JP2007050064A - Joint of mobile toy and mobile toy - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a joint of a mobile toy which facilitates the continuation of a posture of the mobile toy for a long time and facilitates the replacement, and the mobile toy. <P>SOLUTION: The joint 20 to movably connect between a first structure and a second structure of the mobile toy 1 has a first and a second parts 30 and 40 which can be attached to and removed from the first and the second structures respectively and the second part 40 turnably supports the first part 30. A rotation stop mechanism to stop a turning position of the first part 30 to the second part 40 at an arbitrary turning position is further disposed. The turning stop mechanism is equipped with two or more turning stop grooves 77 disposed in the periphery of the center of turning of the first part 30 and a third part 50 having a turning stop ratchet 84 which is engaged by gearing with one of the two or more turning stop grooves 77 to execute the stop of the turning position. The third part 50 is supported or held by the second part 40 to rotate together with the second part 40. <P>COPYRIGHT: (C)2007,JPO&INPIT

Description

  The present invention relates to a movable toy such as a doll or a stuffed toy referred to as a figure, for example, and particularly to a joint in which various parts such as legs and arms of the movable toy are movably connected.

  Conventionally, a wide variety of toys that imitate comic characters and movie characters, such as plastic models and figures, are commercially available. Among them, figures having joint structures on the neck, shoulders, elbows, hips, knees, ankles, etc. are particularly popular because they can be made to pose as desired.

  In a figure with a joint structure, for example, bend your elbows and lift your arms, take a posture to swing one leg up and kick, or fold your legs and let it sit upright can do. In addition, there are users who enjoy watching the beauty of the figure by operating the joints to make the movable figure a desired pose and decorating the figure in that pose in the case. In addition, some users have fun, for example, by removing the legs of a figure and replacing them with the legs of other figures.

As this type of movable figure, for example, a joint structure in which the joint structure is a male / female joint (for example, see Patent Document 1), or a structure that allows free posing (for example, see Patent Document 2). Has been proposed.
JP-A-2005-620 Utility model registration No. 3084388

  In such a conventional joint structure of a figure, a desired pose can be taken, but depending on the position of the center of gravity of the figure, the pose was easily broken. Also, because some of the figures are integral with the joint structure, it was difficult to replace them with other figures.

An object of the present invention is to provide a joint that can easily maintain a pose of a movable toy for a long time and can easily change the structure of the movable toy.
Another object of the present invention is to provide a movable toy provided with this joint.

  In order to solve the above problem, a joint of the first movable toy according to the present invention is a joint that movably connects the first structure and the second structure of the movable toy, A first part that is detachably attached to the structure, a second part that is detachably attached to the second structure, and that rotatably supports the first part, and a rotation of the first part relative to the second part. A rotation stopping mechanism configured to be able to stop the movement position at an arbitrary rotation position.

According to this configuration, when one of the first part and the second part is rotated with respect to the other, one of the first structure and the second structure is movable with respect to the other. Since the first part is restrained at an arbitrary rotational position with respect to the second part by the rotation restraining mechanism, the relationship between the first structure and the second structure can be restrained. Thereby, the pose of the movable toy can be maintained for a long time.
Further, each of the first structure and the second structure can be detached from the first part and the second part. Thereby, each of the first structure and the second structure can be removed, and the structure of another movable toy can be attached to the first part or the second part, so that the structure of the movable toy can be easily replaced. Can be done.

  According to one aspect of the first joint of the present invention, the rotation stopping mechanism is provided in the first part, and a plurality of rotation stopping grooves provided in the circumferential direction of the rotation center line of the first part; A third part having a rotation stop claw that engages with one of the plurality of rotation stop grooves to stop the rotation position, and is supported or held by the second part so as to rotate with the second part. It is preferable to have a third part.

  According to this configuration, when the rotation stopping claw meshes with the rotation stopping groove, the rotation of the first part with respect to the second part is stopped. When the rotation stop pawl is removed from the rotation stop groove, the rotation of the first part relative to the second part is allowed. In this way, the rotation can be restrained and allowed appropriately with a simple structure of the action of the claw.

  When the second part is rotated with respect to the first part, the third part is rotated together with the second part, while when the first part is rotated with respect to the second part, the third part is the second part. It remains stationary with the part and only the first part rotates.

  According to one aspect of the first joint of the present invention, the plurality of rotation restraining grooves and the rotation restraining pawls rotate relative to the second part in the first part in one direction and in the opposite direction. It is preferable to be configured to be able to.

  By doing so, the second part can be rotated in both directions with respect to the first part, and the first part can be rotated in both directions with respect to the second part.

  According to one aspect of the first joint of the present invention, a part of the rotation stopping claw can be engaged with one of the plurality of rotation stopping grooves, and the other part can be a third part. It is preferable that it is received in a fixing groove provided in the second part so as to rotate with the second part.

  According to this configuration, the rotation stop claw of the third part is related not only to the rotation stop groove of the first part but also to the fixing groove of the second part. Thereby, it can comprise so that a 3rd part may rotate with a 2nd part using a rotation stop claw effectively.

  According to one aspect of the first joint of the present invention, it is preferable that a plurality of rotation stop pawls are provided in the circumferential direction of the rotation center line.

  According to this configuration, the rotation can be restrained at a plurality of positions in the circumferential direction of the rotation center line. Thereby, since the stopping force at the time of stopping rotation increases, the pose of the movable toy can be maintained more stably. The number of rotation stop pawls is preferably four.

  According to a preferred aspect of the first joint of the present invention, the third part includes a base and a plurality of rotation restraining pieces each projecting from the base at intervals in the circumferential direction of the rotation center line. And each is comprised by the some rotation stop piece which has a rotation stop claw so that each may protrude in the radial direction outer side rather than a rotation center line at the front end side. The second part has a base surface that supports the end face of the first part, and a plurality of projecting pieces that protrude from the base surface and are spaced apart in the circumferential direction of the rotation center line. And having. The first part has a through hole in which a plurality of rotation stopping pieces and a plurality of protruding pieces are inserted and a plurality of rotation stopping grooves are formed on the inner peripheral surface. And inside a through-hole, several protrusions hold | maintain so that several rotation stop pieces may be inserted | pinched in the clearance gap between each.

  By configuring in this way, the plurality of projecting pieces of the second part hold the plurality of rotation stopping pieces of the third part, so that the third part can be prevented from coming off by the second part. Further, the rotation stopping piece can be provided by using the rotation stopping piece effectively.

