JP2019208729A - Action toy - Google Patents

Abstract

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

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 rotation member, and outputs effects according to the detection of each detection unit. The toy described in Patent Literature 2 detects the rotation of a plurality of rotating members and outputs an effect.

JP, 2006-106658, A Japanese Patent Laying-Open No. 2015-202172

  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.

  An object of this invention is to provide the operation | movement toy which a user can recognize the direction which should rotate a rotation member sensuously.

  An action toy according to the present invention includes a main body, a rotating part rotatable with respect to the main body part, a lock part that makes the rotating part non-rotatable, and the rotating part is integrated with the release of the lock part. Drive means for rotating in the direction.

  In the action toy according to the present invention, the driving means is provided on either the main body part or the rotating part, and has a cam having an inclined surface inclined in the rotation direction of the rotating part, and the main body part. And a follower that is provided on the other of the rotating portions and slides on the inclined surface, and an urging member that elastically urges the follower toward the inclined surface.

  In the action toy according to the present invention, the drive means may include the center of gravity of the rotating part that is off the rotating shaft of the rotating part.

  Moreover, in the action | operation toy which concerns on this invention, you may provide the stopper which stops the said rotation part rotated by the said drive means.

  In the moving toy according to the present invention, the main body portion can be worn by a user, and when the user wearing the main body portion is viewed from the front, the rotating portion is bent by the driving means. It may be rotated clockwise.

  Further, the motion toy according to the present invention includes a sub toy body having an effect output unit and a switch for operating the effect output unit, and the rotating unit is detachably attached to the sub toy body. There are two or more attachment parts, and 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 corresponds to the rotation of the rotation part. It may have one or more guides that engage with the movable part and move the engaged movable part in a direction to operate the switch.

  In the action toy according to the present invention, a plurality of the attachment portions and the guides are provided at intervals in the rotation direction of the rotation portion, and the movable portions of the plurality of attachment portions are the rotation portion of the rotation portion. The switch of the sub toy body may be operated in synchronization with each other according to the rotation.

  In the action toy according to the present invention, the plurality of guides are provided at positions where the plurality of attachment portions engage with the movable portions in a state where the rotating portion is locked by the lock portion. The number of the plurality of attachment portions and the plurality of guides may be n, and the sub-toy body may activate the effect output portion when the switch is operated n + 1 times.

  Moreover, in the operation | movement toy which concerns on this invention, the said sub toy body has a 1st switch and a 2nd switch as said switch, and the said rotation part is 1st attachment part as said several attachment part. And the second attachment portion, and the movable portion of the first attachment portion operates the first switch of the sub toy body attached to the first attachment portion according to the rotation of the rotation portion. Then, the movable part of the second attachment part operates the second switch of the sub toy body attached to the second attachment part according to the rotation of the rotation part, and the The secondary toy body whose first switch is operated by the movable part outputs a first effect, and following the first effect, the second switch is operated by the movable part of the second mounting portion. The sub toy body may output the second effect.

  In the action toy according to the present invention, the effect output unit may output an effect by at least one of light and sound.

  ADVANTAGE OF THE INVENTION According to this invention, the operation | movement toy which can recognize the direction which a user should rotate the rotation member sensuously can be provided.

It is a front view which shows an example of an operation | movement toy for demonstrating embodiment of this invention. It is a top view of the operation | movement toy of FIG. It is a front view which shows operation | movement of the operation | movement toy of FIG. (A) And (B) is a schematic diagram which shows the structure of a lock | rock part. It is a front view which shows the example of arrangement | positioning of the drive means which rotates a rotation part to 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)-(D) are front views which show a mode that a rotation part rotates in order. It is a functional block diagram of the operation | movement toy of FIG. It is a schematic diagram which shows the structural example of the identification information which a sub toy body hold | maintains. It is a schematic diagram which shows the structural example of the reading part which reads the identification information of the sub toy 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 sub toy body attached to a 2nd attachment part. It is a front view which shows the example of arrangement | positioning of the moving mechanism which 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 production of a sub toy body.

