Sword-shaped decompression tile pushing toy

Abstract

The sword-shaped decompression tile pushing toy comprises a sword scabbard, a sword body and a sword handle, the sword scabbard comprises a first sword-body-shaped block body and a second sword-body-shaped block body, the first sword-body-shaped block body and the second sword-body-shaped block body are connected in a stacked and aligned mode, an interval space is formed between the first sword-body-shaped block body and the second sword-body-shaped block body, and the sword body is movably connected to the interval space. At least one first magnet is embedded in one face of the sword body, at least one row of second magnets arranged at intervals are embedded in the first sword body-shaped block body or the second sword body-shaped block body opposite to the first magnet, and the first magnet and the second magnets attract each other. A milling vacancy is arranged on the sword surface of the front end part of the sword body, and a tuning fork structure is arranged at the milling vacancy. And the tuning fork structure is arranged, so that the emitted timbre effect is better. Particularly, the sword handle can be held to be thrown out forcibly, the sword body slides out quickly, the second connecting end is used for limiting and impacting the lower end of the tuning fork structure under stress at the same time, so that buzzing sound is generated, the sound of unsheathing of a sword is simulated, and playability is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of pushing card toys, in particular to a sword-shaped stress-relieving pushing card toy. Background Art

[0002] Stress-relieving pushing card toys are toys designed to help relieve stress and provide entertainment. They usually have unique structures and designs, aiming to achieve relaxation and entertainment through playing or operating. Existing stress-relieving pushing card toys are usually designed as pushing blocks with two or three layers. Between the pushing blocks, there are sliding grooves and multiple magnets arranged at intervals along the sliding direction. In this way, the pushing blocks between the upper and lower layers can form resistance through magnetic attraction during the sliding process, which is fed back as a hand feeling. There will be an inertial force at the moment of magnetic attraction, causing a "clicking" sound when the pushing blocks are pushed, so that the rhythm generated from the physical feeling and hearing can make people relax and relieve stress. Existing stress-relieving pushing card toys are relatively single in terms of functional structures, and more are designed uniquely in terms of the appearance of the products. Therefore, for various shaped stress-relieving pushing card toys, the actual playability is relatively low. It is necessary to conduct research and development on the functional structures while making unique appearance designs to meet the diverse needs of consumers. Summary of the Utility Model

[0003] Therefore, the utility model provides a sword-shaped stress-relieving pushing card toy, which has a unique shape design and various functional structures for operation, so as to realize a stress-relieving product integrating multiple playing methods.

[0004] The technical solution disclosed by the utility model, a sword-shaped stress-relieving pushing card toy, includes a scabbard, a sword body, and a sword hilt. The scabbard includes a first sword-shaped body block and a second sword-shaped body block. The first sword-shaped body block and the second sword-shaped body block are stacked and aligned and connected, and an interval space is formed in the middle. The sword body is movably connected to the interval space. At least one first magnet is embedded on one side of the sword body, and at least one row of second magnets arranged at intervals is embedded on the first sword-shaped body block or the second sword-shaped body block opposite to the side where the first magnet is provided. The first magnet and the second magnet attract each other; on the sword surface at the front end part of the sword body, there is a gong vacancy, and a tuning fork structure is provided at the gong vacancy.

[0005] Further, the tuning fork structure includes two fork arms arranged side by side. The top ends of the fork arms are designed to extend inwards towards each other as fork tops. The opposite surfaces of the fork tops are parallel and aligned planes. The lower ends of the fork arms are connected to the gong vacancy of the sword body, and a middle vacancy is formed between the two fork arms.

[0006] Preferably, the sword body is made of a metal material, and the gong vacancy and the tuning fork structure are integrally formed by CNC machining.

[0007] Furthermore, a first connecting end is provided at the rear end of the inner side surface of the first sword-shaped body block along the length direction, and a second connecting end is provided near the front end. The second sword-shaped body block is provided with screw hole positions for docking with the first connecting end and the second connecting end, and is connected and fixed to the first connecting end and the second connecting end through screws. The second connecting end passes through the middle vacancy of the tuning fork structure.

