JP6845824B2 - Directing output toys - Google Patents

Description

The present invention relates to a production output toy that can output a production that can be experienced according to movement.

Later, Patent Document 1 discloses a ball that changes an output signal such as light or sound in the ball or the environment in which the ball is used and an output method according to the state of the ball by determining the state of the ball.

That is, the output is made according to the usage environment at an unexpected time point, and the output is not an effect that can be experienced by sound, light, vibration, or the like according to a predetermined movement.

International Publication No. 2010/016349

An object of the present invention is to provide a production output toy capable of outputting a production that can be experienced according to a predetermined movement.

The effect output toy according to the present invention includes a toy body, a motion detection unit that detects the movement of the toy body, an effect output unit for outputting a sensible effect, and a predetermined movement of the toy body. The control unit has a storage unit for storing a plurality of storage units, a movement selection unit for selecting any one of the predetermined movements, and a control unit for controlling the output of the effect by the effect output unit. On the condition that the motion detection unit detects that the movement of the toy body is a predetermined movement selected by the motion selection unit, the effect output unit outputs the perceptible effect. The effect is predetermined by the effect output unit, provided that the movement detection unit detects that the movement of the toy body is not the predetermined movement selected by the movement selection unit. It is configured to be controllable to output an effect indicating that it is not a movement. Further, the effect output toy according to the present invention includes a toy body, a motion detection unit for detecting the movement of the toy body, an effect output unit for outputting the effect, and a control unit. The toy at the first position is controlled by controlling the effect output unit so that the effect can be output in response to the detection of the movement of the toy body from the first position to the second position by the motion detection unit. The effect is changed according to the stationary time of the main body. Further, the effect output toy according to the present invention includes a toy body, a motion detection unit which is a three-dimensional acceleration sensor that detects a moving direction when the toy body moves, and a toy body second from a first position. A storage unit that stores the movement direction toward the position, a determination unit that determines whether or not the movement direction detected by the detection unit corresponds to the movement direction stored in the storage unit, and an effect for outputting the effect. The effect output unit and a control unit that controls the output of the effect by the effect output unit are provided, and the control unit stores the moving direction of the toy body from the first position to the second position. It is possible to output the effect corresponding to the second position based on the determination by the determination unit that the moving direction is memorized by the unit and the stationary time of the toy body at the first position. The effect output unit is controlled. Further, the effect output toy according to the present invention includes a toy body, a motion detection unit which is a three-dimensional acceleration sensor that detects a moving direction when the toy body moves, and a toy body second from a first position. A storage unit that stores the movement direction toward the position, a determination unit that determines whether or not the movement direction detected by the detection unit corresponds to the movement direction stored in the storage unit, and an effect for outputting the effect. The effect output unit and a control unit that controls the output of the effect by the effect output unit are provided, and the control unit stores the moving direction of the toy body from the first position to the second position. Based on the determination by the determination unit that the moving direction is stored in the unit, the effect output unit is controlled so that the effect at the second position can be output, and the toy at the first position is output. The effect output unit is controlled so that the effect at the second position can be changed and output according to the stationary time of the main body.

According to the production output toy according to the present invention, by outputting a production that can be experienced according to a predetermined movement, the user is made to feel the fun and enjoyment of outputting the production, and the fun of the toy is improved. Can be made to.

FIG. 1 is an external perspective view of an effect output toy to which the present invention is applied. FIG. 2 is an external perspective view of the effect output toy shown in FIG. 1 as viewed from different directions. FIG. 3 is a side view of the effect output toy shown in FIGS. 1 and 2. FIG. 4 is an exploded view of the effect output toy shown in FIG. FIG. 5 is a top view of the unit case shown in FIG. FIG. 6 is a bottom view of the unit case shown in FIG. FIG. 7 is a block diagram of the effect output unit housed in the unit case shown in FIGS. 4 to 6. FIG. 8 is a diagram showing an example of a predetermined movement. FIG. 9 is a diagram showing another example of predetermined movement. FIG. 10 is a diagram showing an operation flow of the effect output toys shown in FIGS. 1 to 7. FIG. 11 is a diagram showing a modified example of the effect output toy shown in FIGS. 1 to 7.

