JP2023053009A - Action toy - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an action toy that enables a user to recognize a rotation direction of a rotary member by the senses.

SOLUTION: An action toy 1 includes: a body part 2; a rotation part 3 that can rotate with respect to the body part 2; a lock part 5 that locks the rotation part 3 so that it cannot rotate; and driving means 20 that causes the rotation part 3 to rotate in one direction when the lock part 5 is released.

SELECTED DRAWING: Figure 1

COPYRIGHT: (C)2023,JPO&INPIT

Description

The present invention relates to motion toys.

The toy described in Patent Literature 1 has two detection units that detect the rotation of the rotating member, and outputs an effect according to the detection of each detection unit. The toy described in Patent Literature 2 detects rotation of a plurality of rotating members and outputs an effect.

JP 2016-106658 A JP 2015-202172 A

In the toy described in Patent Document 1 and the toy described in Patent Document 2, it is necessary for the user to carefully check the correct rotation direction of the rotating member.

SUMMARY OF THE INVENTION An object of the present invention is to provide an action toy that allows a user to intuitively recognize the direction in which a rotating member should be rotated.

An action toy according to the present invention comprises a main body, a rotating part rotatable with respect to the main body, a locking part for making the rotating part unrotatable, and the rotating part being locked when the locking part is released. and driving means for rotating in a direction.

Further, in the action toy according to the present invention, the driving means includes a cam provided on either one of the body portion and the rotating portion, and having an inclined surface inclined in the rotating direction of the rotating portion; and a follower that slides on the inclined surface, and a biasing member that elastically biases the follower toward the inclined surface.

Moreover, in the action toy according to the present invention, the driving means may include the center of gravity of the rotating portion that is off the rotation axis of the rotating portion.

Further, the motion toy according to the present invention may include a stopper for stopping the rotating part rotated by the driving means.

Further, in the action toy according to the present invention, the main body can be worn by the user, and when the user wearing the main body is viewed from the front, the rotating part is rotated by the driving means. It may be rotated clockwise.

Further, the action toy according to the present invention includes a sub-toy body having a performance output section and a switch for operating the performance output section, and the rotation section is a part to which the sub-toy body is detachably attached. It has one or more attachment parts, the attachment part includes a movable part capable of operating the switch of the sub-toy body attached to the attachment part, and the main body part responds to the rotation of the rotating part. It may have one or more guides that engage with the movable part and move the engaged movable part in the direction of operating the switch.

Further, in the action toy according to the present invention, a plurality of the mounting portions and the guides are provided at intervals in the rotation direction of the rotating portion, and the movable portions of the plurality of mounting portions are connected to the rotating portion. According to the rotation, the switches of the sub-toy bodies may be operated in synchronization with each other.

Further, in the movement toy according to the present invention, the plurality of guides are provided at positions that engage with the movable portions of the plurality of mounting portions in a state in which the rotating portion is locked by the locking portion. , where n is the number of the plurality of mounting portions and the plurality of guides, the sub toy body may operate the effect output portion when the switch is operated n+1 times.

Further, in the motion toy according to the present invention, the sub-toy body has a first switch and a second switch as the switches, and the rotating portion has a first mounting portion as the plurality of mounting portions. and a second mounting portion, wherein the movable portion of the first mounting portion operates the first switch of the sub-toy attached to the first mounting portion according to the rotation of the rotating portion. and the movable part of the second mounting part operates the second switch of the sub toy body mounted on the second mounting part according to the rotation of the rotating part, The auxiliary toy body whose first switch is operated by the movable portion outputs a first effect, and following the first effect, the second switch is operated by the movable portion of the second mounting portion. The sub-toy body may output the second effect.

Further, in the action toy according to the present invention, the effect output section may output an effect using at least one of light and sound.

According to the present invention, it is possible to provide an action toy that allows the user to intuitively recognize the direction in which the rotating member should be rotated.