[0008] Furthermore, outwardly protruding portions extending outward are provided on both sides of the rear end of the sword body. Through holes are provided in the outwardly protruding portions, and push button nails are installed at the through holes.

[0009] Preferably, a chute is fixedly provided in the middle of the inner side surface of the second sword-shaped body block along the length direction, and a slide rail is fixedly provided in the middle of the bottom surface of the sword body along the length direction. The slide rail moves back and forth along the chute. On both sides of the chute of the second sword-shaped body block, there is a row of symmetrically arranged second magnets, and on the bottom surface of the sword body on both sides of the slide rail, there is at least one group of symmetrically arranged first magnets.

[0010] Preferably, first grooves are provided on the two groove walls of the chute, second grooves are provided on both sides of the slide rail, a ball bearing bracket is provided between the first grooves and the second grooves, and a row of balls is provided on the ball bearing bracket. The connection and sliding between the chute and the slide rail are realized through the balls.

[0011] Preferably, at least one groove is provided on the other surface of the sword body where the slide rail is provided. A compression spring is provided in the groove, a metal bead is provided at the upper end of the compression spring, and at least one row of wave groove positions continuously composed of a plurality of hemispherical grooves is provided on the inner side surface of the first sword-shaped body block along the length direction. When the sword body moves back and forth along the slide rail, the metal bead is driven by the compression spring to run in the wave groove positions to form an impact sound.

[0012] Preferably, the metal bead is made of a steel bead or a zirconia bead. The wave groove positions and the first sword-shaped body block are integrally formed by CNC machining, or the wave groove positions are made of a metal material and are fixedly connected to the first sword-shaped body block in a split manner through screws.

[0013] Furthermore, the sword handle includes a sword handle body and a sword handle connecting rod. The inside of the sword handle body is hollow and has a hollow connection hole position penetrating through both ends. The sword handle connecting rod includes a connection seat and a connecting rod. The connection seat is provided at the front end of the connecting rod. A first bearing and a second bearing are sleeved on the connecting rod. The rear end of the connecting rod is a screw connection hole position. The connecting rod and the first bearing and the second bearing are sleeved in the hollow connection hole position. The rear end of the sword handle body is a stepped hole position. A screw is provided through this stepped hole position to connect with the screw connection hole position of the connecting rod. The sword handle body can rotate around the whole body through the first bearing and the second bearing.

[0014] The beneficial effects of the present utility model are as follows: The sword-shaped decompression pushing card toy designed by this technical solution pushes the sword body forward and backward. When the sword body is pushed forward, it looks like the sword body is unsheathing from its shape. At the same time, through the magnetic connection structure between the sword body and the first sword-shaped block or the second sword-shaped block, when moving along the row of second magnets, respectively, at the moment when the first magnet and one of the second magnets attract each other, the tuning fork structure will vibrate due to inertia and make a sound. Compared with the pushing card toy without the tuning fork structure of this solution, the sound it makes is different. By setting the tuning fork structure in this solution, a better tone effect is achieved. Especially, you can hold the sword hilt and swing it forcefully. At this time, the sword body slides out quickly. At the same time, while the second connection end realizes the limit, the lower end of the tuning fork structure is impacted by the force, making a humming sound to simulate the sound of a sword unsheathing and increasing the playability. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic exploded view of the overall structure of the present utility model.

[0016] Figure 2 It is a schematic exploded view of the overall structure of the present utility model from another perspective.

[0017] Figure 3 It is a schematic perspective view of the overall structure of the present utility model.

[0018] Figure 4 It is a schematic diagram of the sword body being pushed out of the present utility model.

[0019] Figure 5 It is a sectional view along the central axis structure of the present utility model.

[0020] Figure 6 It is a three-dimensional sectional view along the first magnet, the second magnet, and the wavy groove position of the present utility model.

