WO2012105058A1

WO2012105058A1 - Card-type toy

Info

Publication number: WO2012105058A1
Application number: PCT/JP2011/052440
Authority: WO
Inventors: 長洲　宏行
Original assignee: 株式会社タカラトミー
Priority date: 2011-02-04
Filing date: 2011-02-04
Publication date: 2012-08-09

Abstract

The card-type toy is provided with a flat base (2) and a main toy body (3) that is stored flush with the base (2). A storage cavity (6) for storing the main toy body (3), securing tabs (4) for securing the main toy body (3), and operating levers (8) for advancing and retracting the securing tabs (4) are provided in the base (2). The main toy body (3) is energized by spring members (S1, S2, S3) so as to be capable of rising up from the storage cavity (6) of the base (2). Some of the parts of the main toy body (3) are held by the securing tabs (4).

Description

Card type toy

This invention relates to a card type toy whose form changes.

There is known one whose form changes from a vehicle toy to a robot toy by an operation with a lever (see, for example, Patent Documents 1 and 2).
In this form change toy, a plurality of skeleton parts of the toy are rotatably assembled, and the skeleton parts are biased by a spring member so as to maintain the form of the robot toy. The form changing toy is provided with a lock mechanism that changes the form of the vehicle toy against the force of the spring member and locks the skeleton parts to each other in this state. The lock mechanism can be released by a lever.
This form changing toy is in the form of a vehicle toy in the initial state, and when the lock mechanism is released by operating the lever, the form changes to a robot toy by the biasing force of the spring member.

JP 2009-189520 A JP 2009-189521 A

However, since the shape of this conventional shape change toy changes from a three-dimensional shape toy to a three-dimensional shape robot toy, it is relatively small as a surprise to the viewer. For this reason, card-type toys that can change the form from a two-dimensional shape to a three-dimensional shape are currently being developed.

Therefore, the present invention provides a card-type toy that can be changed from an initial form of a two-dimensional shape to a final form of a three-dimensional shape by a simple operation, and can give a surprise that a three-dimensional object pops out to the viewer. provide.

The card-type toy of the present invention includes a flat base and a toy main body that is stored flush with the base. The base includes a storage recess for storing the toy body, a restraining means for restraining the toy body stored in the housing recess, and an operator for releasing the restraint of the toy body by the restraining means. Is provided. The toy body is urged by an elastic member so as to be able to expand upward from the storage recess of the base, and at least a part of the toy parts of the toy body is restrained by the restraining means, thereby Is held in.
When the player operates the controller from the state in which the toy main body is stored flush with the base, the restraining means that restrains the toy parts of the toy main body releases the restraint and stores it in the storage recess of the base. The toy body that has been subjected to the urging force of the elastic member expands upward.

In the card-type toy according to the present invention, the toy main body includes a plurality of toy parts that are rotatably connected by a hinge shaft, and the plurality of toy parts form a three-dimensional shape when deployed from the storage recess. Thus, the elastic member may be biased around the hinge axis.
When the restraint of the toy parts by the restraining means is released, the plurality of toy parts receive the biasing force of the elastic member and rotate around the hinge axis, and the plurality of toy parts form a three-dimensional shape.

In the card-type toy of the present invention, the plurality of toy parts include a grounding part-containing part that stands up at the time of deployment and supports the load of the toy main body, and the area in which the grounding part-containing part is stored in the storage recess. Further, a flat slidable contact surface on which the grounding portion of the grounding portion-containing part slides along with the unfolding behavior when the toy body is deployed may be provided.
When the restraint of the toy parts by the restraining means is released, a plurality of toy parts form a three-dimensional shape, and at this time, the grounding part of the grounding part-containing part of the toy parts is on the flat sliding contact surface of the storage recess. Slide.

In the card-type toy according to the present invention, the plurality of toy parts include a levitation part that at least partially floats upward from the storage recess by receiving an urging force of the elastic member during deployment, and the hinge shaft is attached to the levitation part. And a deploying part that is connected in a deployable manner and is urged by the elastic member in the deploying direction. Further, in a state where the unfolded part is housed in the housing recess, the unfolded part is pressed and locked to the wall in the housing recess by the force of the elastic member biased in the unfolding direction, and at least a part of the floating part is By floating upward from the storage recess, the pressing and locking of the developed part by the wall in the storage recess may be released.
When the restraint of the toy part by the restraining means is released and at least a part of the floating part of the toy part rises first from the inside of the storage recess, the pressing lock of the deployment part by the wall in the storage recess is released, and the deployment part Expands from the floating part under the urging force of the elastic member.

In the card-type toy according to the present invention, the plurality of toy parts include a rising part whose one end is pivotally supported by the base and a rear surface side of the rising part, and the hinge shaft on the rising part. And a support leg part urged by an elastic member that rotates the tip part from the other end side to the one end side of the rising part. Furthermore, the support leg parts are polymerized on the back surface on the other end side of the rising parts and stored in the storage recess together with the rising parts, and when the toy body is expanded from the storage recess, It may slide on the base with the tip side as a fulcrum while rotating around the rising part under the urging force of the elastic member.
When the restraint of the toy part by the restraining means is released, the support leg part receives the biasing force of the elastic member and rotates around the rising part while sliding on the base with the tip side as a fulcrum. Thus, when the support leg part slides on the base with the tip side as a fulcrum, the rising part rises as the support leg part rises.

In the card-type toy according to the present invention, the plurality of toy parts receive a biasing force of the elastic member when deployed, and a base part that is displaced upward from the storage recess, and a turn that is rotatably supported by the base part. Moving parts. Further, when the base part is displaced upward, the rotating part may be rotated to a predetermined posture by gravity acting on the rotating part.
When the restraint of the toy parts by the restraining means is released, the base part receives the biasing force of the elastic member and is displaced upward from the storage recess, and at this time, the pivoting part pivots to a predetermined posture by gravity.

In the card-type toy according to the present invention, the base is formed in a substantially rectangular shape in a plan view, and the plurality of toy parts are stored in the storage recess, and the other end from one end on the diagonal of the base A first base part extending toward the side, and being superimposed on the first base part in a state of being stored in the storage recess, and extending from one end side on the diagonal of the base toward the other end side And a second base part. Further, the first base part and the second base part are connected to each other in an extending direction by the hinge shaft so as to be rotatable, and are urged by the elastic member in a deploying direction from a folded state, The first base part may be supported by a hinge shaft so as to be able to stand on the base, and may be urged in the standing direction by an elastic member.
When the restraint of the toy parts by the restraining means is released, the first base part rises from the base under the biasing force of the elastic member, and the second base part is folded in two on the first base part. However, it develops from the extended end of the first base part under the biasing force of the elastic member. Since the first base part and the second base part are stored in the storage recess so as to extend from one end side on the diagonal of the substantially rectangular base to the other end side, the extended end of the first base part When the second base part is unfolded, the combined length of both base parts is sufficiently longer than the length of each side of the base.

According to the present invention, the toy main body is urged by the elastic member so as to be able to expand upward from the storage recess of the base, and at least a part of the toy parts of the toy main body is restrained by the restraining means, thereby entering the storage recess. The toy body that is held and is stored flush with the storage recess of the base is released from the restraint of the toy parts by the release operation of the restraining means via the operator. Therefore, the toy body can be changed from a two-dimensional initial form flush with the base to a three-dimensional final form by a simple operation. Therefore, according to the present invention, it is possible to give a surprise that a three-dimensional object pops out to what is seen.

