Sliding block tile pushing toy capable of pulling magnet to bounce

Abstract

The utility model discloses a slider tile-pushing toy for pulling a magnet to bounce, which comprises a slider base, a sliding rail and a slider, the sliding rail is fixedly arranged on the slider base, the bottom of the slider is provided with a sliding groove position which is directly communicated with two end parts along the length direction of the slider, and the sliding groove position is buckled on the sliding rail and slides back and forth along the sliding rail. A plurality of magnets A which are distributed at intervals are arranged on the upper surface of the sliding rail, at least one linear channel is arranged in a block body, corresponding to the position above the sliding groove, of the sliding block, the linear channels are arranged in the length direction of the sliding block, a magnet B and a magnet C are fixedly arranged at the two ends of each linear channel respectively, and a magnet D which can move front and back in the linear channel is arranged in the linear channel; and the magnet D, the magnet B and the magnet C are arranged in a repulsion direction. When the sliding block slides back and forth along the sliding rail, the magnet D in the linear channel is attracted and pulled by the magnet A on the sliding rail to move close to the magnet B or the magnet C, and at the moment when the magnet D is separated from the magnet A, the repellent force formed by the magnet B or the magnet C and the magnet D promotes the magnet D to bounce in the linear channel.

Description

TECHNICAL FIELD

[0001] The utility model relates to push card toy technical field especially, a kind of traction magnet bounce's slider push card decompression toy. BACKGROUND

[0002] With the rapid development of science and technology, automation process is increasingly promoted, simple cycle mechanical action such as work post is replaced by automated equipment, and fast-paced urban life, intense employment pressure etc., so that a large group feels the pressure of life and work. For this, a large number of decompression toy products that can be played on hand emerge in the market, also belong to EDC toys (Every Day Carry, every day with the goods), such as: pinch joy, fingertip top, magnetic push card etc. The existing magnetic push card is usually designed as upper and lower sliders and slide rails, the upper and lower sliders slide along the slide rails, a plurality of magnets are respectively arranged at the contact surfaces of the upper and lower sliders, the magnets at the front and rear positions are attracted when the upper and lower sliders are pushed, to achieve the impact "click" sound generated by magnetic attraction. In addition, a wave groove rail is arranged on the upper slider, and a spring-urged ball is arranged on the lower slider corresponding to the wave groove rail, when the upper and lower sliders slide, the ball elastically impacts each groove of the wave groove rail to form impact sound, so as to play and achieve the purpose of relieving pressure through feedback of touch and hearing. In order to further meet the diversified needs of consumers, the present scheme optimizes and improves the existing magnetic push card, and proposes a new EDC toy with better playability. SUMMARY

[0003] Therefore, the utility model provides a traction magnet bounce's slider push card toy, through the magnetic force of repulsion of magnet, the slidable magnet is attracted to the magnet repelling each other, when the repelling force reaches the limit, the slidable magnet is bounced to achieve impact, so as to improve the playability of push card toy.

[0004] The technical scheme disclosed by the utility model relates to a traction magnet bounce's slider push card toy, which comprises a slider base, a slide rail and a slider. The slide rail is fixed on the slider base. The bottom of the slider is provided with a sliding groove position extending through both ends in the length direction. The sliding groove position is buckled on the slide rail, and the slider slides back and forth along the slide rail. A plurality of magnets A are arranged on the upper surface of the slide rail in a spaced manner. At least one straight channel is arranged in the block above the sliding groove position corresponding to the slider. The straight channel is arranged in the length direction of the slider, and the two ends of the straight channel are respectively fixed with a magnet B and a magnet C. A magnet D is movably arranged in the straight channel. The magnet D and the magnet B and the magnet C are all arranged in repelling direction.

[0005] As the slider moves back and forth along the slide rail, the magnet D in the straight channel is attracted and pulled by the magnet A on the slide rail, moving closer to the magnet B or the magnet C. At the instant that the magnet D is separated from the magnet A, the repulsive force formed between the magnet B or the magnet C and the magnet D causes the magnet D to bounce along the straight channel.