First, the configuration of the effect output toy to which the present invention is applied will be described with reference to FIGS. 1 to 7. In this description, for the sake of convenience, the upper side of FIGS.

The effect output toy includes a toy body 10, a unit case 20 housed in the toy body 10, and a production output unit 30 housed in the unit case 20.

<Structure of toy body 10 (see FIGS. 1 to 4)>
The toy body 10 has a spherical shape, and the inside is hollow. The toy body 10 may be transparent, translucent or opaque, but is preferably transparent or translucent when the sensible effect described later includes light. Further, on the line corresponding to the maximum outer diameter of the surface of the toy body 10, the square first mark 10a and the round second mark 10b are provided at different positions by 180 degrees.

The toy main body 10 is configured by detachably connecting a substantially hemispherical first main body portion 11 and a substantially hemispherical second main body portion 12. The surface of the first main body 11 is provided with a recess 11a as shown in FIGS. 1 and 2, and the lower surface of the recess 11a has an operation unit (see FIG. 5) of the power switch 32 described later and a recess 11a described later. Holes 11b and 11c are provided for projecting the operation unit (see FIG. 5) of the motion selection switch 33, respectively.

Further, a fitting portion 11d is provided on the opening edge of the first main body portion 11, and a fitting portion 12a capable of fitting the fitting portion 11d is provided on the opening edge of the second main body portion 12. There is. That is, by fitting the fitting portion 11d of the first main body portion 11 into the fitting portion 12a of the second main body portion 12, the first main body portion 11 and the second main body portion 12 are joined to form a spherical shape. Become.

In addition to the above-mentioned fitting portions 11d and 12a, an L-shaped groove is provided on the inner peripheral surface of the fitting portion 11d as a means for detachably connecting the first main body portion 11 and the second main body portion 12. A combination of a product and an outer peripheral surface of the fitting portion 12a having a convex portion that can be engaged with the L-shaped groove, or a fitting portion having a thread on the inner peripheral surface of the fitting portion 11d. A combination with a screw groove provided on the inner peripheral surface of 12a with which the threads mesh with each other can be appropriately adopted.

Further, on the inner surface of the first main body portion 11, one or more protrusions 11e that support the upper surface of the unit case 20 together with the recess 11a are provided integrally or separately from the first main body portion 11. Two or more protrusions 11e that support the lower surface of the unit case 20 are provided on the inner surface of the second main body portion 12 integrally or separately from the second main body portion 12.

As the means for supporting the upper surface of the unit case 20, in addition to the protrusion 11e, an annular convex portion, a C-shaped convex portion, or the like provided on the inner surface of the first main body portion 11 can be appropriately adopted. Further, as the means for supporting the lower surface of the unit case 20, in addition to the above-mentioned protrusion 12a, an annular convex portion or a C-shaped convex portion provided on the inner surface of the second main body portion 12 can be appropriately adopted.

<Structure of unit case 20 (see FIGS. 3 to 6)>
The unit case 20 includes a substantially cylindrical case body 21, a case cover 22 detachably attached to the lower opening of the case body 21, and a power supply cover 23 detachably attached to the upper surface of the case body 21. Has been done. The unit case 20 may be transparent, translucent or opaque, but is preferably transparent or translucent when the sensible effect described later includes light. The case cover 22 is opened and closed when the effect output unit 30 is inspected or when the effect output unit 30 is attached / detached. The power supply cover 23 is opened and closed when a battery (not shown) is stored in a battery storage unit 24 provided in the upper part of the case body 21, or when the battery is replaced.

The inner surface of the case body 21 is preferably provided with three or more rod-shaped portions 25 integrally or separately. The case cover 22 is attached to the case body 21 by screwing a screw SC into the end of each rod-shaped portion 25 through a hole (not shown) provided in the case cover 22. The power supply cover 23 is attached to the case main body 21 by screwing a screw SC into the upper surface of the case main body 21 through a hole (not shown) provided in the power supply cover 23.