  1 and 2 show an example of a motion toy for explaining the embodiment of the present invention, and FIG. 3 shows the motion of the motion toy of FIG. In the description of the present embodiment, the direction in which the lock release button 6 to be described later is present is “upward”, the opposite direction is “downward”, and the rotation unit 3 rotates along the rotation axis Z of the rotation unit 3. The direction in which 3 is present will be described as “front direction”, and the opposite direction as “rear direction”.

  The action toy 1 includes a main body part 2 and a rotating part 3 that can rotate with respect to the main body part 2. A belt 4 is provided in the main body 2, and the main body 2 is configured to be attachable to, for example, a user's waist.

  The rotating unit 3 includes a first mounting unit 7 and a second mounting unit 8 to which the subsidiary toy bodies 101 and 102 are detachably mounted. The first attachment portion 7 and the second attachment portion 8 are provided at positions facing each other with the 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 secondary toy body 101 is attached to the first attachment portion 7 and the secondary toy body 102 is attached to the second attachment portion 8. The sub toy body 101 can also be attached to the second attachment portion 8 by arranging in reverse.

  The action toy 1 includes a lock portion 5 that locks the rotation portion 3 so as not to rotate, and a lock release button 6. In a state where the rotating part 3 is locked by the lock part 5, the opposing direction of the first attaching part 7 and the second attaching part 8 of the rotating part 3 is parallel to the extending direction of the belt 4. Hereinafter, the position of the rotating portion 3 where the opposing direction of the first mounting portion 7 and the second mounting portion 8 is parallel to the extending direction of the belt 4 is referred to as a lock position.

  The lock release button 6 is provided on the main body 2, and the lock of the rotating unit 3 is released by operating the lock release button 6. The rotating unit 3 is rotated by a predetermined angle in the direction of the arrow A1 shown in FIG. Below, the lock part 5 and the drive means which rotates the rotation part 3 by a predetermined angle according to cancellation | release of a lock | rock are demonstrated.

  FIG. 4 shows the lock unit 5.

  The lock unit 5 includes a lock pin 10 and a spring 11. The lock pin 10 is supported by the main body 2 so as to be movable along the rotation axis Z of the rotation unit 3. The spring 11 elastically biases the lock pin 10 toward the rotating portion 3 side. A concave portion 12 is provided on the back surface of the rotating portion 3 on the main body portion 2 side, and as shown in FIG. The convex part 13 fits into the concave part 12. When the convex part 13 fits into the concave part 12, the rotating part 3 is locked so as not to rotate.

  The lock release button 6 is supported by the main body 2 so as to be movable in a direction crossing the rotation axis Z of the rotation unit 3. The lock pin 10 is inclined with respect to the movement direction of the lock pin 10 and the movement direction of the lock release button 6 (in this embodiment, the inclination is inclined from the rear to the front as it goes downward). The surface 14 is formed, and the lock release button 6 is similarly inclined (in this embodiment, the inclined surface 15 is inclined to the front from the rear as it goes downward). When the lock release button 6 is pushed in the direction of the arrow A2 shown in FIG. 4B, the inclined surface 15 of the lock release button 6 slides on the inclined surface 14 of the lock pin 10, and the inclined surface 14 is locked. It is pushed into the main body 2 side along the moving direction of the pin 10. Thereby, the convex part 13 of the lock pin 10 comes off from the concave part 12, and the lock | rock of the rotation part 3 is cancelled | released.

  FIG. 5 to FIG. 7 show an example of driving means for rotating the rotating unit 3 by a predetermined angle in accordance with the release of the lock.

