Toy

Abstract

The utility model provides a kind of toy, with mutually abutting and separating, and distribution formation has the two components of the embedded recess that can be embedded with embedded convex part, it is constructed as when the two components mutually abut, the embedded recess is formed on the two components, the side wall of the embedded recess is formed with inward claw, and the inward claw is used to stop the embedded convex part embedded in the embedded recess to maintain embedded state. By the utility model, a kind of toy of the structure that the embedded recess and the embedded convex part are embedded when, the embedded difficulty is removed.

Description

Technical Field

[0001] This utility model relates to a toy. Background Technology

[0002] In the past, for example in combination robot toys, the assembly and disassembly of parts used a concave-convex interlocking structure (see Patent Documents 1 and 2). This concave-convex interlocking structure connects the parts by interlocking protrusions with holes.

[0003] Patent Document 1: Japanese Patent Publication No. 64-9873 Patent Document 2: Japanese Patent Publication No. 64-9874

[0004] However, the structure that uses a protrusion and a hole to fit together has the problem that the connected parts are prone to falling off. This invention was made in view of such circumstances, and its purpose is to provide a toy in which the fit between the concave fitting portion and the convex fitting portion has a structure that is difficult to disengage. Utility Model Content

[0005] The first toy provided by this utility model comprises two components that can abut and separate from each other, and are provided with fitting recesses that can fit into fitting protrusions. The components are configured such that when the two components abut each other, the fitting recesses are formed on the two components. The sidewalls of the fitting recesses are formed with inward claws, which are used to lock the fitting protrusions that fit into the fitting recesses to maintain the fitting state.

[0006] The second toy provided by this utility model is based on the first toy, wherein the fitting recess has a straight hole formed in each of the two components.

[0007] The third toy provided by this utility model is based on the first toy, wherein the fitting recess has a groove formed between the straight holes of the two components.

[0008] The fourth toy provided by this utility model is based on the third toy, wherein the fitting protrusion is formed in a component other than the two components, and has two columnar protrusions that can be fitted into the straight holes of the two components respectively, and a plate-shaped rib disposed between the two columnar protrusions and fitted into the groove, wherein the side of the plate-shaped rib has an outward claw that can engage with the inward claw.

[0009] The fifth toy provided by this utility model is based on the fourth toy, wherein the groove extends to connect the straight hole of the two components.

[0010] The sixth toy provided by this utility model is based on the fifth toy, wherein the plate-shaped rib is formed to connect the two columnar protrusions.

[0011] The seventh toy provided by this utility model is based on any one of the first to sixth toys, wherein the two components are configured such that, based on the function of the toy, at least one of them abuts or separates from each other when it moves.

[0012] The eighth toy provided by this utility model is based on the seventh toy, wherein the toy is a shape-changing toy, and the interlocking protrusions and interlocking recesses are provided on a toy body.

[0013] The ninth toy provided by this utility model is based on the seventh toy, wherein the toy is a shape-changing toy, and one of the interlocking protrusions and interlocking recesses that can be interlocked is provided on a toy body, and the other is provided on an accessory of the toy body.

[0014] The tenth toy provided by this utility model is based on the seventh toy, wherein the toy is a composite toy composed of multiple toy bodies, and the interlocking protrusions and the interlocking recesses are respectively formed on different toy bodies.

[0015] The eleventh toy provided by this utility model is based on the seventh toy, wherein the toy is a doll toy, and at least one of the two shoulders, two arms, two legs and two feet is composed of the two parts mentioned above.

[0016] The twelfth toy provided by this utility model comprises two components that can abut and separate from each other, and are provided with fitting protrusions that can fit into fitting recesses. The components are configured such that when the two components abut each other, the fitting protrusions are formed on the two components. The fitting protrusions are formed with outward claws, which are used to be locked by the fitting recesses that fit into the fitting protrusions to maintain the fitting state.

