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

Abstract

The invention discloses a multi-layer tile pushing and decompression toy capable of sliding in 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 present application relates to the technical field of decompression toys, and particularly relates to a multi-layer push card decompression toy capable of omnibearing trajectory sliding. BACKGROUND

[0002] With the rapid development of social economy and urbanization, more and more people work and live in big cities, and the pace of life in big cities is very fast. People need to face various pressures in work and life. When the pressure is too large or too much, it will affect physical and mental health. Therefore, when people have psychological pressure, they often try various ways to relieve stress to adjust their mood and mental state. The market has launched decompression toy products of types such as squeezing, smashing, kneading, rotating or pushing, and the decompression toy is mainly used to allow users to play with the moving parts on the toy at any time and anywhere, to bring certain stimulation to the vision and touch or hearing, so as to relax the brain from the tense state and release the pressure. Among the various decompression toys, the push card type decompression toy, such as the decompression toy disclosed in the invention authorized announcement No. CN221513500U, moves forward and backward in a straight line. And such as the decompression toy disclosed in the invention authorized announcement No. CN221513501U, the upper shell and the lower shell slide forward and backward in a straight line, and the sound is generated by the attraction of the magnetic members. In the existing push card type decompression toy, only one moving track of forward and backward straight line movement is usually used, and the playability of the user is relatively single and rigid. On the other hand, the strong magnet is actually used, and it is difficult to push, and the use experience needs to be improved. Therefore, the present application proposes an innovative scheme for the existing push card type decompression toy to solve the above problems. SUMMARY

[0003] Therefore, the present application proposes an innovative scheme for the existing push card type decompression toy to solve the above problems.

[0004] The technical solution disclosed in this invention is a multi-layered push-to-decompression toy with omnidirectional sliding trajectory, comprising a bottom push-block body, a top push-block body, and one or more intermediate push-block bodies, wherein the intermediate push-block bodies are stacked between the bottom and top push-block bodies. The bottom and top surfaces of each intermediate push-block body are respectively provided with an X-guide groove and a Y-guide groove, which allow the top and bottom push-block bodies connected to the intermediate push-block bodies to slide in different directions. A first guide rail assembly is provided at the top surface of the bottom push-block body and the X-guide groove of the intermediate push-block body, and a second guide rail assembly is provided at the bottom surface of the top push-block body and the Y-guide groove of the intermediate push-block body. The bottom, intermediate, and top push-block bodies are provided with a sliding sound-emitting structure that produces sound when they slide against each other.

[0005] Preferably, both the first guide rail assembly and the second guide rail assembly are miniature linear guide rails. The miniature linear guide rail includes a guide rail and a slider. The guide rail has guide rail grooves on both sides. The slider has a sliding groove for connecting to the guide rail. The sliding groove has slider grooves on both sides. Multiple balls are provided in the guide rail groove and the slider groove. Multiple balls are provided with ball fixing brackets. The multiple balls are evenly and rotatably fixed on the ball fixing brackets by the ball fixing brackets.

[0006] In one embodiment, when the intermediate push block body is a single piece, the sliding sound-emitting structure comprises bottom impact sound-emitting parts on both sides of the X-guide groove on the bottom surface of the intermediate push block body, and top impact sound-emitting parts on both sides of the Y-guide groove on the top surface of the intermediate push block body. The surfaces of the bottom impact sound-emitting parts and the top impact sound-emitting parts are each provided with a row of multiple spherical grooves. Grooves are provided on the bottom push block body and the top push block body at positions corresponding to the bottom impact sound-emitting parts and the top impact sound-emitting parts. A compression spring is installed in the groove, and a metal bead is provided at the upper end of the compression spring. The metal bead is elastically abutted against the spherical groove by the compression spring.