[0006] In a preferred embodiment, the slider body has three parallel straight channels arranged in each of its front and rear halves along its length. The plurality of magnets A on the upper surface of the slide rail include magnets A-1 and A-2 located near the front end of the slide rail; magnets A-4 and A-5 located near the rear end of the slide rail; and magnets A-3 and A-6 located near the middle of the front and rear halves of the slide rail, respectively. Magnets A-1, A-2, and A-3 correspond to the bottom of the three straight channels in the front half of the slider, and magnets A-4, A-5, and A-6 correspond to the bottom of the three straight channels in the rear half of the slider.

[0007] In another preferred embodiment, a bouncing bead is provided in the front channel corresponding to magnet D in the three straight channels in the front half of the slider, and a bouncing bead is provided in the rear channel of magnet D in the three straight channels in the rear half of the slider.

[0008] Preferably, the bouncing beads are fluorescent beads.

[0009] Preferably, a groove is provided at the center of the upper surface of the slider, and a decorative element is embedded in the groove, the upper surface of the decorative element protruding from the upper surface of the slider.

[0010] In a preferred embodiment, the slider is made of transparent plastic.

[0011] In another preferred embodiment, the slider is made of metal, and the upper surface of the slider has a window on each side of the decorative element along the length of the slider, and the window is fitted with a viewing lens.

[0012] In another preferred embodiment, the slide groove is provided with at least one wavy groove along the length of the bottom wall of the slider, and a mounting hole is provided on the slide rail. A compression spring is provided in the mounting hole, and a ball bearing is provided on the compression spring to abut against the wavy groove.

[0013] Furthermore, the slide groove has opposing C-shaped slide grooves on both sides along its length, and the slide rail has outwardly protruding edges on both sides along its length. The slider can slide back and forth through the C-shaped slide grooves and fits onto the protruding edges.

[0014] Further, a stop protrusion is arranged at the middle position of the bottom of the C-shaped chute, the upper surface of the slider base is respectively provided with a protruding surrounding edge at both length directions, the protruding surrounding edge is respectively provided with a bending part extending towards the middle part at the front end and the rear end of the slider base, and the bending part forms a sliding limit when the slider slides forward and backward.

[0015] The slider pusher toy has the beneficial effects that: at least one straight channel is arranged in the block of the slider, the straight channel is arranged along the length direction of the slider, and the two ends of the straight channel are respectively fixed with a magnet B and a magnet C, the inside of the straight channel is provided with a magnet D which can move forward and backward inside, and the magnet D is arranged in repulsion with the magnet B and the magnet C. When the slider slides forward and backward along the slide rail, the magnet D in the straight channel is attracted and moved close to the magnet B or the magnet C by the magnet A on the slide rail. At this time, when the magnet D is separated from the magnet A, the repulsive force between the magnet B or the magnet C and the magnet D promotes the magnet D to bounce in the straight channel, thereby adding a mechanism for triggering the dynamic effect of the pusher toy. The mechanism can be provided with a bouncing ball in the straight channel in front of the repulsive bouncing direction of the magnet D, so that the bouncing ball is hit forward and backward by the magnet D, thereby also emitting the impact sound. At the same time, the existing spring abutting ball to the wave groove rail formed by the slider forward and backward pushing, the ball is hit in the groove of the wave groove rail to generate the impact "dada" sound, thereby increasing the playing fun of the pusher toy. BRIEF DESCRIPTION OF DRAWINGS

[0016] Figure 1 It is a whole structure exploded view of the embodiment one of the utility model.

[0017] Figure 2 It is another perspective structure exploded view of the whole structure of the embodiment one of the utility model.

[0018] Figure 3 It is a whole assembly structure perspective view of the embodiment one of the utility model.

