Conical magnetic Rubik's cube

Abstract

The utility model relates to a conical magnetic magic cube. Comprising two groups of shell half seats, a plurality of magnets and a fixing assembly, a plurality of embedded half grooves are formed in the edges of the shell half seats, the fixing assembly comprises a male column and a female groove, and the male column and the female groove are arranged in the two groups of shell half seats respectively; the edges of the two sets of shell half seats abut against each other, the embedded half grooves in the edges of the two sets of shell half seats are enclosed to form an embedded groove for containing a magnet, and the two sets of shell half seats are fixed through mutual embedding of the male columns and the female grooves in the shell half seats. According to the magnetic Rubik's cube, the shell half seats are formed by the two groups of triangular combination plates, the conical magnetic Rubik's cube is formed by combining the two groups of shell half seats in the embedding process, and the magnets for adsorption are arranged on the edges and the edges of the joints, so that the magnetic Rubik's cube with strong stereoscopic impression is manufactured, and the playing matching of children is enriched.

Description

Technical Field

[0001] The utility model belongs to the field of toys, and particularly relates to a conical magnetic magic cube. Background Art

[0002] At present, magnetic Rubik's Cube toys have magnets on their edges, which are spliced ​​into various shapes through mutual adsorption for children to play with. Most of the current magnetic Rubik's Cube toys are square, triangular and polygonal plate-shaped, which are formed into three-dimensional shapes by splicing the plates. The plate structure designed for the current magnetic Rubik's Cube toys can only be connected horizontally and vertically during the splicing process. The three-dimensional model formed is single in form, cannot be well enriched and diversified, and cannot fully tap children's imagination. Utility Model Content

[0003] In order to solve the above technical problems, the utility model provides a conical magnetic Rubik's Cube, which is formed by two groups of triangular combination plates to form a shell half seat. In the process of the two groups of shell half seats being embedded in each other, a conical magnetic Rubik's Cube is formed. Magnets for adsorption are provided on the edges and edges of the connection, making it a magnetic Rubik's Cube with a strong three-dimensional sense, enriching children's play combinations.

[0004] In order to achieve the above purpose, the technical solution adopted by the utility model is:

[0005] A conical magnetic Rubik's Cube comprises two groups of shell half seats, a plurality of magnets and a fixing assembly, wherein a plurality of engaging half grooves are provided on the edges of the shell half seats, and the fixing assembly comprises a male post and a female groove, wherein the male post and the female groove are respectively arranged in the two groups of shell half seats, and the edges of the two groups of shell half seats abut against each other and enclose the engaging half grooves on each other's edges to form an engaging groove for placing the magnets, and the two groups of shell half seats are fixed by engaging the male posts and the female grooves therein.

[0006] The shell half seat is formed by connecting two groups of triangular combination plates, and the connection between the two groups of combination plates forms an edge; the inner side surface of the connection between the two groups of combination plates is provided with an embedding groove, and the embedding groove corresponds to the edge; the shell half seat is also provided with a reinforcing rib, and the reinforcing rib is perpendicular to the edge and is distributed in sequence on the inner side surfaces of the two groups of combination plates; the reinforcing rib is provided with a limiting column, and in the process of the edges of the two groups of shell half seats abutting each other, the limiting column on one group of shell half seats corresponds to the embedding groove on the other group of shell half seats, and a magnet is placed in the embedding groove; the end of the limiting column is placed horizontally at the opening of the embedding groove and does not completely close the embedding groove; the end of the limiting column has a crescent-shaped structure.

[0007] The engaging groove and the embedding groove are both provided with through holes penetrating the shell half seat.

[0008] The conical magnetic Rubik's Cube adopts this structure. In order to be able to form a conical Rubik's Cube, two groups of shell halves are embedded in each other. The shell halves are connected by two groups of combination plates to form an integrated structure. The two groups of shell halves are staggered and embedded in pairs to form a complete conical magnetic Rubik's Cube. In order to facilitate embedding, male posts and female grooves are respectively provided in the two groups of shell halves. During the embedding process, the male posts are embedded in the female grooves to achieve a tight connection. Preferably, multiple groups of fixing components can be distributed in the two groups of shell halves to achieve a tighter connection.

[0009] Since the conical magnetic Rubik's Cube is a toy that is combined into a three-dimensional body by magnetic attraction, magnets need to be distributed on it to achieve magnetic attraction. In order to facilitate assembly, a number of interlocking half-grooves are provided on the edges of the two sets of shell halves. When the two sets of shell halves are interlocked with each other, the interlocking half-grooves on each other's edges surround each other to form an interlocking groove for the magnets to be placed. Therefore, before assembly, the magnets are placed in the interlocking half-grooves on the edges of one set of shell halves in turn. During the interlocking process, the other set of shell halves surrounds the interlocking half-grooves on it with the interlocking half-grooves that have already accommodated the magnets, and the magnets are fastened in the interlocking grooves, thereby achieving mutual attraction between different conical magnetic Rubik's Cubes during the process of approaching and assembling them.

