JP2021007829A - Human type toy - Google Patents

Abstract

To provide a human type body capable of reproducing the appearance, in which a movable part is vigorously extended as in a TV animation or the scene of a cartoon, without inviting the breakage of a design in other than the so-called "determinant pose", in the case where the determinant pose is made by the human type toy.SOLUTION: A connection structure 5 of a lumber part 3 and a leg 4 is a connection element between the lumber part 3 and the leg 4, and has such a structure that a crankpin 572 or the rotation axis in the longitudinal direction can be displaced between a standard position, at which the leg 4 approaches to the lumbar part 3, and an apart position, which is more spaced than said standard position.SELECTED DRAWING: Figure 3

Description

The present invention relates to a humanoid toy.

There is known a humanoid toy that allows the user to assemble and complete parts for each part and to play with various poses. For example, Patent Document 1 has a structure in which a ball joint connecting legs (corresponding to a thigh joint in the human body) is swingably supported by a front-back axis fixed to a side portion in the lumbar region. The configuration of a humanoid toy that can achieve both an upright posture and a dynamic open leg posture by changing the interval between the ball joints is disclosed.

JP-A-2009-34232

By the way, as one of the design themes of humanoid toys, the design of humanoid robots is known. In humanoid toys designed as humanoid robots, the main trunks such as the chest, abdomen, and lumbar region are often straight and mechanically designed covered with armor. Conventionally, these trunk parts have been designed as one box-shaped part or one shell-shaped part. Therefore, the movement of the movable parts provided on the trunk was liable to be inconvenient.

For example, in TV animations and manga of humanoid robot heroes, so-called "decision poses" and "appearance poses" (hereinafter collectively referred to as "decision poses"", such as shooting while dynamically opening the legs. ) Scene often appears. As a user, I definitely want to reproduce it with a humanoid toy.

The dynamic leg opening can also be realized by the configuration of Patent Document 1. However, even if you actually imitate the pose, it may seem that it lacks the dynamics of TV animation and manga.

In other words, the scenes of the fixed poses and good-looking poses of TV animation and manga are drawn with a viewpoint near the tip of the leg and a perspective as if it was taken with a camera with a lens with a relatively short focal length. The legs facing the camera look long and powerful, with the help of the perspective effect that greatly exaggerates the foreground. On the other hand, even if the legs of the humanoid toy are dynamically opened and raised in front of you and viewed with the naked eye from the same position as the viewpoint of the fixed pose of TV animation and manga, TV animation and TV animation due to the difference in perspective effect. The legs are shorter than the manga's fixed pose, and it looks like it lacks strength. This is because the focal length of the naked eye is longer than the focal length when drawing a fixed pose for TV animation or manga, and the perspective effect is weak.

Then, if we say that we should change the design of the humanoid toy so as to reproduce the dynamics and leg length in the fixed pose, on the contrary, in other poses (for example, upright posture), it is far from the original character setting. It is not preferable because it gives a bad appearance.

An object of the present invention is to provide a humanoid toy capable of powerfully extending a movable part like a scene of a TV animation or a manga when a so-called fixed pose is made.

The present invention has a structure in which the lumbar region, the legs, the lumbar region and the legs are connected, and the first axis, which is a connecting element between the lumbar region and the legs, is attached to the lumbar region with the legs. It is a humanoid toy having a connecting structure that allows displacement between a standard position in which the legs are close to each other and a separation position that is farther from the standard position.

Further, in the humanoid toy according to the present invention, the separation position may be below and outside the standard position when viewed from the waist.

Further, in the humanoid toy according to the present invention, the standard position may be the inside of the lumbar region, and the separation position may be a position pulled out from the lumbar region.

Further, in the humanoid toy according to the present invention, the connecting structure has a four-section slider crank type closed link structure, the sliding direction is set to the vertical direction of the humanoid toy, and a shaft corresponding to a crank pin. May be the first axis.

Further, in the humanoid toy according to the present invention, the connection structure may have the upper end position of the slide range as the standard position.

Further, in the humanoid toy according to the present invention, the connecting structure has an intermediate link having one end connected to the first shaft and the other end connected to the second shaft of the upper end of the thigh of the leg. By changing the rod posture of the intermediate link so that the first axis is in the left-right direction when the first axis is in the standard position and is in the vertical direction when the first axis is in the separation position, the leg portion in the separation position It may be configured to express the extension of.

