Multilayer mahjong pushing and decompression toy capable of sliding along universal track

Abstract

The utility model discloses a multi-layer tile pushing and decompression toy capable of sliding along a universal track. The multi-layer tile pushing and decompression toy comprises a bottom-layer pushing block body, a top-layer pushing block body and one or more middle pushing block bodies. The bottom face and the top face of the middle push block body are provided with an X-direction guide groove and a Y-direction guide groove respectively, and the X-direction guide groove and the Y-direction guide groove enable the top-layer push block body and the bottom-layer push block body to slide in different directions. First guide rail assemblies which are connected in a matched mode are arranged on the top face of the bottom-layer push block body and the X-direction guide groove of the middle push block body, and second guide rail assemblies which are connected in a matched mode are arranged on the bottom face of the top-layer push block body and the Y-direction guide groove of the middle push block body. The bottom-layer push block body, the middle push block body and the top-layer push block body are provided with sliding sounding structures which generate sound when sliding mutually. The bottom face of the middle push block body slides along the X-direction guide groove, the top-layer push block body slides along the Y-direction guide groove in the top face of the middle push block body, and therefore the top-layer push block body can slide in a universal track on the two-dimensional plane of the top-layer push block body.

Description

Technical Field

[0001] The utility model relates to the technical field of decompression toys, in particular to a multi-layer card-pushing decompression toy capable of sliding along a universal trajectory. Background Art

[0002] With the rapid development of social economy and urbanization, more and more people work and live in big cities. The pace of life in big cities is very fast, and people need to face various pressures in work and life. When the pressure is too high or excessive, it will affect physical and mental health. Therefore, when people have psychological pressure, they often try various ways to relieve the pressure in order to adjust their mood and mental state. Decompression toy products of types such as extrusion, smashing, kneading, rotation or pushing are launched on the market. The decompression toys are mainly used to enable users to play with the movable parts on the toys at any time, bringing rhythmic certain stimuli to vision, touch or hearing, so as to relax the brain from the tense state and release the pressure. Among the various types of decompression toys, the card-pushing decompression toys, such as a decompression toy that makes a sliding impact sound disclosed in the utility model authorization announcement number: CN221513500U, in which the base and the sliding member move linearly back and forth. Another example is a decompression toy that makes a magnetic sliding sound disclosed in the utility model authorization announcement number: CN221513501U, in which the upper shell and the lower shell slide linearly back and forth, and a sound is generated by the attraction of magnetic parts. In the existing card-pushing decompression toys, usually there is only one moving trajectory of linear movement back and forth, and the playable operations for users are relatively single and dull. On the other hand, the magnetic parts actually used are strong magnets, and it is relatively difficult to push, and the use experience needs to be improved. Therefore, the utility model proposes an innovative solution for the existing card-pushing decompression toys to solve the above problems. Content of the Utility Model

[0003] In view of this, the utility model provides a multi-layer card-pushing decompression toy capable of sliding along a universal trajectory, which is composed of a multi-layer pushing block body. Through the X guiding grooves and Y guiding grooves in two different directions on the bottom surface and the top surface of the middle pushing block body, the top pushing block body can slide along a universal trajectory on its two-dimensional plane, improving the use experience of the decompression toy.

[0004] The technical solution disclosed by the present utility model is a multi-layer card-pushing decompression toy with universal trajectory sliding, which includes a bottom pushing block body, a top pushing block body, and one or more intermediate pushing block bodies. The intermediate pushing block bodies are stacked between the bottom pushing block body and the top pushing block body. Among them, X guiding grooves and Y guiding grooves are respectively provided on the bottom surface and the top surface of the intermediate pushing block body. The X guiding grooves and Y guiding grooves enable the top pushing block body and the bottom pushing block body connected to the upper and lower surfaces of the intermediate pushing block body to slide in different directions. A first guide rail assembly is provided at the X guiding groove of the top surface of the bottom pushing block body and the intermediate pushing block body in a matching connection manner, and a second guide rail assembly is provided at the Y guiding groove of the bottom surface of the top pushing block body and the intermediate pushing block body in a matching connection manner. The bottom pushing block body, the intermediate pushing block body, and the top pushing block body are provided with a sliding sound-making structure that produces sound when sliding relative to each other.

