Magnetic puzzle block and magnetic geometric toy

Abstract

The utility model provides a kind of magnetic splicing block and magnetic geometric toy, it is related to toy technical field, magnetic splicing block includes splicing piece, splicing piece is equipped with multiple magnetic angle interface parts, multiple splicing pieces are connected with each other by magnetic angle interface part with magnetic angle;Magnetic geometric toy includes multiple solid geometric structures, all edges of solid geometric structure are equipped with second magnetic component, multiple adjacent solid geometric structures are connected with each other in the mode of second magnetic component magnetic attraction;So that user can use multiple solid geometric structures as the splicing unit of building block;The magnetic splicing block and magnetic geometric toy can be constructed into stable solid geometric structure by the angle connection mode of magnetic splicing block, meanwhile, solid geometric structure can also be directly used as the splicing unit of magnetic building block, improve the interestingness of magnetic splicing building block.

Description

Technical Field

[0001] This utility model relates to the field of toy technology, and in particular to a magnetic splicing block and magnetic geometric toy. Background Technology

[0002] Building blocks, also known as interlocking toys, come in many varieties, such as regular building blocks or interlocking blocks that can be connected to each other. They are both entertaining and educational, and are very popular.

[0003] Regular building blocks lack connecting structures, making it easy to destroy the assembled shape. Building blocks with interlocking mechanisms require a certain amount of force to connect or disassemble, which can be more difficult for young children to operate.

[0004] A magnetic tile combination toy with patent number CN218046467U uses a method of fixing magnets flush with the sides of the assembly plates. When assembling, the same type of assembly plates cannot be stably magnetically assembled into a cube or other three-dimensional geometric structure. Furthermore, a single magnetically assembled three-dimensional geometric structure cannot be used as a standalone building block unit, thus limiting the play and reducing the fun.

[0005] Therefore, it is necessary to propose a magnetic puzzle block and magnetic geometric toy to enhance the fun of magnetic puzzle building blocks. Utility Model Content

[0006] To address the aforementioned problems, this invention proposes a magnetic assembly block and magnetic geometric toy to enhance the fun of magnetic assembly building blocks.

[0007] This utility model is achieved through the following technical solution: This utility model proposes a magnetic splicing block, including splicing components. The outer periphery of the splicing components is provided with multiple magnetic angle connecting parts, and the multiple splicing components are connected to each other magnetically at an angle through the magnetic angle connecting parts.

[0008] Furthermore, the magnetic angle connection portion includes a first magnetic component and an edge connection protrusion, wherein the first magnetic component is fixedly connected to the edge connection protrusion.

[0009] Furthermore, the edge connecting convex corner includes a first connecting bevel, and the first connecting bevels of the splicing components that are magnetically connected at an angle are in contact with each other.

[0010] Furthermore, the magnetic poles of adjacent first magnetic components within the splicing component are arranged in an alternating manner.

[0011] Furthermore, one side of the first magnetic component is provided with a first magnetic attraction surface, and the other side of the first magnetic component is provided with a second magnetic attraction surface. The first magnetic attraction surface of one of the first magnetic components is flush with the first connecting slope of the corresponding edge connecting protrusion, and the second magnetic attraction surface of the adjacent first magnetic component is flush with the first connecting slope of the adjacent edge connecting protrusion.

[0012] Furthermore, the first magnetic component includes at least one polyhedral magnet, which is laterally fixedly connected to the magnetic angle connection portion.

[0013] Furthermore, one side of the polyhedral magnet is flush with one side of the edge connecting convex corner.

[0014] Furthermore, the polyhedral magnet has a first connecting angle on one side and a second connecting angle on the edge connecting convex corner, with the first connecting angle and the second connecting angle being flush.

[0015] Furthermore, the edge connecting protrusion is provided with a fixing groove, and the first magnetic component is housed in the fixing groove.

[0016] A magnetic geometric toy, according to the magnetic assembly block described above, includes multiple three-dimensional geometric structures, each edge of which is provided with a second magnetic component, and multiple adjacent three-dimensional geometric structures are connected by mutual magnetic attraction of the second magnetic components.