According to the present invention, it is possible to provide a humanoid toy that can strongly extend a movable part like a scene of a TV animation or a manga when a so-called fixed pose is made.

Front view of the humanoid toy to which the invention is applied. It is a front view of a humanoid toy, and shows a state in which the right leg is displaced to the "standard position" and the left leg is displaced to the "separation position". In the front view of the humanoid toy, the right leg is displaced to the "standard position" and the left leg is displaced to the "separation position", and the upper end is pulled downward from the internal space to form an upper, lower, left and right plane. The state where the legs are opened along the line is shown. Exploded view of the connected structure. Back side view of the anterior half of the lumbar region. Front side view of the posterior half of the lumbar region. The figure for demonstrating the assembly procedure of the right connecting rod crank coupling body. The first figure for demonstrating the assembly procedure of the lumbar region. The second figure for demonstrating the assembly procedure of the lumbar region. FIG. 3 for explaining the procedure for assembling the lumbar region. FIG. 4 for explaining the procedure for assembling the lumbar region. FIG. 5 for explaining a procedure for assembling the lumbar region. It is the first figure for demonstrating the operation of the connection structure part, (1) the vertical sectional view around the waist part when a leg part is in a standard position, (2) the right part of the connection structure part is mechanical. Link diagram that is simplified to. The second figure for demonstrating the operation of the connection structure part. FIG. 3 for explaining the operation of the connection structure part.

FIG. 1 is a front external view (front external view) of the humanoid toy of the present embodiment to which the present invention is applied. The upper body is represented by a silhouette for easy understanding.

The humanoid toy 2 is a toy that has a design that imitates a humanoid robot that appears in TV animations and manga, and is made by assembling parts for each part. In the humanoid toy 2 of the present embodiment, the upper body is composed of the head, chest, and left and right arms, and the lower body connects the waist 3 and the left and right legs 4 via a connecting structure 5 built in the waist. It is composed of. The user can enjoy various poses of the humanoid toy 2 by changing the relative orientation and the relative posture of each part of the head, chest, arms, waist, and legs. Of course, the parts configuration of the humanoid toy 2 is not limited to the example of this embodiment. It can be changed as appropriate according to the setting of the character used as the model of the humanoid toy 2. For example, a back sac, a weapon or shield held in the hand may be added.

The humanoid toy 2 of the present embodiment is determined by using the open leg as a key, for example, "shooting while dynamically opening the leg", which is often seen in TV animations and manga of humanoid hero robots. The pose can be reproduced with a higher visual effect than the conventional humanoid toy. Therefore, the connecting structure portion 5 can displace the leg portion 4 from the “standard position” closer to the lumbar portion 3 to the “separation position” separated from the standard position.

The "standard position" is the relative positional relationship between the waist 3 and the legs 4 when the humanoid toy 2 is in an upright posture, and the waist as set by the character of the humanoid hero robot modeled by the humanoid toy 2. This is the positional relationship between 3 and the leg 4.
The "separation position" is a position separated from the standard position in the direction in which the leg 4 is extended when, for example, the humanoid toy 2 is said to take an open leg pose. There are several positions in the "separation position", and in the present embodiment, two positions, a "first separation position" and a "second separation position" further separated from the first separation position, are given as examples. I will explain.

In the present embodiment, the structures related to the left and right leg portions 4 are symmetrical. Therefore, in the following description of the lumbar portion 3 and the connecting structure portion 5, either the left or right leg portion 4 is represented. The illustration and description of the other will be omitted as appropriate.

FIG. 2 is a front external view of the humanoid toy of the present embodiment, showing a state in which the right leg 4 is displaced to the “standard position” and the left leg 4 is displaced to the “first separation position”. There is. Further, FIG. 3 shows a state in which the left leg portion 4 is further displaced to the “second separation position”. The second separation position indicates a position in which the left leg 4 at the first separation position is further extended by pulling the upper end portion downward from the internal space and further opened along the upper, lower, left, and right planes. ing. The second separation position may be the position of the leg portion 4 when the legs are kept extended without being opened.

As shown in FIG. 2, the connection point of the lumbar portion 3 with the abdomen is regarded as the reference point P0, the position corresponding to the upper end of the femoral bone of the leg portion 4 is regarded as the displacement point Pm, and the reference point P0 at the standard position and the first separation position. Comparing the distances to the displacement point Pm, the displacement point Pm at the first separation position is larger than the distance to the displacement point Pm at the standard position (displacement point Pm of the right leg 4) due to the operation of the connecting structure portion 5. The distance to (displacement point Pm of the left leg) is larger. It can be seen that the leg portion 4 is extended by the distance D3 even when compared at the tip position of the leg portion 4.