According to the present invention, the toy body includes a plurality of toy parts that are rotatably connected by a hinge shaft, and the plurality of toy parts are biased by an elastic member around the hinge shaft so as to form a three-dimensional shape when deployed. Has been. Therefore, the final form of a three-dimensional shape with higher reality can be created, and the surprise given to what is seen can be enhanced.

According to the present invention, when the plurality of toy parts receive the biasing force of the elastic member and expand upward from the storage recess, the ground contact portion of the ground contact portion-containing part of the toy parts is a flat sliding contact surface of the storage recess Slide on the top. Therefore, the posture and behavior when the toy body is deployed can be stabilized.

According to the present invention, the deployment part is connected to the floating part that floats upward during deployment, and the elastic part biasing in the deployment direction is pressed against the wall in the storage recess while the deployment part is stored in the storage recess. By being locked and at least a part of the floating part floats upward from the storage recess, the pressing lock of the developed part by the wall in the storage recess is released. Therefore, it is possible to easily obtain the behavior of deploying the deployment parts to the side when the toy body is deployed.

According to the present invention, the support leg part is pivotally supported by the rising part, and the support leg part is urged by the elastic member that rotates the tip part from the other end side to the one end side of the rising part, At the time of deployment, the support leg part receives the urging force of the elastic member and rotates around the rising part while sliding on the base with the tip side as a fulcrum. Therefore, it is possible to stably obtain the behavior that causes the rising parts by the sliding support leg parts.

According to the present invention, when the base part receives the biasing force of the elastic member and is displaced upward from the storage recess, the rotating part is rotated to a predetermined posture by gravity. Therefore, a stable turning behavior of the turning part can be obtained when the toy body is deployed without using an elastic member.

According to the present invention, the first base part and the second base part are stored in the storage recess of the base in a folded state so as to extend from one end side to the other end side of the diagonal of the substantially rectangular base. The extended ends of the first base part and the second base part are connected by a hinge shaft in a state where they are urged by an elastic member in the deploying direction, and the first base part can be raised on the base by the hinge shaft. While being supported, it is urged by the elastic member in the standing direction. Therefore, the operation of releasing the restraining means by the operator can stably obtain the behavior in which the first base part stands up from the base and the second base part is deployed so as to be continuous with the first base part. .

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a plan view of a card-type toy in a state in which a toy body is housed in a base, showing a first embodiment of the present invention. 1 is a perspective view of a toy body in a deployed state, showing a first embodiment. It is a side view of the card type toy in the state which shows a 1st embodiment and the toy main body developed from the base. The modification of 1st Embodiment is shown and it is a perspective view of the toy main body of the unfolding state. The 2nd Embodiment of this invention is shown and it is a top view of the card-type toy in the state where the toy main body was accommodated in the base. It is a perspective view of the toy main body in the unfolded state, showing the second embodiment. The 2nd Embodiment is shown and it is a top view of the card type toy in the state where the toy main body developed from the base. The 2nd Embodiment is shown and it is a front view of the toy main body of a deployment state. The 2nd Embodiment is shown and it is a side view of the card type toy in the state where the toy main body developed from the base. The 3rd Embodiment of this invention is shown and it is a top view of the card-type toy in the state where the toy main body was accommodated in the base. It is a bottom view of the card type toy which shows a 3rd embodiment and has a toy body stored in a base. It is a perspective view of the card type toy which shows a 3rd embodiment and has a toy body developed from a base. It is a rear view of the card type toy which shows a 3rd embodiment and has a toy body developed from a base. It is a perspective view of a card type toy which shows a 3rd embodiment and shows a state where a toy body develops from a base. The 4th Embodiment of this invention is shown and it is a top view of the card-type toy in the state where the toy main body was accommodated in the base. It is a perspective view of the card type toy which shows a 4th embodiment and has a toy body developed from a base. FIG. 16 shows a fourth embodiment and is a cross-sectional view corresponding to the AA cross section of FIG. 15 showing stepwise operations when the toy body is stored. FIG. 16 shows a fourth embodiment and is a cross-sectional view corresponding to the AA cross section of FIG. 15 showing stepwise operations when the toy body is stored. FIG. 16 shows a fourth embodiment and is a cross-sectional view corresponding to the AA cross section of FIG. 15 showing stepwise operations when the toy body is stored.

Embodiments of the present invention will be described below with reference to the drawings. In the following description of each embodiment, for “upper” and “lower”, the direction that is vertically upward when the toy body is unfolded is referred to as “upper”, and the direction that is vertically downward is referred to as “lower”. Shall be called.
First, the first embodiment shown in FIGS. 1 to 3 will be described. A card-type toy 1 according to this embodiment includes a flat base 2 and a toy main body 3 accommodated on the base 2, and the toy main body 3 is a four-legged animal having a tail. It is supposed to imitate.
FIG. 1 is a plan view when the toy body 3 is stored flush with the base 2, FIG. 2 is a perspective view showing a state in which the toy body 3 is deployed, and FIG. It is a side view of the card type toy 1 showing a state.

The toy body 3 includes a plurality of skeleton blocks (toy parts) corresponding to the animal body, and the skeleton blocks are connected to each other via a hinge shaft so as to be rotatable. Specifically, it includes a craniothoracic block B1, a middle torso block B2, a lower torso block B3, a tail block B4, a front leg block B5, a rear leg block B6, and a chin block B7.
The head and chest block B1 corresponds to a head and a chest, and the middle torso block B2 is connected to the head and chest block B1 via a hinge shaft H1 so as to be vertically rotatable. The lower torso block B3 and the tail block B4 are coupled to the middle torso block B2 via hinge shafts H2 and H3 so as to be vertically rotatable. The front leg block B5 is connected to the left and right sides of the chest of the craniothoracic block B1 via a hinge shaft H4 so as to be rotatable up and down, and the rear leg block B6 is connected to the left and right of the lower torso block B3 via a hinge shaft H5. It is connected so that it can rotate up and down. The chin block B7 is connected to the lower surface side of the head of the craniothoracic block B1 via a hinge shaft H6 so as to be vertically rotatable.

Among the above-mentioned connecting portions, a spring member (elastic member) S1 that applies an urging force around the hinge axis H1 between the blocks is interposed in the connecting portion between the head chest block B1 and the middle torso block B2. Has been. The spring member S1 urges both the blocks B1 and B2 around the hinge axis H1 so as to lift the hinge axis H1 upward and cause the craniothoracic block B1 and the middle torso block B2 to be folded.
A spring member (elastic member) S2 that applies an urging force around the hinge axis H4 is interposed between the blocks at the connecting portion between the head chest block B1 and the left and right front leg blocks B5. The spring member S2 urges the head and chest block B1 and the front leg block B5 around the hinge axis H4 so as to lift the head and chest block B1 upward and bend the left and right front leg blocks B5 downward.
A spring member (elastic member) S3 that applies an urging force around the hinge axis H5 is interposed between the lower trunk block B3 and the left and right rear leg blocks B6. The spring member S3 urges the lower trunk block B3 and the rear leg block B6 around the hinge axis H5 so as to lift the lower trunk block B3 upward and bend the left and right rear leg blocks B6 downward.
In the case of this embodiment, the spring members S1, S2, S3 are constituted by coil-type torsion springs.