[0017] The beneficial effects of this utility model are: 1. The magnetic splicing block of this utility model adopts a magnetic angle connection part as an angle limiting structure when adjacent splicing parts are magnetically connected. When splicing, adjacent splicing parts are magnetically connected by the magnetic angle connection part, so that the splicing parts can be magnetically connected at a stable angle, which makes it convenient for users to build a stable three-dimensional geometric structure as a splicing unit for magnetic building blocks. 2. The magnetic splicing geometric toy of this utility model uses a second magnetic component set on all edges of the three-dimensional geometric structure, so that users can use multiple three-dimensional geometric structures as splicing units for building blocks; In summary, this magnetic interlocking block and magnetic geometric toy can construct a stable three-dimensional geometric structure by connecting the magnetic interlocking blocks at their angles. At the same time, the three-dimensional geometric structure can also be directly used as the unit for splicing magnetic building blocks, which enhances the fun of magnetic interlocking building blocks. Attached Figure Description

[0018] Figure 1 An exploded view of the magnetic splicing block of this utility model; Figure 2 This is a schematic diagram of the magnetic splicing block of this utility model; Figure 3 This is a schematic diagram of the magnetic splicing blocks of this utility model spliced ​​into a polyhedral three-dimensional geometric structure; Figure 4 This is a schematic diagram of the magnetic splicing blocks of this utility model being spliced ​​into a spherical three-dimensional geometric structure; Figure 5 This is a schematic diagram of the magnetic geometric toy of this utility model; Figure 6 This is a schematic diagram showing the interlocking of the magnetic geometric toys of this utility model.

[0019] The attached figures are labeled as follows: splicing component 1, embedded groove 11, and curved arched structure 12; Magnetic angle connecting part 2, first magnetic component 21, first magnetic attraction surface 211, second magnetic attraction surface 212, third magnetic attraction surface 213, fourth magnetic attraction surface 214, first connecting angle 215, edge connecting convex angle 22, first connecting slope 221, second connecting slope 222, second connecting angle 223, fixing groove 224; Icon palette 3; 101. Three-dimensional geometric structure; 102. Second magnetic component. Detailed Implementation

[0020] To more clearly and completely illustrate the technical solution of this utility model, the following description, in conjunction with the accompanying drawings, will further explain this utility model.

[0021] Please refer to Figures 1-4 This utility model proposes a magnetic splicing block, including a splicing component 1. The outer periphery of the splicing component 1 is provided with multiple magnetic angle connecting parts 2. The multiple magnetic angle connecting parts 2 can be integrally formed with the splicing component 1, or they can be assembled with the outer periphery of the splicing component 1 to form an integral structure. The multiple splicing components 1 are connected to each other magnetically at an angle through the magnetic angle connecting parts 2.

[0022] In this embodiment, the magnetic angle connection part 2 is used as the angle limiting structure for adjacent splicing parts 1 during magnetic connection. When multiple splicing parts 1 are spliced, adjacent splicing parts 1 are magnetically connected at an angle through the magnetic angle connection part 2, so that the splicing parts 1 can be magnetically connected at a stable angle. For example, two splicing parts 1 can form a 90-degree angle connection through the magnetic connection part 2, that is, the two splicing parts 1 maintain a 90-degree angle. Under the action of external force, one splicing part 1 can rotate 180 degrees relative to the other splicing part 1 with the magnetic angle connection part 2 as the axis of rotation. The two splicing pieces 1 can be flipped, and at the same time, they can also form an angle connection of 120 degrees or 160 degrees. Similarly, one of the splicing pieces 1 can be flipped at a preset angle with the magnetic angle connection part 2 as the axis of rotation, so that the user can select the corresponding splicing piece 1 according to the splicing requirements. The specific angle can be determined according to the shape of the magnetic angle connection part 2. If the splicing piece 1 is square and the magnetic angle connection part 2 is right-angled, then the magnetic connection of 6 splicing pieces 1 will form a cubic three-dimensional geometric structure 101, so that the user can build a stable three-dimensional geometric structure 101 as a splicing unit for magnetic building blocks.

[0023] In this embodiment, the magnetic angle connection part 2 includes a first magnetic component 21 and an edge connection protrusion 22. The first magnetic component 21 is fixedly connected to the edge connection protrusion 22. When multiple splicing panels 1 are magnetically connected, the edge connection protrusion 22 serves as the angle support structure for two adjacent splicing panels 1, and the first magnetic component 21 serves as the magnetic connection structure, so that the two adjacent splicing panels 1 can be stably maintained at a preset angle.