BRIEF DESCRIPTION OF THE DRAWINGS It is a front view which shows an example of an action toy for describing embodiment of this invention. 2 is a plan view of the motion toy of FIG. 1; FIG. 2 is a front view showing the motion of the motion toy of FIG. 1; FIG. (A) and (B) are schematic diagrams showing the structure of a lock portion. FIG. 4 is a front view showing an arrangement example of driving means for rotating the rotating portion in one direction; It is a schematic diagram which shows the structure of a drive means. It is a schematic diagram which shows the structure of a drive means. (A) to (D) are front views sequentially showing how the rotating portion rotates. FIG. 2 is a functional block diagram of the motion toy of FIG. 1; It is a schematic diagram which shows the structural example of the identification information which a subtoy body holds. It is a schematic diagram which shows the structural example of the reading part which reads the identification information of the subtoy body attached to a 1st attachment part. It is a schematic diagram which shows the structural example of the reading part which reads the identification information of the subtoy body attached to a 2nd attachment part. FIG. 4 is a front view showing an example of arrangement of a moving mechanism that moves a movable part; It is a schematic diagram which shows the structure of a moving mechanism. It is a timing chart which shows the example of the production|presentation of a subtoy body.

1 and 2 show an example of an action toy for explaining an embodiment of the present invention, and FIG. 3 shows the action of the action toy of FIG. For the sake of explanation of the present embodiment, the direction in which the lock release button 6 (to be described later) exists is defined as "upward", and the opposite direction is defined as "downward". The direction in which 3 is present will be described as the "forward direction" and the opposite direction as the "backward direction".

The action toy 1 includes a body portion 2 and a rotating portion 3 rotatable with respect to the body portion 2 . A belt 4 is provided on the body portion 2, and the body portion 2 is configured to be attachable to, for example, the waist of the user.

The rotating portion 3 has a first attachment portion 7 and a second attachment portion 8 to which the sub-toy bodies 101 and 102 are detachably attached. The first mounting portion 7 and the second mounting portion 8 are provided at positions facing each other with a central portion 9 of the rotating portion 3 intersecting the rotation axis Z of the rotating portion 3 interposed therebetween. In the illustrated example, the sub-toy body 101 is attached to the first attachment portion 7, and the sub-toy body 102 is attached to the second attachment portion 8. , the sub-toy body 101 can be attached to the second attachment portion 8 as well.

The action toy 1 includes a lock part 5 for locking the rotation part 3 so that it cannot rotate, and an unlock button 6. - 特許庁When the rotating portion 3 is locked by the locking portion 5 , the direction in which the first mounting portion 7 and the second mounting portion 8 of the rotating portion 3 face each other is parallel to the extending direction of the belt 4 . The position of the rotating part 3 in which the facing direction of the first attachment part 7 and the second attachment part 8 is parallel to the extending direction of the belt 4 is hereinafter referred to as the lock position.

The lock release button 6 is provided on the main body 2 , and when the lock release button 6 is operated, the lock of the rotating section 3 is released. The rotating portion 3 is rotated by a predetermined angle in the direction of arrow A1 shown in FIG. 3 as the lock is released. The lock portion 5 and the driving means for rotating the rotating portion 3 by a predetermined angle as the lock is released will be described below.

FIG. 4 shows the locking part 5 .

Lock portion 5 has lock pin 10 and spring 11 . The lock pin 10 is supported by the body portion 2 so as to be movable along the rotation axis Z of the rotating portion 3 . The spring 11 elastically urges the lock pin 10 toward the rotating portion 3 side. A concave portion 12 is provided on the rear surface of the rotating portion 3 on the main body portion 2 side, and as shown in FIG. The convex portion 13 fits into the concave portion 12 . By fitting the convex portion 13 into the concave portion 12, the rotating portion 3 is locked so as not to rotate.

