JP7745700B2 - moving toys - Google Patents

Description

The present invention relates to a moving toy.

The toy described in Patent Document 1 has two detection units that detect the rotation of the rotating member, and outputs effects in response to the detection by each detection unit. The toy described in Patent Document 2 detects the rotation of multiple rotating members and outputs effects.

JP 2016-106658 A Japanese Patent Application Laid-Open No. 2015-202172

In the toys described in Patent Document 1 and Patent Document 2, the user had to carefully check the correct rotation direction of the rotating member.

The present invention aims to provide a moving toy that allows the user to intuitively recognize the direction in which the rotating member should be rotated.

The moving toy according to the present invention comprises a main body, a rotating part rotatable relative to the main body, a locking part that disables the rotation of the rotating part, and a driving means that rotates the rotating part in one direction when the locking part is released . The moving toy according to the present invention also comprises a main body, a rotating part rotatable relative to the main body, a locking part that disables the rotation of the rotating part, and one or more attachment parts to which a secondary toy object having a performance output part is detachably attached, wherein a first performance is output from the performance output part when it is detected that the secondary toy object has been attached to the attachment part, and a second performance is output from the performance output part when it is detected that the secondary toy object has rotated.

In addition, in the action toy of the present invention, the driving means may include a cam provided on either the main body or the rotating part and having an inclined surface inclined in the rotational direction of the rotating part, a follower provided on the other of the main body or the rotating part and sliding on the inclined surface, and a biasing member that elastically biases the follower toward the inclined surface.

Furthermore, in the moving toy of the present invention, the driving means may include a center of gravity of the rotating part that is off the rotation axis of the rotating part.

The moving toy according to the present invention may also be provided with a stopper that stops the rotating part rotated by the driving means.

Furthermore, in the action toy according to the present invention, the main body may be wearable by a user, and when the user wearing the main body is viewed from the front, the rotating part may be rotated counterclockwise by the driving means.

Furthermore, the action toy according to the present invention may include a secondary toy body having a performance output unit and a switch for activating the performance output unit, the rotating unit having one or more attachment parts to which the secondary toy body is detachably attached, the attachment parts including a movable part capable of operating the switch of the secondary toy body attached to the attachment parts, and the main body having one or more guides that engage with the movable part in response to rotation of the rotating unit and move the engaged movable part in a direction to operate the switch.

Furthermore, in the moving toy of the present invention, the attachment parts and the guides may be provided in multiple locations spaced apart in the rotational direction of the rotating part, and the movable parts of the multiple attachment parts may operate the switches of the sub-toy body in synchronization with each other in response to the rotation of the rotating part.

In addition, in the moving toy of the present invention, the guides are positioned so as to engage with the movable parts of the attachment parts when the rotating part is locked by the locking part, and the sub-toy body may activate the performance output part when the switch is operated n+1 times, where n is the number of attachment parts and guides.

In addition, in the moving toy of the present invention, the secondary toy object may have a first switch and a second switch as the switch, the rotating unit may have a first mounting unit and a second mounting unit as the multiple mounting units, the movable unit of the first mounting unit operates the first switch of the secondary toy object attached to the first mounting unit in response to rotation of the rotating unit, and the movable unit of the second mounting unit operates the second switch of the secondary toy object attached to the second mounting unit in response to rotation of the rotating unit, the secondary toy object whose first switch is operated by the movable unit of the first mounting unit may output a first effect, and following the first effect, the secondary toy object whose second switch is operated by the movable unit of the second mounting unit may output a second effect.

Furthermore, in the moving toy according to the present invention, the effect output unit may output effects using at least one of light and sound.

This invention provides a moving toy that allows the user to intuitively recognize the direction in which the rotating member should be rotated.