In addition, the connecting structure portion 5 of the present embodiment retracts the upper end portion of the leg portion 4 into the inner space of the waist portion 3 in the standard position, and stores the upper end portion of the leg portion 4 in the first separation position. It is provided with an intermediate link (described in detail later) having a leg connecting shaft 571 (see FIG. 3) capable of pulling the sword downward from the internal space.

The connecting structure portion 5 has a crank pin 572 (details will be described later) which is a rotation axis in the front-rear direction, and is a lower right portion of the connecting structure portion 5 including the crank pin 572 and the leg connecting shaft 571 connected to the crank pin 572. And the lower left portion can be swung up and down along the up, down, left, and right planes (see FIG. 3).

The upper end portion of the leg portion 4 is connected to the leg connecting shaft 571. As shown in FIG. 3, in the standard position in which the humanoid toy 2 is in an upright posture, the leg connecting shaft 571 connected to the crankpin 572 is in a substantially horizontal posture in the left-right direction. When the leg portion 4 is further displaced from the first separation position to the second separation position to take an open leg pose, the longitudinal direction of the leg connection shaft 571 (the leg connection shaft 571) is aligned with the extension direction in which the leg is extended. If it is a rod, its rod posture) is directed. As a result, it is possible to take a second separation position as shown in the state of the left leg 4 in FIG. 3 in which the connecting portion between the leg 4 and the connecting structure 5 is pulled downward from the internal space of the lumbar portion 3.

That is, the connection point of the lumbar portion 3 with the abdomen is regarded as the reference point P0, the position corresponding to the upper end of the femur of the leg portion 4 is regarded as the displacement point Pm, and the reference point P0 to the displacement point Pm at the standard position and the second separation position. Comparing the distances to, the distance to the displacement point Pm at the second separation position is larger than the distance to the displacement point Pm at the standard position due to the operation of the connecting structure portion 5. The latter is larger than the distance in FIG. 2 (distance from the reference point P0 to the displacement point Pm at the first separation position). Even when comparing the tip positions of the left and right leg portions 4, it can be seen that the left leg portion 4 is extended by the distance D4. Then, the state of the left leg 4 at this second separation position reproduces the appearance in which the legs are strongly extended as in the scenes of TV animation and manga.

Next, a specific configuration example of the connecting structure portion 5 will be described in detail.
FIG. 4 is a perspective exploded view of the connecting structure portion 5 in the present embodiment.
The connecting structure portion 5 of the present embodiment has a left connecting rod crank connecting body 53L and a right connecting rod crank connecting body in a space defined by abutting the lumbar front half body 51 and the lumbar rear half body 52 back and forth. It is equipped with 53R.

FIG. 5 is a dorsal side view of the lumbar front half body 51.
As shown in FIG. 4, the lumbar front half body 51 has a lumbar front exterior 32 on the front side that forms the front appearance of the lumbar 3. Then, as shown in FIG. 5, two front slide grooves 511 on the left and right are recessed from the center to the upper part of the back side surface of the lumbar front half body 51. Further, a front main journal bearing hole 512 is recessed on each of the left and right sides in the lower portion of the back side surface.

FIG. 6 is a front side view of the lumbar rear half body 52.
As shown in FIGS. 4 and 6, the lumbar rear half body 52 has two rear slide grooves 521 on the left and right from the center to the upper part of the front side surface. Further, a rear main journal bearing hole 522 is recessed on each of the left and right sides in the lower portion of the back side surface.

Next, the structures of the left connecting rod crank connecting body 53L and the right connecting rod crank connecting body 53R will be described. The left connecting rod crank connecting body 53L and the right connecting rod crank connecting body 53R form a symmetrical structure with each other. doing. Therefore, the right connecting rod crank coupling 53R will be described on behalf of both.
As shown in FIG. 4, the right connecting rod crank coupling 53R has a connecting rod 54, a front crank half 55, a rear crank half 56, and an intermediate link 57.

The connecting rod 54 has a slide pin 541 protruding in the front-rear direction and a crank pin bearing hole 542. The crank pin 572 of the intermediate link 57 is inserted into the crank pin bearing hole 542.