[0010] If only a number of magnets are distributed on the edges of the two sets of shell halves, when the edges of the connection between the two sets of combined plates are to be pieced together, the playability of the magnetic Rubik's Cube will be greatly reduced because there are no magnets placed on the edges. Therefore, an embedding groove is set on the inner side surface of the connection between the two sets of combined plates. The embedding groove corresponds to the edge. After the magnet is placed in the embedding groove, the edge also has the adsorption capacity of the magnet. In order to confine the magnet in the embedding groove, a limiting column is set on the corresponding shell half seat. By making the limiting column correspond to the embedding groove during the assembly process, the opening of the embedding groove is closed to prevent the magnet from falling out. Since the extending length of the limiting column is relatively long, in order to strengthen the connection between the limiting column and the shell half seat, a reinforcing rib is set between them to strengthen its structure.

[0011] In order to facilitate the observation of whether the magnet has been installed during the assembly process, through holes that penetrate the shell half seat are provided on the interlocking groove and the embedding groove, so that the installation status of the magnet in the magnetic cube can be intuitively seen.

[0012] Because children will ignore the actual usage scenarios when using toys, and even bring the magnetic cube into use when playing in the water, causing water to seep in from the gap between the two sets of shell halves. Even if the connection is tightened, it is still possible for water to seep in if there is no seal. The water-filled magnetic cube will continue to seep out under the action of gravity, affecting the play experience. If the accumulated water is not cleaned out for a long time, the water will deteriorate inside. Toys are items that children come into close contact with. Failure to keep them clean and tidy will affect the health of children. Therefore, at the contact position between the fitting groove and the limit column, The limiting column is designed to be horizontal and not completely close the opening of the fitting groove. This can effectively prevent the magnet in the fitting groove from falling, and can also ensure that the through hole, the fitting groove and the inner cavity enclosed by the two sets of shell half seats are connected. Therefore, when water enters the inner cavity from the gap or the through hole, the accumulated water can be easily discharged from the through hole. In particular, both sets of shell half seats are provided with edges, and the edges are provided with through holes, which can achieve air communication between the inside and the outside, making the water flow more smooth and avoiding water accumulation in the toy. Therefore, the magnetic magic cube can be cleaned with clean water when it is dirty without having to worry about water accumulation in it.

[0013] Furthermore, a boss is provided on the edge of one group of the shell half seats, and a groove is provided on the edge of the other group of the shell half seats. When the edges of the two groups of the shell half seats are in contact, the boss is embedded in the groove.

[0014] Compared with the existing technology, the advantages of the present invention are: the conical magnetic Rubik's Cube is composed of two groups of shell half seats, and the magnets are distributed in the embedded grooves enclosed at the connection points, which facilitates assembly and can also achieve the fixation of the magnets. At the same time, magnets are also distributed on its edges, so that the conical magnetic Rubik's Cube has magnetic adsorption capabilities at all positions. The setting of the through holes enables the interior of the magnetic Rubik's Cube to be connected to the outside through the embedded grooves. Therefore, the magnetic Rubik's Cube can be cleaned with clean water when it is dirty, which can avoid water accumulation inside it. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0016] Figure 1 It is a three-dimensional diagram of the utility model;

[0017] Figure 2 This is a front exploded schematic diagram of the present invention;

[0018] Figure 3 This is a rear exploded schematic diagram of the present invention;

[0019] Figure 4 For the utility model Figure 3 A local enlarged view of point A;

[0020] Figure 5 It is a front view of the utility model;

[0021] Figure 6 For the utility model Figure 5 BB cross-sectional view;

[0022] Figure 7 For the utility model Figure 5 CC cross-sectional view.

[0023] Among them: 1. Shell half seat; 11. Fitting groove; 111. Fitting half groove; 12. Combination plate; 121. Edge; 122. Embedding groove; 13. Reinforcement rib; 131. Limiting column; 14. Through hole; 15. Boss; 16. Groove; 2. Magnet; 3. Fixing assembly; 31. Male column; 32. Female groove. DETAILED DESCRIPTION

[0024] To make the purpose, technical solution, and advantages of the present invention more clear, the technical solution of the present invention will be described clearly and completely below. Obviously, the embodiments described are only some of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, all other embodiments derived by persons of ordinary skill in the art without inventive effort are also within the scope of protection of the present invention.