1 is a front view showing an example of a moving toy for explaining an embodiment of the present invention. FIG. 2 is a plan view of the action toy of FIG. 1; 2 is a front view showing the operation of the action toy of FIG. 1. FIG. 10A and 10B are schematic diagrams showing the structure of a locking portion. FIG. 10 is a front view showing an example of the arrangement of a driving means for rotating a rotating part in one direction. FIG. 2 is a schematic diagram showing the structure of a driving means. FIG. 2 is a schematic diagram showing the structure of a driving means. 10A to 10D are front views showing the rotation of the rotating part in order. FIG. 2 is a functional block diagram of the action toy of FIG. 1 . 10A and 10B are schematic diagrams showing examples of the configuration of identification information held by a sub-toy object. 10 is a schematic diagram showing an example of the configuration of a reading unit that reads the identification information of the sub-toy object attached to the first attachment unit. FIG. 10 is a schematic diagram showing an example of the configuration of a reading unit that reads the identification information of the sub-toy object attached to the second attachment unit. FIG. FIG. 10 is a front view showing an example of the arrangement of a moving mechanism that moves a movable part. FIG. 2 is a schematic diagram showing the structure of a movement mechanism. 10 is a timing chart showing an example of the presentation of the sub-toy body.

Figures 1 and 2 show an example of a moving toy to explain an embodiment of the present invention, and Figure 3 shows the movement of the moving toy in Figure 1. For the purpose of explaining this embodiment, the direction in which the unlock button 6 (described below) is located will be referred to as the "upward direction," and the opposite direction will be referred to as the "downward direction." Furthermore, the direction in which the rotating unit 3 is located along the rotation axis Z of the rotating unit 3 will be referred to as the "forward direction," and the opposite direction will be referred to as the "rearward direction."

The action toy 1 comprises a main body 2 and a rotating part 3 that can rotate relative to the main body 2. A belt 4 is provided on the main body 2, and the main body 2 is configured to be worn, for example, around the user's waist.

The rotating unit 3 has a first mounting portion 7 and a second mounting portion 8 to which secondary toy bodies 101, 102 are detachably attached. The first mounting portion 7 and the second mounting portion 8 are located opposite each other, sandwiching a central portion 9 of the rotating unit 3 that intersects with the rotation axis Z of the rotating unit 3. In the illustrated example, the secondary toy body 101 is attached to the first mounting portion 7 and the secondary toy body 102 is attached to the second mounting portion 8, but the secondary toy body 101 can also be attached to the second mounting portion 8 by, for example, positioning the secondary toy body 101 upside down and left to right.

The moving toy 1 includes a locking unit 5 that locks the rotating unit 3 so that it cannot rotate, and an unlock button 6. When the rotating unit 3 is locked by the locking unit 5, the opposing direction of the first mounting unit 7 and the second mounting unit 8 of the rotating unit 3 is parallel to the extension direction of the belt 4. The position of the rotating unit 3 in which the opposing direction of the first mounting unit 7 and the second mounting unit 8 is parallel to the extension direction of the belt 4 is hereinafter referred to as the locked position.

The unlock button 6 is provided on the main body 2, and operating the unlock button 6 unlocks the rotating unit 3. When the lock is released, the rotating unit 3 rotates a predetermined angle in the direction of arrow A1 shown in Figure 3. Below, we will explain the lock unit 5 and the drive means that rotates the rotating unit 3 a predetermined angle when the lock is released.

Figure 4 shows the locking section 5.

The locking unit 5 has a locking pin 10 and a spring 11. The locking pin 10 is supported by the main body 2 so that it can move along the rotation axis Z of the rotating unit 3. The spring 11 elastically biases the locking pin 10 toward the rotating unit 3. A recess 12 is provided on the back surface of the rotating unit 3 facing the main body 2, and as shown in Figure 4 (A), when the rotating unit 3 is in the locked position, the protrusion 13 of the locking pin 10 fits into the recess 12. When the protrusion 13 fits into the recess 12, the rotating unit 3 is locked so that it cannot rotate.

The unlock button 6 is supported by the main body 2 so that it can move in a direction intersecting the rotation axis Z of the rotating unit 3. The lock pin 10 has an inclined surface 14 that is inclined relative to the movement direction of the lock pin 10 and the movement direction of the unlock button 6 (in this embodiment, the inclination is from rear to front as it moves downward), and the unlock button 6 has an inclined surface 15 that is similarly inclined (in this embodiment, the inclination is from rear to front as it moves downward). When the unlock button 6 is pressed in the direction of arrow A2 shown in Figure 4 (B), the inclined surface 15 of the unlock button 6 slides over the inclined surface 14 of the lock pin 10, and the inclined surface 14 is pushed toward the main body 2 in the movement direction of the lock pin 10. This disengages the convex portion 13 of the lock pin 10 from the concave portion 12, unlocking the rotating unit 3.