The front crank half body 55 and the rear crank half body 56 have a structure that is substantially mirror-symmetrical in the front-rear direction. The front crank half body 55 has a front crank pin bearing hole 551 at the upper part, and has a front main journal 552 projecting forward and a male central main journal 553 projecting rearward at the lower part. Has. The rear crank half body 56 has a rear crank pin bearing hole 561 at the upper part, and has a rear main journal 562 projecting rearward and a female central main journal 563 projecting forward at the lower part. Has.

The intermediate link 57 is provided with a crank pin 572 so that one end of a leg connecting shaft 571 that is long in the left-right direction is orthogonal to the front-rear direction. The crank pin 572 has a connecting structure between the waist portion 3 and the leg portion 4, and is a first axis which is a connecting element between the waist portion 3 and the leg portion 4. One end of the leg connecting shaft 571 is connected to the first shaft thereof, and the other end is connected to the second shaft of the upper end of the thigh of the leg portion 4.

Next, the procedure for assembling the connecting structure portion 5 and the waist portion 3 will be described.
FIG. 7 is a diagram for explaining an assembly procedure of the right connecting rod crank connecting body 53R.

First, the connecting rod 54 is assembled to the intermediate link 57. Specifically, it is assembled so that the front of the crank pin 572 is inserted into the crank pin bearing hole 542. Since the front side of the crank pin 572 is set longer than the axial length of the crank pin bearing hole 542, it penetrates the crank pin bearing hole 542.

Next, assemble the crank. Specifically, it is assembled from the front so that the crank pin 572 that penetrates the crank pin bearing hole 542 is inserted into the front crank pin bearing hole 551 of the front crank half body 55. Further, the rear crank half body 56 is inserted through the rear crank pin 572 of the intermediate link 57 into the rear crank pin bearing hole 561, and the female central main journal 563 is abutted against the male central main journal 553. Assemble from the rear so that they are connected.

The left connecting rod crank connecting body 53L can be assembled in the same manner.

FIG. 8 is a first diagram for explaining an assembly procedure of the lumbar portion 3.
FIG. 9 is a second diagram for explaining an assembly procedure of the lumbar portion 3.
To assemble the lumbar portion 3, first, the right connecting rod crank connecting body 53R and the left connecting rod crank connecting body 53L are assembled to the lumbar rear half body 52. Specifically, the right connecting rod crank connecting body 53R is inserted into the rear slide groove 521 with the leg connecting shaft 571 facing to the right, and the rear end of the slide pin 541 is inserted into the rear slide groove 521, and the rear main journal 562 is inserted. Assemble to the lumbar rear half body 52 from the front so as to be inserted into the rear main journal bearing hole 522 on the right side. Similarly, the left connecting rod crank connecting body 53L is inserted into the rear slide groove 521 with the leg connecting shaft 571 facing to the left, the rear end of the slide pin 541, and the rear main journal 562 is inserted to the left. Assemble to the lumbar rear half body 52 from the front so as to be inserted into the rear main journal bearing hole 522.

FIG. 10 is a third diagram for explaining an assembly procedure of the lumbar region 3.
Next, the side attachment 30 for mounting the lumbar side exterior part 31 (see FIG. 1) to the place where the right connecting rod crank connecting body 53R and the left connecting rod crank connecting body 53L are assembled to the lumbar rear half body 52. Is sandwiched between the upper left and right sides, and the front half of the lumbar region 51 is assembled from the front. At this time, in each of the right connecting rod crank connecting body 53R and the left connecting rod crank connecting body 53L, the front end portion of the slide pin 541 is inserted into the front slide groove 511 (see FIG. 5) of the waist front half body 51, and The front main journal 552 is inserted into the front main journal bearing hole 512. This completes the core of the lumbar region 3.

FIG. 11 is a fourth diagram for explaining an assembly procedure of the lumbar portion 3.
Next, the upper attachment 33 is attached from above to the place where the lumbar front half body 51 and the lumbar rear half body 52 are combined back and forth. The upper attachment 33 also serves as an attachment for the upper exterior of the lumbar region 3 and an exterior part of the lumbar region 3.

