JP2018158240A - Effect output toy - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a highly amusing effect output toy.SOLUTION: A main toy body 2 includes: an attachment part 22 to which a sub-toy body 3 can be rotatably attached; and a main rotation detection part for detecting rotation of the sub-toy body 3 attached to the attachment part. The sub-toy body 3 includes a sub-rotation detection part for detecting rotation of the sub-toy body 3 while being attached to the attachment part 22. The rotation of the sub-toy body 3 is detected by the main rotation detection part and the sub-rotation detection part each by rotating the sub-toy body 3 while the sub-toy body 3 is being attached to the attachment part of the main toy body 2. A first performance, which includes a main performance outputted from the main-toy body 2 at predetermined timing from detection of the rotation of the sub-toy body 3 by the main rotation detection part, and a sub-performance outputted from the sub-toy body at predetermined timing from detection of rotation of the sub-toy body 3 by the sub-rotation detection part, can be outputted.SELECTED DRAWING: Figure 1

Description

  The present invention relates to a production output toy.

  A toy comprising a main toy body and a sub toy body comprising a key member, and when the key member (sub toy body) is rotated, the main toy body outputs an effect by sound or light emission according to the rotating operation. Is known (for example, Patent Document 1).

Japanese Patent No. 4872019

  In the toy described in Patent Document 1, it is only the main toy body that produces an effect.

  An object of this invention is to provide the production output toy with higher interest property.

  An effect output toy according to the present invention is an effect output toy comprising a main toy body capable of outputting a main effect based on stored effect data, and a sub toy body capable of outputting a sub effect based on the stored effect data. The main toy body has an attachment part to which the auxiliary toy body is rotatably attached, and a main rotation detection part for detecting the rotation of the auxiliary toy body attached to the attachment part. The toy body has a sub-rotation detection unit that detects the rotation of the sub-toy body in a state of being attached to the attachment unit, and the sub-toy body is in a state of being attached to the attachment unit. Is rotated, the rotation of the sub toy body is detected by the main rotation detection unit and the sub rotation detection unit, respectively, and at a predetermined timing from the detection of the rotation of the sub toy body by the main rotation detection unit. Output from main toy body A main effect being, wherein said by-rotation detector the first effect containing by-effect and output from the sub-toy body from the detection at a predetermined timing the rotation of the sub-toy body by is output.

  In the production output toy according to the present invention, the main toy body further includes a main operation unit, the sub toy body further includes a sub operation unit, and the sub operation unit includes the sub operation unit. The main operation unit is operated in response to an operation of the main operation unit with the toy body attached to the attachment unit, and the main operation unit is operated with the sub toy body attached to the main toy body. Accordingly, the main production output from the main toy body at a predetermined timing from the operation of the main operation unit and the operation at the predetermined operation from the operation of the sub operation unit operated according to the operation of the main operation unit. A second effect including a sub-effect output from the sub-toy body may be output.

  In the production output toy according to the present invention, the main toy body can switch an operation mode, and when the operation mode of the main toy body is set to the first mode, When the sub-toy body is rotated in a state where the sub-toy body is attached, the first effect is output, and the operation mode of the main toy body is set to the second mode. The main toy output from the main toy body at a predetermined timing from the detection of the rotation of the secondary toy body by the main rotation detector by rotating the secondary toy body with the secondary toy body attached to the main toy body A third effect may be output including the output and the secondary effect output from the secondary toy body at a predetermined timing from the detection of the rotation of the secondary toy body by the secondary rotation detection unit.

  Moreover, in the production output toy according to the present invention, in one or more productions of the first production, the second production, and the third production, the main production and the sub production constituting the production are alternated. May be output.

  In the effect output toy according to the present invention, the effect data corresponding to at least one effect of the main effect and the sub effect that are alternately output may include an empty data portion.

  Moreover, in the production output toy according to the present invention, there are a plurality of types of the sub-toy bodies, and the sub-productions may be different for each type of the sub-toy bodies.

  In the production output toy according to the present invention, the sub-toy body may be substantially cylindrical.

  Moreover, in the production output toy according to the present invention, a plurality of catching portions may be provided on the outer peripheral edge portion of the sub-toy body at intervals in the circumferential direction.

  In the production output toy according to the present invention, the sub-toy body has a main body part that outputs the sub-production, and an annular attachment part that is detachably attached to an outer periphery of the main body part. May have a detection unit that detects attachment of the attachment unit, and may output an effect in response to the detection of the attachment unit by the detection unit.

  In the production output toy according to the present invention, the attachment portion may be made of a softer material than the main body portion and may be used as a throwing toy.

  ADVANTAGE OF THE INVENTION According to this invention, the production output toy with higher interest property can be provided.

It is a figure which shows the structure of an example of an effect output toy for demonstrating embodiment of this invention. It is a figure which shows the usage example of a production output toy. It is a figure which shows the structure of a subtoy body. It is a figure which shows the structure of a subtoy body. It is a figure which shows the structure of the attaching part of a main toy body. It is a figure which shows the structure inside the attaching part of a main toy body. It is a figure which shows the functional block of a production output toy. It is a flowchart which shows operation | movement of a production output toy. It is a flowchart which shows operation | movement of a production output toy. It is a flowchart which shows operation | movement of a production output toy. It is a flowchart which shows operation | movement of a production output toy. It is a timing chart which shows the example of each output timing of the main production of a main toy body, and the sub production of a sub toy body.

(Configuration of production output toy)
FIG. 1 shows a configuration of an example of an effect output toy for explaining an embodiment of the present invention, and FIG. 2 shows an example of use of the effect output toy of FIG.

  The production output toy 1 includes a main toy body 2 and a secondary toy body 3. The main toy body 2 and the sub toy body 3 output effects by light emission and pronunciation, respectively.

  In the illustrated example, the main toy body 2 has a shape imitating a sword as a whole, and includes a gripping part 21, an attachment part 22, a mode changeover switch part 23, and a trigger part 24.