[0021] REFERENCE MARKS:

[0022] 1. Scabbard; 11. First sword-shaped block; 111. First connection end; 112. Second connection end; 113. Wavy groove position; 12. Second sword-shaped block; 2. Sword body; 201. Gong empty position; 202. Tuning fork structure; 203. Convex part; 3. Sword hilt; 31. Sword hilt body; 32. Sword hilt connecting rod; 321. Connecting seat; 322. Connecting rod; 33. First bearing; 34. Second bearing; 311. Step hole position; 4. First magnet; 5. Second magnet; 6. Slide rail; 601. Second groove; 7. Slide groove; 701. First groove; 8. Ball bearing support; 9. Push button nail; 13. Compression spring; 14. Metal bead; DETAILED DESCRIPTION OF THE EMBODIMENTS

[0023] The technical solutions in the embodiments of the present disclosure will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only partial embodiments of the present disclosure, rather than all embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present disclosure without creative efforts also belong to the scope of protection of the present disclosure.

[0024] Please refer to Figures 1 to 6 , a sword-shaped decompression pushing card toy provided by the present technical solution, including a scabbard 1, a sword body 2 and a sword handle 3. The scabbard 1 includes a first sword-shaped block 11 and a second sword-shaped block 12. The first sword-shaped block 11 and the second sword-shaped block 12 are stacked and aligned and connected, and a spaced space is formed in the middle. The sword body 2 is movably connected to the spaced space. At least one first magnet 4 is embedded on one side of the sword body 2, and at least one row of second magnets 5 arranged at intervals is embedded on the first sword-shaped block 11 or the second sword-shaped block 12 opposite to the first magnet 4. The first magnet 4 and the second magnet 5 attract each other; a gong vacancy 201 is provided on the sword surface at the front end of the sword body 2, and a tuning fork structure 202 is provided at the gong vacancy 201.

[0025] In this solution, by providing the tuning fork structure 202, a better tone effect can be achieved. In particular, the sword handle 3 can be held and thrown forcefully. At this time, the sword body 2 slides out quickly. At this time, while the second connecting end 112 realizes the limit, the lower end of the tuning fork structure 202 is hit by the force, so that a humming sound is emitted to achieve the sound of simulating the unsheathing of a sword and increase the playability.

[0026] Please refer to Figure 1 、 Figure 2 , further, the tuning fork structure 202 includes two fork arms arranged side by side. The tops of the fork arms are designed to extend inwards towards each other. The opposite surfaces of the fork tops are parallel and aligned planes. The lower ends of the fork arms are connected to the gong vacancy 201 of the sword body 2, and a middle vacancy is formed between the two fork arms.

[0027] In a preferred technical solution, the sword body 2 is made of a metal material, and the gong vacancy 201 and the tuning fork structure 202 are integrally formed by CNC machining. By integrally forming the tuning fork structure 202 and the sword body 2, when the sword body 2 is pushed, due to the inertia of forward pushing and the attraction of magnetic absorption at the moment of magnetic attraction between the magnets, the sword body 2 will vibrate, and thus a tuning fork sound will be generated.

[0028] Please refer to Figure 1 、 Figure 4 、 Figure 5, further, a first connection end 111 is provided at the rear end of the inner side surface of the first sword-shaped body block 11 along the length direction, and a second connection end 112 is provided near the front end. The second sword-shaped body block 12 is provided with screw hole positions for docking with the first connection end 111 and the second connection end 112, and is connected and fixed to the first connection end 111 and the second connection end 112 through screws. The second connection end 112 passes through the middle vacancy of the tuning fork structure 202. The second connection end 112 plays a role in limiting the forward movement of the sword body 2. At the same time, when the second connection end 112 is pushed to the forefront by the sword body 2, the second connection end 112 impacts the middle vacancy of the tuning fork structure 202, so that the tuning fork structure 202 generates sound.

[0029] Further, outwardly extending convex portions 203 are provided on both sides of the rear end of the sword body 2. Through holes are provided in the convex portions 203, and push buttons 9 are installed at the through holes. Since the overall thickness of the sword body 2 is not particularly thick, when the convex portions 203 are used as the parts for manually pushing the sword body 2 to move back and forth, the force-bearing area is small, which will cause the fingers to be relatively strenuous when pushing. Therefore, the externally installed push buttons 9 are designed, which increases the comfort of the pushing part for pushing the sword body 2 and plays a decorative role.

