Toy splicing system

Abstract

According to the toy splicing system, splicing is carried out through connection of a plurality of elements, the toy splicing system comprises the elements, each element is provided with a technological installation hole, and magnet installation components containing cylindrical magnets are installed in all or part of the technological installation holes in the elements. The elements are connected after being attracted by the magnets, the element set can be rich, the stability of the spliced model can be guaranteed through magnetic force, angle adjustment is easy and simple, the requirements for changing and diversity can be met, and development of intelligence of children is facilitated.

Description

Technical Field

[0001] The invention relates to a toy, in particular to a toy splicing system comprising a plurality of splicing elements, and belongs to the technical field of toys. Background Art

[0002] The toy splicing system that uses a variety of components to splice and build different models is an effective way to develop children's intelligence. It has been widely used in practice. There are many such toys. According to whether the components are connected, this toy system is divided into a splicing system in which the components are not connected but just stacked, such as the common building block splicing system. The production and manufacturing of the components of this system are relatively simple, but the stability of the built model is not good. Since the components need to be supported, the components require sufficient support surfaces, so this type of system is difficult to integrate components with small support areas such as spheres and arcs, so the shape of the components is limited. Of course, the richness of the spliced ​​model cannot be fully utilized; the other type is components with connecting structures between components, such as components connected by hole rods and mortise and tenon joints. The stability of the model spliced ​​by this type of components is better, and the shape of the components can be fully utilized, but the angle between the components of this type of components is often difficult to adjust during the connection, and the holes connected by hole rods often require a certain depth of the hole. In addition, considering the safety of children's use, the components often need to be locked after connection, which requires the development and design of different locking mechanisms, making the component structure more complicated, which is not conducive to standardized and low-cost production. Summary of the invention

[0003] The purpose of the present invention is to overcome the above problems existing in the current toy splicing system and provide a toy splicing system.

[0004] In order to achieve the purpose of the present invention, the following technical scheme is adopted: a toy splicing system, the toy splicing system is spliced ​​by connecting multiple components, the toy splicing system comprises multiple components, each of which is provided with a process installation hole, a magnet installation component containing a cylindrical magnet is installed in all or part of the process installation holes on the component, and the components are spliced ​​after being attracted by magnets, and the multiple components comprise the following components: Component A: includes a rectangular main body, on two opposite side surfaces of the rectangular main body and the end surface in the length direction, opposite process installation holes A are provided, and on the other two side surfaces of the rectangular main body, connection holes A are provided; Component B: comprises a cube, on two opposite end faces of the cube are provided process installation holes B, and on the other four faces are provided connection holes B; Component C: includes a cylinder, and process installation holes C are opened on both end faces of the cylinder; Component D: includes a cuboid, with process assembly holes D provided on both end faces in the length direction of the cuboid and on a pair of opposite side faces; Component E: includes a T-shaped piece, and process assembly holes E are provided on the upper, lower, left, and right end faces of the horizontal side of the T-shaped piece and the front end face of the vertical side of the T-shaped piece; Component F: includes a plane part, a cylindrical part is integrally arranged in the middle of the plane part, and process assembly holes F are opened on the front end surface of the cylindrical part and the plane parts on both sides of the cylindrical part; Component G: comprising a U-shaped member, with process assembly holes G starting from two opposite side planes of the bottom edge of the U-shaped member and the front end surfaces of the two U-shaped edges; Component H: includes a Z center piece, with process assembly holes H opened at both ends of the two horizontal sides; Component I: includes a cross-shaped member, the four ends of the cross-shaped member are arc-shaped, and process assembly holes I are opened at the center of the cross and on the surfaces of the two sides of the cross near the two ends, and the radial direction of the process assembly hole I is consistent with the radial direction of the corresponding arc-shaped end; Component J: includes a hemisphere, and a process assembly hole J is opened at the center of the plane of the hemisphere; Component K: It includes three cylinders spaced 120 degrees apart. The roots of the cylinders are fixedly connected as a whole. A process assembly hole K is opened on the end face of each cylinder. Component L: It includes an elliptical cylinder. The two end faces of the elliptical cylinder are inclined surfaces. The inclined surfaces at both ends and the circumference of the longest part are provided with process assembly holes L. Component M: comprises a quadrangular pyramid, a tetrahedral tower body is integrally connected to the bottom surface of the quadrangular pyramid, and a process assembly hole M is opened on the bottom surface of the tetrahedral tower body; Component N: a steering wheel component, with a process assembly hole N opened on the end surface of the central axis of the steering wheel; Component O: including a circular ring, on the circumference of which a process assembly hole O is provided; Component P: includes a cone, and a process assembly hole P is opened at the center of the plane of the cone.