[0007] In another embodiment, when the intermediate push block body is composed of multiple blocks, the multiple intermediate push block bodies are stacked on top of each other, and the sliding sound-emitting structure is located within the multiple intermediate push block bodies:

[0008] Among them, the middle push block body stacked on the bottom push block body is the second bottom middle push block body. The bottom impact sound outlet is provided on both sides of the X guide groove on the bottom surface of the second bottom middle push block body, and the top impact sound outlet is provided on both sides of the Y guide groove on the top surface. The bottom impact sound outlet and the top impact sound outlet are provided with a row of multiple spherical grooves on their surfaces.

[0009] Excluding the intermediate push block body, the top surface of the remaining intermediate push block bodies is provided with top impact sound outlets on both sides of the Y guide groove. The surface of the top impact sound outlets is provided with a row of multiple spherical grooves, and the bottom surface of these intermediate push block bodies is provided with grooves corresponding to the top impact sound outlets. Compression springs are installed in the grooves, and metal beads are provided at the upper end of the compression springs.

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

[0011] Preferably, the metal beads are steel beads or zirconium oxide beads.

[0012] Preferably, both the bottom impact sound-emitting part and the top impact sound-emitting part are flat and thin strip-shaped metal sheets, and there are connected cavities on the rear side and bottom of the flat and thin strip-shaped metal sheets. The cavities are the vibration sound cavities generated when the flat and thin strip-shaped metal sheets are elastically impacted by the metal beads.

[0013] In one embodiment, the intermediate push block body is made of metal, and the flat, thin strip metal sheet is formed by CNC milling the cavity. The flat, thin strip metal sheet is integrally formed with the intermediate push block body.

[0014] In another embodiment, the X-guide groove and Y-guide groove of the intermediate push block body are provided with slots on both sides, and screw connection positions are provided at both ends of the slots. The thin, flat metal strip is fixed in the slots by screws, and the thin, flat metal strip and the intermediate push block body are separate structures. The left and right sides and bottom of the thin, flat metal strip have gaps in the slots to form a vibration cavity when the thin, flat metal strip is elastically struck by the metal beads.

[0015] As a preferred embodiment, the X-guide groove and Y-guide groove on the bottom and top surfaces of the intermediate push block body are oriented east-west and north-south, respectively, and the X-guide groove and Y-guide groove cross the center point of the bottom and top surfaces, respectively.

[0016] As a preferred embodiment, the bottom push block body, the middle push block body, and the top push block body are all circular blocks, and the top surface of the bottom push block body and the bottom surface of the top push block body are respectively provided with limiting protrusions.

[0017] The multi-layered card-pushing decompression toy with omnidirectional sliding trajectory disclosed in this invention has the following beneficial effects:

[0018] 1. By designing a card-pushing decompression toy composed of multiple push blocks, the bottom and top surfaces of the middle push block are respectively designed with an X-axis guide groove and a first guide rail assembly; and a Y-axis guide groove and a second guide rail assembly. This allows the middle push block to slide in the X-axis direction, driving the top push block to move in the X-axis direction on its plane. At the same time, the top push block slides in the Y-axis direction along the Y-axis guide groove on the top surface of the middle push block it connects to. The top push block can slide in all directions on its two-dimensional plane by combining the X and Y directions, thus optimizing the problem of the single and rigid sliding trajectory of the card-pushing decompression toy and improving the user experience.

[0019] 2. The push-to-decompression toy designed in this scheme connects the bottom push block body, the middle push block body, and the top push block body through the design of the first guide rail assembly and the second guide rail assembly. By setting the guide rail, the sliding of the middle push block body and the top push block body is smoother and more stable, and the push feels better.

[0020] 3. The sliding sound-producing structure of the push-to-decompress toy designed in this scheme consists of impact sound-producing parts at the bottom and top of the central push block body. The bottom and top impact sound-producing parts are made of thin, flat metal strips with a row of continuous spherical grooves evenly distributed on their surfaces. The back and bottom of the thin metal strips are connected to the cavity, which serves as the sound cavity for the metal beads of the compression spring to strike the thin metal strips and vibrate, making the sound crisper. Attached Figure Description

[0021] Figure 1 This is an exploded view of the three-layer embodiment of the multi-layer push-card decompression toy of the present invention.