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

The driving means 20 shown in Figures 5 to 7 includes a cam 21, a follower 22, and a spring 23. The cam 21 is provided on the main body 2 and is formed in a substantially triangular shape. It has an inclined surface 24 that is inclined in the direction of arrow A1, which is the rotation direction of the rotating unit 3 (in this embodiment, it is inclined from front to rear as it goes downward). The edge 24e of the inclined surface 24, which is located on the outer diameter side when viewed from the rotation axis Z of the rotating unit 3, is inclined in the radial direction. The follower 22 is provided on the rotating unit 3 and is arranged on a circumference that intersects with the cam 21 and is centered on the rotation axis Z of the rotating unit 3. The follower 22 is elastically biased toward the main body 2 by the spring 23. Note that this embodiment describes a configuration in which the cam 21 is provided on the main body 2 and the follower 22 is provided on the rotating unit 3; however, the cam 21 may be provided on the rotating unit 3 and the follower 22 may be provided on the main body 2.

When the rotating unit 3 is locked, the follower 22 is at position P11, beyond the apex of the triangular cam 21 in the direction of arrow A1, and is in contact with the edge 24e at the upper end of the inclined surface 24 of the cam 21. When the rotating unit 3 is unlocked, the follower 22, biased by the spring 23, slides along the inclined surface 24 from the upper end to the lower end, rotating the rotating unit 3 in the direction of arrow A1 as it slides. When the follower 22 moves to position P12, where it reaches the lower end of the inclined surface 24, the rotating unit 3 is rotated a predetermined angle.

The rotating unit 3, rotated a predetermined angle by the driving means 20, is stopped by a stopper 25. The stopper 25 is provided on the rotating unit 3 and is positioned on a circumference that intersects with the cam 21 around the rotation axis Z of the rotating unit 3. The stopper 25 is elastically biased toward the main body unit 2 by a spring 26. When the rotating unit 3 is locked, the stopper 25 is at position P21, spaced apart from the cam 21. When the rotating unit 3 is rotated a predetermined angle by the driving means 20, the stopper 25 is moved to position P22, where it contacts the cam 21. The contact between the stopper 25 and the cam 21 stops the rotating unit 3 at a position rotated a predetermined angle from the locked position. When an external force that rotates the rotating unit 3 further in the direction of arrow A1 is applied to the rotating unit 3, the stopper 25 climbs over the top of the cam 21 and disengages. This allows the rotating unit 3 to further rotate in the direction of arrow A1.

Figure 8 shows the rotating part 3 rotating. Note that in Figure 8, the secondary toy body 101 is attached only to the first attachment part 7.

In this embodiment, the rotating unit 3 is configured to rotate counterclockwise when viewed from the front of a user wearing the main body 2. First, as shown in Figure 8 (A), the rotating unit 3 is placed in the locked position. The user operates the unlock button 6 to unlock the rotating unit 3. As shown in Figure 8 (B), when the rotating unit 3 is unlocked, the driving means 20 rotates the rotating unit 3 a predetermined angle in the direction of arrow A1 (counterclockwise) and the stopper 25 stops it. At this time, the convex portion 13 of the lock pin 10 is misaligned with the concave portion 12, so the rotating unit 3 remains unlocked even when the unlock button 6 is released.

Then, for example, if the user presses down on the first attachment portion 7 with force, the stopper 25 is released, and the rotating portion 3 is further rotated in the direction of 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 again by the locking portion 5. With a moving toy 1 configured in this way, the rotating portion 3 is rotated in one direction a predetermined angle when the unlock button 6 is operated, allowing the user to easily recognize the appropriate rotation direction of the rotating portion 3 (the direction in which the rotating portion 3 should be rotated).

In this example, the rotating unit 3 is rotated in one direction by a driving means 20 having a cam 21, a follower 22, and a spring 23; however, the driving means is not limited to one having a cam 21, a follower 22, and a spring 23. For example, the center of gravity of the rotating unit 3 may be located at a position that is off the rotation axis Z of the rotating unit 3. In this case, when the rotating unit 3 is unlocked, the rotating unit 3 rotates in one direction so that the center of gravity faces downward.

