A conveniently adjustable magnetic positioning system for the pyramid Rubik's Cube

Abstract

The present invention relates to the technical field of Rubik's Cube, and in particular to a conveniently adjustable pyramid Rubik's Cube magnetic positioning system, comprising a center block body and an edge block body, a magnetic module is provided between the center block body and the edge block body, and a linkage mechanism for simultaneously adjusting a plurality of magnetic modules is provided in the center block body and / or the edge block body, so as to facilitate simultaneous adjustment of the plurality of magnetic modules. A magnetic module is provided between the edge block body and the center block body, and compared with the prior art, the center block body is provided with a linkage mechanism, and the linkage mechanism is used to simultaneously adjust the magnetic module between the edge block body and the center block body, so as to improve the efficiency of adjusting the magnetic module, thereby improving the efficiency of adjusting the magnetic force between the edge block body and the center block body; since the magnetic force between the edge block body and the adjacent center block body is adjusted simultaneously, the magnetic force changes between the center block body and the plurality of edge block bodies are equal, which is conducive to optimizing the experience of playing the pyramid Rubik's Cube.

Description

Technical Field

[0001] The invention relates to the technical field of magic cubes, and in particular to a conveniently adjustable pyramid magic cube magnetic positioning system. Background Art

[0002] Since its inception, the Rubik's Cube has been popular all over the world because of its strong intellectual function for humans. The Rubik's Cube is easy to understand, ever-changing and flexible. To play it well, the player must be able to concentrate, think continuously, and not be impatient to gradually play it well. In a sense, the Rubik's Cube has become a special toy for intellectual development and a toy for testing the player's intelligence level and maturity, thus attracting a large number of players. Among them, the three-level Rubik's Cube is the most common. In order to enrich the playing methods of the Rubik's Cube, the pyramid Rubik's Cube was invented.

[0003] The existing Chinese invention patent with announcement number CN211752401U discloses a magnetically adjustable pyramid Rubik's Cube, which includes four corner block assemblies, four center block assemblies, and six edge block assemblies. The edge block assemblies include two edge block shells and two edge block shell clamping connectors, and the slots of the edge block shells are equipped with disc magnets; the center block assembly includes a center shell, three center block magnetic force assemblies, a magnetic fixed sleeve, and three center block cover sheets. By adjusting the center block magnetic assembly, the magnetic force of the pyramid Rubik's Cube can be adjusted.

[0004] The above-mentioned prior art solutions have the following defects: the central block magnetic component of the pyramid Rubik's Cube can only be adjusted individually, which makes it cumbersome and inefficient to adjust the magnetic force of the pyramid Rubik's Cube, and it is difficult to ensure that the magnetic force of each central block magnetic component is consistent, thereby affecting the experience of playing the Rubik's Cube. If the player is in a Rubik's Cube race, it will put the player at a disadvantage. Summary of the invention

[0005] The purpose of the present invention is to provide a pyramid Rubik's Cube magnetic positioning system that is easy to adjust. It has the advantage of simultaneously adjusting multiple magnetic parts in the pyramid Rubik's Cube, thereby improving the efficiency of adjusting the magnetic parts in the pyramid Rubik's Cube, so that the adjustment distances of multiple magnetic parts are equal, which is conducive to optimizing the experience of playing the pyramid Rubik's Cube.

[0006] The above-mentioned object of the present invention is achieved through the following technical solutions:

[0007] A conveniently adjustable pyramid Rubik's Cube magnetic positioning system comprises a center block body and an edge block body, a magnetic module is arranged between the center block body and the edge block body, and a linkage mechanism for simultaneously adjusting a plurality of magnetic modules is arranged in the center block body and / or the edge block body, so as to facilitate simultaneous adjustment of the plurality of magnetic modules.

[0008] The present invention is further configured as follows: the linkage mechanism includes a fixed sleeve, a plurality of driving gears installed on the fixed sleeve, a linkage gear meshing with the driving gear and an adjustment cover linkage-connected to the driving gear, so that the adjustment cover drives another adjustment cover to move through the driving gear and the linkage gear; the adjustment cover is preferably linkage-sleeved on the driving gear.

[0009] The present invention is further configured as follows: a mounting tube is provided in the adjustment cover, a threaded rod is provided on the outer wall of the mounting tube, a threaded groove matching the threaded rod is provided in the driving gear, the threaded rod is placed in the threaded groove, and the driving gear drives the mounting tube to move; preferably, two threaded rods are provided, and the two threaded rods are located on the outer walls on both sides of the mounting tube, and the driving gear cooperates with the two threaded rods to provide two threaded grooves.

