Positioning and supporting structure for improving stability of magnetic toy

Abstract

The utility model discloses a positioning and supporting structure for improving the stability of magnetic toys, which comprises an adsorption mechanism and an adsorbed mechanism, the adsorption mechanism and the adsorbed mechanism are connected in a magnetic force and matching mode, and the adsorption mechanism comprises an opening arranged on a peripheral frame of the adsorption mechanism and an adsorbed piece positioning frame arranged in the adsorption mechanism. On the premise that the product quality and the magnet magnetism are not changed, the positioning and supporting structure is additionally arranged, so that the defect of stability of magnetic toys in the market is really overcome, and the product stability can be achieved only by increasing the magnet size or sacrificing the product quality in the past; after the structure of the product is applied, the characteristic that a magnetic toy is changeable and easy to build is not changed, the reliable stability is also increased, a consumer can obtain better experience in the using process, the cost of purchasing similar products by the consumer is also reduced, and the expenditure is saved.

Description

Technical Field

[0001] The utility model relates to the technical field of toys, and in particular to a positioning and supporting structure for improving the stability of magnetic toys. Background Art

[0002] Solutions of the existing technology: The market has increasingly higher requirements for the magnetism of magnetic toys, which requires that magnetic toys have stronger stability during use (generally by increasing the magnetism of the magnet). For example, reducing the wall thickness of the magnetic toy or partially exposing the magnet to increase the contact surface and contact distance of the magnet. The second method is to change the size of the magnet of the magnetic toy and use a larger magnet to achieve magnetic enhancement.

[0003] Objective disadvantages of existing technologies: An analysis of the ways to enhance the stability of magnetic toys shows that increasing the contact surface will result in the wall thickness of the product being too small, which will increase the difficulty of production and greatly reduce the quality of the product, making it easy to break, which is not conducive to product production and quality assurance. The second way of increasing the size of the magnet will increase the cost of the product.

[0004] During use, due to problems with the structure and magnetism of existing products, there is only a fixed force in the direction of the magnet, which makes it impossible for the magnetic toys to complete the shape construction, or after the shape construction is completed, the shape cannot remain in its original state under slight external force, affecting the customer experience. It can be found that simply increasing the magnetism of magnetic toys cannot meet the market demand for the stability of magnetic toys. Utility Model Content

[0005] The purpose of the utility model is to solve the stability problem of magnetic toys without changing the original magnetic force and quality of the products, and to propose a positioning and supporting structure for improving the stability of magnetic toys, because magnetic toys are required to have better stability. Simply increasing the magnetism of toy magnets will increase the cost of toy production, while increasing the magnetism by reducing the wall thickness will lead to a decrease in product quality.

[0006] In order to achieve the above purpose, the utility model adopts the following technical solutions:

[0007] A positioning and supporting structure for improving the stability of a magnetic toy comprises an adsorption mechanism and an adsorbed mechanism, wherein the adsorption mechanism and the adsorbed mechanism are connected by magnetic force and cooperation, wherein the adsorption mechanism comprises a first magnetic body fixedly disposed therein and a plurality of openings arranged on its peripheral frame, wherein a supporting contact surface structure is arranged at the connection between the adsorbed mechanism and the adsorption mechanism, wherein the supporting contact surface structure is arranged on the peripheral frame of the adsorbed mechanism, wherein a second magnetic body is arranged at the end of the supporting contact surface structure, wherein the supporting contact surface structure extends into the adsorption mechanism through the opening and guides the first magnetic body and the second magnetic body to be magnetically adsorbed.

[0008] Preferably, the adsorption mechanism includes an adsorbed part positioning frame arranged inside it, the adsorbed part positioning frame corresponds to at least part of the opening, and the adsorbed part positioning frame is suitable for guiding the supporting contact surface structure to approach the first magnetic body and form a limit along the length direction perpendicular to the supporting contact surface structure.

[0009] Preferably, the cross section of the adsorbed component positioning frame comprises a circular ring structure or an arc structure suitable for slidingly matching the supporting contact surface structure.

[0010] Preferably, a cylindrical structure or a curved surface structure suitable for constituting the adsorbed component positioning frame extends inwardly from the opening, and the curved surface structure tends to bulge toward the outer contour of the adsorption mechanism.