  According to one aspect of the first joint of the present invention, the inner peripheral surface of the through hole has a plurality of guide grooves at a position that is coaxial with the plurality of rotation stop grooves and is displaced in the axial direction. It is preferable that the guide groove is formed corresponding to the plurality of rotation stopping claws, and guides the insertion of the plurality of rotation stopping pieces into the through hole through the plurality of rotation stopping claws.

  According to this configuration, the rotation stop piece can be smoothly inserted into the through hole by guiding the rotation stop pawl protruding outward in the radial direction into the guide groove.

  According to a preferable aspect of the first joint of the present invention, the first part is provided on the other end side of the first attachment portion and the first attachment portion in which one end side is detachably attached to the first structure. And a substantially spherical belt-like body having a through hole. The second part is provided with a second attachment portion whose one end side is detachably attached to the second structure, a substantially hemispherical body provided on the other end side of the second attachment portion, and having a base surface and a plurality of protruding pieces, Consists of. The outer surface of the base of the third part is substantially flush with the outer surface of the spherical band, and defines the outer surface of the substantially spherical body together with the outer surface of the spherical band and the outer surface of the hemisphere.

  According to this configuration, the substantially spherical belt-like body of the first part, the substantially hemispherical body of the second part, and the base of the third part define the outer surface of the substantially spherical body. Can enhance beauty.

  According to one aspect of the first joint of the present invention, it is preferable that the first attachment portion and the second attachment portion have an axial shape, and these axis lines intersect the rotation center line.

  According to this structure, since the 1st attachment part and the 2nd attachment part are shaft shape, the attachment or detachment to the 1st structure body and 2nd structure body of a movable toy can become easy. Moreover, since the axis line of a 1st attachment part and a 2nd attachment part cross | intersects a rotation center line, the freedom degree of replacement of the structure body of a movable toy can be raised on a structure.

  In order to solve the above-mentioned problem, the second joint of the present invention is a joint that movably connects the first structure and the second structure of the movable toy, and is connected to the first structure. The first part that is detachably attached, the second part that is detachably attached to the second structure, and supports both the first part and the second part, and at least one of the first part and the second part And a support part that supports the support part, and at least one rotation stop mechanism that stops at least one of the rotation positions of the first part and the second part relative to the support part at an arbitrary rotation position. Is.

According to this configuration, for example, when the first part is rotatably supported by the support part, when the first part is rotated with respect to the support part, the first structure becomes the second structure. Moves relative to the body. The rotation position of the first part relative to the support part can be stopped at an arbitrary rotation position by the rotation stopping mechanism. Thereby, the relationship between the first structure and the second structure can be restrained, and the pose of the movable toy can be maintained for a long time.
In addition, since each of the first structure and the second structure can be detached from the first part and the second part, each of the first structure and the second structure can be removed and another movable It becomes possible to attach the toy structure to the first part or the second part of the joint. This facilitates replacement of the movable toy structure.

  According to one aspect of the second joint of the present invention, the support part supports both the first part and the second part so as to be rotatable, and the rotation stopping mechanism is provided for each of the first part and the second part. And is configured by a first rotation stopping mechanism and a second rotation stopping mechanism that stop each rotation position of the first part and the second part at an arbitrary rotation position. preferable.

  According to this configuration, each of the first part and the second part is rotatably supported by the support part, and the rotation position can be arbitrarily stopped. For this reason, for example, the first structure body and the second structure body are made more than a configuration that can be directly rotated between the first part and the second part (the first joint of the present invention described above). Various positional relationships can be set. Thereby, the freedom degree of the pose of a movable toy can be raised.

  According to one aspect of the second joint of the present invention, the first rotation stopping mechanism is provided in the first part, and a plurality of first rotations provided in the circumferential direction of the rotation center line of the first part. A first stop part having a stop groove and a first turn stop pawl that engages with one of the plurality of first turn stop grooves to stop the turning position of the first part, and a support part; It is preferable that the first stopping part supported or held by the supporting part so as to be rotated is provided.

  According to the aspect of the second joint of the present invention, the second rotation stopping mechanism is provided concentrically with the rotation center line of the second part, and is provided in a plurality of second times provided in the circumferential direction of the support part. A second restraining part having a second restraining pawl that engages with one of the second restraining grooves and a second pivoting stop pawl that stops the pivoting position of the second part. It is preferable to include a second stopping part supported or held by the second part so as to be rotated with the part.

  According to these configurations, it is possible to appropriately prevent and allow the rotation of the first part or the second part with a simple structure of the action of the claw.

  According to one aspect of the second joint of the present invention, it is preferable that the first restraining part and the second restraining part have the same shape.

  According to this configuration, the cost can be reduced as a whole. For example, when the first restraining part and the second restraining part are formed by different molds, only one mold is required.

  According to a preferred aspect of the second joint of the present invention, a part of the first rotation stop claw can be engaged with one of the plurality of first rotation stop grooves, and the other part is The first stopping part is received in the first fixing groove provided in the support part so as to rotate with the support part. In addition, a part of the second rotation stopping claw can be engaged with one of the plurality of second rotation stopping grooves, and the other part of the second rotation stopping claw is accompanied by the second stopping part. As such, it is received in the second fixing groove provided in the second part.

  By carrying out like this, the 1st or 2nd rotation stop pawl can be used effectively.

  According to a preferable aspect of the second joint of the present invention, the support part includes a base that rotatably supports the first part and the second part, a support-side fitting protrusion provided on the base, and a support. A support-side fitting receiving portion provided on the base at a position different from the side fitting protrusion. The first part has a fitting receiving portion that is rotatably fitted to the support-side fitting protrusion. And the 2nd parts have a fitting protrusion which fits in a support side fitting receiving part so that rotation is possible.

  According to a preferred aspect of the second joint of the present invention, the fitting receiver and the support-side fitting receiver of the first part have the same shape, and the fitting protrusion and the support side of the second part. The fitting protrusions have the same shape.

  The movable toy of the present invention is detachably attached to the joint of the movable toy of the present invention, the first structure detachably attached to the first part of the joint, and the second part of the joint. And a second structure configured to be movable with respect to the one structure.

  According to this configuration, when the joint is provided as, for example, a joint part of the movable toy, the first structure and the second structure can be moved to desired positions. Thereby, a movable toy can be maintained in a desired pose for a long time. Note that the position where the joint is incorporated is not limited to the position of the joint of the movable toy. For example, if the body of a character-type movable toy is composed of two parts (a first structure and a second structure), the two parts may be movably connected by a joint. Good.

  According to the movable toy joint of the present invention, since the rotation stopping mechanism is provided, the pose of the movable toy can be easily maintained for a long time, and the first part and the second part are the structure of the movable toy. Since it can be attached to and detached from, the replacement of the structure becomes easy.