In addition to the above-mentioned screw SC, the means for detachably attaching the case cover 22 to the case body 21 includes means for detachably connecting the first main body 11 and the second main body 12 described above. Can be adopted as appropriate. Further, as a means for attaching and detaching the power supply cover 23 to the lower surface opening of the case main body 21, an insertion portion that can be inserted and removed from the insertion hole provided on the upper surface of the case main body 21 is provided at one end of the power supply cover 23, and the insertion portion is provided. Is inserted into the insertion hole, and the other end of the power supply cover 23 is fixed to the upper surface of the case body 21 using a screw SC, or it can be inserted and removed from the insertion hole provided on the upper surface of the case body 21. An insertion portion is provided at one end of the power supply cover 23, and a flexible engaging piece capable of engaging with an engagement hole provided on the upper surface of the case body 21 is provided at the other end of the power supply cover 23. The flexible engaging piece of the power supply cover 23 is appropriately engaged with the engaging hole of the case body 21 in a state of being inserted into the insertion hole.

<How to store the unit case 20 in the toy body 10 (see FIGS. 3 and 4)>
When the unit case 20 is housed in the toy body 10, the unit case 20 oriented up and down is inserted into the first main body 11, and the operation unit of the power switch 32 (see FIG. 5) and the movement selection switch 33. After inserting the operation unit (see FIG. 5) into the holes 11b and 11c (see FIGS. 1, 2 and 4), respectively, the first main body 13 is covered with the exposed portion of the unit case 20. It is coupled to the main body 11. In this coupled state, as shown in FIG. 3, the upper and lower surfaces of the unit case 20 are supported by the protrusions 11e on the inner surface of the first main body 11 and the protrusions 12b of the second main body 12, and the unit case 20 is supported. It is stored in a predetermined position in the toy body 10.

<Structure of production output unit 30 (see FIG. 7)>
The effect output unit 30 includes a control unit 31, a power switch 32, a motion selection switch 33, a first contact detection unit 34, a second contact detection unit 35, a motion detection unit 36, and a sound output unit 37. It has an optical output unit 38, a vibration output unit 39, a storage unit 40, and a power supply unit 41.

The control unit 31 has a microcomputer, various drivers, various interfaces, and the like, and stores a program for operation control in a ROM. The power switch 32 is composed of a slide switch or the like, and is for supplying and shutting off power from the power supply unit 41 (pointing to the battery stored in the battery storage unit 24 of the unit case 20) to the control unit 31. The movement selection switch 33 is composed of a push button switch or the like, and is for selecting a target movement based on one or a plurality of pressings.

The first contact detection unit 34 and the second contact detection unit 35 are composed of an electrostatic sensor or the like, and are for detecting the contact of a human body (for example, a hand) with the toy body 10 shown in FIGS. 1 and 2. Is. The first contact detection unit 34 is located inside the first mark 10a shown in FIGS. 1 and 2, and the second contact detection unit 35 is the second mark 10b shown in FIGS. 1 and 2. It is located inside. More specifically, the first contact detection unit 34 and the second contact detection unit 35 are provided in the unit case 20 so that their positions differ from each other by 180 degrees, and the unit case 20 is provided with the first contact detection unit. The portion 34 is housed in the toy body 10 so that the portion 34 is located inside the first mark 10a and the second contact detection portion 35 is located inside the second mark 10b.

The alignment of the first contact detection unit 34 and the first mark 10a and the alignment of the second contact detection unit 35 and the second mark 10b are performed in the circumferential direction of the unit case 20 in the toy body 10. It can be done by determining the orientation. That is, the operation unit of the power switch 32 (see FIG. 5) and the operation unit of the motion selection switch 33 (see FIG. 5), the unit case 20 is the holes 11b and 11c of the first main body portion 11 (FIGS. 1 and 5). It can be done by inserting into 2 and FIG. 4 respectively). Of course, one of the convex portion and the concave portion for positioning is provided in at least one of the first main body portion 11 and the second main body portion 12, and the other is provided in the unit case 20, and the unit case 20 is provided in the toy main body 10. The unit case 20 may be oriented in the circumferential direction by fitting the convex portion and the concave portion when the unit case is stored in the toy.