[0017] According to this utility model, the fitting protrusion and the fitting concave part are fitted together, and the fitting protrusion is locked by an inward claw or an outward claw, making the fit difficult to release. Attached Figure Description

[0018] Figure 1 This is a perspective view of the toy involved in the implementation method. Figure 2 This is a frontal perspective view of the first form of the first toy body that constitutes part of the toy. Figure 3 It is a frontal exploded three-dimensional view of the upper torso and arm structures. Figure 4 It is a frontal exploded three-dimensional view of the lower torso and foot structures. Figure 5 This is a side-view perspective view of the second form of the first toy. Figure 6 It is a side-view perspective view of the transformation process of the first toy body from the first form to the second form. Figure 7 This is the first concrete side view of the third form. Figure 8 This is a frontal perspective view of the first form of the second toy body that constitutes part of the toy. Figure 9 This is a rear 3D view of the first form of the second toy body. Figure 10 It is a frontal exploded three-dimensional view of the upper torso and arm structures. Figure 11 It is a frontal exploded three-dimensional view of the lower torso and foot structures. Figure 12 This is a frontal 3D view of the second form of the second toy body. Figure 13 This is a rear 3D view of the second form of the second toy body. Figure 14 This is a frontal 3D view of the combined robot, which is formed by the first and second toy bodies. Figure 15 This is a three-dimensional view of the third interlocking recess. Figure 16 This is a three-dimensional view of the third mating protrusion. Figure 17 It is a cross-sectional view of the third fitting recess and the third fitting protrusion viewed from one direction. Figure 18 This is a cross-sectional view of the third fitting recess and the third fitting protrusion viewed from another direction. Figure 19A This is the first 3D image showing the third form with the head removed. Figure 19B This is the first 3D image showing the third form with the head removed. Detailed Implementation

[0019] The following describes an embodiment of the toy based on the accompanying drawings.

[0020] Figure 1 This is a perspective view of the toy 100 according to the embodiment. The toy 100 comprises a first toy body 10 and a second toy body 50. The first toy body 10 can transform itself to present the first form 10A of a humanoid robot. Figure 2 ), the second form of the deer-type robot 10B ( Figure 5 ), the third form of the hybridization robot 10C ( Figure 7In addition, the second form 10B is not limited to deer, but can also transform into creatures such as giraffes, dinosaurs, insects, or vehicles such as cars. On the other hand, the second toy body 50 can transform itself to present the first form 50D of a humanoid robot. Figure 8 ), the second form of the vehicle robot 50E ( Figure 12 The second form, 50E, is not limited to vehicles; it can also transform into aircraft, tanks, home appliances such as radios, and even biological entities. Furthermore, the toy 100 can take the form of a combination of the first toy body 10 and the second toy body 50.

[0021] The First Toy 10 <First Form 10A) Figure 2 This is a frontal perspective view of the first form 10A of the first toy body 10. use Figure 1 and Figure 2 The components of the first toy body 10 will be described in the first form 10A. The first toy body 10 includes a component 11 constituting a head A1, a component 12 constituting an upper torso A2, a component 13 constituting a lower torso A3, components 14L and 14R constituting an arm A4, components 15L and 15R constituting a foot A5, a component 16 constituting a weapon A6, and a component 17 constituting armor A7.

[0022] The head A1 (part 11) is mounted on the upper part of the upper body A2 (part 12) and can enter and exit from the top of the upper body A2 (part 12).

[0023] Figure 3 It is an exploded three-dimensional diagram of the upper torso A2 and the arm A4 structure. Arm sections A4 (parts 14L, 14R) are mounted on the left and right sides of the upper torso A2 (part 12). These arm sections A4 (parts 14L, 14R) have a symmetrical structure. Therefore, Figure 2 and Figure 3 Only one of the arm parts A4 (parts 14L and 14R) is described using the reference numerals in the attached drawings. The arm A4 (parts 14L, 14R) is composed of part 141 constituting the upper arm, part 142 constituting the elbow joint, and part 143 constituting the lower arm. The upper arm (part 141) is rotatably mounted to the upper torso A2 (part 12) via a shoulder joint (part 140) with the axis S1 extending in the rear-rear direction as the center and the axis S2 extending in the left-right direction as the center. Alternatively, the axis of the shoulder joint (part 140) may also be a ball joint. Furthermore, the lower arm portion (part 143) is mounted to the upper arm portion (part 141) via the elbow joint portion (part 142) with the center line of the upper arm portion (part 141) as the center and with the shaft S3 as the center.

[0024] Furthermore, the lower torso A3 (part 13) is rotatably mounted on the upper torso A2 (part 12) with the center line of the upper torso A2 (part 12) as the center.