  Hereinafter, a movable toy provided with a joint according to a preferred embodiment of the present invention will be described with reference to the accompanying drawings. This joint is incorporated in the joint structure of movable toys represented by figures, and can maintain the desired pose of the figure, and can be easily replaced with some structures of other figures It is. In the following, first, a figure incorporating a joint will be briefly described, and then the structure of the joint will be described in detail. After that, the various poses of the figure will be briefly explained.

<First Embodiment>
FIG. 1 is a perspective view showing a figure incorporating a joint.
This figure 1 is an action figure imitating a humanoid, for example. The figure 1 is roughly divided into a head 2, a neck 3, a shoulder 4, a torso 5, two upper limbs 6 and 6, and two lower limbs 7 and 7, almost entirely of plastic (hard Resin), soft rubber (for example, silicone rubber), and the like. The figure 1 shown in FIG. 1 is in an upright position.

  The joint 20 can be incorporated between two structures as a joint part of the figure 1 or can be incorporated between two divided structures. For example, the joint 20 as a joint part includes the head 2 and the neck 3, the shoulder 4 and the upper half of the trunk 5, the elbow of the upper limb 6, the wrist of the upper limb 6, the torso Between the lower half of the part 5 and the lower limb 7, it can be provided in the knee part of the lower limb 7 and the ankle part of the lower limb 7, and these can be made movable. Further, by providing the joint 20 between the abdomen 8 and the waist 9 of the body part 5 divided into two parts, the figure 1 can move around the joint 20 such as forward bending, backward bending and rotation. It has become.

  In short, the joint 20 can movably connect two structures in the portion of the figure 1. The joint 20 is configured to be detachable from the figure 1, and the two structures of the figure 1 connected to the joint 20 can be detached from the joint 20. Two joints connected to the joint 20 are formed with holes for attaching and detaching joints (not shown), and two shaft portions 61 and 71 (to be described later) of the joint 20 are inserted so as to be pushed into the respective holes. The joint 20 is movably attached to the two structures.

  In addition, it is preferable that the two shaft portions 61 and 71 and the hole in the structure have a circular cross section so that the two shaft portions of the joint 20 can rotate and couple with respect to the hole in the structure. By doing so, the structure of the figure 1 can be rotated around the axis of the shaft portion of the joint 1 and its movable range can be increased.

  Hereinafter, for convenience of explanation, one of the two structures connected by the joint 20 is referred to as a first structure, and the other is referred to as a second structure.

FIG. 2 is an exploded perspective view showing the joint 20 in an exploded manner.
The joint 20 is formed by assembling three parts 30, 40, 50, and each part 30, 40, 50 is formed of, for example, nylon, ABS (Acrylonitrile-Butadiene-Styrene), polyvinyl chloride (PVC), or the like. Yes.

  Of the three parts 30, 40, 50, the first part 30 in the center of the figure is detachably attached to the first structure of the figure 1, and the second part 40 on the lower side of the figure is the second structure of the figure 1 Removably attached to the body. The first part 30 and the second part 40 are configured to be rotatable with respect to each other.

  However, the rotation position of the first part 30 and the second part 40 is set to an arbitrary rotation position by attaching the upper cover part (third part) 50 to the first part 30 and the second part 40 in the drawing. It has come to be stopped. In addition, the dashed-two dotted line in the figure has shown the rotation centerline of the 1st part 30 and the 2nd part 40. FIG.

3-5 is a figure shown in detail about the 2nd part 40, and is a top view, sectional drawing, and a front view, respectively. The second part 40 will be described with reference to FIGS.
The second part 40 includes a columnar shaft portion 61 and a part main body 62 provided at one end of the shaft portion 61. The shaft portion 61 and the part main body 62 are integrally formed.

  The other end side of the shaft portion 61 (second attachment portion) opposite to the part main body 62 is detachably attached to the second structure. The shaft portion 61 is attached and fixed to the second structure body by being inserted so as to be pushed into a detachable hole (not shown) formed in the second structure body, while the second structure is pulled out from the hole. Removed from the body. A plurality of dimples 63 are formed on the peripheral surface of the shaft portion 61.

  The main part of the parts main body 62 is formed in a substantially hemispherical shape, which can be referred to as a substantially hemispherical body. The base surface 64 of the part main body 62 has a circular end surface corresponding to the diameter of a sphere centered on the rotation center line, and is located in the same plane as the axis of the shaft portion 61. The base surface 64 supports the end surface 74 of the first part 30. At the center of the base surface 64, four projecting pieces 65, 65, 65, 65 are projected so as to rise from the base surface 64, and a cross groove 66 (fixed groove) is formed.

  The four projecting pieces 65, 65, 65, 65 are formed in a sectional fan shape having an inner angle of 90 degrees and have a slight spring property. The four projecting pieces 65, 65, 65, 65 are dispersedly arranged with a uniform gap therebetween in the circumferential direction of the rotation center line, and a cross space 67 is formed between them. The “cross-shaped” intersection of the cross space 67 is located on the rotation center line, and the “cross-shaped” intersection of the cross groove 66 is also located on this rotation center line.

  The cross groove 66 is aligned with the “ten” character of the cross space 67, and the four end portions of the “ten” character extend beyond the cross space 67. In the cross space 67 and the cross groove 66, a later-described rotation stop piece 82 of the cover part is received.

  The tip ends of the four projecting pieces 65, 65, 65, 65 are formed in a sector fan shape projecting radially outward from the rotation center line as compared to other parts. The front ends of the four projecting pieces 65, 65, 65, 65 are bent outward in the radial direction by receiving the cover part 50, and the reaction force of the bending functions as a retaining for the first part 30. Further, the tip surfaces of the four projecting pieces 65, 65, 65, 65 are part of a spherical surface, and are gentle downward inclined surfaces from the rotation center line toward the radially outer side.

6 to 9 are diagrams illustrating the first part 30 in detail.
6 is a perspective view seen from the side opposite to FIG. 7 is a plan view of FIG. 6, FIG. 8 is a sectional view taken along line VIII-VIII of FIG. 7, and FIG. 9 is a front view of FIG. The first part 30 will be described with reference to FIGS. 2 and 6 to 9.

  The first part includes a columnar shaft portion 71 and a part main body 72 provided at one end of the shaft portion 71. The shaft portion 71 and the part main body 72 are integrally formed. The shaft portion 71 is formed in exactly the same shape as the shaft portion 61 while its axis intersects the axis of the shaft portion 61 at the rotation center line.