Here, each of the blocks B1 to B6 except the jaw block B7 is held in a state of being pushed open so that their upper surfaces are substantially flush with each other when stored in the base 2, and the holding is released. When it is done, the spring members S1, S2, S3 are deployed by the urging force. When the chin block B7 is housed in the base 2, it is closed so as to be superposed on the lower surface of the head and chest block B1, and is rotated and displaced downward by gravity as the head and chest block B1 is displaced upward. Note that the rotation angle of each of the blocks B1 to B7 is appropriately limited by a stopper (detailed structure is omitted).

In this embodiment, the front end portions B5a and B6a (end portions on the side away from the hinge shafts H4 and H5) of the front leg block B5 and the rear leg block B6 are grounded portions when the toy body 3 is deployed. . Further, the front leg block B5 and the rear leg block B6 constitute a grounding part-containing part. Furthermore, the head and chest block B1 constitutes a base part that is displaced upward when the toy body 3 is deployed, and the jaw block B7 is rotated to a predetermined posture by gravity when the head and chest block B1 is displaced upward. Rotating parts to make up.
Further, on both side surfaces of the middle torso block B2 located substantially at the center of the toy body 3, there are provided engaging grooves 5 into which locking claws 4 described later are inserted and engaged.

On the other hand, as shown in FIG. 1, the base 2 is constituted by a thin hollow housing having a rectangular shape in plan view, and a storage recess 6 for storing the toy body 3 is provided in a substantially central region on the upper surface side. Is provided. The housing recess 6 is formed with a peripheral wall portion so as to substantially conform to the outer shape when the blocks B1 to B6 of the toy body 3 are pushed open so as to be flat as a whole. However, the peripheral wall portion of the storage recess 6 is provided so as to avoid the inner region of the front leg block B5 and the rear leg block B6 (the region adjacent to the head chest block B1 and the lower torso block B3). And in the area | region where the front leg block B5 and the rear leg block B6 of the bottom part of the storage recessed part 6 are arrange | positioned, and these inner area | regions, the front-end | tip part B5a, B6a of each block B5, B6 is slidable flat A sliding contact surface 7 is provided. Moreover, the site | part in which the jaw block B7 is arrange | positioned among the storage recessed parts 6, and the site | part in which the hinge coupling | bond part which protruded below are arrange | positioned are partially deep.

A pair of operation levers 8 are rotatably supported by support pins 11 inside the base 2. Here, if the direction in which the front leg block B5 and the rear leg block B6 of the stored toy body 3 of the base 2 are pushed open is called a card width direction, one end of each operation lever 8 is assumed. On the side, an operation portion 9 (operator) that is bent outward in the card width direction and exposed to the outside from the side surface of the base 2 is provided, and the other end of each operation lever 8 is bent inward in the card width direction. Thus, a locking claw 4 (restraining means) that protrudes inside the housing recess 6 is provided. On the upper surface of the locking claw 4, a tapered surface (reference numeral omitted) whose tip side is inclined downward is provided.
Each operation lever 8 is urged to rotate by a spring member 12 so as to displace the locking claw 4 inward in the card width direction and displace the operation portion 9 outward in the card width direction. Accordingly, each operation lever 8 is biased by the spring member 12 in the initial state to cause the locking claw 4 to protrude into the storage recess 6, and when the operating portion 9 is pushed in from this state, the locking claw 4 is retracted from the storage recess 6.

In the above configuration, when the toy body 3 is stored in the base 2, the front end blocks B5a and B6a of the front leg block B5 and the rear leg block B6 are placed on the sliding contact surface 7 in the storage recess 6 and in this state. A portion from the head chest block B1 to the lower torso block B3 is pushed downward. In this way, when the toy body 3 is pushed in from above, the front members B5a and B6a of the front leg block B5 and the rear leg block B6 slide on the sliding contact surface 7, and the spring members S1, S2 so that the blocks B1 to B6 become flat. , S3 is pushed against the urging force of S3. Thus, when the middle body block B2 is pushed to the vicinity of the deepest part, the locking claws 4 of the left and right operation levers 8 are engaged with the engagement grooves 5 on both sides of the middle body block B2, and the displacement of the middle body block B2 is restrained. Is done. As a result, the entire toy main body 3 is held in the storage recess 6 in a state of being pushed open against the force of the spring members S1, S2, S3, and integrated with the base 2 in a state where the entire upper surface is flush. It becomes.

In this way, in the card-type toy 1 in which the toy body 3 is integrated with the base 2 and has a two-dimensional shape, when the operation portions 9 of the left and right operation levers 8 are pushed inward, the locking claws of each operation lever 8 are engaged. 4 is pulled out from the engaging groove 5 of the middle body block B2, and the restraint of the middle body block B2 by the locking claw 4 is released. As a result, the toy body 3 is unfolded upward from the housing recess 6 by the biasing force of the spring members S1, S2, S3.
At this time, the head-and-breast block B1 and the middle torso block B2 are lifted upward in response to the biasing force of the spring member S1, and the front leg block B5 and the rear leg block B6 are attached to the springs S2 and S3. As a result, the front legs B5a and 6Ba of the front leg block B5 and the rear leg block B6 slide on the sliding contact surface 7 in the housing recess 6 and rise as a whole. Further, the chin block B7 is rotated downward by a predetermined angle by gravity when the craniothoracic block B1 is displaced upward from the storage recess 6. As a result, the toy body 3 having a three-dimensional shape appears instantaneously from the card-type toy 1 having a two-dimensional shape.

As described above, in the card-type toy 1, the toy body 3 can be instantaneously changed from a two-dimensional shape integrated with the base 2 to a final form of a three-dimensional shape by a simple lever operation. You can give a surprise like a three-dimensional object pops out.
In particular, the card-type toy 1 of this embodiment is composed of a plurality of blocks B1 to B7 in which the toy body 3 is rotatably connected by hinge shafts H1 to H5, and the blocks form a complicated three-dimensional shape when deployed. Since the spring members S1, S2, and S3 are biased as described above, a final form having a three-dimensional shape with higher reality can be created.

Moreover, in this card type toy 1, each front-end | tip part B5a and B6a of the front leg block B5 and the rear leg block B6 is made into the grounding part which earth | grounds at the time of expansion | deployment of the toy main body 3, and the accommodation recessed part 6 side of the base 2 has A flat slidable contact surface 7 on which the front end portions B5a and B6a slide during deployment is provided. Therefore, the posture and behavior of the toy main body 3 at the time of deployment can be stabilized. That is, when the toy body 3 is unfolded, the tips B5a and B6a slide on the flat sliding contact surface 7 to reduce the possibility of riding on the uneven portion. As a result, the toy body 3 may fall over or unnatural when unfolded. Jumping out in posture can be reduced.

Furthermore, the card-type toy 1 of this embodiment has a structure in which the jaw block B7 is rotated by a predetermined angle only by gravity when the toy body 3 is deployed. Therefore, the chin block B7 can be stably rotated when the craniothoracic block B1 is displaced upward from the storage recess 6 without adding a spring member more than necessary.

In the embodiment described above, the portion from the head to the trunk of the toy main body 3 is configured by four rotatable blocks B1, B2, B3, and B4. However, the modification shown in FIG. As described above, the portion from the head portion to the trunk portion may be constituted by an integral trunk block B9. In the figure, the same parts as those shown in FIGS. 1 to 3 are denoted by the same reference numerals.

Next, the second embodiment shown in FIGS. 5 to 9 will be described. A card-type toy 101 according to this embodiment includes a flat base 102 and a toy main body 103 that is stored flush with the base 102. The toy main body 103 is a large-sized wing and legs. It is supposed to imitate a bird.
FIG. 5 is a plan view when the toy body 103 is stored flush with the base 102, and FIG. 6 is a perspective view showing a state in which the toy body 103 is deployed. 7, 8, and 9 are a plan view, a front view, and a side view showing a state in which the toy main body 103 is unfolded.