  The grip part 21 is configured to be gripped by a user. The attachment portion 22 is configured such that the secondary toy body 3 is detachable, and the mounted secondary toy body 3 is configured to be rotatable. The main toy body 2 is provided with a plurality of operation modes (in this example, two operation modes of “first mode” and “second mode”), and the mode changeover switch unit 23 has the number of operation modes. A plurality of corresponding switches are provided. The main toy body 2 outputs different main effects based on the effect data stored in the main body for each operation mode. The trigger unit 24 functions as a main operation unit and is configured to be pressed by a user. The main toy body 2 outputs a main effect when the user rotates the secondary toy body 3 attached to the attachment portion 22 and the trigger portion 24 is pressed.

  In the illustrated example, the sub-toy body 3 has a shape imitating a shuriken as a whole, and includes a core portion 31 and a blade portion 32.

  The core portion 31 is configured to be detachable from the blade portion 32 and is configured to be detachable from the mounting portion 22 of the main toy body 2. The core part 31 functions as a main body part of the sub toy body 3 and outputs a sub effect based on the effect data stored therein. The blade portion 32 functions as an attachment portion of the sub toy body 3 and is configured to be detachable from the outer periphery of the core portion 31.

  As shown in FIG. 2, the user attaches the secondary toy body 3 to the attachment portion 22 of the main toy body 2, and rotates the secondary toy body 3 in the direction indicated by the arrow in the figure, thereby The main effect can be output from 2 and the secondary effect can be output from the sub toy body 3. The core portion 31 of the sub toy body 3 can be attached to the attachment portion 22 of the main toy body 2 even if the blade portion 32 is not attached.

  3 and 4 show the configuration of the core portion 31 and the blade portion 32 of the sub-toy body 3.

  The core portion 31 is formed in a substantially cylindrical shape, and the blade portion 32 is engaged with the upper portion of the outer peripheral surface (the portion closer to the side opposite to the side attached to the attachment portion 22 of the main toy body 2). Engagement grooves 41a and 41b that engage with the protrusions are formed. One engagement groove 41b is provided with a blade detection switch portion 42 for detecting that the blade portion 32 is mounted. Further, a sub-rotation detection switch unit 43 that functions as a sub-rotation detection unit is provided at the lower part of the outer peripheral surface of the core unit 31 (the part closer to the side attached to the attachment part 22 of the main toy body 2). The auxiliary rotation detection switch unit 43 detects the rotation when the auxiliary toy body 3 is attached to the main toy body 2 and the auxiliary toy body 3 is rotated by the user.

  The blade portion 32 is formed in a substantially annular shape, and four catching portions 52a to 52d are formed on the outer peripheral surface thereof with a gap in the circumferential direction. The intervals between the catching portions 52a to 52d are provided with an interval that allows the user to easily hook a finger, palm, or the like when the sub toy body 3 is rotated. Thereby, when the sub toy body 3 is mounted on the main toy body 2 and is rotated, it becomes easy to rotate. The blade portion 32 is made of a softer material than the core portion 31, and can be used alone as a throwing toy. In other words, if the blade portion 32 is attached to the core portion 31, the auxiliary toy body 2 emits light as an effect portion that outputs the sub operation portion 61 to the core portion 31 and various effects as described later. Since the unit 101, the sound generation unit 102, the storage unit 103, and the control unit 104 are provided, by operating the sub-operation unit 61, it becomes a highly interesting shuriken-type toy that produces an effect. In addition, by allowing only the blade part 32, which is the main part of the shape of the shuriken, to be removed from the core part 31, the blade part 32 alone can be played as a throwing toy. Thus, the possibility that the core unit 31 is thrown together with the blade unit 32 and the built-in control unit 104 or the like is broken can be reduced. Engaging protrusions 51 a and 51 b are formed on the inner peripheral surface of the blade portion 32. The engagement protrusions 51 a and 51 b are engaged with the engagement grooves 41 a and 41 b of the core portion 31.

  A sub-operation unit 61 is provided at substantially the center of the back surface of the core portion 31 (the surface to be attached to the attachment portion 22 of the main toy body 2). The sub operation unit 61 is configured to be pressed (operated) in conjunction with the pressing of the trigger unit 24 of the main toy body 2 in a state in which the sub toy body 3 is attached to the attachment unit 22 of the main toy body 2. Has been. A mounting portion 62 formed in an octagonal shape is provided on the outer peripheral edge of the sub operation portion 61 so that the mounting portion 62 fits into the mounting portion 22 of the main toy body 2 and the sub toy body 3 is attached. Mounted on the part 22.

  FIG. 5 shows the configuration of the attachment portion 22 of the main toy body 2.

  The attachment portion 22 is formed in a cylindrical shape having a bottom portion, and the upper portion of the inner peripheral surface (a portion closer to the sub toy body 3 in a state where the sub toy body 3 is mounted) projects inward. Contact protrusions 71a to 71h are formed. When the secondary toy body 3 attached to the attachment portion 22 is rotated, the contact protrusions 71 a to 71 h are pressed against the secondary rotation detection switch unit 43 of the core portion 31 of the secondary toy body 3. Similarly, an auxiliary toy body detection switch part 72 protruding inward is provided on the upper part of the inner peripheral surface of the attachment part 22. The secondary toy body detection switch unit 72 is pressed by the secondary toy body 3 attached to the attachment portion 22 and detects the attachment of the secondary toy body 3 to the attachment portion 22.

  A rotation base 73 is provided at the bottom of the attachment portion 22. An octagonal fitting portion 75 is recessed in the rotation base 73, and the fitting portion 75 is fitted with the attachment portion 62 of the secondary toy body 3 attached to the attachment portion 22. Lock. The rotation base 73 is configured to be rotatable in a direction indicated by an arrow in the drawing integrally with the sub-toy body 3 attached to the attachment portion 22.