[0022] Figure 2 This is a schematic diagram of the bottom surface structure of the top pusher body in a three-layer embodiment of the present invention.

[0023] Figure 3 This is a schematic diagram of the top surface structure of the intermediate pusher body in a three-layer embodiment of the present invention.

[0024] Figure 4 This is a schematic diagram of the bottom structure of the intermediate push block body in a three-layer embodiment of the present invention.

[0025] Figure 5 This is a schematic diagram of the top surface structure of the bottom pusher body in a three-layer embodiment of the present invention.

[0026] Figure 6 This is a schematic diagram of the overall structure of the three-layer embodiment of the present invention along the X-direction.

[0027] Figure 7 This is a schematic diagram of the overall structure of the three-layer embodiment of the present invention along the Y-direction.

[0028] Figure 8 This is a schematic diagram of the overall structure and sliding direction of a three-layer embodiment of the present invention. Detailed Implementation

[0029] The technical solutions in the embodiments of this disclosure will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this disclosure, and not all embodiments. Based on the embodiments of this disclosure, all other embodiments obtained by those skilled in the art without creative effort are also within the scope of protection of this disclosure.

[0030] Please refer to Figures 1 to 8 This is an embodiment of a multi-layer push-block decompression toy with omnidirectional sliding trajectory, which adopts a three-layer push block body.

[0031] The present invention discloses a multi-layer push-card decompression toy with omnidirectional sliding trajectory, which includes a bottom push block body 1, a top push block body 5, and one or more intermediate push block bodies 3, wherein the intermediate push block bodies 3 are stacked between the bottom push block body 1 and the top push block body 5.

[0032] Reference Figures 1 to 4 The bottom and top surfaces of the intermediate push block body 3 are respectively provided with X guide groove 301 and Y guide groove 302. The X guide groove 301 and Y guide groove 302 are used to allow the top push block body 5 and the bottom push block body 1 connected above and below the intermediate push block body 3 to slide in different directions.

[0033] The top surface of the bottom pusher body 1 and the X-guide groove 301 of the middle pusher body 3 are provided with a first guide rail assembly 2 that is connected to each other, and the bottom surface of the top pusher body 5 and the Y-guide groove 302 of the middle pusher body 3 are provided with a second guide rail assembly 4 that is connected to each other.

[0034] The bottom pusher body 1, the middle pusher body 3 and the top pusher body 5 are provided with a sliding sound-generating structure that produces sound when they slide against each other.

[0035] Reference Figures 1 to 7 The first guide rail assembly 2 and the second guide rail assembly 4 both adopt miniature linear guide rails. The miniature linear guide rail includes a guide rail 241 and a slider 242. The guide rail 241 has guide rail grooves 2411 on both sides. The slider 242 has a sliding groove for connecting the guide rail 241. The slider groove has slider grooves 2421 on both sides. The guide rail grooves 2411 and slider grooves 2421 are provided with multiple balls 243. The multiple balls 243 are provided with ball fixing brackets 244. The multiple balls 243 are uniformly and rotatably fixed on the ball fixing brackets 244.

[0036] In this embodiment, when the intermediate push block body 3 is a single piece, the sliding sound-emitting structure consists of bottom impact sound-emitting parts 303 on both sides of the X guide groove 301 on the bottom surface of the intermediate push block body 3, and top impact sound-emitting parts 304 on both sides of the Y guide groove 302 on the top surface of the intermediate push block body 3. The surfaces of the bottom impact sound-emitting parts 303 and the top impact sound-emitting parts 304 are each provided with a row of multiple spherical grooves 3001. Grooves 100 are provided on the bottom push block body 1 and the top push block body 5 at the positions corresponding to the bottom impact sound-emitting parts 303 and the top impact sound-emitting parts 304. A compression spring 6 is installed in the groove 100, and a metal bead 7 is provided at the upper end of the compression spring 6. The metal bead 7 is elastically abutted against the spherical groove 3001 by the compression spring 6.