[0010] The present invention is further configured as follows: a fixing rod is provided on the side wall of the fixed sleeve, and the driving gear is sleeved on the fixing rod, so that the driving gear is installed on the fixed sleeve.

[0011] The present invention is further configured as follows: a limiting protrusion is provided at the end of the fixing rod, and the installation tube is sleeved on the limiting protrusion to limit the rotation of the installation tube.

[0012] The present invention is further configured as follows: the magnetic module includes at least two magnetic parts, and the magnetic parts are placed in the installation tube to achieve the installation of the magnetic parts.

[0013] The present invention is further configured as follows: a clamping block is provided on the outer wall of the driving gear, and a clamping groove matching the clamping block is provided on the adjusting cover, and the clamping block is clamped into the clamping groove to realize the linkage between the driving gear and the adjusting cover.

[0014] The present invention is further configured as follows: an adjustment hole is provided on the side wall of the central block body, the adjustment cover is placed in the adjustment hole, and the adjustment cover is provided with an adjustment slot for driving the adjustment cover to rotate, so that the adjustment slot is used to drive the adjustment cover to rotate.

[0015] The present invention is further configured as follows: the outer wall of the central block body is provided with a first scale for indicating the magnitude of the magnetic force, and the adjustment cover is provided with a first mark pointing to the first scale to facilitate adjustment of the magnitude of the magnetic force.

[0016] The present invention is further configured to include: a central shaft, and the fixed shaft sleeve and / or the linkage gear sleeve are arranged on the central shaft.

[0017] In summary, the beneficial technical effects of the present invention are:

[0018] 1. The present invention has a scientific and reasonable design and a simple structure. A magnetic module is provided between the edge block body and the center block body. Compared with the prior art, the center block body is provided with a linkage mechanism, which is used to simultaneously adjust the magnetic module between the edge block body and the center block body to improve the efficiency of adjusting the magnetic module, thereby improving the efficiency of adjusting the magnetic force between the edge block body and the center block body; since the magnetic force between the edge block body and the adjacent center block body is adjusted at the same time, the magnetic force changes between the center block body and multiple edge block bodies are equal, which is conducive to optimizing the experience of playing the pyramid Rubik's Cube;

[0019] 2. The linkage mechanism includes a fixed sleeve, a plurality of driving gears mounted on the fixed sleeve, a linkage gear meshing with the driving gear, and an adjustment cover mounted on the driving gear. The adjustment cover is rotated to drive the driving gear to rotate, and the driving gear drives another driving gear to rotate through the linkage gear, thereby realizing linkage of multiple driving gears;

[0020] 3. A mounting cylinder is provided in the adjustment cover, and the magnetic part is placed in the mounting cylinder. Threaded rods are provided on the outer walls of both sides of the mounting cylinder. Double thread grooves matching the threaded rods are provided in the driving gear. The threaded rods are placed in the thread grooves. The driving gear drives the threaded rods to move through the thread grooves, so that the mounting cylinder reciprocates in the driving gear, thereby adjusting the magnetic part in the center block body;

[0021] 4. A limiting protrusion is provided at the end of the fixing rod, and the installation tube is sleeved in the limiting protrusion to limit the rotation of the installation tube, so that the installation tube reciprocates back and forth along the length direction of the fixing rod to adjust the magnetic part in the center block body. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a cross-sectional view of a pyramid magic cube of the present invention;

[0023] Figure 2 is an exploded view of the center block body of the present invention;

[0024] Figure 3 is an exploded view of the center block body of the present invention;

[0025] Figure 4 is an exploded view of the edge block body of the present invention;

[0026] Figure 5 It is an exploded view of the pyramid Rubik's Cube of the present invention;

[0027] Figure 6 It is a structural schematic diagram of the central axis of the present invention;

[0028] Figure 7 is an exploded view of the central axis of the present invention;

[0029] Figure 8is an exploded view of the central axis of the present invention;

[0030] Fig. 9 It is an exploded view of the corner block body of the present invention.