  A pressing pin 74 is provided at the center of the rotation base 73. The pressing pin 74 is connected to the trigger portion 24 of the main toy body 2 through an appropriate link mechanism, and is configured to protrude in conjunction with the pressing of the trigger portion 24. In response to the pressing of the trigger portion 24, the pressing pin 74 protrudes, and the auxiliary operation portion 61 of the core portion 31 of the auxiliary toy body 3 attached to the attachment portion 22 is pressed by the pressing pin 74. In other words, the sub-operation unit 61 of the sub-toy body 3 is an interlocking member that operates in conjunction with the operation of the trigger unit 24 when the sub-toy body 3 is mounted on the attachment unit 22 (in this embodiment, a pressing member). When the pin 74) is operated in conjunction with the operation of the trigger portion 24 (in the present embodiment, when protruding), the pin 74) is operated in conjunction with the operated interlocking member (in this embodiment, It is located at a position where it comes into contact with the pressing pin 74 and is moved (pressed).

  FIG. 6 is a perspective view illustrating a configuration example of the rotation base of the mounting portion.

  A plurality of cam plates 81 are formed at predetermined intervals on the peripheral edge of the lower surface of the rotation base 73. The cam plate 81 rotates integrally with the rotation base 73. A main rotation detection switch unit 82 for detecting the rotation of the sub toy body 3 is provided inside the main toy body 2 and functions as a main rotation detection unit. A swing piece 83 is attached to the main rotation detection switch unit 82, and the swing piece 83 is pressed by the cam plate 81 and swings as the rotation base 73 rotates. The main rotation detection switch unit 82 detects the rotation of the sub toy body 3 based on the swing of the swing piece 83.

  FIG. 7 shows functional blocks of the production output toy 1.

  The main toy body 2 includes a mode changeover switch unit 23, a trigger unit 24, a sub toy body detection switch unit 72 that detects attachment of the sub toy body 3, and a main rotation detection switch unit that detects rotation of the sub toy body 3. 82, a light emitting unit 91 and a sound generation unit 92 as a production unit that outputs various productions, a storage unit 93, and a control unit 94.

  The light emitting unit 91 and the sound generation unit 92 output light emission and sound generation according to the effect data under the control of the control unit 94.

  The storage unit 93 is configured to include a storage medium such as a ROM (Read Only Memory) or a RAM (Random Access Memory), for example, and a program executed by the control unit 94 or an effect to be output to the light emitting unit 91 and the sound generation unit 92. I remember the data.

  The control unit 94 includes a processing device such as a microprocessor, for example, and operates according to a program stored in the storage unit 93. Then, the control unit 94 operates the mode changeover switch unit 23 and the trigger unit 24, whether or not the sub toy body detection switch unit 72 detects the attachment of the sub toy body 3, and the sub toy body in the main rotation detection switch unit 82. Based on the presence / absence of the rotation detection of 3, the corresponding effect data is read from the storage unit 93, and the light emitting unit 91 and the sound generation unit 92 are operated based on the read effect data.

  The secondary toy body 3 includes a blade detection switch unit 42 that detects the attachment of the blade part 32, a secondary rotation detection switch unit 43 that detects the rotation of the secondary toy body 3, and the secondary toy body 3 is an attachment part for the main toy body 2. 22, the sub-operation unit 61 that is pressed (operated) in conjunction with the operation of the trigger unit 24 of the main toy body 2, and the light emitting unit 101 and the sound generation unit as a production unit that outputs various productions 102, a storage unit 103, and a control unit 104.

  The light emitting unit 101 and the sound generation unit 102 output light emission and sound generation according to the effect data under the control of the control unit 104.

  The storage unit 103 includes a storage medium such as a ROM or a RAM, for example, and stores programs executed by the control unit 104 and effect data to be output to the light emitting unit 101 and the sound generation unit 102.

  The control unit 104 includes a processing device such as a microprocessor, for example, and operates according to a program stored in the storage unit 103. Then, the control unit 104 is based on whether or not the blade detection switch unit 42 has detected the attachment of the blade unit 32, whether or not the sub rotation detection switch unit 43 has detected rotation of the sub toy body 3, and the operation on the sub operation unit 61. Corresponding effect data is read from the storage unit 103, and the light emitting unit 101 and the sound generation unit 102 are operated based on the read effect data.

(Operation processing)
8-10 is a flowchart explaining the operation | movement using an effect output toy.

  As shown in FIG. 8, the control unit 94 of the main toy body 2 detects the operation of the mode changeover switch unit 23 by the user (step S1), and whether or not the selected mode is the “first mode”. Is determined (step S2). When it is determined that the selected mode is the “first mode” (step S2: YES), the control unit 94 executes a “first mode” process which will be described later with reference to FIG. 9 (step S3). . When it is determined that the selected mode is not the “first mode” (step S2: NO), the control unit 94 executes a “second mode” process described later with reference to FIG. 10 (step S4). .

  FIG. 9 is a flowchart for explaining details of processing when the mode of the main toy body 2 is the “first mode”.

  In the secondary toy body 3, the blade part 32 is set on the core part 31 by the user (step Sb1). The blade detection switch unit 42 detects that the blade unit 32 is set on the core unit 31 (step Sb2). When the control unit 104 of the sub-toy body 3 detects that the blade unit 32 is set on the core unit 31 based on the output of the blade detection switch unit 42, it reads the blade set effect data from the storage unit 103 and reads the read blade Based on the set effect data, the light emitting unit 101 and the sound generation unit 102 are operated to output a blade set effect (step Sb3). Then, the control unit 104 sets the sub toy body 3 until the sub toy body 3 is set on the attachment portion 22 of the main toy body 2 and is rotated, that is, until the rotation of the sub toy body 3 is detected by the sub rotation detection switch unit 43. stand by.

  On the other hand, in the main toy body 2, the control unit 94 reads the first mode standby effect data from the storage unit 93, operates the light emitting unit 91 and the sound generation unit 92 based on the read first mode standby effect data, A mode standby effect is output (step Sa1). Then, the control unit 94 waits until the sub toy body 3 is set on the attachment unit 22, that is, until the attachment of the sub toy body 3 is detected by the sub toy body detection switch unit 72.