[0005] Preferably, both the first guide rail assembly and the second guide rail assembly adopt micro linear guide rails. The micro linear guide rail includes a guide rail and a slider. Guide rail grooves are respectively provided on both sides of the guide rail. The slider is provided with a sliding groove for connecting the guide rail. Slider grooves are respectively provided on both sides of the sliding groove. A plurality of balls are provided in the guide rail grooves and the slider grooves. The plurality of balls are provided with a ball fixing bracket, and the plurality of balls are evenly and rotatably fixed on the ball fixing bracket through the ball fixing bracket.

[0006] In one of the solutions, when the intermediate pushing block body is one piece, the sliding sound-making structure is that bottom impact sound-making parts are respectively provided on both sides of the X guiding groove on the bottom surface of the intermediate pushing block body, and top impact sound-making parts are respectively provided on both sides of the Y guiding groove on the top surface of the intermediate pushing block body. A row of continuous spherical grooves are provided on the surfaces of the bottom impact sound-making parts and the top impact sound-making parts. Grooves are provided at the positions of the bottom pushing block body and the top pushing block body corresponding to the bottom impact sound-making parts and the top impact sound-making parts. Compression springs are installed in the grooves. Metal beads are provided at the upper ends of the compression springs. The metal beads are elastically abutted against the spherical grooves through the compression springs.

[0007] In another solution, when there are multiple intermediate pushing block bodies, the multiple intermediate pushing block bodies are stacked. The sliding sound-making structure is as follows for the multiple intermediate pushing block bodies:

[0008] Among them, one intermediate pushing block body stacked on the bottom pushing block body is the sub-bottom intermediate pushing block body. Bottom impact sound-making parts are respectively provided on both sides of the X guiding groove on the bottom surface of the sub-bottom intermediate pushing block body, and top impact sound-making parts are respectively provided on both sides of the Y guiding groove on the top surface of the sub-bottom intermediate pushing block body. A row of continuous spherical grooves are provided on the surfaces of the bottom impact sound-making parts and the top impact sound-making parts;

[0009] On both sides of the Y - guide groove on the top surface of each of the remaining multiple intermediate pusher block bodies except the sub - bottom intermediate pusher block body, there is a top impact sound - generating part. On the surface of the top impact sound - generating part, there is a row of continuous multiple spherical grooves. And on the bottom surface of these intermediate pusher block bodies, corresponding to the top impact sound - generating part, there is a groove, and a compression spring is installed in the groove, and a metal bead is provided at the upper end of the compression spring;

[0010] In the positions of the bottom pusher block body and the top pusher block body corresponding to the bottom impact sound - generating part and the top impact sound - generating part, there are grooves, and a compression spring is installed in the grooves, and a metal bead is provided at the upper end of the compression spring. The metal bead is elastically abutted against the spherical groove through the compression spring.

[0011] Preferably, the metal bead is made of a steel bead or a zirconia bead.

[0012] Preferably, both the bottom impact sound - generating part and the top impact sound - generating part are flat and thin strip - shaped metal sheets. There are cavities communicating with each other at the rear side and the bottom of the flat and thin strip - shaped metal sheet. The cavity is a vibration sound cavity generated when the flat and thin strip - shaped metal sheet is elastically impacted by the metal bead.

[0013] In one solution, the intermediate pusher block body is made of a metal material. The flat and thin strip - shaped metal sheet is formed by milling out the cavity position by CNC, and the flat and thin strip - shaped metal sheet is integrally formed with the intermediate pusher block body.

[0014] In another solution, on both sides of the X - guide groove and both sides of the Y - guide groove of the intermediate pusher block body, there are milling spaces. There are screw connection positions at both ends of the milling spaces. The flat and thin strip - shaped metal sheet is fixed by screws in the milling spaces. The flat and thin strip - shaped metal sheet and the intermediate pusher block body are of a split - type structure. Vacancies are left at the left and right sides and the bottom of the flat and thin strip - shaped metal sheet in the milling spaces to form a vibration sound cavity generated when the flat and thin strip - shaped metal sheet is elastically impacted by the metal bead.