The motion detection unit 36 is composed of a three-dimensional acceleration sensor or the like, and is for detecting a three-dimensional displacement of the toy body 10. The sound output unit 37 is composed of a speaker or the like, and is for outputting a sound effect. The light output unit 38 is composed of a combination of a multicolor light emitting diode, a different color diode, and the like, and is for outputting an effect by light. The vibration output unit 39 is composed of a weight attached to the rotating shaft of the motor or the like, and is for outputting an effect due to vibration. That is, in the effect output toy of the present embodiment, the effect output unit (reference numeral omitted) is composed of the sound output unit 37, the light output unit 38, and the vibration output unit 39, and the effect output unit is composed of at least one of sound, light, and vibration. It is possible to output a production that can be experienced. The storage unit 40 stores the light emission pattern, the vibration pattern, and the like output from the light output unit 38 and the vibration output unit 39, in addition to the sound such as the effect sound and the guide sound output from the sound output unit 37. .. Further, the storage unit 40 also stores "predetermined movement (hereinafter, simply referred to as movement)" described later.

The storage unit 40 stores at least two types of movements, and two types of movements as examples of movements will be described with reference to FIGS. 8 and 9.

<First movement (see FIG. 8)>
The first movement is the first displacement of the toy body 10 from the initial position (x1, y1, z1) to the intermediate position (x2, y2, z1) and the intermediate position of the toy body 10 (x2, y2, z1). It consists of a second displacement from to the final position (x1, y1, z1). That is, the first movement is a movement that sequentially passes through the initial position, the intermediate position, and the final position.

<Second movement (see Fig. 9)>
This second movement is the first displacement of the toy body 10 from the initial position (x1, y1, z1) to the intermediate position (x1, y2, z2) and the intermediate position of the toy body 10 (x1, y2, z2). It is composed of a second displacement from to the final position (x1, y1, z1). That is, the second movement is also a movement that sequentially passes through the initial position, the intermediate position, and the final position.

As the first movement and the second movement, the first displacement and the second displacement have been described as displacementing the values of two of the three axes of x, y, and z, but the displacement is not limited to these displacements. It is also possible to displace only one of the x, y, and z axes, or to displace all three axes of x, y, and z.

Next, when FIG. 10 is used and FIGS. 1 to 9 are appropriately cited, there are two types of selectable movements, the first movement shown in FIG. 8 and the second movement shown in FIG. The operation flow of the above-mentioned production output toy will be described on the premise of.

When the user holds the toy body 10 shown in FIGS. 1 and 2 and turns on the power switch 32, a guide voice is output (see steps ST1 and ST2 in FIG. 10). The guide voice output in step ST2 is "Put the toy body on your left hand in front of your body with the square mark (first mark 10a) facing down."

When the user places the toy body 10 on the left hand with the first mark 10a facing down according to the guide voice in step ST2, the first contact detection unit 34 located inside the first mark 10a causes the first. The contact of the hand with the mark 10a is recognized, the initial effect is output based on this recognition, and then the guide sound is output (see steps ST3 to ST5 in FIG. 10). The initial effect output in step ST4 is composed of at least one of sound, light, and vibration, and plays a role of enhancing the user's uplifting feeling at the initial position and notifies the user of the appropriateness of operation. Play a role. In addition, the guide voice output in step ST5 following the initial effect is "Please select the desired movement".

When the user presses the movement selection switch 33 to select a movement according to the guide voice in step ST5, the movement is confirmed when the pressing of the movement selection switch 33 is interrupted (steps ST6 and ST7 in FIG. 10). reference). The movement is selected according to the number of times the movement selection switch 33 is pressed. Specifically, when the number of times the motion selection switch 33 is pressed is odd, the first motion is selected, and when the number of presses is even, the second motion is selected. Further, the motion is confirmed when the press of the motion selection switch 33 is interrupted and a predetermined time elapses.