[0025] Figure 4 This is an exploded three-dimensional diagram of the lower torso A3 and the foot A5 structure. The lower leg (part 154) is rotatably mounted to the knee joint (part 153) with respect to the axis S5 extending in the left and right direction.

[0026] The feet A5 (parts 15L, 15R) are mounted on the left and right sides of the lower torso A3 (part 13). The feet A5 (parts 15L, 15R) have a symmetrical structure. Therefore, Figure 2 and Figure 4 Only one of the foot parts A5 (parts 15L and 15R) is described using the attached reference numerals. The foot A5 (parts 15L, 15R) is composed of part 151 constituting the upper foot, part 152 constituting the connecting part, part 153 constituting the knee joint, and part 154 constituting the lower foot. The upper leg (part 151) is mounted to the lower torso A3 (part 13) via the hip joint (part 150) in a rotatable manner in the front-back direction and in the left-right direction. Furthermore, the connecting part (component 152) is rotatably mounted to the upper leg (component 151) with the center line of the upper leg (component 151) as the center. The knee joint (part 153) is rotatably mounted to the connecting part (part 152) with respect to the axis S4 extending in the left and right direction.

[0027] <Second Form 10B) Figure 5 This is a side perspective view of the second form 10B of the first toy body 10. Figure 6 This is a side perspective view of the transformation process from the first form 10A to the second form 10B. Additionally, Figure 5 and Figure 6 Zhongyu Figure 2 and Figure 3 Components marked with the same reference numerals in the accompanying drawings are the same component. The transformation process of the first toy body 10 from the first form 10A to the second form 10B is as follows: Pull the head A1 (part 11) of the first form 10A into the upper body A2 (part 12), rotate the arm A4 (parts 14L, 14R) upward around axis S1 to above the shoulder, and at the same time rotate it backward around axis S2. In addition, the lower body A3 (part 13) and the feet A5 (parts 15L, 15R) are twisted 180 degrees relative to the upper body A2, and the parts 151-154 that form the feet A5 (parts 15L, 15R) are appropriately bent so that the lower feet (parts 154) bend toward the back of the humanoid robot. Further remove weapon A6 (part 16) and armor A7 (part 17) from the humanoid robot, such as Figure 6 As shown, components 16 and 17 are installed on the deer-shaped robot. Component 16 becomes the head of the deer-shaped robot, and component 17 becomes the tail of the deer-shaped robot. Thus, the humanoid robot in the first form 10A transforms into the deer-shaped robot in the second form 10B. Figure 5 ).

[0028] (Third Form 10C) Figure 7 This is a 3D diagram of the third form 10C of the first toy body 10. Additionally, Figure 7 Zhongyu Figure 2 and Figure 3 Components marked with the same reference numerals in the accompanying drawings are the same components. The transformation process from the first form 10A deer-shaped robot to the third form 10C hybrid robot is as follows: Pull the head A1 (part 11) of the first form 10A into the upper body A2 (part 12), rotate the arm A4 (parts 14L, 14R) upward around axis S1 to above the shoulder, and at the same time rotate it backward around axis S2. In addition, the knee joint (part 153) and the lower leg (part 154) are bent toward the back. Further remove the humanoid robot's weapon A6 (part 16) and armor A7 (part 17), and install only part 17, which will become the head of the deer-shaped robot, on part 141. Thus, the humanoid robot in the first form 10A transforms into the hybrid robot in the third form 10C. Additionally, in the following description, the parts from which components 16 and 17 are removed in the third form 10C will be referred to as the substrate.

[0029] The Second Toy Body 50 <First Form 50D) Figure 8 This is a frontal 3D view of the first form of the second toy body 50. Figure 9This is a rear three-dimensional view of the first form 50D of the second toy body 50. use Figure 1 , Figure 8 and Figure 9 The components of the second toy body 50 are described in the first form 50D. The second toy body 50 includes a component 51 constituting a head D1, a component 52 constituting an upper torso D2, a component 53 constituting a lower torso D3, components 54L and 54R constituting arms D4, components 55L and 55R constituting feet D5, a component 56 constituting a weapon D6, and a component 57 constituting armor D7. Figure 9 Reference).

[0030] The head D1 (part 51) is mounted on the upper part of the upper body D2 (part 52) ​​and can enter and exit from the top of the upper body D2 (part 52).