[0030] As a preferred solution, referring to Figure 1 , Figure 2 , Figure 4 , a chute 7 is fixedly provided in the middle of the inner side surface of the second sword-shaped body block 12 along the length direction, and a slide rail 6 is fixedly provided in the middle of the bottom surface of the sword body 2 along the length direction. The slide rail 6 moves back and forth along the chute 7; on both sides of the chute 7 of the second sword-shaped body block 12, there is a row of symmetrically arranged second magnets 5, and on the bottom surface of the sword body 2 on both sides of the slide rail 6, there is at least one group of symmetrically arranged first magnets 4.

[0031] Further, first grooves 701 are provided on the two groove walls of the chute 7, second grooves 601 are provided on both sides of the slide rail 6, a ball bearing bracket 8 is provided between the first grooves 701 and the second grooves 601, and a row of balls is provided on the ball bearing bracket 8. The connection and sliding of the chute 7 and the slide rail 6 are realized through the balls. The stability of the forward and backward movement is better by adding the slide rail 6 and the chute 7.

[0032] As a preferred solution, at least one groove is provided on the other surface of the sword body 2 where the slide rail 6 is provided. A compression spring 13 is provided in the groove. A metal bead 14 is provided at the upper end of the compression spring 13. At least one row of wave groove positions 113 continuously composed of a plurality of hemispherical grooves is provided on the inner side surface of the first sword-shaped body block 11 along the length direction. When the sword body 2 moves back and forth along the slide rail 6, the metal bead 14 is driven by the compression spring 13 to run in the wave groove positions 113 to form an impact sound.

[0033] Preferably, the metal beads 14 are made of steel beads or zirconia beads. The wavy groove 113 and the first sword-shaped block 11 are integrally formed by CNC machining, or the wavy groove 113 is made of a metal material and is detachably fixed to the first sword-shaped block 11 by screws. According to the structure of this solution, the first magnet 4 and the second magnet 5 in the above embodiments can be cancelled. In this way, when the spring 13 and the metal beads 14 push the sword body 2, they can play a role in elastic impact to make a sound. At this time, only a gentle push is needed to push the sword body 2.

[0034] Furthermore, the sword handle 3 includes a sword handle body 31 and a sword handle connecting rod 32. The sword handle body 31 is hollow with a hollow connecting hole that penetrates both ends. The sword handle connecting rod 32 includes a connecting seat 321 and a connecting rod 322. The connecting seat 321 is provided at the front end of the connecting rod 322. A first bearing 33 and a second bearing 34 are sleeved on the connecting rod 322. The rear end of the connecting rod 322 is a screw connection hole. The connecting rod 322 and the first bearing 33 and the second bearing 34 are sleeved in the hollow connecting hole. The rear end of the sword handle body 31 is a stepped hole 311. A screw is provided through the stepped hole 311 to connect with the screw connection hole of the connecting rod 322. The sword handle body can rotate around its circumference through the first bearing 33 and the second bearing 34. With the sword handle 3 designed according to this solution, when holding the sword sheath 1, the sword handle 3 can be toggled to make the sword handle 3 rotate quickly, or when holding the sword handle 3, the sword sheath 1 and the sword body 2 can be rotated quickly, increasing the playability.

[0035] It should be noted that in the above specific implementation, the sword sheath 1 and the sword body 2 have round and blunt edges without being sharpened, and they are not real swords but only toy products imitating the shape of swords.

[0036] The various embodiments of the present disclosure have been described above. The above description is exemplary and 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 selection of the 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 sword-shaped decompression pushing card toy, characterized in that, It includes a scabbard, a sword body and a sword hilt. The scabbard includes a first sword-shaped block and a second sword-shaped block. The first sword-shaped block and the second sword-shaped block are stacked and aligned and connected, and a spaced space is formed in the middle. The sword body is movably connected to the spaced space. At least one first magnet is embedded on one side of the sword body. At least one row of second magnets arranged at intervals is embedded on the first sword-shaped block or the second sword-shaped block opposite to the first magnet. The first magnet and the second magnet attract each other. A gong vacancy is provided on the sword surface at the front end part of the sword body, and a tuning fork structure is provided at the gong vacancy.