[0025] The specific implementation of the present invention will be described below with reference to the accompanying drawings:

[0026] like Figure 1-7 As shown, a conical magnetic magic cube includes two groups of shell half seats 1, a plurality of magnets 2 and a fixing assembly 3. The edges of the shell half seats 1 are provided with a plurality of engaging half grooves 111. The fixing assembly 3 includes a male column 31 and a female groove 32. The male column 31 and the female groove 32 are respectively arranged in the two groups of shell half seats 1. The edges of the two groups of shell half seats 1 abut against each other and enclose the engaging half grooves 111 on each other's edges to form an engaging groove 11 for placing the magnets 2. The two groups of shell half seats 1 are fixed by the mutual engagement of the male columns 31 and the female grooves 32 therein.

[0027] The shell half seat 1 is connected by two groups of triangular combination plates 12, and the connection between the two groups of combination plates 12 forms an edge 121; the inner side surface of the connection between the two groups of combination plates 12 is provided with an embedding groove 122, and the embedding groove 122 corresponds to the edge 121; the shell half seat 1 is also provided with a reinforcing rib 13, and the reinforcing rib 13 is perpendicular to the edge 121 and is distributed in sequence on the inner side surfaces of the two groups of combination plates 12; the reinforcing rib 13 is provided with a limiting column 131, and in the process of the edges of the two groups of shell half seats 1 abutting each other, the limiting column 131 on one group of shell half seats 1 corresponds to the embedding groove 122 on the other group of shell half seats 1, and the magnet 2 is placed in the embedding groove 122; the end of the limiting column 131 is placed horizontally at the opening of the embedding groove 122 and does not completely close the embedding groove 122; the end of the limiting column 131 has a crescent-shaped structure.

[0028] The engaging groove 11 and the embedding groove 122 are both provided with a through hole 14 penetrating the housing half seat 1 .

[0029] Furthermore, a boss 15 is provided on the edge of one group of the shell half seats 1, and a groove 16 is provided on the edge of the other group of the shell half seats 1. When the edges of the two groups of the shell half seats 1 are in contact, the boss 15 is embedded in the groove 16.

[0030] Description of the working method of this utility model:

[0031] The conical magnetic Rubik's Cube adopts this structure. In order to be able to combine into a conical Rubik's Cube, two groups of shell half seats 1 are embedded in each other. The shell half seats 1 are connected by two groups of combination plates 12 to form an integral structure. The two groups of shell half seats 1 can form a complete conical magnetic Rubik's Cube after being staggered and embedded in pairs. In order to facilitate embedding, male posts 31 and female grooves 32 are respectively provided in the two groups of shell half seats 1. During the embedding process, the male posts 31 are embedded in the female grooves 32 to achieve a tight connection. Preferably, multiple groups of fixing components 3 can be arranged and distributed in the two groups of shell half seats 1 to achieve a tighter connection.

[0032] Since the conical magnetic Rubik's Cube is a toy that is combined into a three-dimensional object by magnetic attraction, magnets 2 need to be distributed on it to achieve magnetic attraction. In order to facilitate assembly, a number of interlocking half-grooves 111 are provided on the edges of the two groups of shell half-seaters 1. When the two groups of shell half-seaters 1 are interlocked with each other, the interlocking half-grooves 111 on each other's edges surround each other to form an interlocking groove 11 for placing the magnets 2. Therefore, before assembly, the magnets 2 are placed in the interlocking half-grooves 111 on the edges of one group of shell half-seaters 1 in turn. During the interlocking process, the other group of shell half-seaters 1 are interlocked with the interlocking half-grooves 111 that have already accommodated the magnets 2, and the magnets 2 are fastened in the interlocking grooves 11, thereby achieving mutual attraction between different conical magnetic Rubik's Cubes during the process of approaching and splicing.

[0033] If only a number of magnets 2 are distributed on the edges of the two groups of shell half seats 1, when the edge 121 of the connection between the two groups of combined plates 12 is to be assembled, the playability of the magnetic Rubik's Cube will be greatly reduced because no magnet 2 is placed on the edge 121. Therefore, an embedding groove 122 is provided on the inner side surface of the connection between the two groups of combined plates 12. The embedding groove 122 corresponds to the edge 121. After the magnet 2 is placed in the embedding groove 122, the edge 121 also has the adsorption capacity of the magnet 2. In order to limit the magnet 2 in the embedding groove 122, a limiting column 131 is provided on the corresponding shell half seat 1. By the correspondence between the limiting column 131 and the embedding groove 122 during the assembly process, the opening of the embedding groove 122 is closed to prevent the magnet 2 from falling out. Since the extending length of the limiting column 131 is long, in order to strengthen the connection between the limiting column 131 and the shell half seat 1, a reinforcing rib 13 is provided between them to strengthen its structure.

[0034] In order to facilitate observation of whether the magnet 2 has been installed during the assembly process, a through hole 14 penetrating the shell half seat 1 is provided on both the fitting groove 11 and the embedding groove 122, so that the installation status of the magnet 2 in the magnetic cube can be visually observed.