  The driving means 20 shown in FIGS. 5 to 7 includes a cam 21, a follower 22, and a spring 23. The cam 21 is provided in the main body 2, is formed in a substantially triangular shape, and is inclined in the direction of the arrow A <b> 1 that is the rotation direction of the rotating unit 3 (in the present embodiment, from the front as it goes downward). It has an inclined surface 24 (tilted backward). The edge 24e of the inclined surface 24 located on the outer diameter side when viewed from the rotation axis Z of the rotating part 3 is inclined in the radial direction. The follower 22 is provided in the rotating unit 3 and is arranged on a circumference that intersects the cam 21 around the rotation axis Z of the rotating unit 3 and is elastically biased toward the main body 2 by the spring 23. ing. In the present embodiment, a mode in which the cam 21 is provided in the main body 2 and the follower 22 is provided in the rotating unit 3 will be described, but conversely, the cam 21 is provided in the rotating unit 3 and the follower 22 is provided. It may be provided in the main body 2.

  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 connected to the edge 24e at the upper end of the inclined surface 24 of the cam 21. It touches. When the lock of the rotating portion 3 is released, the follower 22 biased by the spring 23 slides on the inclined surface 24 from the upper end portion of the inclined surface 24 toward the lower end portion, and as it slides. The rotating unit 3 is rotated in the direction of arrow A1. When the follower 22 moves to a position P12 that reaches the lower end of the inclined surface 24, the rotating unit 3 is rotated by a predetermined angle.

  The rotating unit 3 rotated by a predetermined angle by the driving unit 20 is stopped by the stopper 25. The stopper 25 is provided on the rotating portion 3, is disposed on the circumference intersecting the cam 21 around the rotation axis Z of the rotating portion 3, and is elastically biased toward the main body portion 2 by the spring 26. ing. When the rotating portion 3 is locked, the stopper 25 is at a position P21 that is separated from the cam 21. When the rotating portion 3 is rotated by a predetermined angle by the driving means 20, the stopper 25 is moved to a position P22 that contacts the cam 21. The The rotating portion 3 is restrained to a position rotated by a predetermined angle from the lock position by the contact between the stopper 25 and the cam 21. When an external force that further rotates the rotating portion 3 in the direction of the arrow A1 is applied to the rotating portion 3, the stopper 25 gets over the top of the cam 21 and the stopper 25 is released. Thereby, the rotation part 3 is further rotated in the direction of arrow A1.

  FIG. 8 shows how the rotating unit 3 rotates. In FIG. 8, the secondary toy body 101 is attached only to the first attachment portion 7.

  In the present embodiment, the rotating unit 3 is configured to rotate counterclockwise when the user wearing the main body unit 2 is viewed from the front. First, as shown in FIG. 8 (A), the rotating part 3 is arranged at the lock position. When the user operates the lock release button 6, the rotation unit 3 is unlocked. As shown in FIG. 8B, when the rotating portion 3 is unlocked, the rotating portion 3 is rotated by a predetermined angle in the direction of arrow A1 (counterclockwise) by the driving means 20 and is stopped by the stopper 25. Is 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 rotating portion 3 remains released.

  Thereafter, for example, when the user pushes down the first mounting portion 7 vigorously, the stopper 25 is removed, and the rotating portion 3 is further rotated in the direction of the arrow A1 as shown in FIG. 8C. Then, as shown in FIG. 8D, when the rotating unit 3 rotates once and returns to the locked position, the rotating unit 3 is locked again by the lock unit 5. According to the operation toy 1 configured as described above, when the unlocking button 6 is operated, the rotating unit 3 is rotated by a predetermined angle in one direction. The user can easily recognize the direction to rotate.

  In this example, the rotating unit 3 is rotated in one direction by a driving unit 20 having a cam 21, a follower 22, and a spring 23, but the driving unit is a cam 21, a follower 22, a spring 23, and the like. It is not limited to what has. For example, the center of gravity of the rotating unit 3 may be provided at a position off the rotation axis Z of the rotating unit 3, and in this case, when the lock of the rotating unit 3 is released, the position of the center of gravity is directed downward. The rotating unit 3 rotates in one direction.

  From the viewpoint of enhancing the interest of the moving toy 1, the rotating unit 3 is configured to be capable of producing effects by attaching the sub-toy bodies 101 and 102 to the first mounting unit 7 and / or the second mounting unit 8. The secondary 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 producing an effect by being rotated integrally with the rotation portion 3.