The lock release button 6 is supported by the body portion 2 so as to be movable in a direction intersecting the rotation axis Z of the rotating portion 3 . The lock pin 10 is inclined with respect to the direction of movement of the lock pin 10 and the direction of movement of the unlocking button 6 (in this embodiment, it is inclined from rear to front as it goes downward). A surface 14 is formed, and the unlocking button 6 is also formed with an inclined surface 15 that is similarly inclined (in this embodiment, inclined from rear to front as it goes downward). When the lock release button 6 is pushed in the direction of arrow A2 shown in FIG. The pin 10 is pushed toward the main body 2 along the direction of movement of the pin 10 . As a result, the convex portion 13 of the lock pin 10 is disengaged from the concave portion 12 and the lock of the rotating portion 3 is released.

5 to 7 show an example of driving means for rotating the rotating portion 3 by a predetermined angle as the lock is released.

The driving means 20 shown in FIGS. 5 to 7 comprise a cam 21, a follower 22 and a spring 23. As shown in FIG. The cam 21 is provided on the body portion 2, is formed in a substantially triangular shape, and is inclined in the direction of the arrow A1, which is the direction of rotation of the rotating portion 3 (in this embodiment, the cam 21 is inclined from the front as it goes downward). It has an inclined surface 24 which is slanted toward the rear. An edge portion 24e of the inclined surface 24 located on the outer diameter side when viewed from the rotation axis Z of the rotating portion 3 is inclined in the radial direction. The follower 22 is provided on the rotating portion 3 and is arranged on a circumference that intersects the cam 21 with the rotation axis Z of the rotating portion 3 as the center. ing. In this embodiment, the cam 21 is provided on the main body 2 and the follower 22 is provided on the rotating portion 3. Conversely, the cam 21 is provided on the rotating portion 3 and the follower 22 is provided on the rotating portion 3. You may make it provided in the main-body part 2. FIG.

When the rotating part 3 is locked, the follower 22 is located at a position P11 beyond the top of the triangular cam 21 in the direction of the arrow A1, and is positioned at the edge 24e at the upper end of the inclined surface 24 of the cam 21. in contact with When the lock of the rotating part 3 is released, the follower 22 biased by the spring 23 slides on the inclined surface 24 from the upper end to the lower end of the inclined surface 24, and as it slides, The rotating part 3 is rotated in the direction of arrow A1. By moving the follower 22 to the position P12 where the lower end of the inclined surface 24 is reached, the rotating portion 3 is rotated by a predetermined angle.

The rotating part 3 rotated by the predetermined angle by the driving means 20 is stopped by the stopper 25 . The stopper 25 is provided on the rotating portion 3 , is arranged on a circumference that intersects the cam 21 with the rotation axis Z of the rotating portion 3 as the center, and is elastically biased toward the main body portion 2 by a spring 26 . ing. When the rotating portion 3 is locked, the stopper 25 is at a position P21 away from the cam 21, and is moved to a position P22 in contact with the cam 21 by rotating the rotating portion 3 by a predetermined angle by the driving means 20. be. The rotating portion 3 is stopped at a position rotated by a predetermined angle from the locked position due to the contact between the stopper 25 and the cam 21 . When an external force that further rotates the rotating part 3 in the direction of arrow A1 is applied to the rotating part 3, the stopper 25 climbs over the top of the cam 21 and the stopper 25 is disengaged. As a result, the rotating part 3 is further rotated in the direction of the arrow A1.

FIG. 8 shows how the rotating portion 3 rotates. 8, the sub-toy body 101 is attached only to the first attachment portion 7. As shown in FIG.

In the present embodiment, the rotating portion 3 is configured to rotate counterclockwise when the user wearing the body portion 2 is viewed from the front. First, as shown in FIG. 8A, the rotating portion 3 is arranged at the locked position. When the user operates the lock release button 6, the lock of the rotating portion 3 is released. As shown in FIG. 8B, when the lock of the rotating portion 3 is released, the rotating portion 3 is rotated by the driving means 20 in the direction of the arrow A1 (counterclockwise) by a predetermined angle, and is stopped by the stopper 25. be done. At this time, since the convex portion 13 of the lock pin 10 is displaced from the concave portion 12, even if the lock release button 6 is released, the lock of the rotary portion 3 remains unlocked.