[0011] Preferably, the size of the support contact surface structure matches the size of the opening on the adsorption mechanism, and the opening is suitable for constituting a limit along a length direction perpendicular to the support contact surface structure.

[0012] Preferably, the outer frame of the adsorption mechanism is composed of two hemispherical parts fixedly connected to each other, and the two hemispherical parts are provided with openings on the side away from each other, and the two hemispherical parts are jointly provided with four openings between the mutual connection points, and the four openings located at the connection points of the two hemispherical parts are respectively oriented in four directions, and four identical ball positioning frames are symmetrically fixedly arranged inside the hemispherical parts, and four identical adsorbed part positioning frames are fixedly arranged inside the hemispherical parts, and the adsorbed part positioning frames are suitable for docking and matching in groups of two and limiting the same supporting contact surface structure, and the eight ball positioning frames located inside the two hemispherical parts are clamped and installed with spheres suitable for constituting the first magnetic body.

[0013] Preferably, the spherical components include one or more of iron, cobalt and nickel.

[0014] Preferably, the two hemispherical parts are fixed to each other through a first positioning pin and a first ultrasonic line, the first positioning pin is arranged at the top end of the sphere positioning frame, and the first ultrasonic line is arranged at the edge of the port of the hemispherical part.

[0015] Preferably, the outer frame of the adsorbed mechanism is composed of two symmetrical shells, and the adsorbed mechanism includes a plurality of the supporting contact surface structures, and a half-rod structure is provided at the end of the supporting contact surface structure. Magnets suitable for constituting the second magnetic body are provided inside the two half-rod structures, and the two supporting contact surface structures are fixedly connected to the second ultrasonic line through a second positioning pin.

[0016] The utility model has the following beneficial effects:

[0017] Without changing the product quality and the magnetism of the magnet, this product structure truly solves the stability defect of magnetic toys on the market by adding a positioning support structure. In the past, it was necessary to increase the size of the magnet or sacrifice the product quality to achieve product stability. After applying this product structure, not only does it not change the characteristics of magnetic toys that are easy to build, but it also increases reliable stability, allowing consumers to have a better experience during use, and also reducing the cost for consumers to purchase similar products, saving expenses. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 This is a schematic diagram of the overall structure of a positioning and supporting structure for improving the stability of a magnetic toy proposed by the utility model;

[0019] Figure 2 This is a schematic diagram of the exploded structure of an adsorption mechanism of a positioning and supporting structure for improving the stability of a magnetic toy proposed by the utility model;

[0020] Figure 3 This is a schematic diagram of the first type of adsorbed mechanism structure of a positioning and supporting structure for improving the stability of a magnetic toy proposed by the utility model;

[0021] Figure 4 This is a schematic diagram of the second adsorbed mechanism structure of a positioning and supporting structure for improving the stability of a magnetic toy proposed by the utility model;

[0022] Figure 5 This is a schematic diagram of the third type of adsorbed mechanism structure of a positioning and supporting structure for improving the stability of a magnetic toy proposed by the utility model.

[0023] Figure 6 A schematic diagram of the fourth type of adsorbed mechanism structure of a positioning and supporting structure for improving the stability of magnetic toys proposed by the utility model

[0024] In the figure: 1. adsorption mechanism; 101. hemispherical part; 102. sphere; 103. first positioning pin; 104. first ultrasonic line; 105. sphere positioning frame; 106. adsorbed part positioning frame; 2. adsorbed mechanism; 201. supporting contact surface structure; 202. semi-rod structure; 203. magnet; 204. second positioning pin; 205. second ultrasonic line. DETAILED DESCRIPTION

[0025] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all of the embodiments.

[0026] Reference Figure 1-2A positioning and supporting structure for improving the stability of a magnetic toy, comprising an adsorption mechanism 1 and an adsorbed mechanism 2, wherein the adsorption mechanism 1 and the adsorbed mechanism 2 are connected by magnetic force and cooperation. The adsorption mechanism 1 comprises a first magnetic body fixedly disposed therein and a plurality of openings disposed on its outer frame. A supporting contact surface structure 201 is disposed at the connection between the adsorbed mechanism 2 and the adsorption mechanism 1, and a second magnetic body is disposed at the end of the supporting contact surface structure. The supporting contact surface structure 201 extends into the adsorption mechanism 1 through the opening and guides the first magnetic body and the second magnetic body to be magnetically adsorbed.

