according to an optional embodiment of the present invention is described in detail. It is worth noting that the following description is merely illustrative and should not be construed as limiting the present invention.

[0054] See also Figures 1 to 7The present embodiment provides a push-type gyroscope toy, including a toy base, a push-drive assembly 20, a clutch transmission assembly 30, a clamping assembly 40, and a gyroscope body 50. The push-drive assembly 20 is automatically resiliently arranged on the toy base, the clutch transmission assembly 30 and the clamping assembly 40 are respectively arranged on the toy base, the clamping assembly 40 is used to movably clamp the gyroscope body 50, the push-drive assembly 20 is drivingly connected to the clutch transmission assembly 30, and the clutch transmission assembly 30 and the gyroscope body 50 are clutchably connected to each other; when the push-drive assembly 20 is pressed by an external force, the push-drive assembly 20 drives the clutch transmission assembly 30 to rotate, and causes the clutch transmission assembly 30 to be transmission-connected to the gyroscope body 50; when the external force is removed, the push-drive assembly 20 automatically rebounds and drives the clutch transmission assembly 30 to rotate in the opposite direction, and causes the clutch transmission assembly 30 and the gyroscope body 50 to separate from each other.

[0055] Specifically, in this embodiment, the pressing drive assembly 20 includes a pressing housing 21, a pressing arc rod 22, a rebound return torsion spring 23, and a pressing rotation gear 24. The toy base is provided with an arc-shaped limiting groove for the pressing housing 21 to slide. The pressing housing 21 is connected to the pressing arc rod 22. The pressing arc rod 22 is twistably disposed in the toy base via the rebound return torsion spring 23. The pressing rotation gear 24 is rotatably disposed in the toy base. The pressing arc rod 22 is meshed and connected with the pressing rotation gear 24. The pressing rotation gear 24 is drivingly connected to the clutch transmission assembly 30. The pressing arc rod 22 is provided with arc-shaped teeth. The pressing rotation gear 24 includes a coaxially arranged pressing connection gear and a pressing ring gear. The pressing connection gear is meshed and connected with the arc-shaped teeth. The pressing ring gear is drivingly connected to the clutch transmission assembly 30.

[0056] Furthermore, in this embodiment, the clutch transmission assembly 30 includes a dual-gear transmission shaft 31 and a clutch gear 34 box. The dual-gear transmission shaft 31 is rotatably arranged in the toy base. The two ends of the dual-gear transmission shaft 31 are respectively coaxially rigidly connected with drive gears 32. One of the drive gears 32 is meshed with the press-rotate gear 24 of the press-drive assembly 20, and the other drive gear 32 is meshed with the clutch gear 34 box. The clutch gear 34 box is clutchably connected to the gyroscope body 50. Among them, the clutch gear 34 box includes a gear box, a driving gear 33, a clutch gear 34, and a driven gear 35. The driving gear 33 is rotatably arranged in the gear box, and the driving gear 33 is meshed and connected with the adjacent driving gear 32. An arc groove is provided in the gear box, and the clutch gear 34 is slidably arranged in the arc groove, and the clutch gear 34 is meshed and connected with the driving gear 33; the driven gear 35 is rotatably arranged in the gear box, and the driven gear 35 is located between the clutch gear 34 and the gyro body 50, and the driven gear 35 is meshed and connected with the gyro body 50; when the clutch gear 34 slides to one end of the arc groove close to the driven gear 35, the clutch gear 34 is meshed and connected with the driven gear 35, and when the clutch gear 34 slides to one end of the arc groove away from the driven gear 35, the clutch gear 34 is separated from the driven gear 35. In addition, the gyro body 50 of this embodiment includes a coaxially designed gyro shaft 51, and a gyro gear 52 is coaxially and rigidly connected to the gyro shaft 51. In this way, when the gyro body 50 is movably clamped on the clamping assembly 40, the gyro gear 52 on the gyro body 50 can be clutched and connected with the driven gear 35.