The toy body 103 includes a plurality of skeleton blocks (toy parts) corresponding to the bird's body, and the skeleton blocks are connected to each other via a hinge shaft so as to be rotatable. Specifically, the toy body 103 includes a base block B10, a head block B11, a left torso block B12L, a right torso block B12R, a leg block B13, a base wing block B14, a mediation block B15, And a leading blade block B16.
The base block B10 forms a region extending from the shoulder to the tail, and the head block B11 is connected to the upper end of the shoulder of the base block B10 via a hinge shaft H10 so as to be vertically rotatable. The left torso block B12L and the right torso block B12R are connected to the upper surface of the intermediate part of the base torso block B10 via a hinge shaft H11 so as to be vertically rotatable. The leg block B13 is connected to the left torso block B12L and the right torso block B12R via a hinge shaft H12 so as to be rotatable up and down. The base blade block B14 is connected to the left and right of the shoulder portion of the base body block B10 via a hinge shaft H13 so as to be rotatable in a substantially horizontal direction. The mediation block B15 is connected to the distal end portion of each base blade block B14 via a hinge shaft H14 so as to be vertically rotatable. The leading blade block B16 is connected to each intermediate block B15 via a hinge shaft H15 so as to be rotatable in a substantially horizontal direction.

Among each of the above-described connecting portions, the connecting portion between the base block B10 and the head block B11 is provided with a spring member S10 that applies an urging force around each hinge axis H10 between the blocks. . The spring member S10 urges the head block B11 and the base block B10 about the hinge axis H10 so as to lift the base block B10 upward and bend the head block B11 downward.
A spring member S11 that applies an urging force around each hinge axis H12 between the blocks on the connecting portion between the left torso block B12L and the leg block B13 and the connecting portion between the right torso block B12R and the leg block B13. Are intervened. The left and right spring members S11 are hinged so that the left torso block B12L and the right torso block B12R are lifted upward and the left and right leg blocks B13 are bent downward with respect to the left torso block B12L and the right torso block B12R, respectively. It is biased around the axis H12.
Further, between the left trunk block B12L and the right trunk block B12R connected to the middle part of the base cylinder block B10, a spring member S12 that applies an urging force around the hinge axis H11 is interposed between the blocks B12L and B12R. It is disguised. Further, the spring member S12 lifts the base cylinder block B10 together with the hinge shaft H11 upward so that both the blocks B12L and B12R are rotated around the hinge axis H11 so that the left body block B12L and the right body block B12R are folded. Is energized.
In the case of this embodiment, the spring members S10, S11, S12 are constituted by coil-type torsion springs having a relatively strong biasing force.

A spring member S13 that applies an urging force about the hinge axis H13 is interposed between the blocks at the connecting portion between the left and right ends of the base block B10 and the base blade block B14. The spring member S13 is configured so that the base blade block B14 is in a final deployed state in which the base blade block B14 is rotated by a predetermined angle outward from the initial state in which the base blade block B14 is close to the side of the head block B11. B14 is urged around the hinge axis H13.
A spring member S14 that applies an urging force around the hinge axis H15 is interposed between the blocks at the connecting portion between each intermediate block B15 and the leading blade block B16. The spring member S14 is a base wing block such that the tip side of the leading wing block B16 is in a final deployed state rotated by a predetermined angle outward in the card width direction from an initial state in which the tip side is close to the side portions of the left trunk block B12L and the right trunk block B12R. The leading blade block B16 is urged around the hinge axis H15 with respect to the intermediate block B15 supported at the end of B14.
In the case of this embodiment, the spring members S13 and S14 are constituted by coil-type torsion springs having a relatively weak biasing force.

Here, a head block B11 coupled to the upper end of the base block B10, a left trunk block B12L and a right trunk block B12R coupled to the left and right sides of the central portion of the base block B10, a left trunk block B12L, and The leg blocks B13 connected to the right torso block B12R are pushed open against the forces of the spring members S10, S12, S11, respectively, and stored in the base 102 in that state. The left and right base wing blocks B14 and the front wing block B16 rotate the base wing block B14 to the initial position close to the side of the head block B11 against the force of the spring member S14, The wing block B16 is rotated to the initial position close to the sides of the left trunk block B12L and the right trunk block B12R so as to overlap the upper surface of the base wing block B14, and is stored in the base 102 in that state. Hereinafter, the state of the toy main body 103 at the time of storage is referred to as an initial state.
At this time, each intermediary block B15 rotates around the hinge axis H14 and adjusts the posture of the leading blade block B16 so that the leading blade block B16 is superposed on the upper surface of the base blade block B14. To do. Each intermediate block B15, on the contrary, receives the weight of the leading blade block B16 and the intermediate block B15 itself when the leading blade block B16 rotates and expands with respect to the base blade block B14. The tip end side of B16 is inclined downward by a predetermined angle around the hinge axis H14.

In the case of this embodiment, the tip B11a of the head block B11 and the tip B13a of the left and right leg blocks B13 serve as a grounding portion that contacts the base 102 side when the toy main body 103 is deployed. The head block B11 and the left and right leg blocks B13 constitute a grounding part-containing part. The base block B10 and the base wing block B14 constitute a base part that is displaced upward when the toy main body 103 is deployed, and the intermediate block B15 and the front wing block B16 are the base block B10 and the base wing block B14 upward. A rotating part that rotates to a predetermined posture by gravity when it is displaced is constituted.

On the other hand, as in the first embodiment, the base 102 is configured by a thin hollow housing having a rectangular shape in plan view, and a storage recess 106 for storing the toy main body 103 is provided on the upper surface. The storage recess 106 has a peripheral wall formed so as to substantially conform to the outer shape of the toy main body 103 in the initial state, and the left and right leg blocks B13 and the head block B11 are disposed in the bottom of the storage recess 106. A flat slidable contact surface 7 on which the end portions B13a and B11a of the respective blocks B13 and B11 can slide is provided in the region closer to the center than these regions.
In addition, a pair of operation levers 8 that are rotatably supported by the support pins 11 are provided inside the base 102 as in the first embodiment. The operating lever 8 is provided with an operating portion 9 (operator) on one end side, and is provided with a locking claw 4 (restraining means) facing the storage recess 106 on the other end side. It is urged | biased by the spring member 12 around the support pin 11 so that it may displace to a direction inner side (side approaching in the storage recessed part 106).

By the way, engagement grooves (not shown) are provided on both side surfaces of the central area of the base body block B10 of the toy body 103 (areas located below the left body block B12L and the right body block B12R). When stored in the storage recess 106 in the initial state, the locking claws 4 of the operation levers 8 on both sides are engaged with the engagement grooves. Thus, the toy body 103 is held in the storage recess 106 while maintaining the initial state.
When the toy body 103 is stored in the storage recess 106 in this way, the mediation block B15 and the leading blade block B16 are pressed and locked to the inner surface of the outer peripheral wall of the storage recess 106 by receiving the biasing force of the spring members S13 and S14. ing. The press locking of the mediation block B15 and the leading blade block B16 by the outer peripheral wall of the storage recess 106 is released when the locking of the base block B10 by the locking claw 4 is released and the base block B10 floats upward. Is done.
The base block B10 that floats upward when the toy body 3 is deployed constitutes a floating part, and the mediator block B15 and the leading blade block B16 that are biased in the deployment direction by the spring members S13 and S14 constitute a deployment part. ing.