  When the user sets the secondary toy body 3 on the attachment portion 22 of the main toy body 2 (step Sb4), the control unit 94 of the main toy body 2 determines the secondary toy body based on the output of the secondary toy body detection switch unit 72. 3 is set on the attachment unit 22 (step Sa2), the secondary toy body set effect data is read from the storage unit 93, and the light emitting unit 91 and the sounding unit 92 are activated based on the read secondary toy body set effect data. Operate and output the sub toy body setting effect (step Sa3). Then, the control unit 94 stands by until the sub toy body 3 set in the attachment unit 22 is rotated, that is, until the rotation of the sub toy body 3 is detected by the main rotation detection switch unit 82.

  When the sub toy body 3 set on the attachment portion 22 of the main toy body 2 is rotated by the user (step Sb5), in the main toy body 2, the control section 94 is based on the output of the main rotation detection switch section 82. It is detected that the secondary toy body 3 has been rotated (step Sa4), and in the secondary toy body 3, the control unit 104 detects that the secondary toy body 3 has been rotated based on the output of the secondary rotation detection switch unit 43. (Step Sb6). A plurality of cam plates 81 that press the swing piece 83 of the main rotation detection switch unit 82 and contact projections 71 that press down the sub rotation detection switch unit 43 are arranged at equal intervals in the rotation direction of the sub toy body 3. Is provided. The conditions for detecting the rotation of the sub toy body 3 in the control unit 94 of the main toy body 2 and the conditions for detecting the rotation of the sub toy body 3 in the control unit 104 of the sub toy body 3 are the rotation detection and sub The rotation detection in the toy body 3 is set so as to be performed substantially simultaneously. For example, in the main toy body 2, the number of times the state of the main rotation detection switch unit 82 changes during an extremely short main rotation detection time (for example, 0.3 seconds) of 1 second or less (from an on state to an off state, or an off state). When the number of times of turning on is increased to a predetermined number of main rotation detection times (for example, a total of 6 times or more), the control unit 94 rotates with respect to the sub toy body 3 attached to the main toy body 2 Set to determine that the operation has been performed. Further, also in the sub toy body 3, the number of times of the state change of the sub rotation detection switch unit 43 during the extremely short sub rotation detection time (for example, 0.3 seconds) of 1 second or less (from the on state to the off state, or When the number of times of switching from the off state to the on state) is equal to or greater than a predetermined number of times of sub-rotation detection (for example, a total of 6 times or more), the control unit 104 applies the sub-toy body 3 attached to the main toy body 2 To determine that a rotation operation has been performed. With this setting, if the rotation operation on the sub toy body 3 is detected in both the main toy body 2 and the sub toy body 3, it will be detected within an extremely short time of 1 second or less. Therefore, they are detected almost simultaneously. Further, in the present embodiment, the cam plate 81 and the contact protrusions 71 on the peripheral edge of the lower surface of the rotation base 73 are formed at the same number, that is, eight at equal intervals, and the main rotation detection time and the sub-rotation time The rotation detection time is made equal, and the number of main rotation detections and the number of sub-rotation detections are also made equal. Therefore, when rotation is detected in the main toy body 2, that is, when the state of the main rotation detection switch unit 82 is changed more than the number of times of main rotation detection within the main rotation detection time, also in the sub toy body 3, Since there is a high possibility that the state change of the sub-rotation detection switch unit 43 has occurred more than the number of sub-rotation detections within the sub-rotation detection time, the rotation detection in the main toy body 2 and the rotation detection in the sub-toy body 3 are substantially simultaneously performed. The accuracy made is high. The conditions for detecting rotation of the sub toy body 3 in the control unit 94 of the main toy body 2 and the conditions for detecting rotation of the sub toy body 3 in the control unit 104 of the sub toy body 3 are not limited to the above. As long as the user rotates the sub-toy body 3 so that rotation is detected in both the main toy body 2 and the sub-toy body 3 (for example, either the main toy body 2 or the sub-toy body 3 intentionally) Unless the operation is performed so that the rotation is not detected), it is only necessary to set the condition that the detection of the rotation of the main toy body 2 and the detection of the rotation of the sub toy body 3 are performed substantially simultaneously. The rotation detection method is not limited to the method described above, and for example, a rotation sensor may be used.

  The control unit 94 of the main toy body 2 that has detected the rotation of the sub toy body 3 performs main effect data (hereinafter referred to as “first effect”) that constitutes a first effect that is an effect when the sub toy body 3 is rotated in the first mode. 1 effect main effect data ") is read from the storage unit 93, and at a predetermined timing from the time when the rotation of the sub toy body 3 is detected in step Sa4, the light emitting unit 91 and the The sound generation unit 92 is operated to output the main effect of the first effect (step Sa5).

  The control unit 104 of the secondary toy body 3 that has detected the rotation of the secondary toy body 3 also reads the secondary effect data from the storage unit 103 and reads it at a predetermined timing from the time when the rotation of the secondary toy body 3 is detected in step Sb6. Based on the sub-effect data, the light emitting unit 101 and the sound generation unit 102 are operated to output the sub-effect (step Sb7).

  The first effect that is the effect when the sub toy body 3 is rotated in the first mode is configured by combining the main effect output from the main toy body 2 and the sub effect produced from the sub toy body 3. Is done.

  FIG. 10 is a flowchart for explaining the details of the processing when the mode of the main toy body 2 is the “second mode”.

  In the sub-toy body 3, although not shown, the blade portion 32 is set on the core portion 31 as the blade portion 32 is set on the core portion 31 by the user, similarly to the processing shown in FIG. 9. The detected control unit 104 reads the blade set effect data from the storage unit 103, operates the light emitting unit 101 and the sound generation unit 102 based on the read blade set effect data, and outputs the blade set effect. Then, the control unit 104 sets the sub toy body 3 until the sub toy body 3 is set on the attachment portion 22 of the main toy body 2 and is rotated, that is, until the rotation of the sub toy body 3 is detected by the sub rotation detection switch unit 43. stand by.