[0015] As a preferred solution, the X - guide groove and the Y - guide groove on the bottom surface and the top surface of the intermediate pusher block body are respectively in the east - west direction and the north - south direction, and the X - guide groove and the Y - guide groove respectively cross the center point positions of the bottom surface and the top surface.

[0016] As a preferred solution, the bottom pusher block body, the intermediate pusher block body, and the top pusher block body are all in a circular block shape. Limited convex blocks are respectively provided in the middle parts of the top surface of the bottom pusher block body and the bottom surface of the top pusher block body.

[0017] The multi - layer card - pushing decompression toy with universal - trajectory sliding disclosed by the present utility model has the beneficial effects that:

[0018] 1. By designing a card-pushing decompression toy composed of multiple layers of pushing block bodies, with X guiding grooves and the first guide rail assembly respectively designed on the bottom and top surfaces of the middle pushing block body, and Y guiding grooves and the second guide rail assembly, it realizes the X-direction sliding of the middle pushing block body, driving the X-direction movement of the top pushing block body on its plane. At the same time, the top pushing block body slides in the Y direction along the Y guiding groove on the top surface of the middle pushing block body it is connected to. The X direction and Y direction together form the universal sliding of the top pushing block body in its two-dimensional plane, thus optimizing the problem of the single and rigid sliding trajectory of the card-pushing decompression toy and enhancing the user experience of consumers.

[0019] 2. For the card-pushing decompression toy designed in this solution, the connection of the bottom pushing block body, the middle pushing block body, and the top pushing block body is realized by designing the first guide rail assembly and the second guide rail assembly. By setting the guide rails, the sliding of the middle pushing block body and the top pushing block body is smoother and more stable, and the pushing feel is good.

[0020] 3. The sliding sound-making structure of the card-pushing decompression toy designed in this solution. The sliding sound-making structure is respectively designed with a bottom impact sound-making part and a top impact sound-making part on the middle pushing block body. The bottom impact sound-making part and the top impact sound-making part adopt a flat and thin strip-shaped metal sheet with a row of continuous spherical grooves evenly arranged on the surface. A cavity is provided at the rear and bottom of the flat and thin strip-shaped metal sheet as a sound cavity for the metal beads of the compression spring to impact the flat and thin strip-shaped metal sheet to vibrate and make sound, making the sound clearer. Description of the Drawings

[0021] Figure 1 It is a schematic diagram of the structural decomposition of the three-layer embodiment of the multi-layer card-pushing decompression toy of the present utility model.

[0022] Figure 2 It is a schematic diagram of the bottom surface structure of the top pushing block body of the three-layer embodiment of the present utility model.

[0023] Figure 3 It is a schematic diagram of the top surface structure of the middle pushing block body of the three-layer embodiment of the present utility model.

[0024] Figure 4 It is a schematic diagram of the bottom surface structure of the middle pushing block body of the three-layer embodiment of the present utility model.

[0025] Figure 5 It is a schematic diagram of the top surface structure of the bottom pushing block body of the three-layer embodiment of the present utility model.

[0026] Figure 6 It is a schematic diagram of the sectional structure of the overall structure of the three-layer embodiment of the present utility model along the X direction.

[0027] Figure 7 It is a schematic diagram of the sectional structure of the overall structure of the three-layer embodiment of the present utility model along the Y direction.

[0028] Figure 8 Schematic diagram of the overall structure and sliding direction of the three - layer embodiment of the present utility model. Specific embodiments

[0029] Next, the technical solutions in the embodiments of the present disclosure will be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are only partial embodiments of the present disclosure, rather than all embodiments. Based on the embodiments of the present disclosure, all other embodiments obtained by those of ordinary skill in the art without creative efforts also belong to the scope of protection of the present disclosure.