[0031] In the figure, 1, central axis; 11, connecting axis; 111, shaft column; 112, clamping groove; 12, axis; 121, shaft groove; 2, central block body; 21, central block shell; 211, connecting cylinder; 212, buckle block; 213, adjustment hole; 214, first scale; 215, oil groove; 216, cylinder; 22, central block shell cover; 221, clamping groove; 222, connecting strip; 223, connecting groove; 224, connecting rod; 225, buckle groove ; 23, card shell; 3, edge block body; 31, edge block shell; 311, assembly tube; 312, buckle strip; 313, through hole; 32, edge block shell cover; 321, assembly rod; 322, buckle cavity; 323, assembly groove; 324, assembly strip; 33, card foot assembly; 34, large card foot; 341, mounting hole; 342, mounting buckle; 35, small card foot; 351, mounting rod; 352, mounting groove; 36, card cover; 37, embedded block; 4, Corner block body; 41, corner block bottom shell; 411, limit cover; 412, second scale; 413, limit hole; 414, limit column; 415, placement slot; 416, buckle hole; 42, corner block shell cover; 421, plug-in rod; 422, buckle; 423, card cavity; 424, card strip; 43, snap ring; 44, adjustment block; 441, convex block; 442, second mark; 443, third mark; 5, magnetic module; 51, magnetic part; 6, connection driving mechanism; 61, fixed sleeve; 611, fixed rod; 612, limiting protrusion; 62, driving gear; 621, clamping block; 622, threaded groove; 63, adjusting cover; 631, clamping groove; 632, adjusting groove; 633, first identification; 64, linkage gear; 65, mounting tube; 651, threaded rod; 7, floating mechanism; 71, compression spring; 72, limiting cover; 721, limiting block; 722, limiting groove; 723, stepped portion. DETAILED DESCRIPTION

[0032] The present invention is further described in detail below in conjunction with the accompanying drawings.

[0033] Reference Figures 1 to 9 , is a pyramid Rubik's Cube disclosed in this patent. The pyramid Rubik's Cube is set in a tetrahedral special shape. The pyramid Rubik's Cube includes a central axis 1, four central block bodies 2, six edge block bodies 3 and four corner block bodies 4. The central axis 1 passes through the protruding end of the central block body 2 and is connected to the corner block body 4, and the central axis 1 extends into the corner block body 4. The corner block body 4 is wedged with the central block body 2, and the edge block body 3 is clamped between two adjacent central block bodies 2 and the central axis 1 to form a pyramid Rubik's Cube.

[0034] The central axis 1 is arranged in the shape of a four-legged cone to form the skeleton of the pyramid Rubik's Cube; the central axis 1 includes four connecting axes 11, the four connecting axes 11 intersect at one point, and the axes of the four connecting axes 11 intersect at one point, and the four connecting axes 11 are integrally formed to form the central axis 1; the diameter of one end of the connecting axis 11 is greater than the diameter of the other end, wherein the end of the connecting axis 11 with a larger diameter intersects with another connecting axis 11, so that the central axis 1 can bear a greater load-bearing capacity. A clamping groove 112 is provided on the circumferential side wall of the connecting axis 11, and the clamping groove 112 is located at the end of the connecting axis 11 away from the other connecting axis 11, that is, the clamping groove 112 is located at the end of the central axis 1. The angle between two adjacent connecting axes 11 is about 109.5 degrees. When the central axis 1 is projected onto a plane from the end of one of the connecting axes 11, the angle formed by the projections of the two adjacent connecting axes 11 in the plane is 120 degrees, so that the projections of the three connecting axes 11 of the central axis 1 form three identical angles. The central shaft 1 can be made of metal or plastic, wherein the central shaft 1 made of metal can withstand a greater load-bearing capacity.

[0035] The central shaft 1 may also include a shaft core 12 and four connecting shafts 11, wherein a shaft groove 121 is provided at the end of the shaft core 12, and a shaft column 111 matching the shaft groove 121 is provided at the end of the connecting shaft 11, and the shaft column 111 extends into the shaft groove 121 to achieve positioning of the connecting shaft 11 and the shaft core 12, so as to facilitate welding and fixing of the connecting shaft 11 and the shaft core 12. As an alternative, a shaft column 111 is provided at the end of the shaft core 12, and a shaft groove 121 matching the shaft column 111 is provided at the end of the connecting shaft 11, and the shaft column 111 extends into the shaft groove 121 to achieve positioning of the connecting shaft 11 and the shaft core 12, so as to facilitate welding and fixing of the connecting shaft 11 and the shaft core 12. The axis 12 can also be integrally formed with a connecting shaft 11. A shaft groove 121 is provided at the end of the axis 12, and a shaft column 111 matching the shaft groove 121 is provided at the end of the connecting shaft 11. The shaft column 111 extends into the shaft groove 121 to achieve positioning of the connecting shaft 11 and the axis 12, so as to facilitate welding and fixing of the connecting shaft 11 and the axis 12; as an alternative solution, a shaft column 111 is provided at the end of the axis 12, and a shaft groove 121 matching the shaft column 111 is provided at the end of the connecting shaft 11. The shaft column 111 extends into the shaft groove 121 to achieve positioning of the connecting shaft 11 and the axis 12, so as to facilitate welding and fixing of the connecting shaft 11 and the axis 12.