  The shaft portion 71 (first attachment portion) is detachably attached to the first structure at the other end opposite to the part main body 72. The shaft portion 71 is attached and fixed to the first structure by being inserted so as to be pushed into an attachment / detachment hole (not shown) formed in the first structure, while the first structure is pulled out from the hole. Removed from the body. A plurality of dimples 73 are formed on the peripheral surface of the shaft portion 71.

  The main part of the parts main body 72 is formed in a substantially spherical belt shape, and the parts main body 72 can be rephrased as a substantially spherical belt-like body. The base surface 74 of the part main body 72 is an annular end surface corresponding to the diameter of a sphere centered on the rotation center line, and is located in the same plane as the axis of the shaft portion 71. The base surface 64 is in contact with the base surface 64 of the second part 40. The part main body 72 has an annular end surface 75 parallel to the base surface 74, and has a through hole 76 formed so as to penetrate the annular end surface 75 and the base surface 74.

  The through hole 76 is formed at the center of the part main body 72, and the center of the hole is located on the rotation center line. In the through hole 76, the four rotation stop pieces 82, 82, 82, 82 of the second part 40 are inserted from the base surface 74 side, and the four projecting pieces 65, 65, 65 of the cover part 50 are inserted from the annular end surface 75 side. , 65 are inserted.

  The inner peripheral surface of the through hole 76 is roughly divided into two in the extending direction of the rotation center line. Specifically, a plurality of rotation stopping grooves 77 are formed on the inner peripheral surface on the base surface 74 side, and four guide grooves 78, 78, 78, 78 are formed on the inner peripheral surface on the annular end surface 75 side. Is formed.

  The plurality of rotation stop grooves 77 are formed continuously in the circumferential direction of the rotation center line. The plurality of rotation stopping grooves 77 are formed in a gear shape as a whole, and each cross-sectional shape is formed in a triangle. The plurality of rotation stopping grooves 77 are formed so as to stop the rotation of the first part 30 (or the second part 40) at a pitch of 22.5 degrees, for example. This rotation stopping is performed by engaging or engaging a rotation stopping claw 84 described later with one of the plurality of rotation stopping grooves 77. Note that the number of the rotation stopping grooves 77 is not limited to the above.

  As described above, the four guide grooves 78, 78, 78, 78 are coaxial with the plurality of rotation stop grooves 77 and displaced in the axial direction. The four guide grooves 78, 78, 78, 78 are formed so as to be cut out from the annular end surface 75 toward the plurality of rotation stop grooves 77, and are pitched 90 degrees in the circumferential direction of the rotation center line. Is provided.

  In a state in which the first part 30 and the second part 40 are overlapped, the four guide grooves 78, 78, 78, 78 can be positioned on the “ten” -shaped extension line of the cross space 67. Each guide groove 78 is formed in a trapezoidal cross section corresponding to a rotation stop claw 84 to be described later, and the rotation stop claw 84 is slid at the time of assembly so that the rotation stop claw 84 is turned into the rotation stop groove 77 and the cross groove. Guide to 66.

  In addition, the diameter of the inner peripheral surface with the four guide grooves 78, 78, 78, 78 is designed to be smaller than the diameter of the inner peripheral surface with the plurality of rotation stopping grooves 77. For this reason, at the time of assembly, the rotation stop claw 84 guided by the guide groove 78 and reaching the rotation stop groove 77 expands radially outward and meshes with the rotation stop groove.

10 and 11 are views showing the cover part 50 (third part) in detail, and are a plan view and a cross-sectional view, respectively. The cover part 50 is demonstrated with reference to FIG.2, FIG10 and FIG.11.
The cover part 50 includes a cross-shaped base 81 in plan view and four rotation stop pieces 82, 82, 82, 82 that project from the base 81.

  The outer surface of the base 81 is a part of a spherical surface, and is a gently descending inclined surface from the “10” -shaped intersection of the rotation center line toward the outside. In the assembled state of the first part 30, the second part 40, and the cover part 50, the outer surface of the base 81 is substantially flush with the tip surfaces of the protruding pieces 65, 65, 65, 65, and the first part. It becomes flush with the outer surface of 30 (see FIG. 13). In this assembled state, the base 81, the part main body 62 of the first part 30, and the part main body 72 of the second part as a whole define an outer surface of a substantially spherical body.

  The four rotation stopping pieces 82, 82, 82, 82 are each formed in a thin plate shape and have a slight spring property. The four rotation stop pieces 82, 82, 82, 82 are arranged with a uniform gap in the circumferential direction of the rotation center line and with a gap in the center, and are positioned on the four sides of the cross. Yes. The four rotation stop pieces 82, 82, 82, 82 in the assembled state are arranged so as to fill the four sides of the cross space 67 of the second part 40.

  Each of the four rotation stopping pieces 82, 82, 82, 82 includes a rotation stopping claw 84 formed on the tip side, and a recess 85 formed between the rotation stopping claw 84 and the base 81. Have. The recess 85 is fitted to an inner peripheral surface having the guide groove 78 among the inner peripheral surface of the through hole 76 of the first part 30, and can slide in the circumferential direction with respect to the inner peripheral surface.

  Each rotation stop pawl 84 is formed to protrude radially outward from the rotation center line. The rotation stop claw 84 includes a meshing portion 86 that meshes with one of the plurality of rotation restraining grooves 77, and a rotation stop portion 87 that continues to the meshing portion 86. The rotation stopper 87 is received by one side of the “10” character of the cross groove 66 of the second part 40 and functions as a rotation stopper of the cover part 50. That is, the cover part 50 rotates with the second part 40 when the second part 40 rotates.

  The meshing portion 86 restrains the rotation of the first part 30 and the second part 40 in a state of meshing with one of the plurality of rotation restraining grooves 77. The meshing portion 86 and the plurality of rotation stopping grooves 77 are configured such that the first part 30 can rotate in both directions (that is, not only clockwise but also counterclockwise) with respect to the second part 40. In addition, the second part 40 is configured to be rotatable in both directions with respect to the first part 30.

  The base side (base 81 side) of each rotation stop piece 82, 82, 82, 82 is formed so that its inner surface is inclined inward to the rotation center line side. For this reason, in the two adjacent rotation stop pieces 82, 82, the interval on the base side is narrower than that on the tip side. With this structure, in the assembled state, the four rotation stopping pieces 82, 82, 82, 82 and the four projecting pieces 65, 65, 65, 65 are expanded slightly outward in the radial direction. It has become. This structure is useful in the following points.