[0030] Please refer to Figures 1 to 8 , which is an embodiment of a multi - layer card - pushing decompression toy with universal - trajectory sliding provided by this technical solution and adopting a three - layer push - block body.

[0031] A multi - layer card - pushing decompression toy with universal - trajectory sliding disclosed by the present utility model includes a bottom - layer push - block body 1, a top - layer push - block body 5, and one or more intermediate push - block bodies 3, and the intermediate push - block bodies 3 are stacked between the bottom - layer push - block body 1 and the top - layer push - block body 5.

[0032] Refer to Figures 1 to 4 , on the bottom surface and the top surface of the intermediate push - block body 3, there are respectively an X - direction guide groove 301 and a Y - direction guide groove 302. The X - direction guide groove 301 and the Y - direction guide groove 302 are for enabling the top - layer push - block body 5 and the bottom - layer push - block body 1 connected to the upper and lower surfaces of the intermediate push - block body 3 to slide in different directions.

[0033] At the X - direction guide groove 301 of the top surface of the bottom - layer push - block body 1 and the intermediate push - block body 3, there is a first guide - rail assembly 2 connected in a matching manner, and at the Y - direction guide groove 302 of the bottom surface of the top - layer push - block body 5 and the intermediate push - block body 3, there is a second guide - rail assembly 4 connected in a matching manner.

[0034] The bottom - layer push - block body 1, the intermediate push - block body 3, and the top - layer push - block body 5 are provided with a sliding sound - generating structure that makes a sound when sliding relative to each other.

[0035] Refer to Figures 1 to 7 , both the first guide - rail assembly 2 and the second guide - rail assembly 4 adopt micro linear guide rails. The micro linear guide rail includes a guide rail 241 and a slider 242. On both sides of the guide rail 241, there are respectively guide - rail grooves 2411. The slider 242 is provided with a sliding groove for connecting the guide rail 241. On both sides of the sliding groove, there are respectively slider grooves 2421. Inside the guide - rail grooves 2411 and the slider grooves 2421, there are multiple balls 243. The multiple balls 243 are provided with a ball fixing bracket 244, and the multiple balls 243 are uniformly and rotatably fixed on the ball fixing bracket 244 through the ball fixing bracket 244.

[0036] In the embodiment where the middle push block body 3 is a single piece, the sliding sound - generating structure is that on both sides of the X - guide groove 301 on the bottom surface of the middle push block body 3, there are respectively bottom impact sound - generating parts 303, and on both sides of the Y - guide groove 302 on the top surface of the middle push block body 3, there are respectively top impact sound - generating parts 304. On the surfaces of both the bottom impact sound - generating part 303 and the top impact sound - generating part 304, there is a row of continuous multiple spherical grooves 3001. At the positions of the bottom - layer push block body 1 and the top - layer push block body 5 corresponding to the bottom impact sound - generating part 303 and the top impact sound - generating part 304, there are grooves 100. In the grooves 100, compression springs 6 are installed, and at the upper end of the compression spring 6, there are metal beads 7. The metal beads 7 are elastically abutted against the spherical grooves 3001 through the compression springs 6.

[0037] For the embodiment where multiple middle push block bodies 3 are used, since the multiple middle push block bodies 3 are also in a stacked connection structure, the sliding sound - generating structure will be adjusted adaptively. That is, in the multiple middle push block bodies 3:

[0038] One middle push block body 3 stacked on the bottom - layer push block body 1 is the sub - bottom - layer middle push block body. On both sides of the X - guide groove 301 on the bottom surface of the sub - bottom - layer middle push block body, there are respectively bottom impact sound - generating parts 303, and on both sides of the Y - guide groove 302 on the top surface of the sub - bottom - layer middle push block body, there are respectively top impact sound - generating parts 304. On the surfaces of both the bottom impact sound - generating part 303 and the top impact sound - generating part 304, there is a row of continuous multiple spherical grooves 3001;