[0036] A magnetic module 5 is provided between the center block body 2 and the edge block body 3, so that when the pyramid Rubik's Cube is rotated, the center block body 2 and the edge block body 3 are positioned, thereby optimizing the experience of playing the pyramid Rubik's Cube; another magnetic module 5 is provided between the center block body 2 and the corner block body 4, so that when the pyramid Rubik's Cube is rotated, the center block body 2 and the corner block body 4 are positioned, thereby optimizing the experience of playing the Rubik's Cube. The magnetic module 5 includes at least two magnetic parts 51, and the magnetic parts 51 are placed in corresponding positions in the center block body 2 and the corner block body 4, and the magnetic parts 51 are placed in corresponding positions in the center block body 2 and the edge block body 3, so that the corresponding magnetic parts 51 play a role, thereby optimizing the experience of playing the Rubik's Cube.

[0037] The center block body 2 includes a center block shell 21, three center block shell covers 22 covering the center block shell 21, and a clamping shell 23 clamped between the three center block shell covers 22, wherein the clamping shell 23 is located on the side of the center block shell cover 22 away from the center block shell 21; a clamping groove 221 is formed between the three center block shell covers 22, and the clamping shell 23 is placed in the clamping groove 221. A connecting strip 222 is provided on the side of the center block shell cover 22, and the other center block shell cover 22 is provided with a connecting groove 223 that matches the connecting strip 222. The connecting strip 222 is inserted into the connecting groove 223 to realize the assembly of the two center block shell covers 22; the connecting groove 223 is a dovetail groove to limit the connecting strip 222 from escaping from the connecting groove 223, so that the assembly of the two center block shell covers 22 is more stable; the connecting groove 223 and the connecting strip 222 are arranged on both sides of the center block shell cover 22, so that the structure of each center block shell cover 22 is the same, thereby improving the efficiency of assembling the center block shell cover 22. The center block shell cover 22 is provided with a connecting rod 224, and the center block shell 21 is provided with a connecting tube 211 that matches the connecting rod 224. The connecting rod 224 extends into the connecting tube 211 to realize the assembly of the center block shell cover 22 and the center block shell 21; the inner wall of the connecting tube 211 is provided with a buckle block 212, and the connecting rod 224 is provided with a buckle groove 225 that matches the buckle block 212. The buckle block 212 is inserted into the buckle groove 225 to limit the connecting rod 224 from escaping from the connecting tube 211, thereby realizing a more stable assembly of the center block shell cover 22 and the center block shell 21.