[0005] Furthermore, the process assembly hole is a blind hole.

[0006] Furthermore, component A has two connecting holes A opened on the other two sides of the cuboid, and a process assembly hole A is also opened between the two connecting holes.

[0007] Furthermore, both ends of element F are arc-shaped.

[0008] Furthermore, the vertical side of the Z-shaped member is perpendicular to the two horizontal sides.

[0009] Furthermore, the bottom surface of the tetrahedral tower is smaller than the bottom surface of the tetrahedral pyramid.

[0010] The positive and beneficial technical effects of the present invention are that the components of the present invention are connected by magnets, the component set can be very rich, the stability of the model after splicing can be guaranteed by magnetic force, the angle adjustment is easy and simple, and can meet the changing requirements, which is beneficial to the development of children's intelligence. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 is a schematic diagram of component A.

[0012] Figure 2 is a schematic diagram of component B.

[0013] Figure 3 is a schematic diagram of component C.

[0014] Figure 4 is a schematic diagram of component D.

[0015] Figure 5 is a schematic diagram of component E.

[0016] Figure 6 is a schematic diagram of component F.

[0017] Figure 7 is a schematic diagram of component G.

[0018] Figure 8 is a schematic diagram of component H.

[0019] Fig. 9 is a schematic diagram of component I.

[0020] Fig.10 is a schematic diagram of component J.

[0021] Fig.11 is a schematic diagram of component K.

[0022] Fig.12 is a schematic diagram of component L.

[0023] Fig.13 is a schematic diagram of component M.

[0024] Fig.14 is a schematic diagram of component N.

[0025] Fig.15 is a schematic diagram of component O.

[0026] Fig.16 is a schematic diagram of component P.

[0027] Fig.17 The present invention is a schematic diagram of an embodiment of a component for mounting a magnet.

[0028] Fig.18 yes Fig.17 Schematic diagram of the Chinese and foreign kit after being cut open.

[0029] Fig.19 yes Fig.17 Schematic diagram of the Nakagami kit.

[0030] Fig. 20 yes Fig.17 Schematic diagram of the middle and rear cover.

[0031] Fig.21 It is one of the schematic diagrams of the splicing model containing the elements of the present invention.

[0032] Fig. 22 This is the second schematic diagram of the splicing model containing the components of the present invention. DETAILED DESCRIPTION

[0033] In order to more fully explain the implementation of the present invention, implementation examples of the present invention are provided. These implementation examples are merely elaborations of the present invention and do not limit the scope of the present invention.

[0034] The marks in the accompanying drawings are: 100: component A; 1: process assembly hole A; 101: connection hole A; 200: component B; 2: process assembly hole B; 201: connection hole B; 300: component C; 3: process assembly hole C; 400: component D; 4: process assembly hole D; 500: component E, 5: process assembly hole E; 600: component F, 5: process assembly hole F; 700: component G, 7: process assembly hole G; 800: component H, 8: process assembly hole H; 801: horizontal side A; 802: horizontal side B; 900: component I, 9: process assembly hole I; 1000: component J, 10: process assembly hole J; 1100: component K, 11: process assembly hole K; 1 200: component L, 12: process assembly hole L; 1300: component M, 13: process assembly hole M; 1301: tetrahedral pyramid; 1302: tetrahedral tower body; 1400: component N, 14: process assembly hole N; 1500: component O, 15: process assembly hole O; 1600: component P, 16: process assembly hole P; 17: outer kit; 18: inner kit; 19: back cover; 171: flange; 172: limiting protrusion; 173: shoulder; 174: inner surface tooth; 181: meshing limit adjustment tooth; 182: curved surface; 183: magnet accommodating chamber; 184: outer surface tooth; 191: elastic locking plate; 192: hanging plate; 193: elastic check plate; 194: plane.

[0035] As shown in the attached drawings, a toy splicing system is spliced ​​by connecting multiple components. The toy splicing system includes multiple components, each of which is provided with a process installation hole, and the process assembly hole is optimally selected to be a blind hole. Magnet installation components containing cylindrical magnets are installed in all or part of the process installation holes, and the components are spliced ​​after being attracted by magnets. The multiple components include the following components: Component A100: comprises a rectangular main body, on two opposite side surfaces of the rectangular main body and on the end surface in the length direction, relative process installation holes A1 are provided, and on the other two side surfaces of the rectangular main body, connection holes A101 are provided; component A has two connection holes A provided on the other two side surfaces of the rectangular main body, and a process assembly hole A is also provided between the two connection holes.