[0057] In addition, in this embodiment, the clamping assembly 40 includes an ejection clamping member 41 and a movable clamping block 44. A U-shaped clamping portion 43 is provided in the ejection clamping member 41. The ejection clamping member 41 is slidably disposed in the ejection slot 11. One end of the ejection spring 42 abuts against an end of the ejection clamping member 41 away from the opening of the clamping portion 43. The opening direction of the clamping portion 43 is the same as the opening direction of the ejection slot 11. The movable clamping block 44 is telescopically disposed in the ejection clamping member 41, and a wedge block 45 is provided on the movable clamping block 44. The wedge block 45 can extend into or out of the clamping portion 43, and the wedge block 45 and the clamping portion 43 are used together to movably clamp the gyro body 50. When the ejection clamping member 41 slides to the end of the ejection slot 11 away from its opening, the trigger assembly 60 cooperates with the ejection clamping member 41 to engage. Among them, the ejection clamping member 41 is provided with a through slot connecting the clamping portion 43 and the ejection slot 11, and the movable clamping block 44 is rotatably arranged in the through slot, and a protrusion is provided in the ejection slot 11, which extends into the through slot; when the ejection clamping member 41 slides to the end of the ejection slot 11 away from its opening and engages with the trigger assembly 60, the protrusion presses the movable clamping block 44 and makes the wedge block 45 on the movable clamping block 44 extend into the clamping portion 43, and the wedge block 45 and the clamping portion 43 jointly clamp the gyro body 50; when the ejection clamping member 41 slides toward the open end of the ejection slot 11, the movable clamping block 44 separates from the protrusion and makes the wedge block 45 on the movable clamping block 44 exit the clamping portion 43, and the gyro body 50 can be ejected from the opening of the clamping portion 43 and the opening of the ejection slot 11. It can be understood that, in these embodiments, such a structural design is adopted, so that when the ejection clamp 41 is engaged with the trigger assembly 60 in the ejection slot 11, the gyro body 50 can be movably clamped in the ejection clamp 41, and the ejection spring 42 is in a compressed state; when the ejection clamp 41 and the trigger assembly 60 are disengaged, the ejection clamp 41 slides rapidly in the ejection slot 11 under the elastic force of the ejection spring 42. During the sliding process, the wedge block 45 of the movable clamp can withdraw from the clamping portion 43 by utilizing the ingenious design of the movable clamping block 44 and the clamping portion 43, so that the gyro body 50 can be ejected from the opening of the clamping portion 43 and the opening of the ejection slot 11.

[0058] To facilitate the cooperation between the gyro body 50 and the clamping portion 43, in this embodiment, the gyro shaft 51 on the gyro body 50 is coaxially rigidly connected to a limit ring 53. The limit ring 53 is located between the gyro body 50 and the gyro gear 52 and is spaced apart from the gyro gear 52. In this way, when the gyro shaft 51 on the gyro body 50 extends from the opening of the clamping portion 43 to the inner end of the clamping portion 43, the limit ring 53 on the gyro shaft 51 can abut against the top of the clamping portion 43. At the same time, the gyro gear 52 on the gyro shaft 51 is clutched and connected to the clutch transmission assembly 30. In addition, the wedge block 45 of the movable clamping block 44 limits the gyro shaft 51 of the gyro body 50 to prevent the gyro body 50 from sliding out of the clamping portion 43 when rotating circumferentially.

[0059] Furthermore, in this embodiment, the trigger assembly 60 includes a pushing piece 61 and a rotating clamping piece 62. The pushing piece 61 can be telescopically arranged on the toy base, and the rotating clamping piece 62 can be rotatably arranged in the toy base. One end of the rotating clamping piece 62 is engaged with the ejection clamping piece 41, and the other end of the rotating clamping piece 62 is engaged with the pushing piece 61; the pushing piece 61 is used to drive the rotating clamping piece 62 to rotate and make the rotating clamping piece 62 disengage and separate from the ejection clamping piece 41. It can be understood that in these embodiments, the pushing member 61 is retractably arranged on the toy base through a spring, the middle part of the rotating clamping member 62 is rotatably sleeved on the toy base, and the end of the rotating clamping member 62 and the ejection clamping member 41 that are mutually clamped is a wedge-shaped design, and the other end of the rotating clamping member 62 is pressed on the toy base by a spring, and a clamping groove is provided on the outer side of the ejection clamping member 41. In this way, when the ejection clamping member 41 slides in the ejection slot 11, the outer side of the ejection clamping member 41 presses the rotating clamping member 62 and compresses the spring on the rotating clamping member 62, thereby making the clamping groove of the ejection clamping member 41 slide to the wedge-shaped end of the rotating clamping member 62, and the rotating clamping member 62 is clamped with the ejection clamping member 41. In addition, the pushing piece 61 of this embodiment can be designed to have one end extending out of the outside of the toy base to facilitate the user to press it. When the pushing piece 61 is pressed by the user, the pushing piece 61 pushes the rotating clamping piece 62 to rotate so that the rotating clamping piece 62 and the ejection clamping piece 41 are disengaged, thereby realizing the unlocking action of the ejection clamping piece 41. In this way, the ejection clamping piece 41 can slide quickly toward the opening direction of the ejection slot 11 under the action of the ejection spring 42, and in the process of sliding of the ejection clamping piece 41, the wedge block 45 of the movable clamping block 44 exits the clamping portion 43 to realize the unlocking action of the gyroscope body 50, so that the gyroscope body 50 can be quickly ejected from the clamping portion 43 and the opening of the ejection slot 11.