[0019] Figure 4 It is a slider cross-section state schematic view. Figure 3

[0020] Figure 5 It is a slider push forward sliding schematic view of the embodiment one of the utility model.

[0021] Figure 6 It is a slider cross-section state schematic view. Figure 5

[0022] Figure 7 It is a slider push backward sliding schematic view of the embodiment one of the utility model.

[0023] ​​Figure 8 Fig. 1 is a schematic view of a slider section state according to the present application. Figure 7 Fig. 1 is a schematic view of a slider section state according to the present application.

[0024] Figure 9 Fig. 1 is a schematic view of a slider section state according to the present application.

[0025] Reference signs:

[0026] 1, slider base; 11, raised surrounding edge; 110, bent portion; 2, slide rail; 21, magnet A-1; 22, magnet A-2; 23, magnet A-3; 24, magnet A-4; 25, magnet A-5; 26, magnet A-6; 27, mounting hole; 28, raised edge; 3, slider; 31, sliding groove; 32, straight channel; 33, window position; 34, visible lens; 311, wavy groove rail; 312, C-shaped sliding groove; 313, stop protruding portion; 4, decorative piece; 5, compression spring; 6, ball; 7, magnet B; 8, magnet C; 9, magnet D; 10, bouncing bead. DETAILED DESCRIPTION

[0027] The technical solutions in the embodiments of the present disclosure will be clearly and completely described below with reference to the drawings. Obviously, the described embodiments are only part of the embodiments of the present disclosure, rather than all the embodiments. Based on the embodiments of the present disclosure, all other embodiments obtained by those of ordinary skill in the art without creative work fall within the scope of the present disclosure.

[0028] Embodiment one

[0029] Please refer to Figures 1 to 8 A specific embodiment of a sliding block push card toy with traction magnets bouncing, provided by the technical solution, comprises a slider base 1, a slide rail 2, and a slider 3. The slide rail 2 is fixedly arranged on the slider base 1. The bottom of the slider 3 is provided with a sliding groove 31 extending through both ends along the length direction. The sliding groove 31 is buckled on the slide rail 2, and the slider 3 slides back and forth along the slide rail 2. The upper surface of the slide rail 2 is provided with a plurality of magnets A arranged at intervals. The slider 3 is provided with six straight channels 32 in the block above the sliding groove 31. Three straight channels are arranged side by side along the front and rear halves of the length direction of the slider 3, respectively. The two ends of each straight channel 32 are fixedly provided with a magnet B 7 and a magnet C 8, respectively. The straight channel 32 is provided with a magnet D 9 movable inside. The magnet D 9 and the magnet B 7 and the magnet C 8 are arranged in repelling directions.

[0030] The plurality of magnets A on the upper surface of the slide rail 2 includes a magnet A-121 and a magnet A-222 arranged near the front end of the slide rail 2, a magnet A-424 and a magnet A-525 arranged near the rear end of the slide rail 2, and a magnet A-323 and a magnet A-626 arranged near the middle of the front and rear halves of the slide rail 2 in the length direction, respectively. The magnet A-121, the magnet A-222, and the magnet A-323 correspond to the bottoms of the three straight channels 32 in the front half of the slider 3, respectively, and the magnet A-424, the magnet A-525, and the magnet A-626 correspond to the bottoms of the three straight channels 32 in the rear half of the slider 3, respectively.

[0031] Please refer to Figure 1 , Figures 3 to 8 When the slider 3 is pushed to slide along the slide rail 2, the magnet D9 in the straight channel 32 is attracted and moved close to the magnet B7 or the magnet C8 by the magnet A on the slide rail 2. At this time, when the magnet D9 is separated from the magnet A, the repulsive force between the magnet B7 or the magnet C8 and the magnet D9 causes the magnet D9 to bounce along the straight channel 32. Preferably, the slider 3 is made of transparent plastic material, which is conducive to observing the bouncing movement of the magnet D9.