[0027] In this embodiment, the outer frame of the adsorption mechanism 1 is composed of two hemispherical parts 101 fixedly connected to each other. The two hemispherical parts 101 are provided with openings on the side away from each other. The openings extend inwardly to form a cylindrical structure suitable for forming an adsorbed part positioning frame 106. The cross section of the adsorbed part positioning frame 106 includes a circular ring structure suitable for slidingly matching the support contact surface structure 201. The two hemispherical parts 101 are provided with four openings between the mutual connection points. The four openings located at the connection points of the two hemispherical parts 101 face four directions respectively. The four openings extend inwardly to form a curved surface structure suitable for forming an adsorbed part positioning frame 106. The curved surface structure tends to bulge toward the outer contour of the adsorption mechanism 1. Four identical spherical positioning frames 105 are symmetrically fixedly arranged inside the hemispherical part 101. The adsorbed part positioning frames 106 are suitable for docking and matching in groups of two and limiting the same support contact surface structure 201. Four identical adsorbed part positioning frames 106 are fixedly disposed inside the hemispherical piece 101 , and a first magnetic sphere 102 is mounted between eight sphere positioning frames 105 located inside the two hemispherical pieces 101 . The sphere 102 is an iron sphere.

[0028] In this embodiment, the suction member positioning frame 106 corresponds to the opening on the hemispherical member 101 , and the size of the support contact surface structure 201 matches the size of the opening on the suction mechanism 1 .

[0029] In this embodiment, the two hemispherical pieces 101 are fixed to each other via a first positioning pin 103 and a first ultrasonic line 104 . The first positioning pin 103 is disposed at the top end of the sphere positioning frame 105 , and the first ultrasonic line 104 is disposed at the edge of the port of the hemispherical piece 101 .

[0030] In this embodiment, the outer frame of the adsorbed mechanism 2 is composed of two symmetrical shells, and a support contact surface structure 201 is provided at the connection between the adsorbed mechanism 2 and the adsorption mechanism 1. There are two support contact surface structures 201, and the two support contact surface structures 201 are respectively provided on the two outer frames of the adsorbed mechanism 2, and a half-rod structure 202 is provided at the end of the support contact surface structure 201, and a magnet 203 suitable for constituting a second magnetic body is provided inside the two half-rod structures 202, and the two support contact surface structures 201 are fixedly connected to the second ultrasonic line 205 through a second positioning pin 204.

[0031] In this embodiment, two hemispherical parts 101 are connected to form the overall appearance of the adsorption part, the sphere 102 is used for adsorption by the adsorption mechanism 2, the first positioning pin 103 is used for positioning between the hemispherical parts 101, and the first ultrasonic line 104 is used to fix the hemispherical part 101, so that the product reaches the standard fit after the production is completed to prevent the internal sphere 102 from falling off, the sphere positioning frame 105 is used to position the sphere 102, the adsorbed part positioning frame 106 is used to position and support the adsorbed mechanism 2, the supporting contact surface structure 201 is used to cooperate with the adsorption mechanism 1 to enhance stability, and at the same time allow the adsorbed mechanism 2 to have better smoothness when entering the adsorption mechanism 1, the semi-rod structure 202 is used to be assembled to form the appearance of the adsorbed mechanism 2, the magnet 203 is used for the sphere 102 in the adsorption mechanism 1, the second positioning pin 204 is used for positioning between the semi-rod structures 202, and the second ultrasonic line 205 is used to fix the semi-rod structure 202, so that the product reaches the standard fit after the production is completed to prevent the internal magnet 203 from falling off.

[0032] In order to solve the stability problem of magnetic toys without changing the original magnetic force and quality of the product, the structure of this product breaks the traditional way of positioning and supporting only by magnetism. The adsorbed mechanism 2 is deeply inserted into the adsorption mechanism 1, and is positioned and adsorbed by the magnet 203. The internal adsorbed part positioning frame 106 of the adsorption mechanism 1 is then used for overall support. The force in the single magnetic direction of traditional magnetic toys is changed to the simultaneous force in the magnetic direction and the supporting surface, that is, the axial and lateral forces are simultaneously fixed, thereby increasing the stability of the product.