[0036] Component B200: It includes a cube, on two opposite end faces of the cube there are process installation holes B2, and on the other four faces there are connection holes B. Component C300: comprises a cylinder, and process installation holes C are provided on both end faces of the cylinder.

[0037] Component D400: includes a cuboid, with process assembly holes D4 being provided on both end faces in the length direction of the cuboid and on a pair of opposite side faces.

[0038] Component E500: includes a T-shaped piece, and process assembly holes E5 are opened on the upper, lower, left and right end faces of the horizontal side of the T-shaped piece and the front end face of the vertical side of the T-shaped piece.

[0039] Component F600: includes a planar component 601, a cylindrical component 602 is integrally arranged in the middle of the planar component 601, and process assembly holes F6 are opened on the front end surface of the cylindrical component and the planar components on both sides of the cylindrical component; both ends of the component F are arc-shaped.

[0040] Component G700: includes a U-shaped part, and process assembly holes G7 are formed on two opposite side planes of the bottom edge of the U-shaped part and on the front end surfaces of the two U-shaped sides.

[0041] Component H800: includes a Z-shaped member, the vertical side of the Z-shaped member is perpendicular to the two horizontal sides, the horizontal side A shown in 801 and the horizontal side B shown in 802 are the two horizontal sides; process assembly holes H8 are opened at both ends of the two horizontal sides.

[0042] Component I900: includes a cross-shaped piece, the four ends of which are all arc-shaped, and process assembly holes I9 are opened in the center of the cross and on the surfaces of the cross edges on both sides close to the two ends. The radial direction of the process assembly hole I is consistent with the radial direction of the corresponding arc-shaped end.

[0043] Component J1000: includes a hemisphere, and a process assembly hole J10 is opened at the center of the plane of the hemisphere.

[0044] Component K1100: It includes three cylinders spaced 120 degrees apart. The roots of the cylinders are fixedly connected as a whole. A process assembly hole K11 is opened on the end face of each cylinder.

[0045] Component L1200: includes an elliptical cylinder, the two end faces of the elliptical cylinder are inclined surfaces, and process assembly holes L12 are opened on the inclined surfaces at both ends and on the circumference of the longest part.

[0046] Component M1300: includes a quadrangular pyramid 1301, on the bottom of which is integrally connected a tetrahedral tower body 1302, the bottom of which is smaller than the bottom of the quadrangular pyramid, and a process assembly hole M13 is provided on the bottom of the tetrahedral tower body.

[0047] Component N1400: is a steering wheel component, and a process assembly hole N14 is opened on the end face of the central axis of the steering wheel.

[0048] Component O1500: includes a circular ring, and a process assembly hole O15 is opened on the circumference of the circular ring.

[0049] Component P1600: includes a cone, and a process assembly hole P16 is opened at the center of the plane of the cone.

[0050] The magnet mounting component containing a cylindrical magnet in the present invention is disclosed in the prior art, such as the technical solution of the magnet mounting component and the magnet toy including the same disclosed in CN104066489B.

[0051] Although the magnet mounting component disclosed in CN104066489B can be realized, its structure is relatively complex, and the teeth for adjusting the meshing are exposed. The component is not firmly connected to the element body and is easy to fall off, especially when used on wooden toys. In view of this, the applicant provides a magnet mounting component embedded in a wooden toy as the magnet mounting component of the present invention.