  That is, inside the through-hole 76 in the assembled state, the four projecting pieces 65, 65, 65, 65 are caused to react with each other by the reaction force of the deflection (expansion) of the four projecting pieces 65, 65, 65, 65. One of the four rotation stopping pieces 82, 82, 82, 82 is supported or held so as to be sandwiched in the gap therebetween.

  Thereby, the removal of the cover part 50 from the second part 40 is suppressed. In addition, the four meshing portions 86, 86, 86, 86 come out of the four rotation restraining grooves 77 among a plurality of force due to the reaction force of the bending (expansion) of the four rotation restraining pieces 82, 82, 82, 82. This can be suppressed. That is, the stopping force of the rotation of the first part 30 relative to the second part 40 can be increased.

FIG. 12 is a perspective view of the joint 20 in which the first part 30, the second part 40 and the cover part 50 are assembled, and FIG. 13 is a cross-sectional view of the joint 20.
As described above, each of the four rotation stopping claws 84, 84, 84, 84 of the cover part 50 has the meshing portion 86 meshed with one of the rotation restraining grooves 77 of the first part 30, and the rotation preventing portion. 87 is received in the cross groove 66 of the second part 40. With the above-described configuration, one of the first part 30 and the second part 40 is restrained at an arbitrary rotation position that can be set in units of rotation angle with respect to the other.

  Specifically, when an external force exceeding the meshing force (restraining force) between the rotation stop claw 84 and the rotation stop groove 77 is applied to the first part 30 with the second part 40 fixed, the first part 30 is applied. Only the second part 40 and the cover part 50 remain stationary. When the meshing part 86 gets over the part (triangular convex part) between the rotation stop grooves 77 and 77 by the rotation of the first part 30 and meshes with the next rotation stop groove 77, the first part 30 is The rotation position with respect to the second part 40 is changed and is restrained to the rotation position.

  On the other hand, when an external force exceeding the meshing force (restraining force) between the rotation stopping claw 84 and the rotation stopping groove 77 is applied to the second part 40 with the first part 30 fixed, the second part 40 is covered with the cover part. 50 (that is, the cover part 50 is rotated). Similarly, when the meshing part 86 gets over the convex part between the rotation stop grooves 77 and meshes with the next rotation stop groove 77 by the rotation of the second part 40, the second part 40 becomes the first part 30. The rotation position with respect to is changed, and the rotation position is restrained.

  Here, the “rotation restraint mechanism” described in the claims of the present invention restrains one of the first part 30 and the second part 40 at an arbitrary pivot position with respect to the other. The component (the 1st part 30, the 2nd part 40, and the cover part 50) is comprised. In the present embodiment, the rotation stopping mechanism is mainly composed of the rotation stopping groove 77 of the first part 30, the cross groove 66 of the second part 40, and the rotation stopping claw 84 of the cover part 50. .

  According to the figure 1 incorporating the joint 20 described above, the first structure of the figure 1 can rotate around the axis of the shaft portion 71 of the first part 30. Further, the second structure of the figure 1 can rotate around the axis of the shaft portion 61 of the second part 40. Further, the first structure body and the second structure body can rotate around a line (that is, a rotation center line) that passes through the intersection of the axis portions of the shaft portions 71 and 61 and is orthogonal to the axis lines. it can. Therefore, the first and second structures of the figure 1 can move over a wide range.

  Moreover, since the joint 20 is provided with the rotation stopping mechanism, the first structure and the second structure of the figure 1 are stopped at an arbitrary rotation position, and the pose in this state is kept for a long time. It can be sustained. Thereby, the user can enjoy appreciating the figure 1 in a desired pose for a long time.

Further, since the joint 20 and the first and second structures of the figure 1 are detachable, the first structure is removed from the joint 20, the second structure is removed, and both structures are provided. The body can be removed.
As a result, the structure of the figure 1 can be removed, and the structure of another figure can be attached to the joint 20 at that location, or another structure of the same figure 1 can be attached. You can enjoy the replacement of 1. In addition, the structure which can be replaced is also useful in that the structure can be replaced when the joint 20 or the structure is damaged, lost, or the strength is reduced.

  In addition, how to incorporate the joint 20 and the structure of the figure 1, for example, how to rotate and rotate the structure, is arbitrary. These may be set as appropriate.

  Hereinafter, an example of a state in which the figure 1 shown in FIG. 1 takes a plurality of poses will be described with reference to FIGS. In these drawings, only the joint 20 and the figure 1 are denoted by reference numerals.

FIG. 14 shows a pose in which one leg is swung up and kicked. The pose is slightly twisted (rotated) between the abdomen and the waist with a torso joint while maintaining balance by bending the upper limbs.
FIG. 15 shows a pose in which one arm is lifted upward and the other arm is bent.
FIG. 16 shows a pose in which one arm is stretched horizontally and punched.
FIG. 17 shows a pose in which both legs and both arms are shifted back and forth, and the body begins to bend slightly forward as a whole.
FIG. 18 shows a pose in which both legs are opened to the left and right, one leg is slightly shifted backward, both arms are pushed out horizontally, and the head is tilted slightly forward and downward.

A modification of the joint 20 described above will be briefly described.
The number of the projecting pieces 65 of the second part 40 and the rotation stopping pieces 82 of the cover part 50 is not limited to four, but may be a plurality of three or the like. However, the number is preferably four from the viewpoint of structure such as holding and rotation restraint, mass production, and cost. The shaft parts 71 and 61 of the first part 30 and the second part 40 may be other than a circular cross section, for example, a polygon or an ellipse.

  Although not described in detail, reference numeral 91 in the first part 30 and reference numeral 92 in the second part 40 (see, for example, FIG. 2) both regulate the rotation end (rotation limit) of one part. To do. In other words, the rotation regulating members 91 and 92 prevent one of the first part 30 and the second part 40 from rotating once with respect to the other.

Second Embodiment
Next, with reference to FIGS. 19 to 23, the joint 20 according to the second embodiment will be described focusing on the differences.

  The difference from the first embodiment is that a support part 110 is further provided, and the first part 30 and the second part 40 are rotatably supported by the support part 110, and two cover parts 50, 50 are provided for these parts. It is that they were assembled together. That is, the joint 20 is configured as a dual type having two rotation centers, and is configured so that the first part 30 and the second part 40 can independently rotate around their own rotation center lines. ing.

  In the following description, the same name and the same code | symbol are attached | subjected about the structure which is common in 1st Embodiment, and the description is abbreviate | omitted.

  The support part 110 has a base 111 that forms a part body. The base 111 includes a flat support surface 121, a rotation restricting wall 122 raised near the center of one side surface of the support surface 121, and an outer surface 123 configured to connect two substantially hemispherical surfaces. Is configured.