[0037] In embodiments where multiple intermediate push block bodies 3 are used, since the multiple intermediate push block bodies 3 are also a stacked connection structure, the sliding sound output structure will be adaptively adjusted, that is, the sliding sound output structure is in the multiple intermediate push block bodies 3:

[0038] Among them, the intermediate push block body 3 stacked on the bottom push block body 1 is the second bottom intermediate push block body. The bottom impact sound outlet 303 is provided on both sides of the X guide groove 301 on the bottom surface of the second bottom intermediate push block body, and the top impact sound outlet 304 is provided on both sides of the Y guide groove 302 on the top surface. The bottom impact sound outlet 303 and the top impact sound outlet 304 are each provided with a row of multiple spherical grooves 3001.

[0039] The top surface of the Y-guide groove 302 of the remaining intermediate push block bodies 3, excluding the bottom intermediate push block body, is provided with a top impact sound outlet 304 on both sides. The surface of the top impact sound outlet 304 is provided with a row of multiple spherical grooves 3001. Corresponding to the top impact sound outlet 304, the bottom surface of these intermediate push block bodies 3 is provided with a groove 100. A compression spring 6 is installed in the groove 100, and a metal bead 7 is provided at the upper end of the compression spring 6.

[0040] Grooves 100 are provided at the positions of the bottom impact sound-emitting part 303 and the top impact sound-emitting part 304 corresponding to the bottom push block body 1 and the top push block body 5. A compression spring 6 is installed in the groove 100, and a metal bead 7 is provided at the upper end of the compression spring 6. The metal bead 7 is elastically abutted against the spherical groove 3001 by the compression spring 6.

[0041] In the technical solution of the present invention, the metal beads 7 are preferably steel beads or zirconium oxide beads.

[0042] Please refer to Figure 3 , Figure 4Both the bottom impact sound-emitting part 303 and the top impact sound-emitting part 304 are flat and thin strip-shaped metal sheets. A connected cavity 305 is provided on the rear side and bottom of the flat and thin strip-shaped metal sheet. The cavity 305 is a vibration cavity generated when the flat and thin strip-shaped metal sheet is elastically impacted by the metal bead 7.

[0043] In this embodiment, the intermediate push block body 3 is made of metal, and the flat, thin strip metal sheet is formed by CNC milling the cavity 305. The flat, thin strip metal sheet is integrally formed with the intermediate push block body 3.

[0044] In another implementation, the X-guide groove 301 and Y-guide groove 302 of the intermediate push block body 3 are provided with slots on both sides. Screw connections are provided at both ends of each slot. The thin, flat metal strip is fixed to the slot by screws. In this case, the thin, flat metal strip and the intermediate push block body 3 are designed as separate units. The left and right sides and bottom of the thin, flat metal strip have openings in the slots, forming a vibration cavity when the thin, flat metal strip is elastically struck by the metal beads 7. This separate design allows the thin, flat metal strip to produce different timbres depending on the metal material used, and facilitates the replacement of thin, flat metal strips made of different metal materials to produce different timbres.

[0045] Preferably, the X-guide groove 301 and Y-guide groove 302 on the bottom and top surfaces of the intermediate push block body 3 are oriented east-west and north-south, respectively, and the X-guide groove 301 and Y-guide groove 302 cross the center point of the bottom and top surfaces of the intermediate push block body 3, respectively.

[0046] Preferably, the bottom pusher body 1, the middle pusher body 3, and the top pusher body 5 are all circular blocks. The top surface of the bottom pusher body 1 and the bottom surface of the top pusher body 5 are respectively provided with limiting protrusions 103 and 501. The circular block shape is conducive to hand grip and play, and provides a better feel.