[0031] Figure 10 This is a frontal exploded perspective view of the upper torso D2 and arm D4 structures. Arm sections D4 (parts 54L, 54R) are mounted on the left and right sides of the upper torso D2 (part 52). These arm sections D4 (parts 54L, 54R) have a symmetrical structure. Therefore, Figure 8 and Figure 10 Only one of the components 54L and 54R is described using the reference numerals in the accompanying drawings. The arm part D4 (parts 54L, 54R) is composed of part 541 constituting the upper arm, part 542 constituting the connecting part, part 543 constituting the elbow joint, and part 544 constituting the lower arm.

[0032] The upper arm (part 541) is rotatably mounted on the upper torso D2 (part 52) ​​via the shoulder joint (part 540) with the axis S6 extending in the vertical direction as the center and the axis S7 extending in the horizontal direction as the center. The connecting part (component 542) is rotatably mounted on the upper arm (component 541) with the center line of the upper arm (component 541) as the center. The elbow joint (part 543) is detachably configured relative to the connecting part (part 542). The lower arm (part 544) is rotatably mounted to the elbow joint (part 543) with respect to the axis S8.

[0033] Figure 11 This is an exploded three-dimensional view of the lower torso D3 and arm D4 structures from the front. The lower torso D3 (part 53) is rotatably mounted on the upper torso D2 (part 52) ​​with the center line of the upper torso D2 (part 52) ​​as the center.

[0034] The feet D5 (parts 55L, 55R) are mounted on the left and right sides of the lower torso D3 (part 53). The feet D5 (parts 55L, 55R) have a bilaterally symmetrical structure, therefore... Figure 6 and Figure 7 The accompanying drawings only describe one of the corresponding left and right components, 55L and 55R, by marking them with reference numerals. The foot part D5 (parts 55L, 55R) is composed of part 551 as the upper foot part, part 552 as the knee joint part, and part 553 as the lower foot part. The upper leg (part 551) is rotatable around a left-right extending axis S9 via the hip joint (part 550) and rotatable around an axis S10 orthogonal to the axis S9, and is mounted on the lower torso D3 (part 53). The knee joint (part 552) is rotatably mounted to the upper foot (part 551) with respect to axis S11. The lower leg (part 553) is detachably configured relative to the knee joint (part 552).

[0035] (Second Form 50E) Figure 12 and Figure 13 This is a 3D rendering of the second form 50E of the second toy body 50. Additionally, Figure 12 and Figure 13 Zhongyu Figures 8 to 11 The same parts are labeled with the same reference numerals in the attached drawing, and detailed descriptions are omitted. The transformation process from the humanoid robot of Form 50D to the armored vehicle robot of Form 50E is as follows: Pull the head D1 (part 51) into the upper body D2 (part 52), and remove the weapon D6 (part 56). Twist the upper body 180 degrees relative to the lower body D3 (part 53) and the feet D5 (parts 55L, 55R). Furthermore, rotate arm D4 around axis S6. Then, twist the lower arm (part 544) 90 degrees relative to the upper arm (part 541), and bend the lower arm (part 544) 90 degrees relative to the upper arm (part 541). Afterward, with the wheels of foot D5 in contact with the ground, bend the upper body 90 degrees and stand upright.

[0036] (Loading and unloading structure) In this toy 100, the parts are assembled and disassembled using a convenient interlocking structure. The interlocking structure is a structure that allows for the assembly and disassembly of parts by engaging or disengaging the interlocking recesses and convex parts. In this embodiment, a first fitting recess 81, a second fitting recess 82, and a third fitting recess 83 are provided as fitting recesses. The first fitting recess 81 is formed by a straight hole. The second fitting recess 82 is formed by two straight holes arranged side by side at a predetermined interval. The third fitting recess 83 includes two straight holes arranged side by side at a predetermined interval, and has a groove connecting the two straight holes, with inward claws formed on the sidewalls of the groove. Details of the third fitting recess 83 will be described later. Furthermore, in the embodiments, the second fitting recess 82 is provided in a structure where the second fitting recess 82 is provided on a single component, and in a structure where the second fitting recess 82 is distributed on two detachable components and appears when the two components abut against each other. Similarly, the third fitting recess 83 is provided in a structure where the third fitting recess 83 is provided on a single component, and in a structure where the third fitting recess 83 is distributed on two detachable components and appears when the two components abut against each other.