[0033] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes within the technical scope disclosed by the present invention according to the technical scheme and the utility model concept of the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A positioning and supporting structure for improving the stability of a magnetic toy, comprising an adsorption mechanism (1) and an adsorbed mechanism (2), wherein the adsorption mechanism (1) and the adsorbed mechanism (2) are connected by magnetic force and matching, and characterized in that: The adsorption mechanism (1) comprises a first magnetic body fixedly disposed inside the adsorption mechanism (1) and a plurality of openings arranged on its outer frame; a supporting contact surface structure (201) is arranged at the connection between the adsorbed mechanism (2) and the adsorption mechanism (1); the supporting contact surface structure (201) is arranged on the outer frame of the adsorbed mechanism (2); a second magnetic body is arranged at the end of the supporting contact surface structure (201); the supporting contact surface structure (201) extends into the adsorption mechanism (1) through the opening and guides the first magnetic body and the second magnetic body to be magnetically adsorbed.

2. A positioning and supporting structure for improving the stability of a magnetic toy according to claim 1, characterized in that: The adsorption mechanism (1) comprises an adsorbed part positioning frame (106) arranged inside the adsorbed part, the adsorbed part positioning frame (106) and at least part of the opening correspond to each other, and the adsorbed part positioning frame (106) is suitable for guiding the supporting contact surface structure (201) to approach the first magnetic body and to form a limit along a length direction perpendicular to the supporting contact surface structure (201).

3. A positioning and supporting structure for improving the stability of a magnetic toy according to claim 2, characterized in that: The cross section of the adsorbed component positioning frame (106) comprises a circular ring structure or an arc structure suitable for slidingly matching the supporting contact surface structure (201).

4. A positioning and supporting structure for improving the stability of a magnetic toy according to claim 3, characterized in that: A cylindrical structure or a curved surface structure suitable for forming the adsorbed object positioning frame (106) extends inwardly from the opening, and the curved surface structure tends to bulge toward the outer contour of the adsorption mechanism (1).

5. A positioning and supporting structure for improving the stability of a magnetic toy according to any one of claims 2 to 4, characterized in that: The size of the support contact surface structure (201) matches the size of the opening on the adsorption mechanism (1), and the opening is suitable for constituting a limit along a length direction perpendicular to the support contact surface structure (201).

6. A positioning and supporting structure for improving the stability of a magnetic toy according to claim 5, characterized in that: The outer frame of the adsorption mechanism (1) is composed of two hemispherical parts (101) fixedly connected to each other. The two hemispherical parts (101) are each provided with an opening on a side away from each other. The two hemispherical parts (101) are provided with four openings between the mutually connected parts. The four openings located at the connection of the two hemispherical parts (101) face four directions respectively. Four identical ball positioning frames (105) are symmetrically fixedly arranged inside the hemispherical part (101). Four identical adsorbed part positioning frames (106) are fixedly arranged inside the hemispherical part (101). The adsorbed part positioning frames (106) are suitable for docking and matching in groups of two and limiting the same supporting contact surface structure (201). Balls (102) suitable for constituting the first magnetic body are mounted between the eight ball positioning frames (105) located inside the two hemispherical parts (101).

7. A positioning and supporting structure for improving the stability of a magnetic toy according to claim 6, characterized in that: The composition of the sphere (102) includes one or more of iron, cobalt and nickel.

8. A positioning and supporting structure for improving the stability of a magnetic toy according to claim 7, characterized in that: The two hemispherical pieces (101) are fixed to each other via a first positioning pin (103) and a first ultrasonic line (104), wherein the first positioning pin (103) is arranged at the top end of the sphere positioning frame (105), and the first ultrasonic line (104) is arranged at the edge of the port of the hemispherical piece (101).

9. A positioning and supporting structure for improving the stability of a magnetic toy according to claim 1, characterized in that: The outer frame of the adsorbed mechanism (2) is composed of two symmetrical shells, and the adsorbed mechanism includes a plurality of the supporting contact surface structures (201), and a half-rod structure (202) is arranged at the end of the supporting contact surface structure (201), and magnets (203) suitable for forming the second magnetic body are arranged inside the two half-rod structures (202), and the two supporting contact surface structures (201) are fixedly connected to the second ultrasonic line (205) via a second positioning pin (204).

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