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

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

  The first reading unit 30 is provided in the first attachment unit 7 and reads the identification information ID of the sub toy bodies 101 and 102 attached to the first attachment unit 7. The second reading unit 31 is provided in the second attachment unit 8 and reads the identification information ID of the sub toy bodies 101 and 102 attached to the second attachment unit 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. . The effect is not limited to display of characters, symbols, and images, and may be sound or light, and various devices are used depending on the effect.

  The main storage unit 33 is configured to include a storage medium such as a ROM (Read Only Memory) or a RAM (Random Access Memory), and corresponds to a program executed by the main control unit 34 and identification information of the sub toy body. Operation data is stored.

  The main control unit 34 is configured mainly with a microprocessor, and operates according to a program stored in the main storage unit 33 to control the operation of each unit of the rotation unit 3 in an integrated manner. The main control unit 34 reads the operation 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 the main effect output unit 32 is read based on the read operation data. Make it work.

  The sub toy body 101 includes a detection unit 110 that detects attachment of the rotation unit 3 to the first attachment unit 7 or the second attachment unit 8 and rotation of the rotation unit 3, a subsidiary effect output unit 111, and a subsidiary effect output unit 111. A sub-storage unit 112 storing the operation data and the like, and a sub-control unit 113. The sub toy body 102 also includes a detection unit 110, a sub production output unit 111, a sub storage unit 112, and a sub control unit 113.

  The sub-effect output unit 111 includes a sound generator such as a speaker and a light emitter such as an LED (Light Emitting Diode), and is configured to output an effect using sound or light. The sub storage unit 112 includes a storage medium such as a ROM or a RAM, and the sub control unit 113 includes a microprocessor as a main component.

  The secondary storage unit 112 stores first operation data and second operation data as operation data. The first motion data corresponds to an effect that is output at the timing when the sub toy bodies 101, 102 are attached to the first attachment portion 7 or the second attachment portion 8, and the second motion data is that the rotation portion 3 is 1. It corresponds to the production output 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 operation data from the sub storage unit 112. The sub-effect output unit 111 is operated based on the read first operation data. When the detection unit 110 detects that the rotation unit 3 has made one rotation, the sub control unit 113 reads the second operation data from the sub storage unit 112, and performs the sub-effect based on the read second operation data. The output unit 111 is operated.

  FIG. 10 shows a configuration example of the detection unit 110 that detects the identification information ID held by the sub-toy body 101, the attachment of the rotation unit 3 to the first attachment unit 7 or the second attachment unit 8 and the rotation of the rotation unit 3. . FIG. 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. 10, the secondary toy body 101 is a rail that defines the attachment direction and the like when the secondary toy body 101 is attached to the first attachment portion 7 or the second attachment portion 8 on the surface facing the rotating portion 3. 40, a plurality of protrusions 41 constituting the identification information ID, and a first switch 42 and a second switch 43 constituting the detection unit 110.

  The plurality of protrusions 41 are arranged in a matrix, and the identification information ID is configured by the arrangement pattern of the protrusions 41. In this example, projections 41 are provided at six locations 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 unit 3 includes a rail guide 50 that engages with the rail 40 of the sub toy body 101, and the first reading unit 30 that reads the identification information ID of the sub toy body 101. The first switch 51 to the third switch 53 to be configured, and the movable pressing portion 54 and the fixed pressing portion 55 capable of pressing the first switch 42 and the second switch 43 of the sub toy body 101 are provided.

  The first switch 51 to the third switch 53 are provided side by side in the X direction, and when the sub toy body 101 is attached to the first attachment portion 7, the first row of protrusions is the first switch 51 to the third switch. 53, 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. Thereby, 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 according to the rotation of the rotating portion 3 and is immersed in the first mounting portion 7. The movable pressing portion 54 protrudes from the surface of the first attachment portion 7 when at least the rotating portion 3 is arranged at the lock position, and protrudes to the first of the sub toy body 101 attached to the first attachment portion 7. 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 mounting portion 7, and always presses the second switch 43 of the sub-toy body 101 attached to the first mounting portion 7. .