[0037] On the other hand, in the embodiment, a first fitting protrusion 86 that can fit into the first fitting recess 81, a second fitting protrusion 87 that can fit into the second fitting recess 82, and a third fitting protrusion 88 that can fit into the third fitting recess 83 are provided. Details of the third fitting protrusion 88 will be described later.

[0038] Figure 15 This is a three-dimensional view of the third fitting recess 83. The third fitting recess 83 includes two straight holes 830 arranged side by side at a predetermined interval, for example, in the shape of a regular hexagon, and a groove 831 connecting the two straight holes 830. The two side walls of the groove 831 are formed with inward claws 832. In addition, the shape of the straight holes 830 is not limited to a regular hexagon, but may also be other shapes such as circles or squares.

[0039] Figure 16 This is a three-dimensional view of the third fitting protrusion 88. The third fitting protrusion 88 includes two cylindrical protrusions (columnar protrusions) 880 arranged side by side at a predetermined interval, and a plate-shaped rib 881 connecting the two protrusions 880. One side of the plate-shaped rib 881 has an outward claw 882. The outward claw 882 may also be formed on both sides of the plate-shaped rib 881. Furthermore, the shape of the protrusions (columnar protrusions) 880 is not limited to cylindrical; it may also be other shapes such as prismatic protrusions. In short, it must be able to fit into the third fitting recess 83. like Figure 17 , Figure 18As shown, the third engaging protrusion 88 and the third engaging recess 83 abut against each other, causing the two straight holes 830 to engage with the two columnar protrusions 880, while the groove 831 engages with the plate-shaped rib 881. Through this engagement, the inward claw 832 and the outward claw 882 engage. The engagement of the groove 831 and the plate-shaped rib 881 can be released by separating the component forming the groove 831 from the component forming the plate-shaped rib 881. In addition, the cross-sections of the inward claw 832 and the outward claw 882 are preferably triangular or semi-circular, and engagement or disengagement is achieved through mutual sliding contact.

[0040] (The loading and unloading structure in the first toy body 10) The lower arm portion (part 143) of the first form 10A has a first fitting recess 81 for mounting weapon A6 (part 16). Figure 2 (Refer to). The first fitting recess 81 is fitted with the handle (first fitting protrusion) of weapon A6 (part 16). Thus, in the first form 10A, the humanoid robot is in the form of holding a weapon.

[0041] In the second form 10B, the component 13, which forms the waist, has a first fitting recess 81 for mounting the component 16. This first fitting recess 81 is a rectangular straight hole. Figure 6 (Refer to). The first fitting recess 81 fits a rectangular protrusion (first fitting protrusion 86) attached to the weapon (part 16). The weapon (part 16) is flexible, and the curved handle becomes the tail.

[0042] Two straight holes 820 of the second fitting recess 82 are formed on the upper arm portion (part 141) of the arm portion A4 in the first form 10A. For example, when the second form 10B is taken, the second fitting recess 82 is formed when the upper arm portion (part 141) comes into contact. Although there is no particular limitation here, each straight hole is hexagonal. When the second fitting recess 82 is transformed into a deer-shaped robot, the two straight holes 820 of the second fitting recess 82 fit into the two columnar protrusions 870 of the second fitting protrusion 87 provided on the part 17 that constitutes the deer's head.

[0043] The upper arm (part 141) of the arm A4 (parts 14L, 14R) of the first form 10A has two straight holes 830, a groove 831 and an inward claw 832 formed on the side of the third fitting recess 83. Figure 2 ). When the upper arm parts (parts 141) abut against each other ( Figure 5 , Figure 6 (Refer to), a third fitting recess 83 is formed. In the second form 10B, the two straight holes 830 of the third fitting recess 83 fit into the two columnar protrusions 870 of the second fitting protrusion 87 provided on the component 17 constituting the deer head. In addition, the third fitting recess 83 is used for assembly with the second toy body 50.

[0044] The lower part of the connecting part (part 152) of the foot A5 (parts 15L, 15R) of the first form 10A is provided with two straight holes 830, grooves 831 and inward claws 832 of the third fitting recess 83. When the connecting parts (components 152) abut against each other ( Figure 19B Referring to ), the third fitting recessed portion 83 is formed. When the third fitting recess 83 becomes the base of the third form 10C (the part from which parts 16 and 17 are removed from the third form 10C), it is used to fit with the second toy body 50.