[0038] A linkage mechanism 6 is provided between the central block housing 21 and the clamping shell 23. The linkage mechanism 6 is sleeved on the connecting shaft 11. The linkage mechanism 6 contacts the clamping shell 23. The linkage mechanism 6 is used to simultaneously adjust multiple magnetic members 51 in the central block housing 21, making it easier to adjust the magnetic members 51 in the central block body 2. The three magnetic members 51 in the central block body 2 have the same adjustment amplitude, which is conducive to optimizing the experience of playing the pyramid Rubik's Cube. The linkage mechanism 6 includes a fixed sleeve 61 sleeved on the connecting shaft 11, three driving gears 62 installed on the fixed sleeve 61, an adjustment cover 63 sleeved on the driving gear 62, and a linkage gear 64 meshing with the three driving gears 62. The linkage gear 64 is sleeved on the connecting shaft 11, the linkage gear 64 is located between the fixed sleeve 61 and the central block housing 21, the linkage gear 64 contacts the fixed sleeve 61, and the fixed sleeve 61 contacts the clamping shell 23. The outer walls of both sides of the driving gear 62 are provided with snap-on blocks 621, and the adjusting cover 63 is provided with snap-on grooves 631 matched with the snap-on blocks 621. The snap-on blocks 621 are snapped into the snap-on grooves 631 to realize the linkage between the adjusting cover 63 and the driving gear 62. The adjusting cover 63 is provided with a mounting tube 65, and the magnetic member 51 is placed in the mounting tube 65. The bottom of the mounting tube 65 contacts the central block housing 21, so that the magnetic member 51 in the central block housing 21 and the magnetic member 51 in the ridge block body 3 can interact with each other. The outer walls of both sides of the mounting tube 65 are provided with threaded rods 651, and the driving gear 62 is provided with double (two) threaded grooves 622 matched with the threaded rods 651. The threaded rods 651 are placed in the threaded grooves 622, and the threaded rods 651 slide in the threaded grooves 622 to realize the reciprocating movement of the mounting tube 65 in the driving gear 62. The side wall of the fixed sleeve 61 is evenly provided with three fixed rods 611, and the driving gear 62 is sleeved on the fixed rod 611, so that the driving gear 62 is installed on the fixed sleeve 61; the end of the fixed rod 611 is provided with a limiting protrusion 612, and the cross section of the limiting protrusion 612 is set in a regular hexagonal shape, and the opening of the installation cylinder 65 is sleeved on the limiting protrusion 612 to limit the rotation of the installation cylinder 65, so that the installation cylinder 65 can reciprocate back and forth along the length direction of the fixed rod 611, so as to drive the magnetic member 51 to reciprocate back and forth along the length direction of the fixed rod 611, so as to adjust the position of the magnetic member 51 in the center block body 2. The side wall of the center block shell 21 is provided with an adjustment hole 213 that cooperates with the adjustment cover 63, and the adjustment cover 63 extends into the adjustment hole 213, so that the installation cylinder 65 is placed in the adjustment hole 213, so that the installation cylinder 65 is closer to the edge block body 3, so that the magnetic member 51 in the installation cylinder 65 interacts with the magnetic member 51 in the edge block body 3. The side wall of the adjustment cover 63 is provided with an adjustment groove 632. The adjustment groove 632 and the clamping groove 631 are respectively located at two ends of the adjustment cover 63. The adjustment cover 63 is located in the adjustment hole 213, so that the adjustment cover 63 can be driven to rotate by a tool through the adjustment groove 632.

[0039] A tool is used to drive the adjustment cover 63 to rotate through the adjustment groove 632, and the adjustment cover 63 drives the driving gear 62 to rotate. On the one hand, the driving gear 62 drives the installation tube 65 to reciprocate along the length direction of the fixed rod 611 through the threaded groove 622, so as to adjust the magnetic part 51 placed in the installation tube 65. On the other hand, the driving gear 62 drives another driving gear 62 to rotate through the linkage gear 64, so as to realize the linkage of the three driving gears 62, so as to realize the simultaneous adjustment of the three magnetic parts 51 in the center block body 2, thereby realizing the simultaneous adjustment of the magnetic module 5 between the center block body 2 and the edge block body 3.

[0040] The outer wall of the center block housing 21 is provided with a first scale 214 for indicating the magnitude of the magnetic force exerted by the magnetic member 51 in the center block body 2, and the adjustment cover 63 is provided with a first mark 633 pointing to the first scale 214, so as to rotate the adjustment cover 63 according to the situation that the first mark 633 points to the first scale 214, so as to adjust the magnetic member 51 in the center block body 2. The outer wall of the center block housing 21 is provided with a plurality of oil grooves 215, and the oil grooves 215 are arranged in a pyramid shape, and lubricating oil is applied in the oil grooves 215 to reduce the friction between the center block housing 21 and the edge block body 3, which is conducive to improving the experience of playing the pyramid Rubik's Cube. The bottom of the center block housing 21 is provided with a cylinder 216, and the cylinder 216 is located on the surface of the center block housing 21 away from the clamping shell 23, and the connecting shaft 11 passes through the protruding end of the cylinder 216 and the clamping shell 23 in sequence and is connected to the corner block body 4. A magnetic piece 51 is provided between the locking shell 23 and the center block shell cover 22. The center block shell cover 22 is provided with a groove for placing the magnetic piece 51. The magnetic piece 51 is placed in the groove of the center block shell cover 22, so that the locking shell 23 and the center block shell cover 22 are more compact, so that the magnetic piece 51 can interact with the magnetic piece 51 in the corner block body 4, which is beneficial to the positioning of the center block body 2 and the corner block body 4, thereby optimizing the experience of playing the pyramid Rubik's Cube.