Thereafter, for example, when the user pushes down the first mounting portion 7 vigorously, the stopper 25 is released, and the rotating portion 3 is further rotated in the direction of the arrow A1 as shown in FIG. 8(C). Then, as shown in FIG. 8(D), when the rotating portion 3 rotates once and returns to the locked position, the rotating portion 3 is locked by the locking portion 5 again. According to the action toy 1 configured in this way, the rotation part 3 is rotated by a predetermined angle in one direction when the lock release button 6 is operated. The direction to rotate) can be easily recognized by the user.

In this example, the rotating part 3 is rotated in one direction by a driving means 20 having a cam 21, a follower 22 and a spring 23. The driving means consists of the cam 21, follower 22 and spring 23. is not limited to those having For example, the center of gravity of the rotating part 3 may be provided at a position away from the rotation axis Z of the rotating part 3. In this case, when the lock of the rotating part 3 is released, the position of the center of gravity is directed downward. , the rotating part 3 rotates in one direction.

From the viewpoint of enhancing the interest of the action toy 1, the rotation part 3 is configured to be capable of outputting effects by attaching sub-toy bodies 101 and 102 to the first attachment part 7 and/or the second attachment part 8. As shown in FIG. The sub-toy bodies 101 and 102 are also attached to the first attachment portion 7 or the second attachment portion 8, and are configured to be capable of outputting effects by being rotated integrally with the rotating portion 3.

FIG. 9 shows functional blocks of the motion toy 1. As shown in FIG.

The sub-toy bodies 101 and 102 have unique identification information ID. The rotating portion 3 includes a first reading portion 30 and a second reading portion 31 for reading the identification information ID of the sub-toy bodies 101 and 102, a main effect output portion 32, and a main effect output portion 32 that stores operation data and the like of the main effect output portion 32. It has a storage unit 33 and a main control unit 34 .

The first reading section 30 is provided on the first attachment section 7 and reads the identification information ID of the sub-toy bodies 101 and 102 attached to the first attachment section 7 . The second reading section 31 is provided on the second attachment section 8 and reads the identification information ID of the sub-toy bodies 101 and 102 attached to the second attachment section 8 .

In this example, the main effect output unit 32 uses a display such as a dot matrix LED (Light Emitting Diode) capable of displaying characters, symbols, and images, and is provided in the central portion 9 of the rotating unit 3. . Note that the presentation is not limited to the display of characters, symbols, and images, and may be one using sound or light, and various devices are used according to the presentation.

The main storage unit 33 includes storage media such as ROM (Read Only Memory) and RAM (Random Access Memory), and stores programs executed by the main control unit 34 and identification information for the sub-toy bodies. Stores operational data.

The main control unit 34 is mainly composed of a microprocessor, and operates according to a program stored in the main storage unit 33 to comprehensively control the operation of each part of the rotating unit 3 . The main control unit 34 reads the action data corresponding to the identification information ID read by the first reading unit 30 or the second reading unit 31 from the main storage unit 33, and controls the main effect output unit 32 based on the read action data. make it work.

The sub-toy body 101 includes a detection portion 110 for detecting the attachment of the rotating portion 3 to the first attachment portion 7 or the second attachment portion 8 and the rotation of the rotating portion 3, a sub-effect output portion 111, and a sub-effect output portion 111. and a sub-controller 113 and a sub-storage unit 112 storing operation data and the like. The sub toy body 102 also has a detection section 110 , a sub effect output section 111 , a sub storage section 112 and a sub control section 113 .

The sub-effect output unit 111 includes sound generators such as speakers and light-emitting bodies such as LEDs (Light Emitting Diodes), and is configured to be capable of outputting effects using sound and light. The sub-storage unit 112 includes storage media such as ROM and RAM, and the sub-control unit 113 is mainly composed of a microprocessor.