FIG. 12 is a fifth diagram for explaining an assembly procedure of the lumbar region 3.
Next, the lumbar right front exterior part 34 and the lumbar left front exterior part 35 are attached to the front end of the upper attachment 33. Further, the lumbar back exterior part 36 is attached to the rear end of the upper attachment 33. Further, the lumbar side surface exterior parts 31 (see FIG. 1) are attached to the left and right side attachments 30, respectively. As a result, the exterior parts of the waist portion 3 cover the circumference of the connecting structure portion 5, and the connecting structure portion 5 is housed inside surrounded by the exterior parts of the waist portion 3.

Next, the operation will be described.
FIG. 13 is a first view for explaining the operation of the connecting structure portion 5, wherein (1) a vertical cross-sectional view around the waist portion 3 when the leg portion 4 is in the standard position, and (2) the connecting structure. It is a link diagram which represented the right side part of the part 5 in a mechanically simplified manner. In FIG. 13 (1), only the right leg 4 is shown in order to make it easier to understand the connection relationship between the lumbar portion 3 and the leg 4, but the same left and right legs 4 are also shown. It is connected to the lumbar region 3 in the positional relationship of the target.

A femoral joint 41 provided at the upper end of the leg 4 is connected to the tip of the leg connecting shaft 571 of the connecting structure 5. The thigh joint portion 41 has a leg connecting bearing portion 411 that inserts the leg connecting shaft 571 as a rotation axis in the left-right direction, and a leg swing shaft 412 that is an axis orthogonal to the leg connecting shaft 571. The intersection of the leg connecting shaft 571 and the leg swing shaft 412 corresponds to the displacement point Pm in FIG. That is, the leg 4 can swing in the front-rear direction along the up-down front-back surface of the humanoid toy 2 (see FIG. 1) with the leg connecting shaft 571 with respect to the lumbar portion 3, and further up-down-left-right by the leg swing shaft 412. It can swing up and down along the surface.

When the connecting structure portion 5 of the present embodiment is mechanically simplified, a 5-section open link mechanism is formed in which the intermediate link 57, which is the fifth section, is connected to the swing joint of the 4-section slider crank mechanism.
That is, the lumbar anterior half body 51 and the lumbar posterior half body 52 (see FIG. 11) combined in the front-rear direction function as the fixed link 81 which is the first section. Further, the front crank half body 55 and the rear crank half body 56 (see FIG. 8) combined in the front and rear functions as the crank 82 which is the second section, and the connecting rod 54 functions as the connecting rod 83 which is the third section. .. The engagement of the slide pin 541 of the connecting rod 54 with the front slide groove 511 (see FIG. 5) and the rear slide groove 521 (see FIG. 6) functions as the slider 84, which is the fourth section. Then, in the intermediate link 57, the crank pin 572 (swing joint) and the leg connecting shaft 571 are integrated, so that the intermediate link 57 functions as the leg connecting link 85, which is the fifth section.

When the state of the 4-section slider crank mechanism portion of the connecting structure portion 5 is described when the leg portion 4 is in the standard position, the slide pin 541 is set to the upper end position in the slide direction (top dead center position in the illustrated example) by the slider 84. There will be. Such a state of FIG. 13 corresponds to FIG. In the present embodiment, the upper end position of the slider 84 in the sliding direction is set so as to be located at a relatively upper position of the internal structure of the lumbar portion 3, and as a result, the upper end portion of the leg portion 4 when it is in the standard position. Is in a state of being pulled in and housed inside surrounded by the exterior parts of the waist portion 3.

FIG. 14 is a second view for explaining the operation of the connecting structure portion 5, and shows a state in which the left leg portion 4 is in the first separation position.
When the leg 4 is in the first separation position, the crank pin 572 is moved to the front and rear of the main journal (front main journal 552 + male center main journal 553 + rear main journal 562; see FIG. 7) due to the action of the 4-section slider crank mechanism portion. It moves from the waist 3 in the left-right direction, below the standard position, about the direction axis.

When the state of the 4-section slider crank mechanism portion of the connecting structure portion 5 is described when the leg portion 4 is in the first separation position, the slide pin 541 is located below the upper end position in the slide direction on the slider 84. .. Such a state of FIG. 14 corresponds to FIG. Even in this state, the upper end portion of the leg portion 4 is pulled in and housed inside surrounded by the exterior parts of the waist portion 3. In the example of FIG. 14, the crank angle in the case of the first separation position is represented by a crank angle of about 45 ° clockwise from the top dead center toward the bottom dead center, but the present invention is not limited to this. When the crank angle is 90 °, the crank angle is 135 °, or the like, the first separation position may be set.