[0060] Therefore, according to the push-type gyroscope toy of this embodiment, the push-type gyroscope toy 20 can be rotated by applying a pressing force to the push-type gyroscope toy 20, and then the clutch transmission assembly 30 is driven to rotate by the push-type gyroscope toy 20, and the clutch transmission assembly 30 is connected to the gyroscope body 50 for transmission, thereby driving the gyroscope body 50 to rotate; when the pressing force is released, the push-type gyroscope toy 20 can automatically rebound and reset. During the process of the push-type gyroscope toy 20 automatically resetting, the push-type gyroscope toy 20 drives the clutch transmission assembly 30 to rotate in the opposite direction, and separates the clutch transmission assembly 30 from the gyroscope body 50, so as to prevent the clutch transmission assembly 30 from applying a reverse force to the gyroscope body 50 and avoid the gyroscope body 50 from causing resistance to the automatic rebound and reset of the push-type gyroscope toy 20; further, By pressing the trigger assembly 60, the trigger assembly 60 and the clamping assembly 40 can be disengaged. Under the action of the ejection spring 42, the clamping assembly 40 can quickly slide toward the opening direction of the ejection slot 11, and the gyro body 50 can be ejected from the opening of the ejection slot 11; that is, according to the sliding gyro toy of the embodiment of the present invention, not only can the gyro body 50 be continuously driven to rotate by repeatedly pressing the pressing drive assembly 20 multiple times, so that the gyro body 50 can reach a state of explosive spinning, but the trigger assembly 60 can also be triggered to cause the ejection spring 42 to drive the clamping assembly 40 to slide quickly, and eject the gyro body 50 from the ejection slot 11, further enriching the play function of the gyro body 50 and making the gyro toy more interesting and entertaining.

[0061] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "left", "right", "top", "bottom", "inside", "outside", "axial", "radial", "circumferential", etc., indicating the orientation or position relationship, are based on the orientation or position relationship shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, they cannot be understood as limiting the present invention.

[0062] The above embodiments represent only a few implementations of the present invention. While the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the push-type spinning top toy of the present invention. It should be noted that those skilled in the art will readily appreciate that variations and improvements can be made without departing from the scope of the present invention, and all such variations and improvements fall within the scope of protection of the present invention.

Claims

1. A push-type spinning top toy, characterized in that: The toy comprises a toy base, a push-drive assembly, a clutch transmission assembly, a clamping assembly, and a gyroscope body. The push-drive assembly is automatically resiliently arranged on the toy base. The clutch transmission assembly and the clamping assembly are respectively arranged on the toy base. The clamping assembly is used to movably clamp the gyroscope body. The push-drive assembly is drivingly connected to the clutch transmission assembly. The clutch transmission assembly is detachably connected to the gyroscope body. When the pressing drive assembly is pressed by an external force, the pressing drive assembly drives the clutch transmission assembly to rotate, and makes the clutch transmission assembly connected to the gyroscope body; when the external force is removed, the pressing drive assembly automatically rebounds and drives the clutch transmission assembly to rotate in the opposite direction, and makes the clutch transmission assembly and the gyroscope body separate from each other.

2. The push-type spinning top toy according to claim 1, characterized in that: The toy base is provided with an ejection slot, which is a slot structure with one end open; the clamping assembly is slidably disposed in the ejection slot, and a ejection spring is disposed between the end of the clamping assembly away from the opening of the ejection slot and the toy body; the toy base is telescopically provided with a trigger assembly, and when the clamping assembly slides to the end of the ejection slot away from the opening thereof, the trigger assembly engages with the clamping assembly, and the ejection spring is in a compressed state; When the trigger assembly is triggered, the clamping assembly is separated from the trigger assembly, and the ejection spring drives the clamping assembly to slide toward the opening of the ejection slot and ejects the gyro body from the opening of the ejection slot.