The sub-storage unit 112 stores first motion data and second motion data as motion data. The first motion data corresponds to an effect that is output when the sub-toys 101 and 102 are attached to the first attachment portion 7 or the second attachment portion 8, and the second motion data corresponds to the effect that the rotation portion 3 is 1 It corresponds to the production that outputs at the rotated timing.

When the detection unit 110 detects that the sub-toy bodies 101 and 102 are attached to the first attachment unit 7 or the second attachment unit 8, the sub-control unit 113 reads the first motion data from the sub-storage unit 112. , the auxiliary effect output unit 111 is operated based on the read first action data. Further, when the detection unit 110 detects that the rotating unit 3 has made one rotation, the sub-control unit 113 reads the second action data from the sub-storage unit 112, and performs sub-effect based on the read second action data. The output unit 111 is operated.

FIG. 10 shows a configuration example of the identification information ID held by the sub-toy body 101 and the detection section 110 for detecting the attachment of the rotating section 3 to the first mounting section 7 or the second mounting section 8 and the rotation of the rotating section 3. . 11 shows a configuration example of the first mounting portion 7 of the rotating portion 3, and FIG. 12 shows a configuration example of the second mounting portion 8 of the rotating portion 3. As shown in FIG.

As shown in FIG. 10, the sub-toy body 101 has a rail on the surface facing the rotating part 3 that defines the mounting direction when the sub-toy body 101 is mounted on the first mounting part 7 or the second mounting part 8. 40 , a plurality of protrusions 41 forming identification information ID, and a first switch 42 and a second switch 43 forming a detection unit 110 .

The plurality of protrusions 41 are arranged in a matrix, and the arrangement pattern of the protrusions 41 constitutes identification information ID. In this example, projections 41 are provided at six positions among nine matrix elements arranged in a matrix of three columns in the X direction and three rows in the Y direction.

As shown in FIG. 11, the first mounting portion 7 of the rotating portion 3 includes a rail guide 50 that engages with the rail 40 of the sub-toy body 101 and a first reading portion 30 that reads the identification information ID of the sub-toy body 101. It has a first switch 51 to a third switch 53 and a movable pressing portion 54 and a fixed pressing portion 55 capable of pressing the first switch 42 and the second switch 43 of the sub-toy body 101 .

The first switch 51 to the third switch 53 are arranged side by side in the X direction. 53 , then the second row of projections passes through the first switch 51 to the third switch 53 , and finally the third row of projections passes through the first switch 51 to the third switch 53 . As a result, the arrangement pattern of the plurality of protrusions 41 is detected, and the identification information ID is read.

The movable pressing portion 54 protrudes from the surface of the first mounting portion 7 and sinks into the interior of the first mounting portion 7 according to the rotation of the rotating portion 3 . The movable pressing portion 54 protrudes from the surface of the first attachment portion 7 at least when the rotating portion 3 is arranged in the locked position, and by protruding, the sub-toy body 101 attached to the first attachment portion 7 is pushed forward. 1 switch 42 is pressed. On the other hand, the fixed pressing portion 55 is fixedly provided so as to protrude from the surface of the first attachment portion 7, and always presses the second switch 43 of the sub-toy body 101 attached to the first attachment portion 7. .

When the sub-toy body 101 is attached to the first mounting part 7 in a state where the rotating part 3 is arranged at the locked position, the first switch 42 and the second switch 43 of the sub-toy body 101 are operated by the movable pressing part 54 and the It is detected that the auxiliary toy body 101 is attached to the first attachment portion 7 by being pressed by the fixed pressing portion 55 . In addition, in the process in which the rotating portion 3 rotates once and returns to the locked position, the movable pressing portion 54 repeats protrusion and retraction, and the first switch 42 is turned on/off a predetermined number of times. Thereby, it is detected that the rotating part 3 has made one rotation.