FIG. 15 is a third diagram for explaining the operation of the connecting structure portion 5.
With the leg 4 at the first separation position, the intermediate link 57, that is, the leg connecting shaft 571 is further swung downward with the crank pin 572 as an axis, and the leg connecting shaft is swung downward in the extension direction of the leg 4 when the legs are opened. When the 571 is turned, the upper end portion of the leg portion 4 is pulled out from the inside surrounded by the exterior parts of the waist portion 3, and the leg portion 4 becomes a second separation position that appears to be extended as compared with the case where the leg portion 4 is in the standard position. Such a state of FIG. 15 corresponds to FIG.

Therefore, if you only want to look at the so-called "decision pose" or "good-looking pose" scenes such as "shooting while dynamically opening the legs" that is often seen in TV animations and manga of humanoid robot heroes. Instead, it is possible to reproduce the impression received from the pose (in this case, the momentum and strength received from the extended legs).

As described above, in the humanoid toy 2 according to the present embodiment, the crankpin 572 (first axis), which is a connecting element between the lumbar portion 3 and the leg portion 4, is separated from the lumbar region 3 by the normal standard position. It can be displaced to a remote position. That is, the leg portion 3 can be made to look longer than usual by the amount that the entire leg portion 4 is displaced to a position away from the lumbar portion 2. Therefore, for example, the impression of a fixed pose scene such as "shooting while dynamically opening the legs", which is often seen in TV animations and manga of humanoid robot heroes, is received not only from the pose but also from the pose (in this case). It is possible to reproduce the momentum and strength of the perspective method, which is visually perceived by the extended legs, with a humanoid toy. Of course, if the leg portion 4 is returned to the standard position, the leg length can be returned to the same as the original character setting of the character that became the model of the humanoid toy 2.

Further, in the humanoid toy 2 according to the present embodiment, the separation position is lower and outer than the standard position when viewed from the lumbar region 4, so that the pose in which the leg portion 4 is extended diagonally downward can be reproduced. Suitable.

Further, in the humanoid toy 2 according to the present embodiment, the standard position is inside the waist portion 3 surrounded by the exterior parts (that is, inside the waist portion 3), and the separation position is surrounded by the exterior parts of the waist portion 3. Since the position is pulled out from the inside, the connecting structure portion 5 can be incorporated without impairing the appearance design even in the normal state where the leg portion 4 is in the standard position.

Further, in the humanoid toy 2 according to the present embodiment, the connecting structure portion 5 has a 4-section slider crank type closed link structure, and the sliding direction is set to the vertical direction of the humanoid toy 2. Since the upper end position of the slide range is the standard position, the standard position is structurally determined, so if the leg 4 is brought closer to the waist 3 to the full movable range, that will be the standard position, so when returning the pose It is convenient for. Further, the connecting structure portion 5 has a leg connecting shaft 571 having one end connected to the crank pin 572 and the other end connected to the leg swing shaft 412 at the upper end of the thigh of the leg portion 4, and the leg connecting shaft 571. The posture is changed so that when the crank pin 572 is in the standard position, it is in the left-right direction, and when it is in the separated position, it is in the up-down direction. That is, by further connecting the leg portion 4 to the lumbar portion 3 via the leg connecting shaft 571 that can swing along the vertical and horizontal planes, the separation position is set to a position farther than the leg connecting shaft 571, and the leg portion 3 Will be able to express the elongation of.

[Modification example]
The embodiment of the present invention is not limited to the above example, and components can be added, omitted, or changed as appropriate as long as the gist of the invention is not changed.

For example, in the above embodiment, a humanoid toy has been mentioned as an example of a toy, but the toy is not limited to the humanoid, and any structure such as an animal, a bird, an insect, a crustacean, etc., which is connected so that a movable part protrudes from the body. For example, the present invention can be applied.

Further, although the leg is mentioned as an example of the movable part in the above embodiment, the name can be changed as appropriate according to the design of the toy such as the arm, neck, barrel, horn, tactile sensation, and sensor.

Further, as an example of the displacement direction, diagonally downward is illustrated, but diagonally upward, diagonally forward, diagonally rearward, diagonally backward, and the like may be used. Of course, it is also possible to reproduce a scene that "jumps and jumps upward vigorously" as the direct downward direction. The direction in which the movable part is projected can be appropriately set in order to reproduce the assumed "determined pose".