[0045] (The loading and unloading structure in the second toy body 50) like Figure 10 As shown, a third fitting protrusion 88 is formed on the lower part of the connecting part (part 542) of the arm part D4 (parts 54L, 54R) of the first form 50D, and a third fitting recess 83 is formed on the upper part of the elbow joint part (part 543). Therefore, the elbow joint (part 543) can be detached from the connecting part (part 542). Furthermore, the third fitting protrusion 88 can fit into the third fitting recess 83 of the base from which parts 16 and 17 are removed from the third form 10C of the first toy body 10. Specifically, the third fitting protrusion 88 can selectively fit into the third fitting recess 83 formed by the mutual abutment of the upper arm portions (part 141) of the first toy body 10. Figure 19A (Refer to), and the third fitting recess 83 formed by the mutual abutment of the connecting part (part 152) of the first toy body 10. Figure 19B Reference). Additionally, the third fitting protrusion 88 can also fit into the third fitting recess 83 formed in component 12. Figure 7 Reference).

[0046] like Figure 11 As shown, in the first form 50D, a third fitting protrusion 88 is formed on the underside of the knee joint (part 552) of the foot part D5 (parts 55L, 55R), and a third fitting recess 83 is formed on the upper side of the lower foot part (part 553). Therefore, the lower leg portion (part 553) is detachable from the knee joint portion (part 552). Furthermore, the third fitting protrusion 88 can fit into the third fitting recess 83 of the base from which parts 16 and 17 are removed from the third form 10C of the first toy body 10. Specifically, the third fitting protrusion 88 can selectively fit into the third fitting recess 83 formed by the mutual abutment of the upper arm portions (part 141) of the first toy body 10. Figure 19A (Refer to), and the third fitting recess 83 formed by the mutual abutment of the connecting part (part 152) of the first toy body 10. Figure 19B(Refer to). Through this fitting, the base of parts 16 and 17 is removed from the third form 10C of the first toy body 10 to become the feet of the combined robot. Additionally, the third fitting protrusion 88 can also fit into the third fitting recess 83 formed in component 12. Figure 7 Reference).

[0047] In addition, such as Figure 11 As shown, the lower part of the foot D5 (parts 55L, 55R) of the first form 50D has a third fitting protrusion 88. This third fitting protrusion 88 can selectively fit into the third fitting recess 83 formed by the mutual abutment of the upper arm (part 141) of the first toy body 10. Figure 19A (Refer to), and the third fitting recess 83 formed by the mutual abutment of the connecting part (part 152) of the first toy body 10. Figure 19B (Refer to reference). Through this fitting, components 55L and 55R become the feet of the combined robot. Figure 14 Reference).

[0048] (Effects of the implementation method) The toy 100 configured in this way can achieve the following effects.

[0049] The toy 100 of the embodiment is configured to be able to abut and separate from each other, and is provided with fitting recesses that can fit into fitting protrusions. Therefore, by fitting the fitting protrusions and fitting recesses into each other, relative displacement between the two parts can be prevented.

[0050] Furthermore, due to the engagement of the inward claw 832 and the outward claw 882, the engagement of the mating protrusion and the mating recess is difficult to disengage.

[0051] (Modified Example) The above describes the embodiments of this utility model, but this utility model is not limited to these embodiments and can be modified in various ways.

[0052] In the above embodiment, based on the function of the toy 100, a third engaging recess 83 is provided on the two parts that engage and disengage the clutch. However, the third engaging recess 83 may also be provided on the two parts that engage and disengage the clutch. Alternatively, the third engaging recess 83 may be formed by the contact of mutually independent parts.

[0053] Furthermore, the above embodiments describe a situation where the two components forming the third fitting recess 83 abut against each other, and the two columnar protrusions 870 of the second fitting protrusion 87 or the two columnar protrusions 880 of the third fitting protrusion 88 fit into the two straight holes 830 of the third fitting recess 83. However, each straight hole of the third fitting recess 83 can also be used to fit into the columnar protrusion of the first fitting protrusion 86. In this case, it is not necessary for the two components forming the third fitting recess 83 to necessarily abut against each other.