  On the other hand, in the main toy body 2, the control unit 94 reads the second mode standby effect data from the storage unit 93, operates the light emitting unit 91 and the sounding unit 92 based on the read second mode standby effect data, and outputs the second mode standby effect data. A mode standby effect is output (step Sa11). Then, the control unit 94 waits until the subsidiary toy body 3 is set on the attachment unit 22.

  When the sub toy body 3 is set on the attachment portion 22 of the main toy body 2 by the user (step Sb14), the control unit 94 determines that the sub toy body 3 is attached to the attachment portion 22 based on the output of the sub toy body detection switch portion 72. Is detected (step Sa12), the secondary toy body set effect data is read from the storage unit 93, and the light emitting unit 91 and the sounding unit 92 are operated based on the read secondary toy body set effect data. A specific set effect is output (step Sa13). Then, the control unit 94 stands by until the sub toy body 3 set in the attachment unit 22 is rotated, that is, until the rotation of the sub toy body 3 is detected by the main rotation detection switch unit 82.

  When the sub toy body 3 set on the attachment portion 22 of the main toy body 2 is rotated by the user (step Sb15), in the main toy body 2, the control section 94 is based on the output of the main rotation detection switch section 82. It is detected that the secondary toy body 3 has been rotated (step Sa14), and in the secondary toy body 3, the control unit 104 detects that the secondary toy body 3 has been rotated based on the output of the secondary rotation detection switch unit 43. (Step Sb16). As described above, the conditions for detecting the rotation of the sub toy body 3 in the control unit 94 of the main toy body 2 and the sub are detected so that the rotation detection in the main toy body 2 and the rotation detection in the sub toy body 3 are performed substantially simultaneously. Conditions for detecting the rotation of the sub toy body 3 in the control unit 104 of the toy body 3 are set.

  The control unit 94 of the main toy body 2 that has detected the rotation of the sub toy body 3 performs main effect data (hereinafter referred to as “first effect”) that constitutes a third effect that is an effect when the sub toy body 3 is rotated in the second mode. 3 effect main effect data ") is read from the storage unit 93, and at a predetermined timing from the time when the rotation of the sub toy body 3 is detected in step Sa14, the light emitting unit 91 and the third effect data are read out based on the read third effect main effect data. The sound generation unit 92 is operated to output the main effect of the third effect (step Sa15). And the control part 94 waits until the trigger part 24 is pressed by the user.

  The control unit 104 of the subsidiary toy body 3 that has detected the rotation of the subsidiary toy body 3 also reads out subsidiary effect data that is an effect when the subsidiary toy body 3 is rotated from the storage unit 103, and in step Sb16, the subsidiary toy body 3 is read. At a predetermined timing from the time when the rotation is detected, the light emitting unit 101 and the sounding unit 102 are operated based on the read subsidiary effect data, and the subsidiary effect is output (step Sb17). And the control part 104 waits until the trigger part 24 of the main toy body 2 is pressed by the user, and the sub operation part 61 is pressed in response to the press of the trigger part 24.

  A main effect output from the main toy body 2 and a secondary effect produced from the sub toy body 3 are combined to form a third effect that is an effect when the sub toy body 3 is rotated in the second mode. Is done.

  When the trigger part 24 of the main toy body 2 is pressed by the user (step Sa16), in the main toy body 2, the control unit 94 detects that the trigger part 24 is pressed (step Sa17), and the secondary toy Specifically, the sub operation unit 61 is pressed in conjunction with the pressing of the trigger unit 24, and the control unit 104 detects that the sub operation unit 61 is pressed (step Sb18). The detection of the pressing of the trigger part 24 in the main toy body 2 and the detection of the pressing of the sub operation part 61 in the sub toy body 3 are performed substantially simultaneously.

  The control unit 94 of the main toy body 2 that has detected the pressing of the trigger unit 24 has main effect data (hereinafter, “second effect main effect data”) that constitutes a second effect that is an effect when the trigger unit 24 is pressed. ) From the storage unit 93, and at a predetermined timing from the time when the pressing of the trigger unit 24 is detected in step Sa17, the light emitting unit 91 and the sounding unit 92 are operated based on the read main effect data of the second effect, The main effect of 2 effects is output (step Sa18).

  The control unit 104 of the sub toy body 3 that has detected the pressing of the sub operation unit 61 also includes sub effect data (hereinafter referred to as “first effect”) that constitutes a second effect that is an effect when the trigger unit 24 of the main toy body 2 is pressed. 2 effects sub-effect data ") is read from the storage unit 103, and at a predetermined timing from the time when the pressing of the sub-operation unit 61 is detected in step Sb18, the light emitting unit 101 and the second effect data are read based on the read second effect sub-effect data. The sound generation unit 102 is operated to output a secondary effect of the second effect (step Sb19).

  The main production output from the main toy body 2 and the secondary production produced from the sub-toy body 3 are combined to form the second production that is the production when the trigger unit 24 is pressed.

  The first effect, the second effect, and the third effect are different from each other as a whole because at least one of the main effect of the main toy body 2 and the sub effect of the sub toy body 3 constituting each effect is different. .

  The main toy body 2 is provided with a mode output unit that outputs a signal indicating the current mode to the secondary toy body 3, and the secondary toy body 3 outputs a signal that can detect the mode of the main toy body 2 based on the signal. A main toy mode detection unit may be provided.

  FIG. 11 is a flowchart for explaining details of processing when the sub toy body 3 detects the “second mode”.