In the above configuration, when the toy body 103 is housed in the base 102, the front wing block B16 and the base wing block B14 are folded so as to be pressed against the side of the base block B10, and the head block B11 and the leg block Each tip B11a, B13a of B13 is placed on the sliding contact surface 7 in the housing recess 106, and the base block B10 is pushed downward in this state. Thus, when the base block B10 is pushed downward, the front ends B11a and B13a of the head block B11 and the leg block B13 slide on the sliding contact surface 7, and these blocks B11 and B13 are spring members S10 and S12. , S11 is pushed open against the force of S11, and when the base cylinder block B10 is pushed almost to the deepest part, the locking claws 4 of the left and right operating levers 8 are engaged with the engaging grooves of the base cylinder block B10. The At this time, the left and right mediation blocks B15 and the leading blade block B16 are pressed and locked by the outer peripheral wall of the storage recess 106. Thereby, the toy main body 103 is held in the housing recess 106 of the base 102 in the initial state, and is integrated with the base 102 so that the upper surface is flush with the base 102.

In this way, in the card-type toy 101 in which the toy main body 103 is stored in the base 102, the locking of the base block B10 by the locking claw 4 is released by the operation portions 9 of the left and right operation levers 8 being pushed inward. Then, the toy main body 103 expands upward from the storage recess 106 by the biasing force of the spring members S10, S12, S11.
In this development, the left torso block B12L and the right torso block B12R are bulged upward in response to the urging force of the spring member S12, and the head block B11 and the leg blocks B13 on both sides are respectively spring members S10. , S11, and bent downward. At this time, the tip portions of the head block B11 and the leg block B13 slide on the sliding contact surface 7 in the housing recess 106, and the whole rises. Further, after the base body block B10 is lifted upward from the housing recess 106, the left and right base blade blocks B14 and the front blade block B16 are swung to the side under the urging force of the spring members S13 and S14, and the front blade block B16 is finally bent downward by a predetermined angle around the hinge axis H14 due to gravity. As a result, the three-dimensional toy main body 103 appears instantaneously from the card-type toy 101 that has been two-dimensional.

As described above, even in the case of the card-type toy 101 of this embodiment, the toy main body 103 can be instantaneously changed from a two-dimensional shape integrated with the base 102 to a final form of a three-dimensional shape by a simple lever operation. It is possible to give a surprise that a three-dimensional object pops out to what you see.

In the card-type toy 101 of this embodiment, the tip portions of the head block B11 and the leg block B13 are grounding portions that are grounded when the toy main body 103 is deployed, and the toy main body is located on the side of the storage recess 106 of the base 102. A flat slidable contact surface 7 is provided on which the front end portions B11a and B13a of the head block B11 and the leg block B13 slide when 103 is deployed. Therefore, the posture and behavior when the toy main body 103 is deployed can be stabilized.

Further, in the case of the card-type toy 101 of this embodiment, when the toy body 103 is deployed, the leading wing block B16 is configured to rotate by a predetermined angle around the hinge axis H14 by gravity. Therefore, stable behavior of the leading blade block B16 bent downward can be obtained without adding a spring member more than necessary.

Further, in the card type toy 101 of this embodiment, the intermediate block B15 and the leading wing block B16 are connected to the base block B10 that floats upward when the toy main body 103 is expanded via the base wing block B14 so as to be expandable, When the toy main body 103 is stored in the base 102 in the initial state, the intermediate block B15 and the front wing block B16 are folded and pressed against the outer peripheral wall of the storage recess 106 by the urging force of the spring members S13 and S14. It is supposed to be a structure. Therefore, it is possible to easily obtain the behavior of deploying the base wing block B14 and the leading wing block B16 to the side when the toy main body 103 is deployed.

Next, a third embodiment shown in FIGS. 10 to 14 will be described. The card-type toy 201 of this embodiment includes a flat base 202 and a toy main body 203 that is accommodated on the base 202. The toy body 203 imitates a dinosaur with feathers.
FIGS. 10 and 11 are a plan view and a bottom view when the toy main body 203 is stored flush with the base 202, and FIGS. 12 and 13 are a perspective view and a rear surface showing a state in which the toy main body 203 is unfolded. FIG. FIG. 14 is a perspective view for explaining the unfolding operation of the toy main body 203.

The toy main body 203 includes a plurality of skeleton blocks (toy parts) corresponding to the body of the dinosaur, and the skeleton blocks are connected to each other via a hinge shaft so as to be rotatable. Specifically, the toy body 203 includes a trunk block B20, a leg block B21, a base wing block B22, a leading wing block B23, a head block B24, a chin block B25, and an arm block B26. ing.
The trunk block B20 forms a region extending from the shoulder portion to the tail portion, and the leg block B21 is connected to a substantially middle portion in the longitudinal direction of the trunk block B20 via a hinge shaft H20 so as to be vertically rotatable. The base wing block B22 is rotatably connected to the left and right of the shoulder portion of the trunk block B20 via a hinge shaft H21. The leading blade block B23 is arranged so as to overlap with the upper surface side of the base blade block B22, and is rotatably connected via a hinge shaft H22. The head block B24 is connected to the shoulder portion of the torso block B20 via a hinge shaft H23 so as to be vertically rotatable. The jaw block B25 is connected to the head block B24 via a hinge shaft 24 so as to be rotatable up and down. The arm block B26 is rotatably connected to the left and right base wing blocks B22 of the trunk block B20 via a hinge shaft H25.

The trunk block B20 is connected to the base 202 via a hinge shaft H26 so that the tail part can be raised and turned with the tail side as the lower end. Further, the leg block B21 is arranged on the lower surface side of the trunk block B20 so as to be superposed, the base part side is connected to the trunk block B20 by a hinge shaft H20, and the tip part side is a wide grounding part 15. As will be described in detail later, the grounding portion 15 slides with respect to the base 202 when the toy body 203 is deployed.

A spring member S20 that applies an urging force around the hinge axis H20 is interposed between the blocks at the connecting portion between the trunk block B20 and the leg block B21. The spring member S20 is a hinge shaft with respect to the leg block B21 and the torso block B20 so that the distal end side (the grounding part 15 side) of the leg block B21 is rotated from the shoulder side to the tail side of the torso block B20. Energized around H20.
A spring member S21 that applies an urging force around the hinge axis H21 is interposed between the blocks at the connecting portion between the trunk block B20 and the left and right base blade blocks B22. The spring member S21 urges the base blade block B22 and the body block B20 around the hinge axis H21 so as to lift the extending end side of the base blade block B22 in a direction perpendicular to the plate thickness direction of the body block B20. ing.
The spring members S20 and S21 are constituted by coil-type torsion springs having a relatively strong urging force.

Further, a spring member S22 for applying an urging force around the hinge axis H22 is interposed at the connecting portion between the base blade block B22 and the leading blade block B23. The spring member 22 has a leading blade block B23 with respect to the base blade block B22 such that the leading blade block B23 is in a final deployed state rotated by a predetermined angle outward in the card width direction from the initial state in which the leading blade block B23 is close to the side of the trunk block B20. Is urged around the hinge axis H22. The spring member S22 is constituted by a coil-type torsion spring having a relatively weak biasing force.