  In the base 111, a region corresponding to one hemispherical side is configured with a first support area 131 that rotatably supports the first part 30, and a region corresponding to the other hemispherical side includes a first support area 131. The 2nd support area 132 which supports 2 parts 40 so that rotation is possible is comprised. The first support area 131 and the second support area 132 are adjacent to each other.

  The first support area 131 is configured in the same manner as the part main body 62 of the second part 40. Specifically, the support surface 121 having the first support area 131 has a structure similar to the structure provided on the base surface 64 of the second part 40, that is, a cross groove 66 ′ (first fixing groove), four protrusions. Pieces 65 ′, 65 ′, 65 ′, 65 ′ and a cross space 67 ′ are formed.

  In addition, about the code | symbol in the support part 110, "'" was attached | subjected to the structure corresponded to the 2nd part 40. FIG. The cross groove 66 ', the four projecting pieces 65', 65 ', 65', 65 'and the cross space 67' are formed in the same shape as that of the second part 40 (66, 65, 64).

  The second support area 132 is configured similarly to the part main body 72 of the first part 30. Regarding the reference numerals in the support part 110, the structure corresponding to the first part 30 will be described with “′” attached thereto. The second support area 132 portion of the base 111 is formed of a substantially spherical belt-like body having a through hole 76 ′. In addition, a plurality of rotation stop grooves 77 ′ and four guide grooves 78 ′, 78 ′, 78 ′, 78 ′ are provided on the inner peripheral surface of the through hole 76 ′.

  In this case, a plurality of rotation stopping grooves 77 ′ are located on the support surface 121 side, and four guide grooves 78 ′, 78 ′, 78 ′, 78 ′ are located on the side opposite to the support surface 121. These through holes 76 ′, the plurality of rotation stopping grooves 77 ′, and the four guide grooves 78 ′, 78 ′, 78 ′, 78 ′ are formed in the same shape as that of the first part 30 (76, 77, 78). Has been.

  In the first support area 131 and the second support area 132, cover parts 50 and 50 (first stopping parts and second stopping parts) are assembled at predetermined positions, respectively. As a result, a total of five parts including the first part 30, the second part 40, the two cover parts 50 and 50, and the support part 110 are integrated to form the joint 20.

  The two cover parts 50 and 50 are formed in the same shape as the first embodiment. However, in assembling the two cover parts 50, 50 to the support part 110, they are assembled to the support part 110 from the opposite side.

  In the joint 20 after assembly, the rotation center of the first part 30 with respect to the support part 110 and the rotation center of the second part 40 with respect to the support part 110 are located on the same plane, and both rotation centers are The lines extend parallel to each other perpendicular to the plane. Further, in the joint 20, the rotation of the first part 30 and the second part 40 is both regulated by the rotation regulating wall 122 of the support part 110 so as not to make one rotation with respect to the other. Further, the joint 2 has an outer shape in which the outer surfaces of two substantially spherical bodies are connected side by side.

  Then, one of the first part 30 and the support part 110 is restrained at an arbitrary rotation position that can be set in units of rotation angle with respect to the other. In this embodiment, the first rotation stopping mechanism for stopping rotation is mainly a rotation stopping groove 77 (first rotation stopping groove) of the first part 30 and a cross groove 66 ′ of the support part 110. (First fixing groove) and a rotation stopping claw 84 (first rotation stopping claw) of the cover part 50 (first rotation stopping part).

  Similarly, one of the second part 40 and the support part 110 is restrained at an arbitrary rotation position that can be set in units of rotation angle with respect to the other. In the present embodiment, the second rotation stopping mechanism for stopping the rotation mainly includes a rotation stopping groove 77 ′ (second rotation stopping groove) of the support part 110 and a cross groove 66 of the second part 40. '(Second fixed groove) and a rotation stop claw 84 (second rotation stop claw) of the (second rotation stop part) of the cover part 50.

  According to the figure 1 incorporating the joint 20 described above, the pose of the figure 1 can be maintained for a long time, and the structure of the figure 1 can be changed. Can play. A useful point compared to the first embodiment is that the poses that can be taken increase for the first structure and the second structure of the figure 1 to which the joint 20 is connected.

  Needless to say, the joint according to the first embodiment and the joint according to the second embodiment can be selectively used at a portion to be incorporated into the figure 1 (for example, the position of the joint).

  Further, in the present embodiment, the “support-side fitting protrusion” described in the claims of the present invention has four protrusions 65 ′, 65 ′, 65 provided on the support surface 121 of the support part 110. ', 65' and cross space 67 'correspond. The through hole 76 (fitting receiving portion) of the first part 30 is rotatably fitted to the four projecting pieces 65 ′, 65 ′, 65 ′, 65 ′ and the cross space 67 ′.

  In addition, the “support side fitting receiving portion” corresponds to the through hole 76 ′ provided in the base 111 of the support part 110 in the present embodiment. The fitting protrusions including the four projecting pieces 65, 65, 65, 65 and the cross space 67 of the second part 40 are rotatably fitted to the through hole 76 ′.

  Further, in the present embodiment, the example in which the support part 110 is one has been described, but two or more support parts 110 may be provided. For example, when two support parts 110 are provided, the first support area 131 of one support part 110 and the second support area 132 of the other support part 110 are overlapped so as to be rotatable with respect to each other. To do. Then, the second part 40 may be rotatably supported by the second support area 132 of the support part 110, and the first part 30 may be rotatably supported by the first support area 131 of the other support part 110. . In this case, a total of three cover parts 50, 50, 50 are required.

<Other embodiments: Part 1>
Next, with reference to FIG.24 and FIG.25, the joint 200 of other embodiment is demonstrated easily. The joint 200 is formed by assembling the first part 210, the second part 220, and the pin-shaped part 230, and the first part 210 and the second part 220 are rotated in a free state by strengthening the tightening between the parts. It is intended to suppress this.

  The first part 210 is configured by integrally forming a cylindrical shaft portion 241 and a ring-shaped part main body 242 provided at one end of the shaft portion 241. The shaft portion 241 is inserted into the hole of the first structure of the figure 1. An insertion hole 243 is formed through the center of the part main body 242.

  The second part 220 is configured by integrally molding a cylindrical shaft portion 251 and a pair of sandwiching rings 252 and 252 that are connected to one end of the shaft portion 251 in a bifurcated manner. The shaft portion 251 is inserted into the hole of the second structure of the figure 1. The two shaft portions 241 and 251 are orthogonal to each other, and are also orthogonal to the axis of the pin-shaped part 230.