In order to enhance the entertainment value of the moving toy 1, the rotating unit 3 is configured to be able to output a performance by attaching the secondary toy bodies 101, 102 to the first mounting unit 7 and/or the second mounting unit 8. The secondary toy bodies 101, 102 are also attached to the first mounting unit 7 or the second mounting unit 8 and rotate integrally with the rotating unit 3, allowing for a performance output.

Figure 9 shows the functional blocks of the moving toy 1.

The secondary toy bodies 101 and 102 have unique identification information IDs. The rotating unit 3 has a first reading unit 30 and a second reading unit 31 that read the identification information IDs of the secondary toy bodies 101 and 102, a main performance output unit 32, a main memory unit 33 that stores operation data and the like for the main performance output unit 32, and a main control unit 34.

The first reading unit 30 is provided on the first mounting portion 7 and reads the identification information ID of the secondary toy objects 101, 102 attached to the first mounting portion 7. The second reading unit 31 is provided on the second mounting portion 8 and reads the identification information ID of the secondary toy objects 101, 102 attached to the second mounting portion 8.

In this example, the main performance output unit 32 uses a display such as a dot matrix LED (Light Emitting Diode) capable of displaying letters, symbols, and images, and is provided in the center 9 of the rotating unit 3. Note that the performance is not limited to the display of letters, symbols, and images, and may also use sound or light, and various devices are used depending on the performance.

The main memory 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 operation data corresponding to the identification information of the secondary toy objects.

The main control unit 34 is primarily configured with a microprocessor and operates in accordance with the program stored in the main memory unit 33, thereby providing overall control over the operation of each part of the rotating unit 3. The main control unit 34 reads from the main memory unit 33 the operation data corresponding to the identification information ID read by the first reading unit 30 or the second reading unit 31, and operates the main performance output unit 32 based on the read operation data.

The secondary toy body 101 has a detection unit 110 that detects the attachment of the rotating part 3 to the first attachment part 7 or the second attachment part 8 and the rotation of the rotating part 3, a secondary performance output unit 111, a secondary memory unit 112 that stores operation data and the like of the secondary performance output unit 111, and a secondary control unit 113. The secondary toy body 102 also has a detection unit 110, a secondary performance output unit 111, a secondary memory unit 112, and a secondary control unit 113.

The sub-performance output unit 111 includes sound-producing devices such as speakers and light-emitting devices such as LEDs (Light Emitting Diodes), and is configured to be able to output performances using sound and light. The sub-storage unit 112 includes storage media such as ROM and RAM, and the sub-control unit 113 is primarily composed of a microprocessor.

The sub-storage unit 112 stores first operation data and second operation data as operation data. The first operation data corresponds to the effect that is output when the sub-toy body 101, 102 is attached to the first attachment part 7 or the second attachment part 8, and the second operation data corresponds to the effect that is output when the rotating part 3 is rotated once.

When the detection unit 110 detects that the sub-toy objects 101, 102 have been attached to the first attachment unit 7 or the second attachment unit 8, the sub-control unit 113 reads the first operation data from the sub-storage unit 112 and operates the sub-performance output unit 111 based on the read first operation data. Furthermore, when the detection unit 110 detects that the rotating unit 3 has rotated once, the sub-control unit 113 reads the second operation data from the sub-storage unit 112 and operates the sub-performance output unit 111 based on the read second operation data.

Figure 10 shows an example of the configuration of the detection unit 110, which detects the identification information ID held by the sub-toy body 101, the attachment of the rotating unit 3 to the first attachment unit 7 or the second attachment unit 8, and the rotation of the rotating unit 3. Figure 11 shows an example of the configuration of the first attachment unit 7 of the rotating unit 3, and Figure 12 shows an example of the configuration of the second attachment unit 8 of the rotating unit 3.

As shown in Figure 10, the secondary toy body 101 has, on its surface facing the rotating part 3, a rail 40 that determines the mounting direction when the secondary toy body 101 is mounted to the first mounting part 7 or the second mounting part 8, multiple protrusions 41 that form identification information ID, and a first switch 42 and a second switch 43 that form the detection part 110.