[0035] Because children will ignore the actual use scenario when using toys, and even bring the magnetic cube into use when playing in the water, water will seep in from the gap between the two sets of shell half seats 1. Even if the connection is tightened, it is still possible for water to enter without sealing. The water-filled magnetic cube will continue to seep out under the action of gravity, affecting the playing experience. If the accumulated water is not cleaned out for a long time, the water will deteriorate inside it. Toys are items that children come into close contact with. Failure to keep them clean and tidy will affect the health of children. Therefore, the limiting post 131 is designed to be in the contact position between the engaging groove 11 and the limiting post 131. The opening of the horizontally placed and partially closed fitting groove 11 can effectively prevent the magnet 2 in the fitting groove 11 from falling, and can also make the through hole 14, the fitting groove 11 and the inner cavity enclosed by the two sets of shell half seats 1 communicate with each other. Therefore, when water enters the inner cavity from the gap or the through hole 14, the accumulated water can be easily discharged from the through hole 14. In particular, both sets of shell half seats 1 are provided with edges 121, and the edges 121 are provided with through holes 14, which can achieve internal and external air communication, making the water flow more smooth and avoiding water accumulation in the toy. Therefore, the magnetic magic cube can be cleaned with clean water when it is dirty without having to worry about water accumulating inside it.

[0036] Since the outer contour edges of the two groups of shell half seats 1 are very long when they are fitted together, it is inevitable that the edges will be twisted due to the relationship between cold and hot contraction during the production process, and misalignment will occur during the fitting process, resulting in cuts at that location. Therefore, a boss 15 is provided on the edge of one group, and a groove 16 corresponding to the boss 15 is provided on the edge of the other group. During the fitting process, the boss 15 and the groove 16 are matched to ensure the alignment, thereby minimizing the degree of edge distortion and reducing the occurrence of personal safety hazards.

[0037] The beneficial effect of the present invention is that the conical magnetic magic cube is formed by combining two groups of shell half seats 1, and the magnets 2 are distributed in the embedded grooves 11 enclosed at the connection, which facilitates assembly and can also achieve the fixation of the magnets 2. At the same time, magnets 2 are also distributed on its edges 121, so that the conical magnetic magic cube has magnetic adsorption ability at all positions. The setting of the through hole 14 makes the interior of the magnetic magic cube connected to the outside through the embedded groove 122. Therefore, the magnetic magic cube can be cleaned with clean water when it is dirty, which can avoid water accumulation inside.

[0038] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the above embodiments, or replace some or all of the technical features therein with equivalents. However, these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present invention.

Claims

1. A conical magnetic magic cube, characterized by: The invention comprises two groups of shell half seats, a plurality of magnets and a fixing assembly. The edges of the shell half seats are provided with a plurality of engaging half grooves. The fixing assembly comprises a male column and a female groove. The male column and the female groove are respectively arranged in the two groups of shell half seats. The edges of the two groups of shell half seats abut against each other and enclose the engaging half grooves on each other's edges to form an engaging groove for placing the magnets. The two groups of shell half seats are fixed by engaging the male columns and the female grooves therein.

2. The conical magnetic magic cube according to claim 1, characterized in that: The shell half seat is formed by connecting two groups of triangular combined plates, and the connection between the two groups of combined plates forms a side edge.

3. The conical magnetic magic cube according to claim 2, characterized in that: An embedding groove is provided on the inner side surface of the connection between the two groups of combined plates, and the embedding groove corresponds to the edge.

4. The conical magnetic magic cube according to claim 3, characterized in that: Reinforcement ribs are also provided in the shell half seat. The reinforcement ribs are perpendicular to the edges and are distributed in sequence on the inner side surfaces of the two groups of combined plates.

5. The conical magnetic magic cube according to claim 4, characterized in that: The reinforcing ribs are provided with limiting columns. When the edges of the two groups of shell half seats abut against each other, the limiting columns on one group of shell half seats correspond to the embedding grooves on the other group of shell half seats, and magnets are placed in the embedding grooves.

6. The conical magnetic magic cube according to claim 5, characterized in that: The end of the limiting column is placed horizontally at the opening of the embedding groove and does not completely close the embedding groove.

7. The conical magnetic magic cube according to claim 6, characterized in that: The end of the limiting column is in a crescent-shaped structure.

8. The conical magnetic magic cube according to claim 7, characterized in that: The engaging groove and the embedding groove are both provided with through holes penetrating the shell half seat.

9. The conical magnetic magic cube according to claim 1, characterized in that: A convex column is provided on the edge of one group of the shell half seats, and a groove is provided on the edge of the other group of the shell half seats. When the edges of the two groups of the shell half seats are in contact, the convex column is embedded in the groove.

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