[0032] As preferred, the front channel of the three straight channels 32 in the front half of the slider 3 is provided with a bouncing bead 10 corresponding to the magnet D9, and the rear channel of the three straight channels 32 in the rear half of the slider 3 is provided with a bouncing bead 10 corresponding to the magnet D9. The bouncing bead 10 produces a knocking sound when it is knocked. The magnets A-121 and A-222 are distributed on both sides of the end of the slide rail 2, and the magnet A-323 is arranged at a middle position close to the front half of the slide rail 2. When the slider 3 is pushed forward, the middle magnet D9 is first pulled by the magnet A-323, and then when the magnet A-323 is separated from the magnet D9, the repulsion force of the magnet D9 in the middle straight channel 32 triggers the bouncing of the magnet D9, and the bouncing bead 10 in the middle straight channel 32 is first bounced and knocked. Then, when the magnets D9 in the straight channels 32 on both sides of the slider 3 are further pushed forward, the magnets D9 are pulled by the magnets A-121 and A-222, and then repel the magnet C8 at the rear end of the straight channel 32. When the magnets D9 are separated from the magnets A-121 and A-222, the magnets D9 on both sides of the straight channel 32 bounce, causing the bouncing beads 10 in the straight channels 32 on both sides to bounce and knock, forming two bouncing beads 10 in the double channels, which produce a knocking sound. The sound produced by the knocking of the bouncing bead 10 in the middle channel is different from the sound produced by the knocking of the bouncing beads 10 in the two straight channels, and the sound intensity is different, which improves the playability of the pusher.

[0033] As preferred, the bouncing bead 10 is a fluorescent bead that produces fluorescence when it is irradiated with light. The slider 3 is made of transparent plastic material, which provides visual feedback and further improves the playability of the pusher.

[0034] As preferred, a recessed position is provided in the center of the upper surface of the slider 3, and a decorative part 4 is embedded in the recessed position. The upper surface of the decorative part 4 protrudes from the upper surface of the slider 3. The decorative part 4 can be used as a carrier for the product LOGO, and it can also be used as a fulcrum for the user to push the slider 3 forward and backward.

[0035] As preferred, the slide groove 31 is provided with at least one wave groove track 311 along the length direction of the bottom wall of the slider 3, and the slide rail 2 is provided with a mounting hole 27. A compression spring 5 is arranged in the mounting hole 27, and a ball 6 is arranged on the compression spring 5 to abut against the wave groove track 311. The ball 6 is preferably a zirconium bead, which has wear-resistant properties.

[0036] As preferred, the sliding groove position 31 is provided with a C-shaped sliding groove 312 on both sides along the length direction, the slide rail 2 is provided with a convex edge 28 protruding outward on both side walls along the length direction, and the slide block 3 is sleeved on the convex edge 28 and can slide forward and backward through the C-shaped sliding groove 312.

[0037] As preferred, the C-shaped sliding groove 312 is provided with a stop protrusion 313 at the middle position of the bottom, the upper surface of the slide block base 1 is provided with a convex surrounding edge 11 on both sides along the length direction, the convex surrounding edge 11 is provided with a bending part 110 extending towards the middle on both sides corresponding to the front and rear ends of the slide block base 1, and the bending part 110 forms a sliding limit when the stop protrusion 313 stops at the bending part 110 when the slide block 3 slides forward and backward.

[0038] Embodiment two

[0039] Please refer to Figure 9 On the basis of combining embodiment one, as an embodiment to improve the quality of the product, the slide block 3 is made of metal material, such as titanium alloy material, the upper surface of the slide block 3 is provided with a window position 33 on both sides along the length direction of the slide block 3, and the window position 33 is embedded with a visible lens 34.

[0040] The above has described various embodiments of the present disclosure, and the above description is exemplary, not exhaustive, and is not limited to the disclosed embodiments. Many modifications and changes are obvious to those skilled in the art without departing from the scope and spirit of the described embodiments. The selection of terms used herein is intended to best explain the principles, practical application or improvement of technology in the market of the embodiments, or to enable other ordinary skilled persons in the art to understand the embodiments disclosed herein.