  When the secondary toy body 101 is attached to the first attachment portion 7 with the rotating portion 3 being placed in the locked position, the first switch 42 and the second switch 43 of the secondary toy body 101 are moved to the movable pressing portion 54 and Pressed by the fixed pressing portion 55, thereby detecting that the sub toy body 101 is attached to the first attachment portion 7. In the process in which the rotating unit 3 is rotated once and returns to the locked position again, the movable pressing unit 54 repeatedly projects and retracts, and the first switch 42 is turned on / off a predetermined number of times. Thereby, it is detected that the rotating part 3 is rotated once.

  Similarly to the first attachment portion 7, the second attachment portion 8 of the rotating portion 3 also includes the rail switch 50 and the first switches 51 to 51 constituting the second reading portion 31 that reads the identification information ID of the sub toy body 101. 3 switch 53, 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 sub toy body 101.

  Here, as shown in FIG. 12, the sub-toy body 101 can be attached to the second attachment portion 8 by placing the sub toy body upside down and the left and right sides upside down. The arrangement of the first switch 51 to the third switch 53 in the second attachment portion 8 and the arrangement of the first switch 51 to the third switch 53 in the first attachment portion 7 are upside down. Identification information ID that is read by the first reading unit 30 detecting the arrangement pattern of the protrusions 41 of the sub-toy body 101, and identification that the second reading unit 31 detects and reading the arrangement pattern of the protrusions 41 of the sub-toy body 101 The information ID is the same.

  On the other hand, the arrangement of the movable pressing portion 54 and the fixed pressing portion 55 in the second attachment portion 8 and the arrangement of the movable pressing portion 54 and the fixed pressing portion 55 in the first attachment portion 7 are the same up and down. Therefore, when the sub 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 rotation portion 3 is rotated once and returns to the locked position. The sub toy body 101 is attached to either the first attachment part 7 or the second attachment part 8 based on which of the first switch 42 and the second switch 43 is turned on / off according to the rotation of the rotation part 3. It is also detected.

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

  The moving mechanism 60 for projecting and retracting the movable pressing portion 54 of each 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 part 3 behind the movable pressing part 54 of each of the first attaching part 7 and the second attaching part 8 in a state where the rotating part 3 is disposed at the lock position. It is provided in the main body 2 and is formed in a substantially trapezoidal shape. The movable pressing portion 54 is disposed on a circumference that intersects the guide 61 around 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 part 3 is arranged at the lock position, the movable pressing part 54 of the first attachment part 7 rides on one guide 61 and is arranged so as to protrude from the surface of the first attachment part 7. When the rotating part 3 is rotated 180 ° from the lock position, the movable pressing part 54 of the first attachment part 7 rides on the other guide 61 and is disposed so as to protrude from the surface of the first attachment part 7. Similarly, the movable pressing portion 54 of the second mounting portion 8 rides on the guide 61 when the rotating portion 3 is disposed at the locked position and when the rotating portion 3 is rotated by 180 ° from the locked position. Protrusively arranged on the surface.

  The number of the guides 61 is n (n = 2 in this example), and the first mounting portion 7 is movable from the state where the rotating portion 3 is disposed at the locked position until the rotating portion 3 rotates once again and returns to the locked position. The pressing portion 54 is disposed so as to protrude n + 1 times on the surface of the first attachment portion 7 when the protrusion in the state where it is disposed at the lock position is counted as the first time. In other words, it is assumed that the sub toy body 101 is attached to the first attachment portion 7 and that the first switch 42 of the sub toy body 101 is turned on with the first switch 42 disposed at the lock position. The first switch 42 of the sub toy body 101 is turned on n + 1 times from when the rotating unit 3 is placed in the locked position to when the rotating unit 3 rotates once and returns to the locked position again. Further, assuming that the secondary toy body 101 is attached to the second attachment portion 8, it is counted as the first time that the second switch 43 of the secondary toy body 101 is turned on in the state where it is arranged at the lock position. Then, the second switch 43 of the sub toy body 101 is turned on n + 1 times from the state where the rotating unit 3 is disposed at the locked position until the rotating unit 3 is rotated once and returned to the locked position again. As described above, when the first switch 42 or the second switch 43 of the sub toy body 101 is turned on n + 1 times, it is detected that the rotating unit 3 has made one rotation, and any of the first switch 42 and the second switch 43 is detected. Whether the secondary toy body 101 is attached to the first attachment portion 7 or the second attachment portion 8 is also detected based on whether or not is turned on / off.