Here, the leg block B21 resists the force of the spring member S20 and rotates the tip end side (grounding portion 15 side) toward the shoulder portion of the trunk block B20 to superpose it on the back surface of the trunk block B20. In this state, the trunk block B20 is tilted forward with the hinge axis H26 as the center, and is stored in the base 202 together with the trunk block B20. Further, the left and right base wing blocks B22 and the front wing block B23 push the base wing block B22 around the hinge axis H21 against the force of the spring member S21, and the front wing block B23 is open to the base wing block B22. The spring member S22 is rotated around the hinge axis H22 against the force of the spring member S22 so as to overlap the upper surface, and is stored in the base 202 in that state. The arm block B26 and the head block B24 are configured so that the arm block B26 is slightly rotated around the hinge axis H25 toward the head block B24, and the head block B24 is flush with the torso block B20. It is rotated around the hinge axis H23 and stored in the base 202 in that state. Hereinafter, the state of the toy body 203 at the time of storage is referred to as an initial state.

In the case of this embodiment, the trunk block B20 constitutes a rising part whose one end is pivotally supported by the base 202, and the leg block B21 is pivotally supported by an intermediate part of the rising part. The support leg part and the grounding part containing part which has the grounding part 15 are comprised. The torso block B20 also constitutes a base part that is displaced upward when the toy body 203 is deployed, and the head block B24, arm block B26, and chin block B25 have the base part leg block B21 displaced upward. Sometimes, it constitutes a rotating part that rotates to a predetermined angle by gravity.

On the other hand, as in the first and second embodiments, the base 202 is configured by a thin hollow casing having a rectangular shape in plan view, and a storage recess 206 for storing the toy body 203 in an initial state on the upper surface. Is provided. The storage recess 206 has a peripheral wall formed so as to substantially conform to the outer shape of the toy body 203 in the initial state. In addition, a pair of operation levers 8 rotatably supported by the support pins 11 are provided inside the base 202, and the operation levers 8 are urged around the support pins 11 by the spring members 12. An operation portion 9 (operation element) is provided on one end side of the operation lever 8, and a locking claw 4 facing the inside of the storage recess 206 is provided on the other end side of the operation lever 8.
As shown in FIGS. 10 and 13, engaging pieces 16 that are recessed in a stepped manner are extended from both sides of the torso block 203 on the toy body 203 side, as shown in FIGS. 10 and 13. When the toy body 203 is stored in the storage recess 206, the locking claw 4 of the operation lever 8 engages with the upper surface of the engagement piece 16.

Further, as shown in FIG. 14, an area where the grounding portion 15 of the leg block B <b> 21 is disposed when the toy main body 203 is housed and a body block from the region where the grounding portion 15 is disposed in the bottom of the housing recess 206. A flat slidable contact surface 7 on which the grounding portion 15 slides in accordance with the unfolding behavior of the toy body 103 is provided in a region continuous to the rising base side (hinge axis H26 side) of B20.

Further, as shown in FIG. 11, a pair of cutout holes 17 are provided at the bottom of the storage recess 206, and the left and right arms that protrude downward with respect to the lower surface of the torso block B20 when the toy body 203 is stored. The block B26 and the guide protrusions 18 projecting from the back surfaces of the left and right front wing blocks B23 are fitted into the notch holes 17, respectively. When the left and right front wing blocks B23 are folded inward, the guide protrusions 18 abut on the curved outer edge of the arm block B26, thereby guiding each arm block B26 inward and rotating it to the initial position. . Each guide projection 18 is fitted into the corresponding notch hole 17 when the toy main body 203 is stored in the storage recess 206, thereby preventing the leading wing block B23 from being opened by the spring member S22. . That is, the operation of the leading blade block B23 around the hinge shaft H22 is prevented by the guide protrusion 18 being pressed and locked to the inner wall of the notch hole 17 by the spring member S22. The pressing and locking of the guide protrusion 18 by the notch hole 17 is released when the torso block B20 floats upward when the toy body 203 is deployed.
In the case of this embodiment, the trunk block B20 constitutes a floating part, and the leading wing block B23 constitutes a deployed part.

In the above configuration, when the toy body 203 is stored in the base 202, the leading wing block B23 and the base wing block B22 are folded against the force of the spring members S21 and S22, and at the same time, guided by the guide protrusions 18. Thus, the arm blocks B26 on both sides are rotated inward by a predetermined angle, and in this state, the torso block B20 is tilted forward about the hinge axis H26. At this time, the leg block B21 supported by the substantially middle portion of the trunk block B20 slides the tip-side grounding portion 15 on the storage recess 206, and resists the force of the spring member S20 on the back side of the trunk block B20. Folded. Thus, when the body block B20 is tilted forward by a predetermined angle or more, the head block B24 comes into contact with the storage recess 206, and the angle is gradually corrected so as to be flush with the body block B20 while sliding in the storage recess 206. .
Thus, when the trunk block B20 is tilted to the deepest part, the locking claws 4 of the left and right operation levers 8 are engaged with the engagement pieces 16 of the trunk block B20. At this time, the arm block B26 and the guide projection 18 are fitted into the cutout hole 17 in the storage recess 206. Thereby, the toy main body 203 is held in the housing recess 206 of the base 202 in the initial state, and is integrated with the base 202 so that the upper surface is flush.

Thus, in the card-type toy 201 in which the toy body 203 is stored in the base 202, the locking of the trunk block B20 by the locking claws 4 is released by the operation portions 9 of the left and right operation levers 8 being pushed inward. The toy body 203 expands upward from the storage recess 206 by the biasing force of the spring members S20, S21, and S22.
At this time, the toy body 203 is unfolded by receiving the biasing force of the spring member S20 so that the leg block B21 rotates about the substantially middle part of the torso block B20, and as shown in FIG. Is slid on the sliding contact surface 7 of the base 202 toward the base (hinge axis H26) side of the trunk block B20. Thus, when the leg block B21 slides on the slidable contact surface 7 with the ground contact portion 15 as a fulcrum, the substantially middle portion of the trunk block B20 is pushed by the leg block B21, and the trunk block B20 is gradually caused. When the leg block B21 rises by a predetermined angle or more, the ground contact portion 15 of the leg block B21 moves from the storage recess 206 to the upper surface side of the base 202, and at this time, the trunk block B20 suddenly rises to a predetermined angle and stops. The stop at this time is performed by a stopper function (not shown).
Further, until the trunk block B20 rises, the base wing block B22 and the leading wing block B23 expand outward, and the head block B24, chin block B25, and arm block B26 rotate downward by a predetermined angle due to gravity. To do.
As a result, the toy body 203 having a three-dimensional shape appears instantaneously from the card-type toy 201 having a two-dimensional shape.

As described above, the card-type toy 201 can instantly change the toy main body 203 from a two-dimensional shape integrated with the base 202 to a final form of a three-dimensional shape by a simple lever operation. It can give you a surprise as if things pop out.

In the card type toy 201 of this embodiment, the leg block B21 is pivotally supported at a substantially middle part of the torso block B20, and the leg block B21 connects the grounding part 15 from the shoulder side of the torso block B20 to the tail. The spring member S20 is urged around the hinge axis H20 so as to rotate to the side of the arm. When the toy body 203 is deployed, the leg block B21 is rotated by the urging force of the spring member S20, and the grounding unit 15 is rotated. And slide on the base 202. Therefore, the trunk block B20 is caused by the sliding leg block B21, and a behavior as if a dinosaur is standing up can be stably obtained.