[0052] Fig.17 , 1819 shows a magnet installation component for a wooden toy embedded in the toy provided by the applicant, comprising an outer set 17, an inner set 18, and a back cover 19. The outer set and the inner set are sets with a central hole. The central hole of the outer set has a shoulder 173 near the front end, and an inner face tooth 174 is processed on the shoulder 173. An outer face tooth 184 is processed on the front end surface of the outer set. The inner face tooth and the outer face tooth can mesh with each other. The tooth surfaces on both sides of the inner face tooth and the outer face tooth are inclined surfaces. After the inner face tooth and the outer face tooth mesh, when the inner face tooth does not move and is subjected to circumferential (tangential) torsional force, the teeth of the outer face tooth can jump between the teeth of the inner face tooth, thereby causing the inner set to rotate relative to the outer set. The central hole of the inner set is a magnet accommodating cavity 18. 3. The size of the magnet accommodating cavity is larger than the size of the magnet in any direction. The magnet can be flipped arbitrarily in the magnet accommodating cavity. A plurality of axially or axially obliquely extending engaging limit adjustment teeth are integrally arranged on the front end surface of the inner sleeve. The engaging limit adjustment teeth pass through the outer sleeve from the shoulder portion. The rear end of the engaging limit adjustment teeth is thin and the front end is thick. The inner surface of the engaging limit adjustment teeth is a curved surface. The size of the mouth formed by the plurality of engaging limit adjustment teeth is smaller than the maximum diameter of the magnet, that is, the magnet cannot escape from the mouth formed at the front end of the limiting adjusting engaging teeth. When the engaging limit adjustment teeth of the two inner sleeves are relatively staggered, the engaging limit adjustment teeth on one inner sleeve can be inserted between the adjacent engaging limit adjustment teeth on the other inner sleeve. Both the outer sleeve and the inner sleeve are circular parts. The magnet in the present application can be a cylindrical magnet, a drum-shaped magnet, a polygonal magnet, etc.

[0053] As solutions to prevent the magnet from escaping from the opening formed at the front end of the limit adjustment meshing tooth, the applicant provides the following solutions: one is that the magnet adopts a cylindrical magnet, and the two ends of the cylindrical magnet are chamfered, and the opening formed at the front end of the meshing limit adjustment tooth is larger than the diameter of the chamfer and smaller than the diameter of the cylindrical magnet body, so that when the magnets on the two inner sets are adsorbed, the chamfered portion can pass through the opening formed at the front end of the limit adjustment meshing tooth, and the two magnets can be attracted together face to face; the second is to adopt a drum-shaped magnet, and the opening formed at the front end of the meshing limit adjustment tooth is larger than the diameter of the magnet end and smaller than the maximum diameter of the drum, so that when the two magnets on the two inner sets are adsorbed, the end of the drum-shaped magnet can pass through the opening formed at the front end of the meshing limit adjustment tooth, and the two magnets can be attracted together face to face; the third is that the diameter of the opening formed at the front end of the meshing limit adjustment tooth is smaller than the diameter of any end of the magnet, so that the end of the magnet cannot pass through the opening formed at the front end of the meshing limit adjustment tooth, so that when the magnets on the two inner sets are attracted, there will be a gap between the two magnets, which is more conducive to the separation and angle adjustment of the components.

[0054] A rear cover 19 is provided at the rear end of the outer sleeve, and the rear cover 19 includes a plane 194 located at the rear end, and a plurality of elastic locking pieces bent forward are integrally provided at the edge of the plane, and a hanging piece 192 is provided on the elastic locking piece, and a non-closed gap is formed around the hanging piece, and the rear end of the hanging piece sinks downward, and a flange 171 is integrally provided near the rear end of the outer sleeve. After the rear cover is installed on the outer sleeve, the hanging piece is located in front of the flange, and the rear end of the hanging piece is lower than the flange, so that the rear cover is axially limited by the flange, and a plurality of elastic check pieces 193 bent forward are also integrally provided at the edge of the plane, and the angle between the elastic check piece 193 and the plane is an obtuse angle, and the angle between the elastic check piece and the plane is greater than the angle between the elastic locking piece and the plane. Specifically, the elastic locking piece and the elastic check piece are arranged at intervals, and a plurality of limiting protrusions 172 are integrally provided on the outer circumferential surface of the outer sleeve, and the limiting protrusion is located between two adjacent elastic locking pieces, so that the elastic locking piece and the outer sleeve cannot rotate relative to each other.

[0055] A magnet installation component embedded in a wooden toy provided by the applicant is used, and a magnet is installed in the magnet accommodating cavity. When connected, when two magnets on different components are close to each other, the meshing limit adjustment teeth on one component are inserted between the meshing limit adjustment teeth on the other component. Since like poles repel each other and opposite poles attract each other, the magnets automatically rotate to two different poles and can be attracted together. After attraction, the outer teeth are forced to fit on the inner teeth. Due to the suction of the magnet, the angle between the two components can be relatively positioned. When the angle needs to be adjusted, the two components are relatively rotated. The meshing tooth limit adjustment teeth on the components are driven by the circumferential torsion to drive the teeth of the outer teeth to jump between the teeth of the inner teeth. In the process of the outer tooth surface jumping relative to the inner tooth surface, the suction of the magnet is similar to the elastic force generated by the spring pulling between the two components, so as to achieve angle adjustment. After the adjustment is completed, the inner teeth and the outer teeth are relatively meshed together to position the angles of the two components (connectors) relatively, and the stability is good.