The multiple protrusions 41 are arranged in a matrix, and the arrangement pattern of the protrusions 41 forms the identification information ID. In this example, protrusions 41 are provided in six of the nine matrix elements arranged in a matrix of three columns in the X direction and three rows in the Y direction.

As shown in Figure 11, the first mounting portion 7 of the rotating unit 3 has a rail guide 50 that engages with the rail 40 of the secondary toy body 101, a first switch 51 to a third switch 53 that constitute the first reading unit 30 that reads the identification information ID of the secondary toy body 101, and a movable pressing portion 54 and a fixed pressing portion 55 that can press the first switch 42 and the second switch 43 of the secondary toy body 101.

The first switch 51 to the third switch 53 are arranged in a line in the X direction, and when the sub-toy body 101 is attached to the first attachment part 7, the first row of protrusions passes through the first switch 51 to the third switch 53, then the second row of protrusions passes through the first switch 51 to the third switch 53, and finally the third row of protrusions passes through the first switch 51 to the third switch 53. This allows the arrangement pattern of the multiple protrusions 41 to be detected and the identification information ID to be read.

The movable pressing portion 54 protrudes from the surface of the first mounting portion 7 and retracts into the first mounting portion 7 in response to the rotation of the rotating portion 3. The movable pressing portion 54 protrudes from the surface of the first mounting portion 7 at least when the rotating portion 3 is positioned in the locked position, and by protruding, it presses the first switch 42 of the secondary toy object 101 attached to the first mounting portion 7. On the other hand, the fixed pressing portion 55 is fixedly provided in a protruding state on the surface of the first mounting portion 7, and constantly presses the second switch 43 of the secondary toy object 101 attached to the first mounting portion 7.

When the secondary toy body 101 is attached to the first attachment part 7 with the rotating part 3 in the locked position, the first switch 42 and second switch 43 of the secondary toy body 101 are pressed by the movable pressing part 54 and fixed pressing part 55, respectively, thereby detecting that the secondary toy body 101 has been attached to the first attachment part 7. Furthermore, as the rotating part 3 rotates once and returns to the locked position, the movable pressing part 54 repeatedly protrudes and retracts, turning the first switch 42 on and off a predetermined number of times. This detects that the rotating part 3 has rotated once.

Like the first mounting part 7, the second mounting part 8 of the rotating part 3 also has a rail guide 50, a first switch 51 to a third switch 53 that constitute the second reading part 31 that reads the identification information ID of the secondary toy body 101, and a movable pressing part 54 and a fixed pressing part 55 that can press the first switch 42 and the second switch 43 of the secondary toy body 101.

Here, as shown in Figure 12, the secondary toy body 101 can also be attached to the second attachment part 8 by positioning it upside down and left to right. The arrangement of the first switches 51 to 53 on the second attachment part 8 is upside down and the arrangement of the first switches 51 to 53 on the first attachment part 7 is reversed. As a result, the identification information ID read by the first reading unit 30 when detecting the arrangement pattern of the protrusions 41 on the secondary toy body 101 is the same as the identification information ID read by the second reading unit 31 when detecting the arrangement pattern of the protrusions 41 on the secondary toy body 101.

On the other hand, the arrangement of the movable pressing portions 54 and fixed pressing portions 55 on the second mounting portion 8 is the same as the arrangement of the movable pressing portions 54 and fixed pressing portions 55 on the first mounting portion 7. Therefore, when the secondary toy body 101 is attached to the second mounting portion 8, the second switch 43 is turned on/off a predetermined number of times as the rotating portion 3 rotates once and returns to the locked position. Whether the secondary toy body 101 is attached to the first mounting portion 7 or the second mounting portion 8 is also detected based on whether the first switch 42 or the second switch 43 is turned on/off in response to the rotation of the rotating portion 3.