Similarly to the first mounting portion 7, the second mounting portion 8 of the rotating portion 3 also includes the rail guide 50 and the first switch 51 to the second reading portion 31 for reading the identification information ID of the sub-toy body 101. It has 3 switches 53 and a movable pressing portion 54 and a fixed pressing portion 55 capable of pressing the first switch 42 and the second switch 43 of the sub-toy body 101 .

Here, as shown in FIG. 12, the sub-toy body 101 can also be attached to the second attachment portion 8 by arranging it upside down and left and right. The arrangement of the first switch 51 to the third switch 53 on the second attachment portion 8 and the arrangement of the first switch 51 to the third switch 53 on the first attachment portion 7 are vertically reversed. Identification information ID read by the first reading unit 30 by detecting the arrangement pattern of the projections 41 of the sub-toy body 101 and identification read by the second reading unit 31 by detecting the arrangement pattern of the projections 41 of the sub-toy body 101 information ID becomes the same.

On the other hand, the arrangement of the movable pressing portion 54 and the fixed pressing portion 55 in the second mounting portion 8 and the arrangement of the movable pressing portion 54 and the fixed pressing portion 55 in the first mounting portion 7 are the same vertically. Therefore, when the auxiliary toy body 101 is attached to the second attachment portion 8, the second switch 43 is turned on/off a predetermined number of times in the process in which the rotating portion 3 rotates once and returns to the locked position. Depending on which of the first switch 42 and the second switch 43 is turned on/off according to the rotation of the rotating part 3, the auxiliary toy body 101 is attached to either the first attachment part 7 or the second attachment part 8. It is also detected if there is

13 and 14 show the movement mechanism of the movable pressing portion 54. FIG.

A moving mechanism 60 for projecting and recessing the movable pressing portions 54 of the first mounting portion 7 and the second mounting portion 8 of the rotating portion 3 has a pair of guides 61 . The pair of guides 61 protrude toward the rotating portion 3 behind the movable pressing portions 54 of the first mounting portion 7 and the second mounting portion 8 when the rotating portion 3 is arranged at the locked position. It is provided in the body portion 2 and formed in a substantially trapezoidal shape. The movable pressing portion 54 is arranged on a circumference centered on the rotation axis Z of the rotating portion 3 and intersects with the guide 61 , and is elastically biased toward the main body portion 2 by a spring 62 .

When the rotating portion 3 is arranged at the locked position, the movable pressing portion 54 of the first mounting portion 7 rides on one of the guides 61 and is arranged to protrude from the surface of the first mounting portion 7 . When the rotating portion 3 is rotated by 180° from the locked position, the movable pressing portion 54 of the first mounting portion 7 rides over the other guide 61 and protrudes from the surface of the first mounting portion 7 . Similarly, the movable pressing portion 54 of the second mounting portion 8 rides on the guide 61 when the rotating portion 3 is arranged at the locked position and rotated 180° from the locked position, and the second mounting portion 8 is moved. It is arranged to protrude from the surface.

Assuming that the number of guides 61 is n (in this example, n=2), the first mounting portion 7 is movable until the rotating portion 3 rotates once from the locked position to the locked position. The pressing portion 54 is arranged to protrude from the surface of the first mounting portion 7 n+1 times, counting the first protrusion in the state of being placed in the locked position. In other words, assuming that the sub-toy body 101 is attached to the first mounting portion 7, the first switch 42 of the sub-toy body 101 is turned on in the lock position. , the first switch 42 of the sub-toy body 101 is turned on n+1 times until the rotating part 3 is rotated once from the locked position and returned to the locked position. Assuming that the sub toy body 101 is attached to the second mounting portion 8, turning on the second switch 43 of the sub toy body 101 in the lock position is counted as the first time. Then, the second switch 43 of the sub-toy body 101 is turned on n+1 times until the rotating part 3 is rotated once from the locked position to the locked position. In this way, when the first switch 42 or the second switch 43 of the subtoy body 101 is turned on n+1 times, it is detected that the rotating part 3 has made one rotation, and either the first switch 42 or the second switch 43 is turned on. is turned on/off, it is also detected to which of the first attachment portion 7 and the second attachment portion 8 the sub-toy body 101 is attached.