[0056] Using the components of the present invention, various models can be assembled, such as Fig.21 , 22 In the present invention, in addition to the above-mentioned elements, various elements can be expanded, such as a rectangular parallelepiped element Q, in which process assembly holes are provided on the six faces of the rectangular parallelepiped, and magnet mounting parts containing cylindrical magnets are installed in the process assembly holes.

[0057] After describing the implementation mode of the present invention in detail, people familiar with the technology can clearly understand that various changes and modifications can be made without departing from the scope and spirit of the above-mentioned patent application. Any simple modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention are within the scope of the technical solution of the present invention, and the present invention is not limited to the implementation mode of the examples given in the specification.

Claims

1. A toy splicing system, wherein the toy splicing system is spliced ​​by connecting multiple components, characterized in that: The toy splicing system comprises a plurality of components, each of which is provided with a process installation hole, and a magnet installation component containing a cylindrical magnet is installed in all or part of the process installation holes on the components, and the components are spliced ​​after being attracted by the magnets. The plurality of components comprises the following components: Component A: includes a rectangular main body, on two opposite side surfaces of the rectangular main body and the end surface in the length direction, opposite process installation holes A are provided, and on the other two side surfaces of the rectangular main body, connection holes A are provided; Component B: comprises a cube, on two opposite end faces of the cube are provided process installation holes B, and on the other four faces are provided connection holes B; Component C: includes a cylinder, and process installation holes C are opened on both end faces of the cylinder; Component D: includes a cuboid, with process assembly holes D provided on both end faces in the length direction of the cuboid and on a pair of opposite side faces; Component E: includes a T-shaped piece, and process assembly holes E are provided on the upper, lower, left, and right end faces of the horizontal side of the T-shaped piece and the front end face of the vertical side of the T-shaped piece; Component F: includes a plane part, a cylindrical part is integrally arranged in the middle of the plane part, and process assembly holes F are opened on the front end surface of the cylindrical part and the plane parts on both sides of the cylindrical part; Component G: comprising a U-shaped member, with process assembly holes G starting from two opposite side planes of the bottom edge of the U-shaped member and the front end surfaces of the two U-shaped edges; Component H: includes a Z center piece, with process assembly holes H opened at both ends of the two horizontal sides; Component I: includes a cross-shaped member, the four ends of the cross-shaped member are arc-shaped, and process assembly holes I are opened at the center of the cross and on the surfaces of the two sides of the cross near the two ends, and the radial direction of the process assembly hole I is consistent with the radial direction of the corresponding arc-shaped end; Component J: includes a hemisphere, and a process assembly hole J is opened at the center of the plane of the hemisphere; Component K: It includes three cylinders spaced 120 degrees apart. The roots of the cylinders are fixedly connected as a whole. A process assembly hole K is opened on the end face of each cylinder. Component L: It includes an elliptical cylinder. The two end faces of the elliptical cylinder are inclined surfaces. The inclined surfaces at both ends and the circumference of the longest part are provided with process assembly holes L. Component M: comprises a quadrangular pyramid, a tetrahedral tower body is integrally connected to the bottom surface of the quadrangular pyramid, and a process assembly hole M is opened on the bottom surface of the tetrahedral tower body; Component N: a steering wheel component, with a process assembly hole N opened on the end surface of the central axis of the steering wheel; Component O: including a circular ring, on the circumference of which a process assembly hole O is provided; Component P: includes a cone, and a process assembly hole P is opened at the center of the plane of the cone.

2. A toy splicing system according to claim 1, characterized in that: The process assembly hole is a blind hole.

3. A toy splicing system according to claim 1, characterized in that: Component A has two connection holes A on the other two side surfaces of the cuboid, and a process assembly hole A is also provided between the two connection holes.

4. A toy splicing system according to claim 1, characterized in that: Both ends of the element F are arc-shaped.

5. A toy splicing system according to claim 1, characterized in that: The vertical side of the Z-shaped member is perpendicular to the two horizontal sides.

6. A toy splicing system according to claim 1, characterized in that: The base of the tetrahedron is smaller than the base of the tetrahedron.

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