[0039] On both sides of the Y - guide groove 302 on the top surfaces of the remaining multiple middle push block bodies 3 except the sub - bottom - layer middle push block body, there are respectively top impact sound - generating parts 304. On the surface of the top impact sound - generating part 304, there is a row of continuous multiple spherical grooves 3001, and at the bottom surfaces of these middle push block bodies 3 corresponding to the top impact sound - generating part 304, there are grooves 100. In the grooves 100, compression springs 6 are installed, and at the upper end of the compression spring 6, there are metal beads 7;

[0040] At the positions of the bottom - layer push block body 1 and the top - layer push block body 5 corresponding to the bottom impact sound - generating part 303 and the top impact sound - generating part 304, there are grooves 100. In the grooves 100, compression springs 6 are installed, and at the upper end of the compression spring 6, there are metal beads 7. The metal beads 7 are elastically abutted against the spherical grooves 3001 through the compression springs 6.

[0041] In the technical solution of the present utility model, preferably, the metal beads 7 are made of steel beads or zirconia beads.

[0042] Please refer to Figure 3 、 Figure 4, both the bottom impact sound - emitting part 303 and the top impact sound - emitting part 304 are flat and thin strip - shaped metal sheets. Cavity positions 305 that are interconnected are provided on the rear side and the bottom of the flat and thin strip - shaped metal sheet. The cavity positions 305 are vibration sound cavities generated when the flat and thin strip - shaped metal sheet is elastically impacted by the metal beads 7.

[0043] In this implementation technical solution, the middle push - block body 3 is made of metal. The flat and thin strip - shaped metal sheet is formed by milling the cavity positions 305 using CNC, and the flat and thin strip - shaped metal sheet is integrally formed with the middle push - block body 3.

[0044] In another implementation technical solution, on both sides of the X - direction guide groove 301 and both sides of the Y - direction guide groove 302 of the middle push - block body 3, there are milling empty positions. Screw connection positions are provided at both ends of the milling empty positions. The flat and thin strip - shaped metal sheet is fixed by screws in the milling empty positions. At this time, the flat and thin strip - shaped metal sheet and the middle push - block body 3 adopt a split - type design. Empty positions are left on the left and right sides and the bottom of the flat and thin strip - shaped metal sheet in the milling empty positions, forming vibration sound cavities generated when the flat and thin strip - shaped metal sheet is elastically impacted by the metal beads 7. The split - type design can enable the flat and thin strip - shaped metal sheet to produce sounds with different timbres according to different metal materials, and it is convenient to replace the flat and thin strip - shaped metal sheet made of different metal materials to achieve different timbres.

[0045] Preferably, the X - direction guide groove 301 and the Y - direction guide groove 302 on the bottom surface and the top surface of the middle push - block body 3 are respectively in the east - west direction and the north - south direction, and the X - direction guide groove 301 and the Y - direction guide groove 302 respectively cross the central point positions of the bottom surface and the top surface of the middle push - block body 3.

[0046] Preferably, the bottom - layer push - block body 1, the middle - push - block body 3, and the top - layer push - block body 5 are all in the shape of circular blocks. Limiting convex blocks 103 and 501 are respectively provided in the middle of the top surface of the bottom - layer push - block body 1 and the bottom surface of the top - layer push - block body 5. Adopting a circular - block shape is beneficial for holding and playing with by hand, and the hand feeling is better.

[0047] Please refer to Figure 1 、 Figure 4 、 Figure 5 , an installation slot position 101 for installing the installation guide rail 241 is provided on the bottom - layer push - block body 1, and on both sides of the installation slot position 101 are sliding grooves 102 for the guide rail 241 installed at the bottom of the middle push - block body 3 to slide.

[0048] Please refer to Figure 8, in this embodiment, the X guide grooves 301 and the first guide rail assembly 2 are respectively designed on the bottom surface and the top surface of the middle push block body 3; the Y guide grooves 302 and the second guide rail assembly 4 are provided, so as to realize the X-direction sliding of the middle push block body 3, drive the X-direction movement of the top push block body 5 on its plane. At the same time, the top push block body 5 slides in the Y direction along the Y guide groove 302 on the top surface of the middle push block body 3 connected thereto. The X direction and the Y direction form the omnidirectional sliding of the top push block body 5 in its two-dimensional plane, thereby optimizing the problem of the single and rigid sliding track of the card-pushing decompression toy and improving the user experience of consumers.