FIG. 15 shows an example of effects output from the sub-toy 101 attached to the first attachment portion 7 and the sub-toy 102 attached to the second attachment portion 8 . The sub-toy body 101 and the sub-toy body 102 may be sub-toy bodies of the same type or sub-toy bodies of different types.

First, the sub-toy body 101 is attached to the first attachment portion 7 at time T1. At this time, the first switch 42 of the sub-toy body 101 is pressed by the movable pressing part 54 of the first mounting part 7, and at the same time, the second switch 43 is pressed by the fixed pressing part 55, which is stored in the sub-toy body 101. The sub-toy body 101 outputs a wearing presentation corresponding to the first motion data. Subsequently, at time T2, the sub-toy body 102 is attached to the second attachment portion 8. As shown in FIG. At this time, the second switch 43 of the sub-toy body 102 is pressed by the movable pressing part 54 of the second mounting part 8, and at the same time, the first switch 42 is pressed by the fixed pressing part 55, which is stored in the sub-toy body 102. A wearing effect corresponding to the first motion data that is being played is output from the sub-toy body 102. - 特許庁Then, at time T3 after the output of the wearing effect by the sub toy body 101 is completed and the output of the wearing effect by the sub toy body 102 is completed, the rotating part 3 is rotated once.

The sub-toys 101 and 102 each detect that the rotating part 3 has made one rotation, and the sub-toy 101 executes an effect corresponding to the second motion data stored in the sub-toy 101. Then, the sub toy body 102 also executes an effect corresponding to the second action data stored in the sub toy body 102 in synchronization with the sub toy body 101 .

Here, the second action data includes a first effect selected based on turning on/off the first switch 42 and a second effect selected based on turning on/off the second switch 43. have The first effect of the second action data is executed during the first half of the execution time of the second action data, and the second effect is executed during the latter half of the execution time of the second action data. The sub toy body 101 recognizes that it is attached to the first attachment portion 7 based on the ON/OFF of the first switch 42, and selects and outputs the first effect of the second action data. On the other hand, the sub toy body 102 recognizes that it is attached to the second attachment portion 8 based on the ON/OFF of the second switch 43, selects and outputs the second effect of the second action data. do. In this case, the sub toy body 101 outputs the first effect, and following this first effect, the sub toy body 102 outputs the second effect. In this way, when the second effect in the latter half is output following the first effect in the first half, the interaction between the sub-toy bodies 101 and 102 can be realized, thereby further increasing interest. can be done.

In the example shown in FIG. 15, the output of the wearing effect of the sub toy body 102 is started after the output of the wearing effect of the sub toy body 101 is completed. The sub-toy body 102 may be attached to the second attachment portion 8, and the attachment presentation of the sub-toy body 101 and the attachment presentation of the sub-toy body 102 may be superimposed. Further, in the above embodiment, an example in which the switch is operated by pressing the switch has been described, but the present invention is not limited to this as long as it is operated by operating the switch. For example, the operation may be performed by recognizing the change between on and off of the switch by releasing the pressing of the switch.

1 Motion toy 2 Main body 3 Rotating part 4 Belt 5 Lock part 6 Unlock button 7 First mounting part 8 Second mounting part 9 Central part 10 Lock pin 11 Spring 12 Concave part 13 Protruding part 14 Inclined surface 15 Inclined surface 20 Driving means 21 Cam 22 Follower 23 Spring 24 Inclined surface 25 Stopper 26 Spring 30 First reading unit 31 Second reading unit 32 Main effect output unit 33 Main storage unit 34 Main control unit 40 Rail 41 Projection 42 First switch 43 Second switch 50 Rail Guide 51 First switch 53 Third switch 54 Movable pressing part 55 Fixed pressing part 60 Moving mechanism 61 Guide 62 Spring 101 Sub-toy body 102 Sub-toy body 110 Detection part 111 Sub-effect output part 112 Sub-storage part 113 Sub-control part A1 Arrow A2 Arrow ID Identification information LED Dot matrix P11 Position P12 Position P21 Position P22 Position T1 Time T2 Time T3 Time Z Rotation axis