  In the sub-toy body 3, although not shown, the blade portion 32 is set on the core portion 31 as the blade portion 32 is set on the core portion 31 by the user, similarly to the processing shown in FIG. 9. The detected control unit 104 reads the blade set effect data from the storage unit 103, operates the light emitting unit 101 and the sound generation unit 102 based on the read blade set effect data, and outputs the blade set effect. Then, when the sub-toy body 3 is set on the attachment part 22 of the main toy body 2 (Step Sb23), the control unit 104 causes the control unit 104 to output the current mode output from the mode output unit of the main toy body 2 The mode of the main toy body 2 is detected based on the signal output from the main toy body mode detection unit (not shown) based on the signal indicating (second mode in the present embodiment) (step Sb24). Then, the control unit 104 sets the sub toy body 3 until the sub toy body 3 is set on the attachment portion 22 of the main toy body 2 and is rotated, that is, until the rotation of the sub toy body 3 is detected by the sub rotation detection switch unit 43. stand by.

  On the other hand, in the main toy body 2, the control unit 94 reads the second mode standby effect data from the storage unit 93, operates the light emitting unit 91 and the sounding unit 92 based on the read second mode standby effect data, and outputs the second mode standby effect data. A mode standby effect is output (step Sa21). Then, the control unit 94 waits until the subsidiary toy body 3 is set on the attachment unit 22.

  When the sub toy body 3 is set on the attachment portion 22 of the main toy body 2 by the user (step Sb23), the control unit 94 causes the sub toy body 3 to be attached to the attachment portion 22 based on the output of the sub toy body detection switch portion 72. Is detected (step Sa22), the secondary toy body set effect data is read from the storage unit 93, and the light emitting unit 91 and the sounding unit 92 are operated based on the read secondary toy body set effect data. A specific set effect is output (step Sa23). Then, the control unit 94 stands by until the sub toy body 3 set in the attachment unit 22 is rotated, that is, until the rotation of the sub toy body 3 is detected by the main rotation detection switch unit 82.

  When the sub toy body 3 set on the attachment portion 22 of the main toy body 2 is rotated by the user (step Sb25), in the main toy body 2, the control section 94 is based on the output of the main rotation detection switch section 82. It is detected that the secondary toy body 3 has been rotated (step Sa24), and in the secondary toy body 3, the control unit 104 detects that the secondary toy body 3 has been rotated based on the output of the secondary rotation detection switch unit 43. (Step Sb26). As described above, the conditions for detecting the rotation of the sub toy body 3 in the control unit 94 of the main toy body 2 and the sub are detected so that the rotation detection in the main toy body 2 and the rotation detection in the sub toy body 3 are performed substantially simultaneously. Conditions for detecting the rotation of the sub toy body 3 in the control unit 104 of the toy body 3 are set.

  The control unit 94 of the main toy body 2 that has detected the rotation of the sub toy body 3 performs main effect data (hereinafter referred to as “the first effect”) that constitutes a fifth effect that is an effect when the sub toy body 3 is rotated in the second mode. 5 effect main effect data ") is read from the storage unit 93, and at a predetermined timing from the time when the rotation of the sub toy body 3 is detected in step Sa14, the light emitting unit 91 and the light effect unit 91 and The sound generation unit 92 is operated to output the main effect of the fifth effect (step Sa25). And the control part 94 waits until the trigger part 24 is pressed by the user.

  The control unit 104 of the sub-toy body 3 that has detected the rotation of the sub-toy body 3 also has sub-effect data (hereinafter referred to as “the fifth effect” which is an effect when the sub-toy body 3 is rotated in the second mode. The sub-effect data of the fifth effect ”) is read from the storage unit 103, and the light-emitting unit 101 is based on the read sub-effect data of the fifth effect at a predetermined timing from the time when the rotation of the sub toy body 3 is detected in step Sb26. Then, the sound generation unit 102 is operated to output a sub-effect of the fifth effect (step Sb27). And the control part 104 waits until the trigger part 24 of the main toy body 2 is pressed by the user, and the sub operation part 61 is pressed in response to the press of the trigger part 24.

  The main production output from the main toy body 2 and the secondary production produced from the secondary toy body 3 are combined, so that the main toy body 2 is in the second mode and the secondary toy body 3 is also in the second mode. When it can be detected, a fifth effect is formed which is an effect when the sub-toy body 3 is rotated.

  When the trigger part 24 of the main toy body 2 is pressed by the user (step Sa26), in the main toy body 2, the control unit 94 detects that the trigger part 24 is pressed (step Sa27), and the secondary toy Specifically, the sub operation unit 61 is pressed in conjunction with the pressing of the trigger unit 24, and the control unit 104 detects that the sub operation unit 61 is pressed (step Sb28). The detection of the pressing of the trigger part 24 in the main toy body 2 and the detection of the pressing of the sub operation part 61 in the sub toy body 3 are performed substantially simultaneously.

  The control unit 94 of the main toy body 2 that has detected the pressing of the trigger unit 24 has main effect data (hereinafter referred to as “fourth effect”) that constitutes a fourth effect that is an effect when the trigger unit 24 is pressed in the second mode. Of the main effect data ”) from the storage unit 93, and at a predetermined timing from when the pressing of the trigger unit 24 is detected in step Sa17, the light emitting unit 91 and the sound generation unit 92 based on the read main effect data of the fourth effect. Is operated to output the main effect of the fourth effect (step Sa28).

  The control unit 104 of the sub-toy body 3 that has detected the pressing of the sub-operation unit 61 also includes sub-effect data that constitutes a fourth effect that is an effect when the trigger unit 24 of the main toy body 2 is pressed in the second mode. (Hereinafter referred to as “sub-effect data of the fourth effect”) is read from the storage unit 103, and based on the read sub-effect data of the fourth effect at a predetermined timing from when the pressing of the sub operation unit 61 is detected in step Sb28. Then, the light emitting unit 101 and the sound generation unit 102 are operated to output a sub-effect of the fourth effect (step Sb29).

  The main production output from the main toy body 2 and the secondary production produced from the secondary toy body 3 are combined, so that the main toy body 2 is in the second mode and the secondary toy body 3 is also in the second mode. When it can be detected, the 4th effect which is an effect when the trigger part 24 is pressed is comprised.