[0041] The block body 3 includes a block shell 31, two block shell covers 32 covering the block shell 31, and a foot assembly 33 located at the bottom of the block shell 31 away from the block shell cover 32. The foot assembly 33 is clamped between two adjacent center block bodies 2 and the center axis 1, so that the block body 3 is clamped between the two adjacent center block bodies 2 and the center axis 1; the bottom surfaces of the four center block shells 21 away from the center block shell cover 22 are spherical, and the foot assembly 33 abuts against the bottom of the center block shell 21 to form the core of the pyramid Rubik's Cube. The clamping foot assembly 33 includes a large clamping foot 34 integrally formed with the edge block shell 31 and a small clamping foot 35 detachably connected to the large clamping foot 34, and the small clamping foot 35 is located at the bottom of the large clamping foot 34 away from the edge block shell 31; the large clamping foot 34 is provided with a mounting hole 341, and the small clamping foot 35 is provided with a mounting rod 351 that matches the mounting hole 341, and the mounting rod 351 is inserted into the mounting hole 341 to realize the assembly of the small clamping foot 35 and the large clamping foot 34; a mounting buckle 342 is provided in the mounting hole 341, and a mounting groove 352 that matches the mounting buckle 342 is provided on the side wall of the mounting rod 351, and the mounting buckle 342 is buckled into the mounting groove 352 to limit the mounting rod 351 from falling out of the mounting hole 341. The large foot 34 and the small foot 35 are both elliptical, and the large foot 34 contacts the bottom of the center block body 2. The long axes of the large foot 34 and the small foot 35 are perpendicular. When the pyramid Rubik's Cube is rotated, the large foot 34 passes through the gap between the small foot 35 and the center block shell 21, making the rotation of the pyramid Rubik's Cube more regular and orderly. Since the bottom of the center block shell 21 is provided with a cylinder 216, four large feet 34 surround the cylinder 216. When the pyramid Rubik's Cube performs fault-tolerant movement, the cylinder 216 supports the large feet 34 to reduce the swing of multiple large feet 34, making the pyramid Rubik's Cube more stable. There is a gap between the cylinder 216 and the large foot 34 to increase the amplitude of the fault-tolerant movement of the pyramid Rubik's Cube, thereby optimizing the experience of playing the pyramid Rubik's Cube.

[0042] The edge block shell cover 32 is provided with an assembly rod 321, and the edge block shell 31 is provided with an assembly tube 311 that matches the assembly rod 321. The assembly rod 321 is inserted into the assembly tube 311 to achieve the assembly of the edge block shell cover 32 and the edge block shell 31. The inner wall of the assembly tube 311 is provided with a buckle strip 312, and the side wall of the assembly rod 321 is provided with a buckle cavity 322 that matches the buckle strip 312. The buckle strip 312 is inserted into the buckle cavity 322 to prevent the assembly rod 321 from escaping from the assembly tube 311. The edge block shell cover 32 is provided with an assembly groove 323, which is a dovetail groove. The other edge block shell cover 32 is provided with an assembly strip 324 that matches the assembly groove 323. The assembly strip 324 is inserted into the assembly groove 323. On the one hand, the assembly of the two edge block shell covers 32 is achieved, and on the other hand, the two assembled edge block shell covers 32 are prevented from spreading. The assembly groove 323 and the assembly strip 324 are both arranged on the edge block shell cover 32, and the assembly strip 324 and the assembly groove 323 are located on the same straight line. The inner wall of the edge block shell 31 is provided with a snap-on cover 36, which is detachably snap-on with the inner wall of the edge block shell 31, and the magnetic member 51 is placed in the snap-on cover 36 to fix the magnetic member 51 on the edge block shell 31; the side wall of the edge block shell 31 is provided with a through hole 313, and an insert 37 for blocking the through hole 313 is snap-on in the through hole 313, and the insert 37 is provided with CD lines, and the insert 37 abuts against the magnetic member 51 through the CD lines to limit the magnetic member 51 from escaping from the edge block shell 31 through the through hole 313. The insert 37 is made of transparent material, so that the magnetic member 51 in the edge block shell 31 can be observed through the through hole 313.