Since it is difficult to select a movement only by the number of times the movement selection switch 33 is pressed, a guide voice such as "first movement" or "second movement" is output each time the movement selection switch 33 is pressed. Then, it is preferable to notify the user of the selected movement during pressing.

When the movement is confirmed in step ST7, a guide voice is output (see step ST8 in FIG. 10). The guide voice output in step ST8 is "The selected movement is the first movement" or "The selected movement is the second movement" and "Next, the round mark on the toy body (second mark 10b). ) And put your right hand on it. "

When the user puts his / her right hand on the second mark 10b according to the guide voice in step ST8, the second mark is marked by the second contact detection unit 35 located inside the second mark 10b. The contact of the human body (for example, a hand) with 10b is recognized, and based on this recognition, a new initial effect different from the initial effect output in step ST4 is output, and then a guide voice is output (FIG. 10). (See steps ST9 to ST11). The initial effect output in step ST10 is composed of at least one of sound, light, and vibration, and plays a role of enhancing the user's uplifting feeling at the initial position and notifies the user of the appropriateness of operation. Play a role. Further, the guide voice output in step ST11 following the initial effect output in step ST10 is "Please move the toy body to the side of the body" in the first movement, and the second movement. In the case of, "Please move the toy body over your head."

The initial effect output in step ST10 may be sequentially changed according to the rest time at the initial position, and in this way, the user's uplifting feeling can be further enhanced at the initial position.

When the first movement shown in FIG. 8 is selected, when the user moves the toy body 10 to the side of the body according to the guide voice in step ST11, the movement detection unit 36 detects the displacement due to this movement. Then, it is determined whether or not this displacement corresponds to the first displacement shown in FIG. 8 (see steps ST12 and ST13 in FIG. 10). On the other hand, when the second movement shown in FIG. 9 is selected, when the user moves the toy body 10 over the head according to the guide voice in step ST11, the movement detection unit 36 displaces the toy body 10 due to this movement. Is detected, and then it is determined whether or not this displacement corresponds to the first displacement shown in FIG. 9 (see steps ST12 and ST13 in FIG. 10).

The determination in step ST13 is made based on each first displacement (displacement from the initial position to the intermediate position) shown in FIGS. 8 and 9, but the direction of displacement and the amount of movement accompanying each of the above movements are substantially the same. If so, each movement is recognized as each first displacement. That is, in the determination criteria of the direction and the amount of movement in step ST13, permissible ranges are provided in consideration of the length of the user's arm, the height of the user, and the like. On the other hand, when either the direction of displacement or the amount of movement associated with each of the above movements exceeds the above-mentioned allowable range, each movement is not recognized as each first displacement, and a predetermined movement is not recognized. An effect (erroneous displacement effect) indicating that this is not the case is output (see step ST14 in FIG. 10). In addition to the above-mentioned movements, the movements determined to be not predetermined include the case where the toy body 10 does not reach the intermediate position from the initial position and moves to the front of the intermediate position, and the toy body 10 moves. It also includes the case of moving from the initial position to a position different from the predetermined intermediate position, and even in these cases, an effect (erroneous displacement effect) indicating that the movement is not a predetermined movement is output. The effect (erroneous displacement effect) output in step ST14 indicating that the movement is not a predetermined motion is composed of at least one of sound, light, and vibration, and is composed of at least one of sound, light, and vibration, and is formed at the intermediate position and after the first displacement. In addition to playing a role of notifying the user of improper operation at any of the positions different from the intermediate position, even if it is judged that the movement is not a predetermined movement, an effect indicating that the movement is not a predetermined movement ( By performing the erroneous displacement effect), it is possible to provide various effects to the user and improve the interest of the toy.