[0049] It should be noted that the bottom push block body 1, the middle push block body 3 and the top push block body 5 in the embodiments of this solution can be made of metal alloy materials, or can be made of non-metallic materials such as PEEK polyetheretherketone special engineering plastics, PEI polyetherimide engineering plastics, glass fibers, and carbon fibers.

[0050] The embodiments of the present disclosure have been described above. The above description is exemplary, not exhaustive, and is not limited to the disclosed embodiments. Many modifications and variations are obvious to those of ordinary skill in the art in the technical field without departing from the scope and spirit of the described embodiments. The choice of terms used herein is intended to best explain the principles of the embodiments, the practical application, or the improvement of the technology in the market, or to enable other ordinary skill in the art in the technical field to understand the embodiments disclosed herein.

Claims

1. A multi-layer card-pushing decompression toy with universal trajectory sliding, characterized in that, Comprising: Bottom pushing block body (1); Top pushing block body (5); One or more intermediate pushing block bodies (3), the intermediate pushing block bodies (3) being stacked between the bottom pushing block body (1) and the top pushing block body (5); Wherein, the bottom surface and the top surface of the intermediate pushing block body (3) are respectively provided with an X guiding groove (301) and a Y guiding groove (302), and the X guiding groove (301) and the Y guiding groove (302) are for enabling the top pushing block body (5) and the bottom pushing block body (1) connected to the upper and lower surfaces of the intermediate pushing block body (3) to slide in different directions; A first guide rail assembly (2) is provided at the top surface of the bottom pushing block body (1) and at the X guiding groove (301) of the intermediate pushing block body (3) for mating connection, and a second guide rail assembly (4) is provided at the bottom surface of the top pushing block body (5) and at the Y guiding groove (302) of the intermediate pushing block body (3) for mating connection; The bottom pushing block body (1), the intermediate pushing block body (3) and the top pushing block body (5) are provided with a sliding sound - generating structure when sliding relative to each other.

2. The multi-layer card-pushing decompression toy with universal trajectory sliding according to claim 1, characterized in that, Both the first guide rail assembly (2) and the second guide rail assembly (4) adopt micro linear guide rails. The micro linear guide rail includes a guide rail (241) and a slider (242). Guide rail grooves (2411) are respectively provided on both sides of the guide rail (241). The slider (242) is provided with a sliding groove for connecting the guide rail (241). Slider grooves (2421) are respectively provided on both sides of the sliding groove. A plurality of balls (243) are provided in the guide rail grooves (2411) and the slider grooves (2421). The plurality of balls (243) are provided with a ball fixing bracket (244), and the plurality of balls (243) are uniformly and rotatably fixed on the ball fixing bracket (244) through the ball fixing bracket (244).

3. The multi-layer card-pushing decompression toy with universal trajectory sliding according to claim 1, characterized in that When the intermediate pushing block body (3) is one piece, the sliding sound - generating structure is that bottom impact sound - generating parts (303) are respectively provided on both sides of the X guiding groove (301) at the bottom surface of the intermediate pushing block body (3), and top impact sound - generating parts (304) are respectively provided on both sides of the Y guiding groove (302) at the top surface of the intermediate pushing block body (3). A row of continuous spherical grooves (3001) are provided on the surfaces of the bottom impact sound - generating parts (303) and the top impact sound - generating parts (304). Grooves (100) are provided at the positions of the bottom pushing block body (1) and the top pushing block body (5) corresponding to the bottom impact sound - generating parts (303) and the top impact sound - generating parts (304). Compression springs (6) are installed in the grooves (100). Metal beads (7) are provided at the upper ends of the compression springs (6), and the metal beads (7) are elastically abutted against the spherical grooves (3001) through the compression springs (6).