2. The sword-shaped decompression pushing card toy according to claim 1, characterized in that, The tuning fork structure includes two fork arms arranged side by side. The tops of the fork arms are designed to extend inwards towards each other as fork tops. The opposite surfaces of the fork tops are parallel and aligned planes. The lower ends of the fork arms are connected to the gong vacancy of the sword body, and an intermediate vacancy is formed between the two fork arms.

3. The sword-shaped decompression push card toy according to claim 2, characterized in that, The sword body is made of a metal material, and the gong vacancy and the tuning fork structure are integrally formed by CNC machining.

4. The sword-shaped decompression pushing card toy according to claim 2, characterized in that, On the inner side surface of the first sword-shaped block, a first connection end is provided at the rear end along the length direction, and a second connection end is provided near the front end. The second sword-shaped block is provided with screw hole positions for docking with the first connection end and the second connection end, and is connected and fixed to the first connection end and the second connection end by screws. The second connection end passes through the intermediate vacancy of the tuning fork structure.

5. The sword-shaped decompression push card toy according to claim 3, characterized in that, On both sides of the rear end of the sword body, outwardly extending convex parts are provided. Through holes are provided at the convex parts, and push button nails are installed at the through holes.

6. The sword-shaped decompression push card toy according to claim 1, characterized in that, On the inner side surface of the second sword-shaped block, a sliding groove is fixedly provided in the middle along the length direction. On the bottom surface of the sword body, a sliding rail is fixedly provided in the middle along the length direction. The sliding rail moves back and forth along the sliding groove. On both sides of the sliding groove of the second sword-shaped block, there is a row of symmetrically arranged second magnets respectively. On the bottom surface of the sword body on both sides of the sliding rail, there is at least one group of symmetrically arranged first magnets respectively.

7. The sword-shaped decompression pushing card toy according to claim 6, wherein First grooves are provided on the two groove walls of the sliding groove, and second grooves are provided on both sides of the sliding rail. A ball bearing bracket is provided between the first grooves and the second grooves. A row of balls is provided on the ball bearing bracket, and the connection and sliding of the sliding groove and the sliding rail are realized through the balls.

8. The sword-shaped decompression pushing card toy according to claim 6, characterized in that, On the other surface of the sword body where the sliding rail is provided, at least one groove is provided. A compression spring is provided in the groove. A metal bead is provided at the upper end of the compression spring. On the inner side surface of the first sword-shaped block, at least one row of wave groove positions continuously composed of a plurality of hemispherical grooves is provided along the length direction. When the sword body moves back and forth along the sliding rail, the metal bead is driven by the compression spring to run in the wave groove positions to form an impact sound.

9. The sword-shaped decompression push card toy according to claim 8, characterized in that, The metal bead is made of a steel bead or a zirconia bead. The wave groove position and the first sword-shaped block are integrally formed by CNC machining, or the wave groove position is made of a metal material and is fixedly connected to the first sword-shaped block in a split manner by screws.

10. The sword-shaped decompression push card toy according to any one of claims 1 to 9, characterized in that, The sword handle includes a sword handle body and a sword handle connecting rod. The interior of the sword handle body is hollow with a hollow connection hole position that runs through both ends. The sword handle connecting rod includes a connection seat and a connecting rod. The connection seat is provided at the front end of the connecting rod. A first bearing and a second bearing are sleeved on the connecting rod. The rear end of the connecting rod is a screw connection hole position. The connecting rod, the first bearing, and the second bearing are sleeved in the hollow connection hole position. The rear end of the sword handle body is a stepped hole position. A screw is provided through this stepped hole position to connect with the screw connection hole position of the connecting rod. The sword handle body can rotate around its circumference through the first bearing and the second bearing.

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