Further, in the case of the card-type toy 201, a flat sliding contact surface 7 is provided in the storage recess 206 to slide on the ground contact portion of the leg block B21 when the toy body 203 is deployed. Therefore, there exists an advantage that the initial operation | movement at the time of expansion | deployment of the toy main body 203 can be stabilized.

In the card type toy 201 of this embodiment, the head block B24, the chin block B25, and the arm block B26 are rotated by a predetermined angle by gravity when the toy body 203 is deployed. Therefore, it is possible to obtain a stable behavior of each of the blocks B24, B25, and B26 bent downward without adding a spring member more than necessary.

Finally, a fourth embodiment shown in FIGS. 15 to 17 will be described. The card-type toy 301 of this embodiment includes a flat base 302 and a toy main body 303 that is stored flush with the base 302. The toy body 303 imitates a dragon having a long meandering torso.
FIG. 15 is a plan view when the toy body 303 is stored flush with the base 302, and FIG. 16 is a perspective view showing a state in which the toy body 303 is deployed.

The toy body 303 includes a plurality of skeleton blocks (toy parts) corresponding to the dragon's body, and the skeleton blocks are connected to each other via a hinge shaft so as to be rotatable. Specifically, the toy body 303 includes a lower torso block B30, an upper torso block B31, a head block B32, a chin block B33, a pair of rear leg blocks B34L and B34R, and a pair of front leg blocks B35L and B35R. And.
The lower body block B30 models the lower half region of the body, and the upper body block B31 is rotatably connected to the upper end portion of the lower body block B30 via a hinge shaft H30. The head block B32 is rotatably connected to the upper end portion of the upper trunk block B31 via a hinge shaft H31. The chin block B33 is connected to the head block B32 via a hinge shaft H32 so as to be vertically rotatable. The pair of rear leg blocks B34L and B34R are rotatably connected to the lower position of the trunk portion of the lower trunk block B30 via a hinge shaft H33. The pair of front leg blocks B35L and B35R are rotatably connected to a lower position of the trunk portion of the upper trunk block B31 via a hinge shaft H34.

The lower torso block B30 is formed of a substantially U-shaped strip, and one end side is a tail portion, and the other end side is a connecting portion with the upper torso block B31. A bracket 20 is attached to the bottom of the substantially U shape, and the bracket 20 is rotatably connected to the base 302 via a hinge shaft H35. The pivotal support of the bracket 20 by the hinge shaft H35 enables the lower trunk block B30 fixed to the bracket 20 to stand with respect to the base 302 with the substantially U-shaped bottom as a base point.

The upper torso block B31 is formed of a substantially U-shaped strip like the lower torso block B30, and one end side is connected to the head block B32 and the other end side is connected to the lower torso block B30. ing. The upper body block B31 and the lower body block B30 are connected to each other at the other ends by a hinge shaft H30, and can be overlapped in a folded state. And between the connection parts of upper trunk block B31 and lower trunk block B30, spring member S30 which gives energizing force around hinge axis H30 is interposed. The spring member S30 urges the upper body block B31 against the lower body block B30 so that the upper body block B31 and the lower body block B30 are in a developed state in which the upper body block B31 and the lower body block B30 are continuously expanded on one plane. .

The head block B32 is connected to the end of the upper trunk block B31 by a hinge shaft H31 so that the head block B32 can swing in the range of about 90 ° laterally. Between the head block B32 and the upper torso block B31, a spring member S31 for biasing the head block B32 in a direction toward the normal posture is interposed.
The pair of rear leg blocks B34L, 34R pivotally supported by the lower trunk block B30 is urged by a spring member S32 so as to push the rear leg blocks B34L, 34R apart by a predetermined angle. Further, the pair of front leg blocks B35L and 35R pivotally supported by the upper trunk block B31 are also urged by the spring member S33 so as to push the front leg blocks B35L and 35R apart by a predetermined angle.
Each of the spring members S30 to S34 of this embodiment is constituted by a coil type torsion spring.

On the other hand, the base 302 is constituted by a thin hollow housing having a rectangular shape in a plan view, as in the other embodiments described above, and is provided with a storage recess 306 for storing the toy body 303 in a folded state. Yes. The storage recess 306 includes a trunk storage part 306a, a rear leg storage part 306b, a front leg storage part 306c, and a bracket storage part 306e.
The torso storage portion 306a has a peripheral wall portion that is shaped substantially along the outer shape of the folded toy main body 303, and substantially matches the substantially U-shape of the upper torso block B31. The trunk storage unit 306a stores the upper trunk block B31 and the lower trunk block B30 that are folded in two. The pair of rear leg blocks 34L and 34R are stored in the rear leg storage portion 306b in a closed state. The pair of front leg blocks 35L and 35R are stored in the front leg storage portion 306c in a closed state. In the head storage portion 306d, the head block B32 is stored in a state of being rotated sideways. The bracket 20 that supports the lower trunk block B30 is stored in the bracket storage portion 306e.
The trunk storage part 306a is formed to meander in a substantially U shape from one end on the diagonal line L of the base 302 toward the other end, and the bracket storage part 306e is formed in a substantially U shape of the trunk storage part 306a. It is formed adjacent to the curved top. Therefore, the lower body block B30 and the upper body block B31 meander from one end side to the other end side of the diagonal line L of the base 302 in a state of being housed in the housing recess 306.
In this embodiment, the lower trunk block B30 constitutes a first base part, and the upper trunk block B31 constitutes a second base part.

In addition, an operating lever 308 that is rotatably supported by the support pin 11 is provided inside the base 302, and the operating lever 308 is biased by the spring member 12 around the support pin 11. The operation lever 308 is provided with an operation unit 9 (operation element) and a pair of locking

claws

4 and 4A. The operation portion 9 protrudes outward from the side portion of the base 302, and the pair of locking

claws

4 and 4A protrude so as to face the trunk storage portion 306a and the head storage portion 306d in the storage recess 306.
One latching claw 4 engages with the engaging projection 21 of the upper trunk block B31 housed in the trunk housing part 306a in the folded state, and the other latching claw 4A is twisted sideways and stored in the head. It engages with the engaging protrusion 22 of the head block B32 housed in the portion 306d.

17A, 17B, and 17C are diagrams sequentially illustrating the operation of the front leg blocks B35R and B35L when the toy main body 303 is stored.
As shown in the figure, when the pair of front leg blocks B35L and B35R are stored in the front leg storage part 306c, the front leg block B35R abuts against the bottom surface of the front leg storage part 306c to close both blocks B35L and B35R. The lever projection 23 is projected. When the hinge shaft H34 is pressed and locked downward into the housing recess 306 together with the upper body block B31, the lever projection 23 is made to move both blocks B35L and B35R to the spring member S33 by the lever action of the lever projection 23. Close each other against the power of.
A similar lever protrusion 23 is also provided on the rear leg block B34L.

In the above configuration, when the toy body 303 is stored in the base 302, the upper trunk block B31 is folded in two on the upper surface side of the lower trunk block B30 against the force of the spring member S30, and in this state Both blocks B30 and B31 are tilted forward against the force of the spring member S34. During this time, the head block B32 twists laterally against the force of the spring member S31.
Thus, when the upper trunk block B31 and the lower trunk block 30 are brought down to the deepest part, the front leg blocks B35L and B35R and the rear leg blocks B34L and B34R are closed by the action of the lever protrusion 23, and finally the upper trunk block The block B31 and the head block B32 are locked by the locking

claws

4 and 4A of the operation lever 308. As a result, the toy body 303 is held in the storage recess 306 and integrated with the base 302 so that the upper surface is flush.