  FIG. 12 shows an example of the output timing of each of the main effects of the main toy body 2 and the sub effects of the sub toy body 3 that constitute the second effect when the trigger portion 24 of the main toy body 2 is pressed.

  As described above, the main effect of the main toy body 2 constituting the second effect is output at a predetermined timing from the time when the pressing of the trigger unit 24 is detected, and the second effect is configured together with the main effect of the main toy body 2. The secondary effect of the secondary toy body 3 is output at a predetermined timing from the point in time when the pressing of the secondary operation unit 61 is detected. And detection of the press of the trigger part 24 in the main toy body 2 and detection of the press of the sub operation part 61 in the sub toy body 3 are made substantially simultaneously.

  In the example shown in FIG. 11A, the main effect data is reproduced and the main effect is output from the main toy body 2 immediately after the pressing of the trigger unit 24 is detected, and the pressing of the sub operation unit 61 is detected. Immediately after, the sub-effect data is reproduced and the sub-effect is output from the sub-toy body 3, and the main effect and the sub-effect are output substantially simultaneously.

  On the other hand, in the example shown in FIG. 11 (B), the main effect is output from the main toy body 2 after a predetermined time has elapsed since the pressing of the trigger portion 24 is detected, and immediately after the pressing of the sub operation portion 61 is detected. A sub-effect is output from the sub-toy body 3, and the main effect is output after the start of the output of the sub-effect. For example, by providing a timer in the control unit 94 of the main toy body 2 and starting the reproduction of the main effect data after a predetermined time has elapsed after detecting the pressing of the trigger unit 24 based on the time measured by the timer, The main effect can be output after the start of the sub-effect output. In addition, empty data (no sound / no light emission data) may be added to the head of the main effect data. According to this, the main effect can be output after the start of the output of the sub effect without using a timer. .

  The sub-effect may be output after the start of the main effect output. Moreover, about the Example of each output timing of the main production of the main toy body 2 demonstrated above and the sub production of the sub toy body 3, it is the production when the trigger part 24 of the main toy body 2 is pressed similarly. You may apply to a 4th effect. Further, the first effect, the third effect, and the fifth effect, which are effects when the sub-toy body 3 is rotated, are also applied to the main effect and the sub-effects of the main toy body 2 as in the embodiment described above. You may make it output the sub production of the toy body 3 substantially simultaneously, or delay the output of one production with respect to the output start of the other production.

  In this way, the output of one effect of the main effect of the main toy body 2 and the sub effect of the sub toy body 3 is delayed with respect to the start of output of the other effect so that the main effect and the sub-effect are output alternately. By doing so, it is possible to diversify the production and further enhance the interest of the production output toy.

  As described above, according to the production output toy 1 according to the present embodiment, the secondary toy body 2 that outputs the primary production and the secondary toy body 3 that outputs the secondary production and is attached to the primary toy body 2. By rotating the toy body 3, the main effect can be output from the main toy body 2, and further, the sub effect can be output from the sub toy body 3, and a highly interesting effect can be performed. Further, since the operation for the production output is to rotate the sub toy body 3 itself, for example, the operation for the production output for the user is less than the operation of simply pressing the output switch. It will be more enjoyable as a play.

  And, the main production output from the main toy body 2 and the secondary production output from the sub toy body 3 can be output almost simultaneously, or alternatively, a time lag can be provided and output alternately. The interest of the production output toy can be further enhanced.

[Modification]
In the above description, one sub-toy body 3 is illustrated, but the present invention is not limited to this, and a plurality of types of sub-toy bodies 3 may be prepared, and the sub-toy body 3 may have different sub-effects for each type. . Moreover, although the main rotation detection switch part 82 and the sub rotation detection switch part 43 were illustrated as a main rotation detection part and a sub rotation detection part, it should just be able to detect rotation of the sub toy body 3 not only this. For example, if the sub-rotation detection unit detects that the sub-toy body 3 is rotated at high speed, a centrifugal switch may be used as the sub-rotation detection unit. Moreover, you may make it detect rotation with respect to the sub toy body 3 of the main toy body 2 using a rotation angle sensor like a rotary encoder as a main rotation detection part. Similarly, a rotation angle sensor may be used as the auxiliary rotation detection unit. In the present embodiment, the main toy body is described as having a plurality of modes, but this is not essential. The main toy body is not provided with a mode switching function, and when the secondary toy body is simply rotated, the main production of the first production from the main toy body (which naturally does not depend on the mode of the main toy body) Specifically, the sub-effect is output, and when viewed as the entire effect output toy, the first effect constituted by the output main effect and sub-effect may be output. Similarly, when the main toy body is not provided with a mode switching function, the second effect, which is an effect when the main operation unit of the main toy body is operated, is also simply displayed when the main operation unit is operated. The main effect of the second effect output from the toy body 2 (which is naturally not dependent on the mode of the main toy body) and the sub-effect output from the sub toy body 3 may be configured.

  It should be thought that embodiment disclosed this time is an illustration and restrictive at no points. The scope of the present invention is defined by the terms of the claims, rather than the description above, and is intended to include any modifications within the scope and meaning equivalent to the terms of the claims.