Further, the relative positional relationship between the lumbar portion 3 and the leg portion 4 at the separated position is not limited to the examples shown in FIGS. 2 and 3. For example, the displacement point Pm may be above or below the position shown in FIGS. 2 and 3. The separation distance is not limited to the examples shown in FIGS. 2 and 3, and can be appropriately set by setting the dimensions of the constituent parts of the connecting structure portion 5. The opening direction of the leg portion 4 can also be set as appropriate.

2 ... Humanoid toy 3 ... Waist 30 ... Side attachment 31 ... Waist side exterior parts 32 ... Waist front exterior 33 ... Upper attachment 34 ... Waist right front exterior parts 35 ... Waist left front exterior parts 36 ... Waist back exterior parts 4 ... Legs 41 ... Thigh joint part 411 ... Leg connecting rod part 412 ... Leg connecting rod 5 ... Connecting structure part 51 ... Waist front half body 511 ... Front slide groove 512 ... Front main journal bearing hole 52 ... Lumbar rear half body 521 ... Rear slide Groove 522 ... Rear main journal bearing hole 53L ... Left connecting rod crank connector 53R ... Right connecting rod crank connector 54 ... Connecting rod 541 ... Slide pin 542 ... Crank pin bearing hole 55 ... Front crank half body 551 ... Front crank pin bearing Hole 552 ... Front main journal 553 ... Male central main journal 556 ... Rear crank half body 56 ... Rear crank half body 561 ... Rear crankpin bearing hole 562 ... Rear main journal 563 ... Female central main journal 57 ... Intermediate link 571 ... Leg connecting Axis 572 ... Crankpin 81 ... Fixed link 82 ... Crank 83 ... Connecting rod 84 ... Slider 85 ... Leg connection link P0 ... Reference point Pm ... Displacement point

The present invention has a structure in which the lumbar region, the legs, the lumbar region and the legs are connected, and the first axis, which is a connecting element between the lumbar region and the legs, is attached to the lumbar region with the legs. It is a humanoid toy having a connecting structure that allows displacement between a standard position in which the legs are close to each other and a separation position that is farther from the standard position. Further, the doll toy according to the present invention has a connecting structure of a waist portion, a leg portion, the waist portion and the leg portion, and a leg connecting shaft which is a connecting element between the waist portion and the leg portion, and the waist portion. A connecting rod having a slide pin inserted into a slide groove provided from the center to the top at one end and the other end connected to one end of the leg connecting shaft opposite to the end to which the leg is connected. It is characterized by comprising the connecting structure having one end connected to the one end of the leg connecting shaft and the other end having a crank bearing below the slide groove of the waist portion.

Further, in the humanoid toy according to the present invention, the separation position may be below and outside the standard position when viewed from the waist. Further, in the humanoid toy according to the present invention, the leg connecting shaft is displaced between a standard position in which the leg is close to the waist and a separation position separated from the standard position. It is possible, and the separation position may be below and outside the standard position when viewed from the lumbar region.

Further, in the humanoid toy according to the present invention, the connection structure may have the upper end position of the slide range as the standard position. Further, in the humanoid toy according to the present invention, the connecting structure may have the position where the slide pin is at the upper end position of the slide groove as the standard position .

Claims (6)

Lumbar and
With the legs
The first axis, which is a connecting structure between the lumbar portion and the leg portion and is a connecting element between the lumbar portion and the leg portion, is a standard position where the leg portion is close to the lumbar region, and the said. A connecting structure that can be displaced between the standard position and the separated position,
Humanoid toy with. The separation position is below and outside the standard position when viewed from the lumbar region.
The humanoid toy according to claim 1. The standard position is inside the lumbar region and
The separation position is a position pulled out from the waist.
The humanoid toy according to claim 1 or 2. The connecting structure has a four-section slider crank type closed link structure, the sliding direction is set in the vertical direction of the humanoid toy, and the axis corresponding to the crank pin is the first axis.
The humanoid toy according to any one of claims 1 to 3. The connection structure has the upper end position of the slide range as the standard position.
The humanoid toy according to claim 4. The connecting structure has an intermediate link having one end connected to the first axis and the other end connected to the second axis of the upper end of the thigh of the leg.
By changing the rod posture of the intermediate link so as to be in the left-right direction when the first axis is in the standard position and in the up-down direction when the first axis is in the separation position, the leg portion in the separation position The humanoid toy according to any one of claims 1 to 5, which is configured to be able to express elongation.