Further, in the card-type toy 301 in which the toy body 303 is stored, the upper torso block B31 and the head block B32 are locked by the locking

claws

4 and 4A when the operation portion 9 of the operation lever 308 is pushed inward. The lower body block B30 is released by the urging force of the spring member S34. Further, the upper body block B31 is developed from the lower body block B30 by the urging force of the spring member S30, and the rear leg blocks B34L and B34R and the front leg blocks B35L and B35R are opened by the urging force of the spring members S32 and S33, respectively. The head block B32 twisted laterally is returned to the normal posture by the urging force of the spring member S31. At this time, the jaw block B33 is rotated and displaced downward by a predetermined angle due to gravity.
As a result, a three-dimensional toy body 303 appears instantly from the card-type toy 301 that has been a two-dimensional shape.

As described above, this card-type toy 301 can instantly change the toy main body 303 from a two-dimensional shape integrated with the base 302 to a final shape of a three-dimensional shape by a simple lever operation. It can give you a surprise as if things pop out.

In particular, in the case of this embodiment, the lower body block B30 and the upper body block B31 are housed in the housing recess 306 meandering from one end side to the other end side of the diagonal line L of the substantially rectangular base 302. The extension length when the upper torso block B31 is expanded from the lower torso block B30 can be made sufficiently longer than the length of each side of the base 302, giving a greater surprise to what you see. Can do.

In the card type toy 301 of this embodiment, the jaw block B33 is rotated downward by a predetermined angle by gravity when the toy body 303 is deployed. Therefore, a stable behavior of the jaw block B33 bent downward can be obtained without adding a spring member more than necessary.

The present invention is not limited to the above-described embodiment, and various design changes can be made without departing from the scope of the invention. For example, in each of the above-described embodiments, the spring member is used as the elastic member for expanding the toy body. However, the elastic member is not limited to the spring member, and may be rubber, resin, or the like. Further, the restraining means for restraining the toy main body to the base is not limited to the locking claw, and a member for holding the toy main body or a member for pressing from above can be used.

1, 101, 201, 301 ... card-type toys,
2,102,202,302 ... base,
3,103,203,303 ... toy body,
4 ... locking claw (restraint means),
6 ... Storage recess,
7 ... Sliding contact surface,
9 ... operation part (operator),
15 ... grounding part,
B1 ... Head and chest block (toy parts, base parts),
B2 ... Middle torso block (toy parts),
B3 ... Lower torso block (toy parts),
B4 ... Tail block (toy parts),
B5 ... Front leg block (toy parts, grounding part containing parts),
B6 ... Front leg block (toy parts, grounding part containing parts),
B5a, B6a ... tip (grounding part),
B7 ... Jaw block (toy parts, rotating parts),
B9 ... trunk block (toy parts),
H1 to H6 ... hinge shaft,
S1, S2, S3 ... Spring members (elastic members),
B10 ... Base block (toy parts, base parts, floating parts),
B11 ... Head block (toy parts, grounding part containing parts),
B12L ... Left trunk block (toy parts),
B12R ... Right body block (toy parts),
B13 ... Leg block (toy parts, grounding part containing parts),
B14 ... Base wing block (toy parts, base parts),
B15 ... Mediation block (toy parts, rotating parts, unfolded parts),
B16 ... Front wing block (toy parts, rotating parts, unfolded parts),
B11a, B13a ... tip (grounding part),
H10 to H15 ... hinge shaft,
S10 to S14 ... spring members (elastic members),
B20 ... trunk block (toy parts, rising parts, base parts, floating parts),
B21 ... Leg block (toy parts, support leg parts, grounding part-containing parts),
B22 ... Base block (toy parts),
B23 ... Front wing block (toy parts, unfolded parts),
B24 ... Head block (toy parts, rotating parts),
B25 ... Jaw block (toy parts, rotating parts),
B26 ... Arm blocks (toy parts, rotating parts),
H20 to H26 ... Hinge shaft,
S20 to S22: Spring member (elastic member),
B30 ... Lower torso block (toy parts, first base part),
B31 ... Upper trunk block (toy parts, second base part),
B32 ... Head block (toy parts),
B33 ... Jaw block (toy parts),
B34L, 34R ... Rear leg block (toy parts),
B35L, B35R ... Front leg block (toy parts),
H30 to H35 ... Hinge shaft,
S30 to S34: Spring member (elastic member)

Claims

A flat base,
A toy body that is stored flush with the base,
The base includes a storage recess for storing the toy body, a restraining means for restraining the toy body stored in the housing recess, and an operator for releasing the restraint of the toy body by the restraining means. Provided,
The toy body is urged by an elastic member so as to be able to expand upward from the storage recess of the base, and at least a part of the toy parts of the toy body is restrained by the restraining means, thereby A card-type toy held in a box.
The toy body includes a plurality of toy parts rotatably connected by a hinge shaft, and the plurality of toy parts are hinged by the elastic member so as to form a three-dimensional shape when deployed from the storage recess. The card type toy according to claim 1, wherein the card type toy is biased around.
The plurality of toy parts include a grounding part-containing part that stands up at the time of deployment and supports the load of the toy body,
A flat sliding contact surface on which the grounding part of the grounding part-containing part slides with the deployment behavior of the toy body when the toy body is deployed in the area where the grounding part-containing part is housed in the housing recess. The card type toy according to claim 2 provided.
The plurality of toy parts are connected to a floating part that receives an urging force of the elastic member at the time of deployment and at least a part of the floating part floats upward from the storage recess, and can be deployed to the floating part via the hinge shaft, A deployment part biased by the elastic member in the deployment direction,
The unfolded part is pressed and locked to the wall in the housing recess by the force of the elastic member biased in the unfolding direction in the state of being housed in the housing recess,
4. The card-type toy according to claim 2, wherein at least a part of the floating part is lifted upward from the storage recess, whereby the pressing and locking of the developed part by the wall in the storage recess is released.
The plurality of toy parts are pivotally supported at one end side thereof so as to be pivotable on the base, and disposed on the back side of the standup part so as to be pivotable on the standup part by the hinge shaft. And a supporting leg part biased by an elastic member that rotates the tip part from the other end side of the rising part to the one end side,
The support leg part is polymerized at the back of the other end side of the rising part and is stored in the storage recess together with the rising part, and the elastic body is expanded when the toy body is expanded from the storage recess. The card-type toy according to any one of claims 2 to 4, wherein the card-type toy slides on the base with the tip side as a fulcrum while rotating around the rising part under the urging force of the member.
The plurality of toy parts include a base part that receives an urging force of the elastic member during deployment and is displaced upward from the storage recess, and a rotating part that is rotatably supported by the base part.
The card-type toy according to any one of claims 2 to 5, wherein when the base part is displaced upward, the rotating part rotates to a predetermined posture by gravity acting on the rotating part.
The base is formed in a substantially rectangular shape in plan view,
The plurality of toy parts are stored in the storage recess and in a state of being stored in the storage recess, a first base part extending from one end on the diagonal of the base toward the other end. A second base part that is superimposed on the first base part and extends from one end side on the diagonal of the base toward the other end side;
The first base part and the second base part are rotatably connected by the hinge shaft between end portions in the extending direction, and are urged by the elastic member in a deploying direction from a two-fold state,
The card-type toy according to any one of claims 2 to 6, wherein the first base part is supported by a hinge shaft so as to be able to stand on the base and is urged in an upstanding direction by an elastic member.