4. The multi-layer card-pushing decompression toy with universal trajectory sliding according to claim 1, characterized in that, When the intermediate pushing block body (3) is multiple pieces, the multiple intermediate pushing block bodies (3) are stacked. The sliding sound - generating structure is in the multiple intermediate pushing block bodies (3): One of the intermediate pusher bodies (3) stacked on the bottom pusher body (1) is the sub-bottom intermediate pusher body. On both sides of the X guide groove (301) on the bottom surface of the sub-bottom intermediate pusher body, there are bottom impact sound parts (303) respectively, and on both sides of the Y guide groove (302) on the top surface, there are top impact sound parts (304) respectively. On the surfaces of the bottom impact sound parts (303) and the top impact sound parts (304), there are a row of continuous spherical grooves (3001). On both sides of the Y guide groove (302) on the top surface of each of the remaining multiple intermediate pusher bodies (3) except the sub-bottom intermediate pusher body, there are top impact sound parts (304) respectively. On the surfaces of the top impact sound parts (304), there are a row of continuous spherical grooves (3001). And on the bottom surfaces of these intermediate pusher bodies (3), grooves (100) are provided corresponding to the top impact sound parts (304). Compression springs (6) are installed in the grooves (100), and metal beads (7) are provided at the upper ends of the compression springs (6). In the positions of the bottom pusher body (1) and the top pusher body (5) corresponding to the bottom impact sound parts (303) and the top impact sound parts (304), grooves (100) are provided. Compression springs (6) are installed in the grooves (100), and metal beads (7) are provided at the upper ends of the compression springs (6). The metal beads (7) are elastically abutted against the spherical grooves (3001) through the compression springs (6).

5. The multi-layer card-pushing decompression toy with universal trajectory sliding according to claim 3 or 4, characterized in that, The metal beads (7) are made of steel beads or zirconia beads.

6. The multi-layer card-pushing and decompressing toy with universal trajectory sliding according to claim 3 or 4, characterized in that, Both the bottom impact sound parts (303) and the top impact sound parts (304) are flat and thin strip-shaped metal sheets. Cavity positions (305) are provided at the rear side and the bottom of the flat and thin strip-shaped metal sheets and are communicated with each other. The cavity positions (305) are vibration sound cavities generated when the flat and thin strip-shaped metal sheets are elastically impacted by the metal beads (7).

7. The multi-layer pushing card decompression toy with universal trajectory sliding according to claim 6, characterized in that, The intermediate pusher body (3) is made of metal material. The flat and thin strip-shaped metal sheet is formed by milling the cavity positions (305) by CNC, and the flat and thin strip-shaped metal sheet is integrally formed with the intermediate pusher body (3).

8. The multi-layer card-pushing decompression toy with universal trajectory sliding according to claim 6, characterized in that, On both sides of the X guide groove (301) and on both sides of the Y guide groove (302) of the intermediate pusher body (3), there are milling positions. Screw connection positions are provided at both ends of the milling positions. The flat and thin strip-shaped metal sheets are fixed by screws at the milling positions. Empty spaces are left at the left and right sides and the bottom of the flat and thin strip-shaped metal sheets at the milling positions to form vibration sound cavities generated when the flat and thin strip-shaped metal sheets are elastically impacted by the metal beads (7).

9. The multi-layer pushing card decompression toy with universal trajectory sliding according to claim 1, characterized in that, The X guide groove (301) and the Y guide groove (302) on the bottom surface and the top surface of the intermediate pusher body (3) are in the east-west direction and the north-south direction respectively. The X guide groove (301) and the Y guide groove (302) cross the center point positions of the bottom surface and the top surface of the intermediate pusher body (3) respectively.

10. The multi-layer card-pushing decompression toy with universal trajectory sliding according to claim 1, characterized in that, The bottom pushing block body (1), the middle pushing block body (3), and the top pushing block body (5) are all circular blocks. Limiting bumps (103, 501) are respectively arranged in the middle of the top surface of the bottom pushing block body (1) and the bottom surface of the top pushing block body (5).

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