  FIG. 15 shows an example of effects output from the secondary toy body 101 attached to the first attachment portion 7 and the secondary toy body 102 attached to the second attachment portion 8. 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, 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 portion 54 of the first mounting portion 7, and at the same time, the second switch 43 is pressed by the fixed pressing portion 55 and stored in the sub toy body 101. A mounting effect corresponding to the first motion data is output from the sub-toy body 101. Subsequently, the secondary toy body 102 is attached to the second attachment portion 8 at time T2. At this time, the second switch 43 of the secondary toy body 102 is pressed by the movable pressing portion 54 of the second mounting portion 8, and at the same time, the first switch 42 is pressed by the fixed pressing portion 55 and stored in the secondary toy body 102. A mounting effect corresponding to the first motion data is output from the sub-toy body 102. Then, at time T3 after the output of the mounting effect by the sub toy body 101 is completed and the output of the mounting effect by the sub toy body 102 is completed, the rotating unit 3 is rotated once.

  The sub-toy body 101 and the sub-toy body 102 respectively detect that the rotation unit 3 has been rotated once, and the sub-toy body 101 performs an effect corresponding to the second motion data stored in the sub-toy body 101. The secondary toy body 102 also executes an effect corresponding to the second motion data stored in the secondary toy body 102 in synchronization with the secondary toy body 101.

  Here, the second operation data includes a first effect selected based on the first switch 42 being turned on / off, and a second effect selected based on the second switch 43 being turned on / off. Have The first effect of the second motion data is executed in the first half of the execution time of the second motion data, and the second effect is executed in the second half of the execution time of the second motion data. The sub toy body 101 recognizes that the first switch 42 is turned on / off and is attached to the first attachment portion 7, and selects and outputs the first effect of the second motion data. On the other hand, the sub toy body 102 recognizes that the second switch 43 is turned on / off and recognizes that the second toy body 102 is attached to the second attachment portion 8 and selects and outputs the second effect of the second motion data. To do. In this case, the secondary toy body 101 outputs the first effect, and the secondary toy body 102 outputs the second effect following the first effect. In this way, when the second production in the second half is output following the first production in the first half, it is possible to realize interaction between the sub-toy body 101 and the sub-toy body 102, and to further enhance interest. Can do.

  In the example shown in FIG. 15, the output of the mounting effect for the sub-toy body 101 is started after the output of the mounting effect for the sub-toy body 101 is completed. The sub toy body 102 may be mounted on the second mounting portion 8, and the mounting effect of the sub toy body 101 and the mounting effect of the sub toy body 102 may be superimposed. Moreover, although the said embodiment demonstrated the example which operate | moves by pressing of a switch, if it operate | moves by operating a switch, it will not be restricted to this. For example, the operation may be performed by recognizing a change between ON and OFF of the switch by releasing the pressing of the switch.

DESCRIPTION OF SYMBOLS 1 Operation toy 2 Main body part 3 Rotating part 4 Belt 5 Lock part 6 Lock release button 7 1st attachment part 8 2nd attachment part 9 Center part 10 Lock pin 11 Spring 12 Concave part 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 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 portion 55 Fixed pressing portion 60 Moving mechanism 61 Guide 62 Spring 101 Sub toy body 102 Sub toy body 110 Detection unit 111 Sub-effect output unit 112 Sub storage unit 113 Sub control unit A1 Arrow A2 Arrow ID Identification information LED Dot matrix P11 Position P12 Position P21 Position P22 Position T1 Time 2 time T3 time Z axis of rotation