[0047] Please refer to Figure 1 , Figure 4 , Figure 5 An installation slot 101 for mounting guide rail 241 is provided on the bottom push block body 1, and on both sides of the installation slot 101 are sliding grooves 102 for the guide rail 241 to slide on the bottom of the middle push block body 3.

[0048] Please refer to Figure 8In this embodiment, the bottom and top surfaces of the middle push block body 3 are respectively designed with an X-guide groove 301 and a first guide rail assembly 2; and a Y-guide groove 302 and a second guide rail assembly 4. This enables the middle push block body 3 to slide in the X direction, thereby driving the top push block body 5 to move in the X direction 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, which is connected to it. The top push block body 5 can slide in the omnidirectional direction on its two-dimensional plane by the X and Y directions, thereby optimizing the problem of the single and rigid sliding trajectory of the push card decompression toy and improving the user experience.

[0049] It should be noted that the bottom pusher body 1, the middle pusher body 3 and the top pusher body 5 in this embodiment can be made of metal alloy materials, or they can be made of non-metallic materials such as PEEK polyether ether ketone special engineering plastic, PEI polyetherimide engineering plastic, glass fiber, and carbon fiber.

[0050] The various embodiments of this disclosure have been described above. These descriptions are exemplary and not exhaustive, and are not limited to the disclosed embodiments. Many modifications and variations will be apparent to those skilled in the art without departing from the scope and spirit of the described embodiments. The terminology used herein is chosen to best explain the principles, practical application, or improvement of the technology in the market, or to enable others skilled in the art to understand the embodiments disclosed herein.

Claims

1. A multi-layered pusher toy with universal trajectory sliding, characterized in that, Comprise: The bottom layer push block body (1); The top layer push block body (5); One or more middle push block bodies (3) are stacked between the bottom layer push block body (1) and the top layer push block body (5); Wherein, the bottom surface and the top surface of the middle push block body (3) are respectively provided with X direction guide groove (301), Y direction guide groove (302), X direction guide groove (301), Y direction guide groove (302) are connected to the top layer push block body (5), the bottom layer push block body (1) of the upper and lower surface of the middle push block body (3) is slid along different directions; The top surface of the bottom layer push block body (1) and the X direction guide groove (301) of the middle push block body (3) are provided with the first guide rail assembly (2) matched and connected, the bottom surface of the top layer push block body (5) and the Y direction guide groove (302) of the middle push block body (3) are provided with the second guide rail assembly (4) matched and connected; The bottom layer push block body (1), the middle push block body (3) and the top layer push block body (5) are provided with sliding sound structure when sliding each other.

2. The multi-layered pusher card decompression toy of claim 1, wherein, The first guide rail assembly (2) and the second guide rail assembly (4) are all micro linear guide rails, the micro linear guide rail comprises a guide rail (241) and a sliding block (242), both sides of the guide rail (241) are respectively provided with guide rail grooves (2411), the sliding block (242) is provided with sliding grooves for connecting the guide rail (241), both sides of the sliding groove are respectively provided with sliding block grooves (2421), the guide rail grooves (2411) and the sliding block grooves (2421) are provided with a plurality of balls (243), the plurality of balls (243) are provided with ball fixing supports (244), the plurality of balls (243) are uniformly and rotatably fixed on the ball fixing supports (244) through the ball fixing supports (244).

3. The multi-layered pusher card decompression toy of claim 1, wherein, When the middle push block body (3) is used as one piece, the sliding sound structure is that the bottom impact sound part (303) is respectively arranged on both sides of the X direction guide groove (301) of the bottom surface of the middle push block body (3), the top impact sound part (304) is respectively arranged on both sides of the Y direction guide groove (302) of the top surface of the middle push block body (3), a plurality of continuous spherical grooves (3001) are arranged on the surface of the bottom impact sound part (303) and the top impact sound part (304), the recesses (100) are arranged at the positions corresponding to the bottom impact sound part (303) and the top impact sound part (304) of the bottom layer push block body (1) and the top layer push block body (5), the compression springs (6) are installed in the recesses (100), the metal beads (7) are arranged on the upper end of the compression springs (6), and the metal beads (7) are elastically abutted in the spherical grooves (3001) through the compression springs (6).