[0024] In this embodiment, the number of magnetic angle connecting parts 2 is an even number. The number of magnetic angle connecting parts 2 can be the same as or different from the number of sides of the splicing piece 1. For example, if the splicing piece 1 is square, then there are 4 magnetic angle connecting parts 2. The number of magnetic angle connecting parts 2 is exactly the same as the number of sides of the splicing piece 1. After two splicing pieces 1 are magnetically connected through the magnetic angle connecting parts 2, taking a connection angle of 90 degrees as an example, 6 splicing pieces 1 magnetically connected will form a cube structure. If the splicing piece 1 is pentagonal, then the magnetic angle connecting parts 2 can only be used for any four sides or any two sides of the pentagon.

[0025] In this embodiment, the edge connecting protrusion 22 includes a first connecting slope 221 and a second connecting slope 222. The first connecting slope 221 and the second connecting slope 222 are set at an angle. The first connecting slope 221 of the splicing piece 1 that is magnetically connected at an angle is in contact with each other, so that the magnetically connected splicing piece 1 forms a stable angle connection. If the angle between the first connecting slope 221 and the second connecting slope 222 is 90 degrees, the six splicing pieces 1 will form a cube structure when magnetically connected. The edges of the cube have chamfers with the width of the two second connecting slopes 222, and the splicing pieces 1 connected to each other are perpendicular to each other.

[0026] In this embodiment, the magnetic poles of adjacent first magnetic components 21 within the same splicing piece 1 are staggered. The staggered arrangement of the magnetic poles of the first magnetic components 21 facilitates magnetic connection between adjacent splicing pieces 1. For example, taking the splicing piece 1 as a square, among the four first magnetic components 21, the N poles of the aligned first magnetic components 21 are diagonally upward in pairs, and the S poles are diagonally downward in pairs. When making magnetic connection, taking the splicing pieces 1 as perpendicular in pairs as an example, the six splicing pieces 1 can be directly magnetically attracted to form a magnetic cube.

[0027] In this embodiment, one side of the first magnetic component 21 is provided with a first magnetic attraction surface 211, and the other side of the first magnetic component 21 is provided with a second magnetic attraction surface 212. The first magnetic attraction surface 211 of one of the first magnetic components 21 is flush with the first connecting slope 221 of the corresponding magnetic angle connecting portion 2, and the second magnetic attraction surface 212 of the adjacent first magnetic component 21 is flush with the first connecting slope 221 of the adjacent magnetic angle connecting portion 2. Taking the first magnetic component 21 as an example of a cuboid structure, the first magnetic attraction surface 211 and the second magnetic attraction surface 212 are opposing surfaces, meaning they attract each other. Specifically, the first magnetic attraction surface 211 is the N pole surface, and the second magnetic attraction surface 212 is the S pole surface. Alternatively, the first magnetic attraction surface 211 can be the S pole surface, and the second magnetic attraction surface 212 can be the N pole surface. Between the first magnetic attraction surface 211 and the second magnetic attraction surface 212, there are still a third magnetic attraction surface 213 and a fourth magnetic attraction surface 214. The third magnetic attraction surface 213 is the N / S pole surface, and the fourth magnetic attraction surface 214 is the SN pole surface. In one of the first magnetic components 21, the first magnetic attraction surface 211 and... When the first connecting slope 221 is flush with the first magnetic surface 221, its third magnetic surface 213 will be flush with the corresponding second connecting slope 222. That is, one edge of the cuboid structure is used as the edge of the splicing part 1. Similarly, the second magnetic surface 212 of the adjacent first magnetic component 21 is flush with the first connecting slope 221 of the adjacent magnetic angle connection part 2, and its fourth magnetic surface 214 is flush with the corresponding second connecting slope 222. When the two first magnetic components 21 are magnetically connected, the first magnetic surface 211 of one first magnetic component 21 is magnetically attracted to the second magnetic surface 212 of the other first magnetic component 21, so that the two first connecting slopes 221 come into contact and fit together. Taking the first magnetic component 21 as a cylindrical structure as an example, the first magnetic attraction surface 211 and the second magnetic attraction surface 212 are aligned and connected semi-circular arc surfaces. A small section of the arc surface of the first magnetic attraction surface 211 of one of the first magnetic components 21 is flush with the first connecting slope 221 of the corresponding magnetic angle connecting part 2. A small section of the arc surface of the second magnetic attraction surface 212 of the adjacent first magnetic component 21 is also flush with the first connecting slope 221 of the adjacent magnetic angle connecting part 2. The first magnetic attraction surface 211 and the second magnetic attraction surface 212 will attract each other. Since the N pole and S pole of the cylindrical magnet need to be distributed on two bottom surfaces, the first magnetic attraction surface 211 can only be an N / S pole arc surface or an SN pole arc surface. At the same time, the second magnetic attraction surface 212 is also an N / S pole arc surface. The first magnetic attraction surface 211 is equivalent to the second magnetic attraction surface 212. When the first magnetic component 21 is installed, only one first magnetic component 21 can be installed horizontally with the N pole facing to the left and the S pole facing to the right. At this time, the first magnetic attraction surface 211 of this first magnetic component 21 is an N / S pole arc surface. Then, the N pole of the adjacent first magnetic component 21 faces to the right and the S pole faces to the left. At this time, the second magnetic attraction surface 212 of the adjacent first magnetic component 21 is an N / S pole arc surface. When the two first magnetic components 21 are magnetically connected, the first magnetic attraction surface 211 of one first magnetic component 21 and the second magnetic attraction surface 212 of the other first magnetic component 21 are magnetically attracted, so that the two first connecting inclined surfaces 221 come into contact and fit together.