DESCRIPTION OF SYMBOLS 1 Production output toy 2 Main toy body 3 Secondary toy body 22 Attachment part 23 Mode switch part 24 Trigger part (main operation part)
31 core (sub-toy body)
32 Blade part (attachment part of secondary toy body)
42 Blade detection switch unit 43 Sub rotation detection switch unit 61 Sub operation unit 82 Main rotation detection switch unit

An effect output toy according to the present invention is an effect output toy comprising a main toy body capable of outputting a main effect based on stored effect data and a sub toy body capable of outputting a sub effect based on the stored effect data. The main toy body has an attachment part to which the auxiliary toy body is rotatably attached, and a main rotation detection part for detecting the rotation of the auxiliary toy body attached to the attachment part. The toy body has a sub-rotation detection unit that detects the rotation of the sub-toy body in a state of being attached to the attachment unit, and the sub-toy body is in a state of being attached to the attachment unit. Is rotated, the rotation of the sub toy body is detected by the main rotation detection unit and the sub rotation detection unit, respectively, and at a predetermined timing from the detection of the rotation of the sub toy body by the main rotation detection unit. Output from main toy body A main effect being, wherein said by-rotation detector the first effect containing by-effect and output from the sub-toy body from the detection at a predetermined timing the rotation of the sub-toy body by is output. An effect output toy according to the present invention comprises a main toy body capable of outputting a main effect based on stored effect data, and a sub toy body capable of outputting a sub effect based on the stored effect data. The main toy body includes a main rotation detection unit to which the sub toy body is rotatably attached and capable of detecting rotation of the attached sub toy body. And a sub-rotation detecting unit capable of detecting the rotation of the sub-toy body in a state of being attached to the main toy body, and the sub-toy body being attached to the main toy body. Is rotated, the rotation of the sub toy body is detected by the main rotation detection unit and the sub rotation detection unit, respectively, and at a predetermined timing from the detection of the rotation of the sub toy body by the main rotation detection unit. Output from the main toy body A main effect, and wherein said by-rotation detector the first effect containing by-effect and output from the sub-toy body from the detection at a predetermined timing the rotation of the sub-toy body by is output.

In the production output toy according to the present invention, the main toy body can switch an operation mode, and when the operation mode of the main toy body is set to the first mode, When the sub-toy body is rotated in a state where the sub-toy body is attached, the first effect is output, and the operation mode of the main toy body is set to the second mode. The main toy output from the main toy body at a predetermined timing from the detection of the rotation of the secondary toy body by the main rotation detector by rotating the secondary toy body with the secondary toy body attached to the main toy body A third effect may be output including the output and the secondary effect output from the secondary toy body at a predetermined timing from the detection of the rotation of the secondary toy body by the secondary rotation detection unit. Moreover, in the production output toy according to the present invention, the main toy body can switch the operation mode, and when the operation mode of the main toy body is set to the first mode, When the secondary toy body is rotated in a state where the secondary toy body is attached, the first effect is output, and the operation mode of the main toy body is set to the second mode. When the secondary toy body is rotated with the secondary toy body attached to the toy body, the secondary toy body is output from the main toy body at a predetermined timing from the detection of the rotation of the secondary toy body by the main rotation detection unit. A third effect including a main effect and a sub-effect output from the sub-toy body at a predetermined timing from detection of rotation of the sub-toy body by the sub-rotation detection unit may be output.

Claims (10)

A main toy body capable of outputting a main production based on the stored production data;
A sub-toy body that can output a sub-production based on the stored production data;
A production output toy comprising
The main toy body has an attachment part to which the secondary toy body is rotatably attached, and a main rotation detection part for detecting rotation of the secondary toy body attached to the attachment part,
The secondary toy body has a secondary rotation detection unit that detects the rotation of the secondary toy body in a state of being attached to the mounting portion,
By rotating the subsidiary toy body in a state where the subsidiary toy body is attached to the attachment portion, the rotation of the subsidiary toy body is detected by the main rotation detecting unit and the sub rotation detecting unit, respectively. A main effect output from the main toy body at a predetermined timing from the detection of the rotation of the sub toy body by the rotation detection unit, and the sub effect at a predetermined timing from the detection of the rotation of the sub toy body by the sub rotation detection unit. A production output toy in which a first production including a secondary production output from the toy body is output. In the production output toy according to claim 1,
The main toy body further includes a main operation unit,
The sub toy body further includes a sub operation part,
The sub operation unit is operated in response to the operation of the main operation unit in a state where the sub toy body is attached to the attachment unit,
A main effect output from the main toy body at a predetermined timing from the operation of the main operation part by operating the main operation part in a state where the sub toy body is attached to the main toy body, An effect output toy that outputs a second effect including a sub-effect output from the sub-toy body at a predetermined timing from the operation of the sub-operation unit operated according to the operation of the main operation unit. In the production output toy according to claim 1 or 2,
The main toy body can switch the operation mode,
When the operation mode of the main toy body is set to the first mode, the first effect is output by rotating the auxiliary toy body with the auxiliary toy body attached to the attachment portion. And
When the operation mode of the main toy body is set to the second mode, the secondary toy body is rotated in a state where the secondary toy body is attached to the attachment portion. A main effect output from the main toy body at a predetermined timing from the detection of the rotation of the sub toy body, and an output from the sub toy body at a predetermined timing from the detection of the rotation of the sub toy body by the sub rotation detection unit A production output toy in which a third production including a secondary production is output. A production output toy according to claim 3,
An effect output toy in which, in one or more effects of the first effect, the second effect, and the third effect, the main effect and the sub-effect that constitute the effect are alternately output. A production output toy according to claim 4,
The production data corresponding to at least one of the main production and the sub production that are alternately output is a production output toy including an empty data portion. The production output toy according to any one of claims 1 to 5,
There are a plurality of types of sub-toy bodies, and the output toys are different from each other in each sub-toy body type. The production output toy according to any one of claims 1 to 6,
The secondary toy body is a production output toy having a substantially cylindrical shape. The production output toy according to claim 7,
A production output toy in which a plurality of hooks are provided at intervals in the circumferential direction on the outer peripheral edge of the sub-toy body. The production output toy according to any one of claims 1 to 8,
The sub-toy body has a main body portion that outputs the sub-effect, and an annular attachment portion that is detachably attached to the outer periphery of the main body portion,
The said main-body part is an effect output toy which has a detection part which detects mounting | wearing of the said attachment part, and outputs an effect according to the detection of the said attachment part by this detection part. A production output toy according to claim 9,
The accessory is a production output toy made of a softer material than the main body and usable as a throwing toy.

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