An action toy according to the present invention comprises a main body, a rotating part rotatable with respect to the main body, a locking part for making the rotating part unrotatable, and the rotating part being locked when the locking part is released. and a driving means for rotating in a direction . Further, the action toy according to the present invention includes a main body, a rotating part rotatable with respect to the main body, a locking part for locking the rotating part so that it cannot rotate, and a rotating part that rotates when the locking part is released. a drive unit for rotating the part, the rotating part having one or more mounting parts to which a sub-toy body having a presentation output part is detachably mounted, and the rotating part and the sub-toy body They can rotate together.

Claims (10)

a main body;
a rotating portion rotatable with respect to the main body;
a locking portion that locks the rotating portion so that it cannot rotate;
a driving means for rotating the rotating portion in one direction as the locking portion is released;
A motion toy comprising: The motion toy of claim 1, wherein
The drive means
a cam provided on one of the main body portion and the rotating portion and having an inclined surface inclined in the rotating direction of the rotating portion;
a follower provided on the other of the main body portion and the rotating portion and sliding on the inclined surface;
a biasing member that elastically biases the follower toward the inclined surface;
motion toys including 3. The motion toy according to claim 1 or 2,
The moving toy, wherein the drive means includes a center of gravity of the rotating part that is offset from an axis of rotation of the rotating part. A motion toy according to any one of claims 1 to 3,
An action toy comprising a stopper for stopping the rotating part rotated by the driving means. A motion toy according to any one of claims 1 to 4,
The main body can be worn by a user, and the rotating part is rotated counterclockwise by the driving means when the user wearing the main body is viewed from the front.
A motion toy according to any one of claims 1 to 5,
a sub-toy body having an effect output section and a switch for activating the effect output section;
The rotating part has one or more mounting parts to which the secondary toy body is detachably mounted,
The attachment portion includes a movable portion capable of operating the switch of the sub-toy body attached to the attachment portion,
The body portion is an action toy having one or more guides that engage with the movable portion according to the rotation of the rotating portion and move the engaged movable portion in a direction for operating the switch. 7. The motion toy of claim 6, wherein
A plurality of the mounting portions and the guides are provided at intervals in the rotation direction of the rotating portion,
The movable parts of the plurality of mounting parts operate the switches of the sub-toy body in synchronization with each other according to the rotation of the rotating part. 8. The motion toy of claim 7, wherein
The plurality of guides are provided at positions where they engage with the movable portions of the plurality of mounting portions in a state in which the rotating portion is locked by the lock portion,
Where n is the number of the plurality of mounting portions and the plurality of guides, the sub-toy body operates the performance output portion when the switch is operated n+1 times. The motion toy according to claim 7 or 8,
The secondary toy body has a first switch and a second switch as the switches,
The rotating portion has a first mounting portion and a second mounting portion as the plurality of mounting portions,
The movable part of the first mounting part operates the first switch of the sub toy body mounted on the first mounting part according to the rotation of the rotating part,
The movable portion of the second mounting portion operates the second switch of the sub toy attached to the second mounting portion according to the rotation of the rotating portion,
The auxiliary toy body whose first switch is operated by the movable portion of the first mounting portion outputs a first effect, and following the first effect, the second effect is generated by the movable portion of the second mounting portion. An action toy in which the sub-toy body operated by the 2-switch outputs a second effect. A motion toy according to any one of claims 6 to 9,
The performance output unit is an action toy that outputs a performance by at least one of light and sound.

Images