[0028] In this embodiment, the first magnetic component 21 includes at least one polyhedral magnet, which is laterally fixedly connected to the magnetic angle connection portion 2. Taking the first magnetic component 21 as a single polyhedral magnet as an example, the polyhedral magnet is centrally located within the magnetic angle connection portion 2. Taking the first magnetic component 21 as at least two polyhedral magnets as an example, the at least two polyhedral magnets are sequentially arranged laterally in a linear fashion and fixedly connected to the magnetic angle connection portion 2.

[0029] In this embodiment, one side of the polyhedral magnet is flush with one side of the edge connecting convex corner 22; taking the polyhedral magnet as a cuboid structure as an example, one side of the cuboid structure is flush with one side of the magnetic angle connecting part 2, so that multiple splicing parts 1 can be magnetically fixed at a preset angle.

[0030] In this embodiment, the polyhedral magnet has a first connecting angle 215 on one side and a second connecting angle 223 on the edge connecting protrusion 22. The first connecting angle 215 and the second connecting angle 223 are flush. Taking the polyhedral magnet as a cuboid structure as an example, one edge of the cuboid structure is the first connecting angle 215, the angle of the first connecting angle 215 is 90 degrees, and the angle of the second connecting angle 223 also needs to be 90 degrees. When the first connecting angle 215 and the second connecting angle 223 are flush, it is convenient for multiple splicing parts 1 to be magnetically fixed at a 90-degree angle. The best shape of the polyhedral magnet is a regular cuboid structure, which is convenient for balancing the weight of the polyhedral magnet in the splicing part 1.

[0031] In this embodiment, the edge connecting protrusion 22 is provided with a fixing groove 224. The first magnetic component 21 is housed in the fixing groove 224 and is fixedly connected to the fixing groove 224 by adhesive or the clamping force of the fixing groove 224. When the first magnetic component 21 needs to be exposed, the fixing groove 224 has the same shape as the first magnetic component 21 and is connected to the outside, providing a space for the first magnetic component 21 to be embedded in the splicing piece 1, so that one side of the first magnetic component 21 is exposed, highlighting the color aesthetics of the first magnetic component 21. When the first magnetic component 21 does not need to be exposed, the fixing groove 224 is not connected to the outside, and the splicing piece 1 needs to be split in two to open the fixing groove 224. After the first magnetic component 21 is embedded in the fixing groove 224, the splicing piece 1 is merged, and the first magnetic component 21 is not exposed.

[0032] In this embodiment, the magnetic splicing block also includes an icon plate 3. The splicing component 1 is provided with an embedding groove 11, and the icon plate 3 is housed in the embedding groove 11. The icon plate 3 can be set with patterns such as numbers, letters, Chinese characters, graphics, and dice rolls to decorate the splicing component 1.