An action toy according to the present invention includes a main body, a rotating part rotatable with respect to the main body part, a lock part that makes the rotating part non-rotatable, and the rotating part is integrated with the release of the lock part. a driving means for rotating the direction, Ru comprising a. The operation toy according to the present invention includes a main body part, a rotating part rotatable with respect to the main body part, a lock part that locks the rotating part in a non-rotatable manner, and the rotation according to the release of the locking part. A drive means for rotating the part in one direction, an effect output part, and a switch for operating the effect output part. Specifically, the attachment unit includes one or more attachment parts that are detachably attached, and the attachment part includes a movable part that can operate the switch of the sub-toy body attached to the attachment part. The movable portion is engaged with the movable portion according to the rotation of the rotating portion, and the movable portion to be engaged is moved in a direction in which the switch is operated. Plurally spaced in the rotation direction of the rotating part The movable portions of the plurality of attachment portions are operable to operate the switch of the sub-toy body in synchronization with each other according to the rotation of the rotating portion, and the plurality of guides are configured to rotate the rotating portion. Is provided at a position to be engaged with the movable portion of the plurality of attachment portions while being locked by the lock portion, and the number of the plurality of attachment portions and the plurality of guides is n. Specifically, the effect output unit is activated when the switch is operated n + 1 times.

Claims (10)

The main body,
A rotating part rotatable with respect to the main body part;
A lock portion for locking the rotation portion so as not to rotate;
Drive means for rotating the rotating part in one direction along with the release of the lock part;
Operated toy with. The operation toy according to claim 1,
The driving means includes
A cam provided on one of the main body and the rotating part and having an inclined surface inclined in the rotation direction of the rotating part;
A follower which is provided on the other of the main body part and the rotating part and slides on the inclined surface;
A biasing member that resiliently biases the follower toward the inclined surface;
Including operation toys. The operation toy according to claim 1 or 2,
The driving toy includes an operation toy including a center of gravity of the rotating unit that is off a rotation axis of the rotating unit. The operation toy according to any one of claims 1 to 3,
An operation toy provided with a stopper for stopping the rotating portion rotated by the driving means. The operation toy according to any one of claims 1 to 4,
The main body can be worn by a user, and when the user wearing the main body is viewed from the front, the rotating part is rotated by the drive means counterclockwise.
The operation toy according to any one of claims 1 to 5,
A sub-toy body having an effect output unit and a switch for operating the effect output unit,
The rotating part has one or more attachment parts to which the auxiliary toy body is detachably attached,
The attachment part includes a movable part capable of operating the switch of the auxiliary toy body attached to the attachment part,
The main body part is an operational toy having one or more guides that engage with the movable part according to the rotation of the rotating part and move the engaging movable part in a direction to operate the switch. The operation toy according to claim 6,
The mounting portion and the guide are provided in a plurality with an interval in the rotation direction of the rotating portion,
The movable part of the plurality of attachment parts is an operation toy that operates the switch of the sub toy body in synchronization with each other according to the rotation of the rotating part. The operation toy according to claim 7,
The plurality of guides are provided at positions that engage the movable portions of the plurality of attachment portions in a state where the rotating portion is locked by the lock portion,
The sub toy body is an operation toy that activates the effect output unit when the switch is operated n + 1 times, where n is the number of the plurality of attachment portions and the plurality of guides. The operation toy according to claim 7 or 8,
The sub toy body has a first switch and a second switch as the switch,
The rotating part has a first attachment part and a second attachment part as the plurality of attachment parts,
The movable portion of the first attachment portion operates the first switch of the sub toy body attached to the first attachment portion according to the rotation of the rotation portion,
The movable portion of the second attachment portion operates the second switch of the sub toy body attached to the second attachment portion according to the rotation of the rotation portion,
The secondary toy body whose first switch is operated by the movable part of the first attachment part outputs a first effect, and, following the first effect, the movable part of the second attachment part causes the first effect to be output. An operation toy in which the secondary toy body operated with two switches outputs a second effect. The operation toy according to any one of claims 6 to 9,
The effect output unit is an operational toy that outputs an effect by at least one of light and sound.