Claims

1. A magnetic-pulling bouncing slider push card toy, comprising a slider base, a slide rail, and a slider, the slide rail is fixed on the slider base, the bottom of the slider is provided with a sliding groove position passing through both ends along the length direction of the slider, the sliding groove position is buckled on the slide rail, and the slider slides back and forth along the slide rail, characterized in that, a plurality of magnets A are arranged on the upper surface of the slide rail at intervals, at least one straight channel is arranged in the block above the sliding groove position of the slider, the straight channel is arranged along the length direction of the slider, and the two ends of the straight channel are respectively fixed with a magnet B and a magnet C, the inside of the straight channel is provided with a magnet D which can move back and forth inside, and the magnet D is arranged in repulsion with the magnet B and the magnet C; wherein, when the slider slides back and forth along the slide rail, the magnet D in the straight channel is attracted and moved close to the magnet B or the magnet C by the magnet A on the slide rail, at this moment, the repulsive force formed by the magnet B or the magnet C and the magnet D promotes the magnet D to bounce along the straight channel. the front and rear halves of the block of the slider are each provided with three straight channels arranged side by side along the length direction, and the plurality of magnets A on the upper surface of the slide rail include a magnet A-1 and a magnet A-2 arranged near the front end of the slide rail, a magnet A-4 and a magnet A-5 arranged near the rear end of the slide rail, and a magnet A-3 and a magnet A-6 arranged near the middle positions of the front and rear halves of the slide rail along the length direction, 2. The magnetic pop-up slider push card toy of claim 1, wherein, wherein, the magnet A-1, the magnet A-2, and the magnet A-3 correspond to the bottoms of the three straight channels in the front half of the slider, and the magnet A-4, the magnet A-5, and the magnet A-6 correspond to the bottoms of the three straight channels in the rear half of the slider. the magnet D in the three straight channels in the front half of the slider is provided with a bouncing bead in the front channel, and the magnet D in the three straight channels in the rear half of the slider is provided with a bouncing bead in the rear channel. the bouncing bead is a fluorescent bead.

3. The magnetic pop-up slider push card toy of claim 2, wherein, a recess position is arranged at the center position of the upper surface of the slider, a decorative piece is embedded in the recess position, and the upper surface of the decorative piece protrudes from the upper surface of the slider.

4. The magnetic pop-up slider push card toy of claim 3, wherein, the slider is made of transparent plastic material.

5. The magnetic pop-up slider push card toy of claim 1, wherein, the slider is made of metal material, and a window position is arranged on both sides of the decorative piece along the length direction of the slider, and a visual lens is embedded in the window position.

6. The magnetic pop-up slider push card toy of claim 1, wherein, at least one wave groove track is arranged on the bottom wall of the slider along the length direction, and a mounting hole position is arranged on the slide rail, a compression spring is arranged in the mounting hole position, and a ball is arranged on the compression spring to abut against the wave groove track.

7. The magnetic pop-up slider push card toy of claim 5, wherein, C-shaped sliding grooves are arranged on both sides of the sliding groove position along the length direction, and outwardly protruding convex edges are arranged on the two side walls of the slide rail along the length direction, and the slider is sleeved on the convex edges through the C-shaped sliding grooves.

8. The magnetic pop-up slider push card toy of claim 1, wherein, ​ 9. The magnetic pop-up slider push card toy of claim 1, wherein, ​ 10. The magnetic pop-up slider push card toy of claim 9, wherein, The C-shaped sliding groove is provided with a stop protrusion in the middle of the bottom, the upper surface of the sliding block base is provided with protruding surrounding edges on both sides along the length direction, the protruding surrounding edges are provided with opposite middle parts extending in the bending parts corresponding to the front and rear ends of the sliding block base, and the bending parts form the sliding limit when the sliding block slides forward and backward, and the stop protrusion stops in the bending parts.

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