[0033] In this embodiment, one side of the splicing component 1 is provided with an arc-shaped arched structure 12, and the arc-shaped arched structures 12 of adjacent splicing components 1 are connected to each other. The arc-shaped arched structure 12 is provided so that when multiple splicing components 1 are magnetically spliced ​​into a three-dimensional geometric structure 101 by the first magnetic component 21, the three-dimensional geometric structure 101 can have different shapes. If the arc-shaped arched structure 12 is close to a spherical one-sixth of a circular arc surface, then after the six splicing components 1 are magnetically connected, a spherical three-dimensional geometric structure 101 will be formed.

[0034] Please refer to Figures 5-6 A magnetic geometric toy, based on the aforementioned magnetic assembly block, includes multiple three-dimensional geometric structures 101, each edge of which is provided with a second magnetic component 102, and multiple adjacent three-dimensional geometric structures 101 are connected to each other by magnetic attraction of the second magnetic component 102.

[0035] In this embodiment, the three-dimensional geometric structure 101 can be a polyhedral structure integrally formed with the second magnetic component 102. This polyhedral structure includes, but is not limited to, a cube, cuboid, octahedron, decahedron, dodecahedron, or icosahedron. In this case, the second magnetic component 102 is a single magnet embedded within the chamfered edges of the three-dimensional geometric structure 101. Alternatively, the three-dimensional geometric structure 101 can be a polyhedral structure consisting of at least n magnetically joined blocks arranged magnetically, where n ≥ 6 and n is an even number. For example, with n = 6, the three-dimensional geometric structure 101 is a cube structure, and the second magnetic component 102 is formed by the mutual magnetic attraction of two first magnetic components 21. By using the second magnetic component 102 on all edges of the three-dimensional geometric structure 101, users can use multiple three-dimensional geometric structures 101 as splicing units for magnetic building blocks. In summary, this magnetic interlocking block and magnetic geometric toy can construct a stable three-dimensional geometric structure by connecting the magnetic interlocking blocks at their angles. At the same time, the three-dimensional geometric structure can also be directly used as the unit for splicing magnetic building blocks, which enhances the fun of magnetic interlocking building blocks.

[0036] Of course, there may be other implementations of this utility model. Based on this implementation, other implementations obtained by those skilled in the art without any creative effort are all within the scope of protection of this utility model.

Claims

1. A magnetic interlocking block, characterized in that, The device includes splicing components, and the outer periphery of each splicing component is provided with multiple magnetic angle connecting parts. Multiple splicing components are connected to each other magnetically at an angle through the magnetic angle connecting parts.

2. The magnetic splicing block according to claim 1, characterized in that, The magnetic angle connection portion includes a first magnetic component and an edge connection convex angle, wherein the first magnetic component is fixedly connected to the edge connection convex angle.

3. The magnetic splicing block according to claim 2, characterized in that, The edge-connecting convex corner includes a first connecting bevel, and the first connecting bevels of the splicing components that are magnetically connected at an angle are in contact with each other.

4. The magnetic splicing block according to claim 2, characterized in that, The magnetic poles of adjacent first magnetic components within the splicing component are arranged in an alternating manner.

5. The magnetic splicing block according to claim 3, characterized in that, One side of the first magnetic component is provided with a first magnetic attraction surface, and the other side of the first magnetic component is provided with a second magnetic attraction surface. The first magnetic attraction surface of one of the first magnetic components is flush with the first connecting slope of the corresponding edge connecting convex corner, and the second magnetic attraction surface of the adjacent first magnetic component is flush with the first connecting slope of the adjacent edge connecting convex corner.

6. The magnetic splicing block according to claim 2, characterized in that, The first magnetic component includes at least one polyhedral magnet, which is laterally fixedly connected to the magnetic angle joint.

7. The magnetic splicing block according to claim 6, characterized in that, One side of the polyhedral magnet is flush with one side of the edge connecting convex corner.

8. The magnetic splicing block according to claim 7, characterized in that, The polyhedral magnet has a first connecting angle on one side and a second connecting angle on the edge connecting convex corner, with the first connecting angle and the second connecting angle being flush.

9. The magnetic splicing block according to claim 2, characterized in that, The edge connecting protrusion is provided with a fixing groove, and the first magnetic component is housed in the fixing groove.

10. A magnetic geometric toy, comprising a magnetic interlocking block according to any one of claims 1-9, characterized in that, It includes multiple three-dimensional geometric structures, each edge of which is provided with a second magnetic component, and multiple adjacent three-dimensional geometric structures are connected to each other by magnetic attraction of the second magnetic components.

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