[0043] The corner block body 4 is arranged in a tetrahedral shape, and the corner block body 4 includes a corner block bottom shell 41 and three corner block shell covers 42 covering the corner block bottom shell 41. A snap ring 43 is provided between the corner block bottom shell 41 and the corner block shell cover 42. The protruding end of the connecting shaft 11 passes through the corner block bottom shell 41 and extends into the corner block body 4 to be engaged with the snap ring 43 through the slot 112, thereby realizing the connection between the corner block body 4 and the connecting shaft 11; the snap ring 43 is provided with two holes, so that a tool can be used to extend into the two holes of the snap ring 43, making it easier to insert the snap ring 43 into the slot 112 of the connecting shaft 11. A floating mechanism 7 is provided between the snap ring 43 and the corner block bottom shell 41, and the floating mechanism 7 is sleeved on the connecting shaft 11. An adjusting block 44 is provided between the floating mechanism 7 and the snap ring 43. The protruding end of the connecting shaft 11 passing through the adjusting block 44 is clamped with the snap ring 43 through the clamping groove 112. An adjusting assembly is provided between the adjusting block 44 and the floating mechanism 7, and the adjusting block 44 adjusts the wheelbase of the corner block body 4 through the adjusting assembly. A limiting cover 411 is provided on the corner block bottom shell 41, and the limiting cover 411 extends toward the center block body 2, and extends into the clamping shell 23 of the center block body 2, and there is a gap between the limiting cover 411 and the fixed shaft sleeve 61. The floating mechanism 7 includes a compression spring 71 and a limit cover 72. The limit cover 72 is placed in the limit cover 411. One end of the compression spring 71 contacts the bottom of the limit cover 411, and the other end contacts the limit cover 72. The compression spring 71 is in a compressed state. The compression spring 71 is sleeved on the connecting shaft 11, and the connecting shaft 11 passes through the limit cover 72. The circumferential side wall of the limit cover 72 is provided with a plurality of limit blocks 721. The limit cover 411 is provided with a limit hole 413 matching the limit block 721. The limit block 721 is inserted into the limit hole 413 to prevent the limit cover 72 from escaping from the limit cover 411. The length of the limiting hole 413 is greater than the thickness of the limiting block 721, so that the limiting block 721 can reciprocate back and forth in the limiting hole 413 along the length direction of the connecting shaft 11, so that the limiting cover 72 can reciprocate back and forth in the limiting cover 411 along the length direction of the connecting shaft 11, so that the wheelbase of the corner block body 4 can be changed. The inner wall of the limiting cover 411 is provided with a limiting column 414, and the limiting column 414 is spaced apart from the limiting hole 413. The side wall of the limiting cover 72 is provided with a limiting groove 722 matching the limiting column 414, and the limiting column 414 is placed in the limiting groove 722 to limit the rotation of the limiting cover 72 in the limiting cover 411. The adjustment assembly includes a plurality of groups of stepped portions 723 arranged on the limit cover 72 and four protrusions 441 arranged on the adjustment block 44. The stepped portions 723 are located on the surface of the limit cover 72 away from the compression spring 71. The protrusions 441 are matched with the stepped portions 723, and the protrusions 441 abut against the stepped portions 723. The adjustment block 44 is rotated to make the protrusions 441 move on the stepped portions 723, so as to drive the limit cover 72 to reciprocate back and forth along the length direction of the connecting shaft 11, thereby changing the compression state of the compression spring 71 and adjusting the wheelbase of the angle block body 4.The cross section of the protrusion 441 is set in a triangular shape, so that the protrusion 441 can only rotate in one direction on the step portion 723. The surface of the adjustment block 44 away from the limit cover 72 is provided with a third mark 443 that matches the rotation direction of the protrusion 441, so as to facilitate the rotation of the adjustment block 44. The opening of the limit cover 411 is provided with a second scale 412, and the second scale 412 is provided in cooperation with the step portion 723. The distance between the wheelbase of the corner block body 4 adjusted by two adjacent steps of the step portion 723 is 0.1mm. The side wall of the adjustment block 44 is provided with a second mark 442 pointing to the second scale 412, so as to facilitate the observation of the wheelbase of the corner block body 4. The corner block bottom shell 41 is provided with a placement groove 415, and the magnetic member 51 is placed in the placement groove 415, so that the magnetic member 51 interacts with the magnetic member 51 between the clamping shell 23 and the center block shell cover 22, so that the alignment and positioning of the corner block body 4 and the center block body 2 are easier, thereby optimizing the experience of playing the pyramid Rubik's Cube. The corner block shell cover 42 is provided with a plug-in rod 421, which is inserted into the placement groove 415. On the one hand, the corner block shell cover 42 and the corner block bottom shell 41 are assembled, and on the other hand, the plug-in rod 421 restricts the magnetic member 51 in the placement groove 415 from escaping. The groove wall of the placement groove 415 is provided with a buckle hole 416, and the side wall of the plug-in rod 421 is provided with a buckle 422 that matches the buckle hole 416. The buckle 422 is inserted into the buckle hole 416 to restrict the plug-in rod 421 from escaping from the placement groove 415. The side wall of the corner block shell cover 42 is provided with a card cavity 423, and the card cavity 423 is a dovetail groove. The side wall of the other corner block shell cover 42 is provided with a card strip 424 that matches the card cavity 423. The card strip 424 is inserted into the card cavity 423, which not only realizes the assembly of the two corner block shell covers 42, but also makes the two assembled corner block shell covers 42 more fixed. The card cavity 423 and the card strip 424 are respectively arranged on both sides of the corner block shell cover 42 to facilitate the assembly of the two adjacent corner block shell covers 42.