[0054] In addition, in the above embodiments, an inward claw 832 is provided in the groove 831 and an outward claw 882 is provided in the plate-shaped rib 881, but an inward claw can also be provided in the straight hole and an outward claw can be provided in the protrusion.

[0055] Furthermore, the above embodiments describe the case where the second fitting recess 82 or the third fitting recess 83 is provided separately on the two components, but the second fitting protrusion 87 or the third fitting protrusion 88 may be provided separately on the two components instead or additionally. Figure Labels

[0056] 10 First Toy Body Components 11-13 14L and 14R components 15L and 15R components Components 16 and 17 50 Second toy body Components 51-53 54L and 54R components 55L and 55R components Components 56 and 57 81 First fitting recess 82 Second fitting recess 83 Third fitting recess 86 First fitting convex part 87 Second fitting projection 88 Third fitting convex part 100 toys Components 140-143 Components 151-154 Components 540-544 Components 550-553 820, 830 straight hole 831 Groove 832 Inward Claw 870, 880 columnar protrusions 881 Plate rib 882 Outward-facing claw A1 Head A2 Upper Torso A3 Lower body A4 Arm A5 Foot A6 weapons A7 Armor D1 Head D2 Upper Torso D3 Lower Trunk D4 arm D5 Foot D6 Weapons D7 Armor S1 axis S2 axis S3 axis S4 axis S5 axis S6 axis S7 axis S8 axis S9 axis S10 axis S11 axis

Claims

1. A toy, characterized in that, It includes a first component and a second component, wherein the first component and the second component are configured to be able to abut against each other and to be separated. The first component has a portion of the fitting recess formed therein, and the second component has another portion of the fitting recess formed therein. When the first component and the second component abut against each other, the portion formed on the first component and the portion formed on the second component combine to form a complete fitting recess that can fit into the fitting protrusion. The sidewall of the fitting recess is formed with an inward claw, which is used to lock the fitting protrusion fitted into the fitting recess to maintain the fitting state.

2. The toy as described in claim 1, characterized in that, The fitting recess has a straight hole formed in each of the two components.

3. The toy as described in claim 2, characterized in that, The fitting recess has a groove formed between the straight holes of the two components.

4. The toy as described in claim 3, characterized in that, The fitting protrusion is formed on a component other than the two components, and has two columnar protrusions that can be fitted into the straight holes of the two components respectively, and a plate-shaped rib disposed between the two columnar protrusions that can be fitted into the groove. The side of the plate-shaped rib is formed with an outward claw that can engage with the inward claw.

5. The toy as described in claim 4, characterized in that, The groove extends to connect the straight holes of the two components.

6. The toy as described in claim 5, characterized in that, The plate-like ribs are formed to connect the two columnar protrusions.

7. The toy as claimed in any one of claims 1 to 6, characterized in that, The two components are configured such that, in conjunction with changes in the shape or functional actions of the toy, at least one of the two components moves relative to the other, thereby causing the two components to come into contact with or separate from each other.

8. The toy as claimed in claim 7, characterized in that, The toy is a shape-changing toy, with interlocking protrusions and interlocking recesses disposed on a toy body.

9. The toy as claimed in claim 7, characterized in that, The toy is a shape-changing toy, with one of the interlocking protrusions and interlocking recesses disposed on a toy body and the other disposed on an accessory of the toy body.

10. The toy as claimed in claim 7, characterized in that, The toy is a composite toy composed of multiple toy bodies, with the interlocking protrusions and interlocking recesses formed on different toy bodies respectively.

11. The toy as claimed in claim 7, characterized in that, The toy is a doll toy, and at least one of the shoulders, arms, legs and feet is composed of the two parts mentioned above.

12. A toy, characterized in that, It includes a first component and a second component, wherein the first component and the second component are configured to be able to abut against each other and to be separated. A portion of the fitting protrusion is formed on the first component, and another portion of the fitting protrusion is formed on the second component. When the first component and the second component abut against each other, the portion formed on the first component and the portion formed on the second component combine to form a complete fitting protrusion that can fit into the fitting recess. The fitting protrusion is formed with an outward claw, which is used to be engaged by the fitting recess of the fitting protrusion to maintain the fitting state.

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