3. The push-type spinning top toy according to claim 1 or 2, characterized in that: The clutch transmission assembly includes a dual-gear transmission shaft and a clutch gear box. The dual-gear transmission shaft is rotatably arranged in the toy base. The two ends of the dual-gear transmission shaft are respectively coaxially and rigidly connected with drive gears. One of the drive gears is meshed and connected with the press drive assembly, and the other drive gear is meshed and connected with the clutch gear box. The clutch gear box is clutchably connected to the gyroscope body.

4. The push-type spinning top toy according to claim 3, characterized in that: The clutch gearbox includes a gear box, a driving gear, and a clutch gear. The driving gear is rotatably disposed in the gear box and is meshed with the adjacent driving gear. An arcuate groove is provided in the gear box. The clutch gear is slidably disposed in the arcuate groove and is meshed with the driving gear. When the clutch gear slides to the end of the arc-shaped slot close to the gyroscope body, the clutch gear is engaged with the gyroscope body; when the clutch gear slides to the end of the arc-shaped slot away from the gyroscope body, the clutch gear is separated from the gyroscope body.

5. The push-type spinning top toy according to claim 4, characterized in that: The clutch gear box also includes a passive gear, which is rotatably arranged in the gear box and located between the clutch gear and the gyroscope body. The passive gear is meshed and connected with the gyroscope body. When the clutch gear slides to the end of the arc-shaped slot close to the passive gear, the clutch gear is meshed and connected with the passive gear. When the clutch gear slides to the end of the arc-shaped slot away from the passive gear, the clutch gear is separated from the passive gear.

6. The push-type spinning top toy according to claim 3, characterized in that: The pressing drive assembly includes a pressing shell, a pressing arc rod, a rebound reset torsion spring, and a pressing rotating gear. The toy base is provided with an arc-shaped limiting groove for the pressing shell to slide. The pressing shell is connected to the pressing arc rod. The pressing arc rod is torsionally arranged in the toy base through the rebound reset torsion spring. The pressing rotating gear is rotatably arranged in the toy base, and the pressing arc rod is meshed with the pressing rotating gear. The pressing rotating gear is meshed with one of the driving gears of the dual-gear transmission shaft.

7. The push-type spinning top toy according to claim 6, characterized in that: The pressing arc rod is provided with arc teeth, and the pressing rotating gear includes a coaxially arranged pressing connecting gear and a pressing ring tooth. The pressing connecting gear is meshed and connected with the arc teeth, and the pressing ring tooth is meshed and connected with one of the driving gears of the dual-gear transmission shaft.

8. The push-type spinning top toy according to claim 2, characterized in that: The clamping assembly includes an ejection clamping piece and an active clamping block. The ejection clamping piece is provided with a U-shaped clamping portion. The ejection clamping piece is slidably arranged in the ejection slot. One end of the ejection spring abuts against an end of the ejection clamping piece away from the opening of the clamping portion. The opening direction of the clamping portion is the same as the opening direction of the ejection slot. The active clamping block is telescopically arranged in the ejection clamping piece, and a wedge block is provided on the active clamping block. The wedge block can be extended into or out of the clamping portion, and the wedge block and the clamping portion are used together to movably clamp the gyroscope body. When the ejection clamping piece slides to the end of the ejection slot away from its opening, the trigger assembly cooperates and engages with the ejection clamping piece.

9. The push-type spinning top toy according to claim 8, characterized in that: The ejection clamp is provided with a through slot connecting the clamping portion and the ejection slot, the movable block is rotatably arranged in the through slot, and the ejection slot is provided with a protrusion, which extends into the through slot; when the ejection clamp slides to the end of the ejection slot away from its opening and engages with the trigger assembly, the protrusion presses the movable block and makes the wedge block on the movable block extend into the clamping portion, and the wedge block and the clamping portion jointly movably clamp the gyroscope body; when the ejection clamp slides toward the open end of the ejection slot, the movable block separates from the protrusion and makes the wedge block on the movable block exit the clamping portion, and the gyroscope body can be ejected from the opening of the clamping portion and the opening of the ejection slot.

10. The push-type spinning top toy according to claim 8, characterized in that: The trigger assembly includes a pushing piece and a rotating clamping piece, wherein the pushing piece is retractably arranged on the toy base, and the rotating clamping piece is rotatably arranged in the toy base, one end of the rotating clamping piece is engaged with the ejection clamping piece, and the other end of the rotating clamping piece is engaged with the pushing piece; The pushing member is used to drive the rotating clamping member to rotate and enable the rotating clamping member to be disengaged and separated from the ejection clamping member.

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