  The pair of sandwiching rings 252 and 252 are configured such that the part main body 242 of the first part 210 can be inserted into the gap therebetween. The pair of sandwiching rings 252 and 252 are located in parallel to each other with a gap slightly wider than the thickness of the part main body 242. For example, the distance between the pair of sandwiching rings 252 and 252 is set to 2.05 mm, and the thickness of the part main body 242 is set to 2.00 mm.

  Each of the pair of sandwiching rings 252 and 252 is formed of a substantially spherical band, and has a fitting hole 253 at the center. In a state in which the parts main body 242 is slid and inserted between the holding rings 252 and 252, the pair of fitting holes 253 and 253 are configured such that the axes thereof coincide with the axes of the insertion holes 243. Note that a counterbore hole 254 that receives the head portion 262 of the pin-shaped part 230 is formed concentrically with the fitting hole 253 with respect to one clamping ring 252.

  The pin-shaped part 230 is configured by integrally forming a cylindrical body 261 and a head 262 located at an end of the body 261. The body 261 is inserted into the pair of fitting holes 253 and 253 and the insertion hole 243.

  In this case, the outer diameter of the body portion 261 is set slightly smaller than the inner diameter of the fitting hole 253 and the inner diameter of the insertion hole 243. For example, the outer diameter of the body 261 is set to 2.54 mm, the inner diameter of the fitting hole 253 is set to 2.55 mm, and the inner diameter of the insertion hole 243 is set to 2.65 mm. In the joint 200, the body part 261 of the pin-shaped part 230 serves as a rotation axis, and the first part 210 and the second part 220 rotate.

  As described above, according to this joint 200, the three parts 210, 220, and 230 after assembly are tightened by setting the outer diameter of the body portion 261, the inner diameter of the fitting hole 253, and the inner diameter of the insertion hole 243. Is growing. As a result, according to the joint 200 of the present embodiment, the first part 210 and the second part 220 rotate in relation to each other in a free state while allowing the first part 210 and the second part 220 to rotate. For a long time.

  Therefore, when the joint 200 of the present embodiment is incorporated in the figure 1, it is possible to achieve operations and effects similar to those of the joint 20 of the first embodiment and the second embodiment.

<Other embodiments: Part 2>
Next, with reference to FIGS. 26 to 28, the joint 200 of another embodiment will be described focusing on the differences.

  The difference from the joint 200 described as “No. 1” is that a support part 270 is further provided, and the first part 210 and the second part 220 are assembled together with the two pin-shaped parts 230 and 230 on the support part 270. That is. That is, the joint 200 is configured as a dual type having two rotation centers, and the first part 210 and the second part 220 are configured to be able to rotate independently around their own rotation center lines. Has been.

  In the following description, the same name and the same code | symbol are attached | subjected about the structure which is common in "the 1", and the description is abbreviate | omitted.

  The support part 270 is composed of a part 271 configured in the same manner as the ring-shaped part main body 242 of the first part 210 and a pair of clamping ring parts configured in the same manner as the pair of clamping rings 252 and 252 of the second part 220. 272, 272.

  The pair of sandwiching ring portions 272 and 272 are configured to extend in a bifurcated manner from the part portion 271, and are formed integrally with the part portion 271. The inner diameter of the insertion hole 273 of the part part 271 is set to 2.64 mm, for example. Further, the inner diameter of the fitting hole 274 of each clamping ring portion 272 is set to 2.55 mm, for example. One clamping ring portion 272 also has counterbore holes 275.

  In the joint 200 after assembly, the rotation center of the first part 210 relative to the support part 270 and the rotation center of the second part 220 relative to the support part 270 are located on the same plane. Moreover, both rotation center lines (namely, the axis line of both pin-shaped parts 230 and 230) become perpendicular | vertical to the plane with a rotation center, and are mutually extended.

  Therefore, according to this joint 200, it is relatively long that the first part 210 and the second part 220 rotate in a free state while allowing the first part 210 and the second part 220 to rotate independently. Can be suppressed for a while. What is more useful than the above is that the number of possible poses increases for the first structure and the second structure of the figure 1 to which the joint 200 is connected.

  The joint 200 of the present invention described above can be applied not only to movable toys but also to robots and the like. Moreover, the movable toy of this invention may incorporate all the joints 200 of the above-mentioned four aspects, and may selectively incorporate any one or more. The movable toy is not limited to the above-described figure 1.

It is a perspective view of the figure concerning a 1st embodiment. It is a disassembled perspective view of the joint which concerns on 1st Embodiment. It is a top view of the 2nd part of the joint concerning a 1st embodiment. It is sectional drawing of the 2nd part cut | disconnected by the VI-VI line of FIG. It is a front view of the 2nd part of the joint concerning a 1st embodiment. It is a perspective view of the 1st parts of a joint concerning a 1st embodiment. It is a top view of the 1st parts of the joint concerning a 1st embodiment. It is sectional drawing of the 1st part cut | disconnected by the VIII-VIII line of FIG. It is a front view of the 1st part of the joint concerning a 1st embodiment. It is a top view of the 3rd part of the joint concerning a 1st embodiment. It is sectional drawing of the 3rd part cut | disconnected by the XI-XI line of FIG. It is a perspective view of the assembly state of the joint concerning a 1st embodiment. It is sectional drawing of the assembly | attachment state of the joint which concerns on 1st Embodiment. It is a perspective view of the figure concerning a 1st embodiment. It is a perspective view of the figure concerning a 1st embodiment. It is a perspective view of the figure concerning a 1st embodiment. It is a perspective view of the figure concerning a 1st embodiment. It is a perspective view of the figure concerning a 1st embodiment. It is a disassembled perspective view of the joint which concerns on 2nd Embodiment. It is a perspective view of the assembly state of the joint concerning a 2nd embodiment. It is a perspective view of the support part of the joint concerning a 2nd embodiment. It is a top view of the support part of the joint concerning a 2nd embodiment. It is sectional drawing of the support part cut | disconnected by the XXII-XXII line | wire of FIG. It is a disassembled perspective view of the joint which concerns on the 1 of other embodiment. It is sectional drawing of the 1st part and 2nd part of the joint of FIG. It is a disassembled perspective view of the joint which concerns on the 2 of other embodiment. It is a perspective view of the assembly state of the joint concerning the 2 of other embodiments. It is sectional drawing of the support part of the joint of FIG.26 and FIG.27.