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

The movement mechanism 60, which moves the movable pressing portion 54 of each of the first and second mounting portions 7 and 8 of the rotating portion 3, has a pair of guides 61. When the rotating portion 3 is in the locked position, the pair of guides 61 are provided on the main body portion 2 behind the movable pressing portion 54 of each of the first and second mounting portions 7 and 8, protruding toward the rotating portion 3, and are formed in a roughly trapezoidal shape. The movable pressing portion 54 is arranged on a circumference that intersects with the guides 61 and is centered on the rotation axis Z of the rotating portion 3, and is elastically biased toward the main body portion 2 by a spring 62.

When the rotating unit 3 is in the locked position, the movable pressing portion 54 of the first mounting portion 7 rides on one of the guides 61 and protrudes from the surface of the first mounting portion 7. When the rotating unit 3 is rotated 180° from the locked position, the movable pressing portion 54 of the first mounting portion 7 rides on the other guide 61 and protrudes from the surface of the first mounting portion 7. Similarly, when the rotating unit 3 is in the locked position and when it is rotated 180° from the locked position, the movable pressing portion 54 of the second mounting portion 8 rides on the guide 61 and protrudes from the surface of the second mounting portion 8.

Assuming the number of guides 61 is n (n = 2 in this example), the movable pressing portion 54 of the first mounting portion 7 is arranged so that it protrudes n+1 times from the surface of the first mounting portion 7 before the rotating portion 3 rotates once from the locked position and returns to the locked position, counting the protrusion when the rotating portion 3 is in the locked position as the first protrusion. In other words, assuming that the secondary toy body 101 is attached to the first mounting portion 7, and counting the first switch 42 of the secondary toy body 101 being turned on when the rotating portion 3 is in the locked position as the first protrusion, the first switch 42 of the secondary toy body 101 is turned on n+1 times before the rotating portion 3 rotates once from the locked position and returns to the locked position. Furthermore, assuming that the secondary toy object 101 is attached to the second attachment portion 8, if the first time the second switch 43 of the secondary toy object 101 is turned on while in the locked position is counted, then the second switch 43 of the secondary toy object 101 will be turned on n+1 times before the rotating part 3 rotates once from the locked position and returns to the locked position again. In this way, when the first switch 42 or second switch 43 of the secondary toy object 101 is turned on n+1 times, it is detected that the rotating part 3 has rotated once, and based on whether the first switch 42 or the second switch 43 is turned on/off, it is also detected whether the secondary toy object 101 is attached to the first attachment portion 7 or the second attachment portion 8.

Figure 15 shows an example of a performance output from a secondary toy body 101 attached to the first attachment portion 7 and a secondary toy body 102 attached to the second attachment portion 8. Note that the secondary toy body 101 and the secondary toy body 102 may be the same type of secondary toy body or different types of secondary toy bodies.

First, at time T1, the secondary toy object 101 is attached to the first attachment portion 7. At this time, the first switch 42 of the secondary toy object 101 is pressed by the movable pressing portion 54 of the first attachment portion 7, and simultaneously, the second switch 43 is pressed by the fixed pressing portion 55, causing the secondary toy object 101 to output a wearing effect corresponding to the first operation data stored in the secondary toy object 101. Next, at time T2, the secondary toy object 102 is attached to the second attachment portion 8. At this time, the second switch 43 of the secondary toy object 102 is pressed by the movable pressing portion 54 of the second attachment portion 8, and simultaneously, the first switch 42 is pressed by the fixed pressing portion 55, causing the secondary toy object 102 to output a wearing effect corresponding to the first operation data stored in the secondary toy object 102. Then, at time T3, after the secondary toy object 101 has completed outputting the wearing effect and the secondary toy object 102 has completed outputting the wearing effect, the rotating portion 3 rotates once.

Sub-toy body 101 and sub-toy body 102 each detect that rotating part 3 has rotated once, and sub-toy body 101 executes a performance corresponding to the second operation data stored in sub-toy body 101, and sub-toy body 102 also executes a performance corresponding to the second operation data stored in sub-toy body 102 in synchronization with sub-toy body 101.