4. The multi-layered pusher card decompression toy of claim 1, wherein, When the middle push block body (3) is used as multiple pieces, the multiple middle push block bodies (3) are stacked, and the sliding sound structure is that in the multiple middle push block bodies (3): One of the intermediate push block bodies (3) stacked on the bottom push block body (1) is a secondary bottom intermediate push block body, the two sides of the X-direction guide groove (301) on the bottom surface of the secondary bottom intermediate push block body are each provided with a bottom impact sound emitting part (303), and the two sides of the Y-direction guide groove (302) on the top surface are each provided with a top impact sound emitting part (304), the surface of the bottom impact sound emitting part (303) and the top impact sound emitting part (304) is each provided with a row of continuous spherical grooves (3001). The two sides of the Y-direction guide groove (302) on the top surface of each of the remaining intermediate push block bodies (3) except the secondary bottom intermediate push block body is each provided with a top impact sound emitting part (304), the surface of the top impact sound emitting part (304) is provided with a row of continuous spherical grooves (3001), and the bottom surface of each of the intermediate push block bodies (3) is provided with a groove (100) corresponding to the top impact sound emitting part (304), a compression spring (6) is installed in the groove (100), and a metal bead (7) is arranged on the upper end of the compression spring (6). The bottom surface of the bottom push block body (1) and the top surface of the top push block body (5) are provided with grooves (100) corresponding to the bottom impact sound emitting part (303) and the top impact sound emitting part (304), a compression spring (6) is installed in each groove (100), and a metal bead (7) is arranged on the upper end of the compression spring (6), the metal bead (7) elastically abuts against the spherical groove (3001) through the compression spring (6).

5. The multi-layered pusher card decompression toy of claim 3 or 4, wherein, The metal bead (7) is a steel bead or a zirconia bead.

6. The multi-layered pusher card decompression toy of claim 3 or 4, wherein, The bottom impact sound emitting part (303) and the top impact sound emitting part (304) are each a flat and thin strip-shaped metal sheet, the rear side and the bottom of the flat and thin strip-shaped metal sheet are each provided with a cavity position (305) in communication, and the cavity position (305) is a vibration sound cavity generated when the flat and thin strip-shaped metal sheet is elastically impacted by the metal bead (7).

7. The multi-layered pusher card decompression toy of claim 6, wherein, The intermediate push block body (3) is made of metal, the flat and thin strip-shaped metal sheet is formed by milling the cavity position (305) by a CNC machine, and the flat and thin strip-shaped metal sheet is integrally formed with the intermediate push block body (3).

8. The multi-layered pusher card decompression toy of claim 6, wherein, The two sides of the X-direction guide groove (301) and the two sides of the Y-direction guide groove (302) of the intermediate push block body (3) are each provided with a gong position, the two ends of the gong position are each provided with a screw connection position, the flat and thin strip-shaped metal sheet is fixed to the gong position by a screw, and the left and right sides and the bottom of the flat and thin strip-shaped metal sheet are provided with positions left for the gong position, thereby forming a vibration sound cavity generated when the flat and thin strip-shaped metal sheet is elastically impacted by the metal bead (7).

9. The multi-layered pusher card decompression toy of claim 1, wherein, The X-direction guide groove (301) and the Y-direction guide groove (302) on the bottom surface and the top surface of the intermediate push block body (3) respectively extend 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 center point positions of the bottom surface and the top surface of the intermediate push block body (3).

10. The multi-layered pusher card decompression toy of claim 1, wherein, The bottom pushing block body (1), the middle pushing block body (3), and the top pushing block body (5) are all in the shape of a circular block, and the top surface of the bottom pushing block body (1) and the bottom surface of the top pushing block body (5) are respectively provided with limiting protrusions (103, 501).

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