[0044] The embodiments of this specific implementation method are all preferred embodiments of the present invention, and are not intended to limit the protection scope of the present invention. Therefore, any equivalent changes made based on the structure, shape, and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A conveniently adjustable pyramid magic cube magnetic positioning system, characterized by: The device comprises a central block body (2) and an edge block body (3), wherein a magnetic module (5) is arranged between the central block body (2) and the edge block body (3), and a linkage mechanism (6) for simultaneously adjusting a plurality of magnetic modules (5) is arranged in the central block body (2) and / or the edge block body (3), so as to facilitate simultaneous adjustment of the plurality of magnetic modules (5); The central block body (2) comprises a central block shell (21), three central block shell covers (22) covering the central block shell (21), and a clamping shell (23) clamped between the three central block shell covers (22), and a linkage mechanism (6) is provided between the central block shell (21) and the clamping shell (23); The linkage mechanism (6) comprises a fixed shaft sleeve (61), a plurality of driving gears (62) mounted on the fixed shaft sleeve (61), a linkage gear (64) meshing with the driving gear (62), and an adjustment cover (63) linkage-connected to the driving gear (62), so that the adjustment cover (63) drives another adjustment cover (63) to move through the driving gear (62) and the linkage gear (64); the adjustment cover (63) is linkage-sleeved on the driving gear (62); The adjusting cover (63) is provided with a mounting tube (65), the outer wall of the mounting tube (65) is provided with a threaded rod (651), the driving gear (62) is provided with a threaded groove (622) matching the threaded rod (651), the threaded rod (651) is placed in the threaded groove (622), so that the driving gear (62) drives the mounting tube (65) to move; The magnetic module (5) comprises at least two magnetic parts (51), and the magnetic parts (51) are placed in the installation cylinder (65) to achieve the installation of the magnetic parts (51).

2. The easily adjustable pyramid magic cube magnetic positioning system according to claim 1, characterized in that: Two threaded rods (651) are provided, and the two threaded rods (651) are located on the outer walls of both sides of the installation cylinder (65). The driving gear (62) is matched with the two threaded rods (651) and is provided with two thread grooves (622).

3. The easily adjustable pyramid magic cube magnetic positioning system according to claim 1, characterized in that: A fixing rod (611) is provided on the side wall of the fixing sleeve (61), and the driving gear (62) is sleeved on the fixing rod (611), so that the driving gear (62) is installed on the fixing sleeve (61).

4. The easily adjustable pyramid magic cube magnetic positioning system according to claim 3, characterized in that: A limiting protrusion (612) is provided at the end of the fixing rod (611), and the mounting tube (65) is sleeved on the limiting protrusion (612) to limit the rotation of the mounting tube (65).

5. The easily adjustable pyramid magic cube magnetic positioning system according to claim 1, characterized in that: The outer wall of the driving gear (62) is provided with a clamping block (621), and the adjusting cover (63) is provided with a clamping groove (631) matching the clamping block (621). The clamping block (621) is clamped into the clamping groove (631) to realize the linkage between the driving gear (62) and the adjusting cover (63).

6. The easily adjustable pyramid magic cube magnetic positioning system according to claim 1, characterized in that: The side wall of the central block body (2) is provided with an adjustment hole (213), the adjustment cover (63) is placed in the adjustment hole (213), and the adjustment cover (63) is provided with an adjustment groove (632) for driving the adjustment cover (63) to rotate, so that the adjustment groove (632) is used to drive the adjustment cover (63) to rotate.

7. The easily adjustable pyramid magic cube magnetic positioning system according to claim 1, characterized in that: The outer wall of the central block body (2) is provided with a first scale (214) for indicating the magnitude of the magnetic force, and the adjustment cover (63) is provided with a first mark (633) pointing to the first scale (214) to facilitate adjustment of the magnitude of the magnetic force.

8. The easily adjustable pyramid magic cube magnetic positioning system according to claim 1, characterized in that: It also comprises a central shaft (1), and the fixed shaft sleeve (61) and / or the linkage gear (64) are sleeved on the central shaft (1).

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