Here, the second operation data has a first effect selected based on the on/off state of the first switch 42, and a second effect selected based on the on/off state of the second switch 43. The first effect of the second operation data is executed in the first half of the execution time of the second operation data, and the second effect is executed in the second half of the execution time of the second operation data. The sub-toy object 101 recognizes that it is attached to the first attachment part 7 based on the on/off state of the first switch 42, and selects and outputs the first effect of the second operation data. Meanwhile, the sub-toy object 102 recognizes that it is attached to the second attachment part 8 based on the on/off state of the second switch 43, and selects and outputs the second effect of the second operation data. In this case, the sub-toy object 101 outputs the first effect, and following this first effect, the sub-toy object 102 outputs the second effect. In this way, when the second half of the second effect is output following the first half of the first effect, a dialogue can be realized between the sub-toy objects 101 and 102, further increasing the entertainment value.

In the example shown in Figure 15, the output of the attachment effect for secondary toy object 102 begins after the output of the attachment effect for secondary toy object 101 is completed, but secondary toy object 102 may be attached to second attachment portion 8 while the attachment effect for secondary toy object 101 is being output, so that the attachment effect for secondary toy object 101 and the attachment effect for secondary toy object 102 are superimposed. Also, in the above embodiment, an example is described in which operation is performed by pressing a switch, but this is not limited to this as long as operation is performed by operating a switch. For example, the device may be configured to recognize the change between on and off of the switch caused by releasing the switch from being pressed and operate.

DESCRIPTION OF SYMBOLS 1 Action 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 Recess 13 Convex 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 part 31 Second reading part 32 Main performance output part 33 Main memory part 34 Main control part 40 Rail 41 Protrusion 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-performance output part 112 Sub-memory 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

Claims (11)

a main body;
a rotating part rotatable relative to the main body part;
a locking portion that locks the rotating portion so that it cannot rotate;
one or more attachment parts to which a sub-toy body having a performance output part is detachably attached;
Equipped with
This moving toy outputs a first effect from the effect output unit when it is detected that the secondary toy body has been attached to the attachment part, and outputs a second effect from the effect output unit when it is detected that the rotation of the rotation part has been detected. The action toy according to claim 1,
a drive unit that rotates the rotating unit,
The drive unit is
a cam provided on either the main body portion or the rotating portion, the cam having an inclined surface inclined in a rotation direction of the rotating portion;
a follower provided on the other of the main body portion and the rotating portion, the follower sliding on the inclined surface;
a biasing member that elastically biases the follower toward the inclined surface;
Includes action toys. 3. The moving toy according to claim 2,
An action toy wherein the drive unit includes a center of gravity of the rotating unit that is offset from the rotation axis of the rotating unit. The moving toy according to claim 2 or 3,
A moving toy comprising a stopper for stopping the rotating part rotated by the driving part. The action toy according to any one of claims 2 to 4,
The main body is wearable by a user, and when the user wearing the main body is viewed from the front, the rotating part is rotated counterclockwise by the driving part. The action toy according to any one of claims 1 to 5,
The sub-toy object includes a switch for activating the performance output unit,
The attachment part is a moving toy including a movable part that can operate the switch of the sub-toy body attached to the attachment part. 7. The moving toy according to claim 6,
The main body portion has one or more guides that engage with the movable portion in response to rotation of the rotating portion and move the engaged movable portion in a direction to operate the switch. The moving toy according to claim 7,
a plurality of the attachment portions and the guides are provided at intervals in the rotation direction of the rotating portion,
An action toy in which the movable parts of the mounting part operate the switches of the sub-toy bodies in synchronization with each other in response to the rotation of the rotating part. The action toy according to claim 8,
the guide is provided at a position where it engages with the movable portion of the attachment portion when the rotating portion is locked by the locking portion,
The sub-toy body is an operating toy that activates the performance output unit when the switch is operated n+1 times, where n is the number of the attachment parts and the number of the guides . The moving toy according to claim 8 or 9,
The sub-toy 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 portion of the first mounting portion operates the first switch of the sub-toy body attached to the first mounting portion in response to rotation of the rotating portion;
the movable portion of the second mounting portion operates the second switch of the sub-toy body mounted on the second mounting portion in response to rotation of the rotating portion;
An action toy in which the secondary toy body outputs a first performance when the first switch is operated by the movable part of the first mounting part, and following the first performance, the secondary toy body outputs a second performance when the second switch is operated by the movable part of the second mounting part. The action toy according to any one of claims 1 to 10,
The performance output unit is a motion toy that outputs performance using at least one of light and sound.