Explanation of symbols

  1: Figure (movable toy), 20: Joint, 30: First part, 4: Second part, 50: Cover part, 61: Shaft part (second mounting part), 62: Parts body (hemisphere), 64 : Base surface, 65: Projection piece, 66: Cross groove (fixed groove), 67: Cross space, 71: Shaft portion (first mounting portion), 72: Parts main body (sphere-shaped body), 74: Base surface, 76 : Through hole, 77: Rotation stop groove, 78: Guide groove, 81: Base, 82: Rotation stop piece, 84: Rotation stop claw, 85: Recess, 86: Engagement part, 87: Rotation stop part, 110 : Support part, 111: base, 121: support surface, 131: first support area, 132: second support area, 200: joint, 210: first part, 220: second part, 230: pin-shaped part, 270 : Support parts

Claims (18)

A joint for movably connecting the first structure and the second structure of the movable toy,
A first part detachably attached to the first structure;
A second part that is detachably attached to the second structure and that rotatably supports the first part;
A rotation stopping mechanism configured to be able to stop the rotation position of the first part relative to the second part at an arbitrary rotation position;
Movable toy joint with The rotation stopping mechanism is
A plurality of rotation stop grooves provided in the first part and provided in a circumferential direction of a rotation center line of the first part;
A third part having a rotation stop claw that engages with one of the plurality of rotation stop grooves to stop the rotation position, and is attached to the second part so as to rotate with the second part; A third part supported or held;
The joint of the movable toy of Claim 1 which has these.   The plurality of rotation stop grooves and the rotation stop pawls are configured such that the first part can rotate relative to the second part in one direction and the opposite direction. The movable toy joint according to 2.   The rotation stopping pawl is partly engageable with one of the plurality of rotation stopping grooves, and the other part is arranged such that the third part rotates with the second part. The joint of the movable toy according to claim 2 or 3, which is received in a fixed groove provided in the second part.   The movable toy joint according to claim 4, wherein a plurality of the rotation stopping claws are provided in a circumferential direction of the rotation center line. The third part is
Base and
A plurality of rotation stop pieces each projecting from the base at intervals in the circumferential direction of the rotation center line, each projecting radially outward from the rotation center line at the tip side A plurality of rotation stopping pieces having the rotation stopping pawls,
The second part is
A base surface that supports the end surface of the first part while the fixing groove is formed;
A plurality of projecting pieces projecting from the base surface and spaced apart in the circumferential direction of the rotation center line;
The first part is
The plurality of rotation stopping pieces and the plurality of protruding pieces are inserted, and have a through hole in which the plurality of rotation stopping grooves are formed on an inner peripheral surface,
The movable toy joint according to claim 5, wherein the plurality of projecting pieces are held inside the through hole so that the plurality of rotation stopping pieces are sandwiched between the plurality of projecting pieces. The inner peripheral surface of the through-hole has a plurality of guide grooves at a position that is coaxial with the plurality of rotation stopping grooves and displaced in the axial direction,
The plurality of guide grooves are formed corresponding to the plurality of rotation stop pawls, and guide the insertion of the plurality of rotation stop pieces into the through holes through the plurality of rotation stop pawls. The joint of the movable toy as described in 6. The first part is
A first attachment portion having one end side detachably attached to the first structure;
A substantially spherical band-shaped body provided on the other end side of the first mounting portion and having the through hole;
The second part is
A second attachment portion having one end side detachably attached to the second structure;
A substantially hemispherical body provided on the other end side of the second mounting portion and having the base surface and the plurality of projecting pieces;
The outer surface of the base of the third part is substantially flush with the outer surface of the spherical band, and defines the outer surface of the spherical body together with the outer surface of the spherical band and the outer surface of the hemispherical body. The movable toy joint described.   The joint of the movable toy according to claim 8, wherein the first attachment portion and the second attachment portion are formed in an axial shape, and these axis lines intersect the rotation center line. A joint for movably connecting the first structure and the second structure of the movable toy,
A first part detachably attached to the first structure;
A second part detachably attached to the second structure;
A support part that supports both the first part and the second part, and supports at least one of the first part and the second part in a rotatable manner;
At least one rotation stopping mechanism for stopping at least one rotation position of the first part and the second part with respect to the support part at an arbitrary rotation position;
Movable toy joint with The support part supports both the first part and the second part so as to be rotatable,
The rotation stopping mechanism is provided corresponding to each of the first part and the second part, and is configured to stop a rotation position of each of the first part and the second part at an arbitrary rotation position. The joint of the movable toy of Claim 10 comprised by the 1st rotation stop mechanism and the 2nd rotation stop mechanism. The first rotation stopping mechanism is
A plurality of first rotation stop grooves provided in the first part and provided in a circumferential direction of a rotation center line of the first part;
The support part has a first rotation stop claw that engages with one of the plurality of first rotation stop grooves and stops the rotation position of the first part, and the support part is rotated with the support part. A first stopping part supported or held by
The movable toy joint according to claim 11, comprising: The second rotation stopping mechanism is
A plurality of second rotation stop grooves provided concentrically with the rotation center line of the second part and provided in the circumferential direction of the support part;
A second rotation stop pawl that engages with one of the plurality of second rotation stop grooves and stops the rotation position of the second part, and is configured to rotate with the second part; A second stopping part supported or held by two parts;
The movable toy joint according to claim 12, comprising:   The movable toy joint according to claim 13, wherein the first restraining part and the second restraining part have the same shape. A part of the first rotation stop pawl can be engaged with one of the plurality of first rotation stop grooves, and another part of the first rotation stop pawl is accompanied by the first stop part with the support part. In order to rotate, it is received in the first fixing groove provided in the support part,
A part of the second rotation stopping claw can be engaged with one of the plurality of second rotation stopping grooves, and another part of the second rotation stopping claw can be connected to the second part. The joint of the movable toy of Claim 13 or 14 received in the 2nd fixed groove provided in the said 2nd part so that it may rotate. The support parts are
A base that rotatably supports the first part and the second part;
A support-side fitting protrusion provided on the base;
A support-side fitting receiving portion provided on the base at a position different from the support-side fitting protrusion,
The first part has a fitting receiving portion that is rotatably fitted to the support-side fitting protrusion.
The movable toy joint according to any one of claims 11 to 15, wherein the second part has a fitting protrusion that is rotatably fitted to the support-side fitting receiving portion. The fitting receiving part of the first part and the supporting side fitting receiving part have the same shape, and
The joint of the movable toy according to claim 16, wherein the fitting protrusion of the second part and the support-side fitting protrusion are of the same shape. A joint of the movable toy according to any one of claims 1 to 17,
A first structure detachably attached to the first part of the joint;
A second structure that is detachably attached to the second part of the joint and configured to be movable with respect to the first structure;
Movable toy equipped with.

Images