When each first displacement is recognized in step ST13, an intermediate effect is output based on this recognition, and then a guide sound is output (see steps ST15 and ST16 in FIG. 10). The intermediate effect output in step ST15 is composed of at least one of sound, light, and vibration, and plays a role of enhancing the user's uplifting feeling at the intermediate position, and also notifies the user of the appropriateness of operation. Play a role. In addition, the guide voice output in step ST16 following the intermediate effect is "Please move the toy body in front of the body" for both the first movement and the second movement.

The intermediate effect output in step ST15 may be sequentially changed according to the rest time at the intermediate position, and in this way, the user's uplifting feeling can be further enhanced at the intermediate position. Further, the final effect described later may be changed according to the rest time at the intermediate position.

When the first movement shown in FIG. 8 is selected, when the user moves the toy body 10 in front of the body according to the guide voice in step ST16, the movement detection unit 36 detects the displacement accompanying the movement. Then, it is determined whether or not this displacement corresponds to the second displacement shown in FIG. 8 (see steps ST17 and ST18 in FIG. 10). On the other hand, when the second movement shown in FIG. 9 is selected, when the user moves the toy body 10 in front of the body according to the guide voice in step ST16, the movement detection unit 36 displaces the toy body 10 due to this movement. Is detected, and then it is determined whether or not this displacement corresponds to the second displacement shown in FIG. 9 (see steps ST17 and ST18 in FIG. 10).

The determination in step ST18 is made based on each second displacement (displacement from the intermediate position to the final position) shown in FIGS. 8 and 9, but the direction of displacement and the amount of movement accompanying each of the above movements are substantially the same. If so, each movement is recognized as each second displacement. That is, in the determination criteria of the direction and the amount of movement in step ST18, permissible ranges are provided in consideration of the length of the user's arm, the height of the user, and the like. On the other hand, if either the direction of displacement or the amount of movement associated with each of the above movements exceeds the above-mentioned allowable range, each movement is not recognized as each second displacement, and a predetermined movement is not recognized. An effect (erroneous displacement effect) indicating that this is not the case is output (see step ST19 in FIG. 10). In addition to the above-mentioned movements, the movements determined to be not predetermined include the case where the toy body 10 moves from the intermediate position to the front of the final position without reaching the final position, and the toy body 10 moves. The movement from the intermediate position to a position different from the predetermined final position is also included, and even in these cases, an effect (erroneous displacement effect) indicating that the movement is not a predetermined movement is output. The effect (erroneous displacement effect) that indicates that the movement is not a predetermined movement output in step ST19 is composed of at least one of sound, light, and vibration, and is inappropriate for the user to operate at the final position. In addition to playing the role of notifying the user, even if it is judged that the movement is not a predetermined movement, a variety of effects can be given to the user by performing an effect (erroneous displacement effect) indicating that the movement is not a predetermined movement. It can be provided, and the entertainment of the toys that accompanies it can be improved.

In addition, when the user keeps the toy body 10 in a stationary state while the intermediate effect is being performed at the intermediate position, the intermediate effect may be conspicuously enhanced for the user, but a predetermined intermediate Even if the displacement shifts to the second displacement before the end of the effect, that is, before the predetermined rest time elapses at the intermediate position, it is determined that the movement is not a predetermined movement, and the effect indicates that the movement is not a predetermined movement. (Erroneous displacement effect) may be output.

When each second displacement is recognized in step ST18, the final effect is output based on this recognition (see step ST20 in FIG. 10). The final effect output in step ST20 is composed of at least one of sound, light, and vibration, and plays a role of enhancing the user's uplifting feeling at the final position, and also notifies the user of the appropriateness of operation. Play a role.

The final effect output in step ST20 may be sequentially changed according to the rest time at the final position, and in this way, the user's uplifting feeling can be further enhanced at the final position.

Next, the effect obtained by the above-mentioned production output toy will be described.

(E1) Since it is possible to output an effect that can be experienced by sound, light, vibration, etc. according to a predetermined movement, the user can feel the fun and enjoyment of outputting the effect, and the effect can be output. It is possible to give the user a sense of accomplishment at the time.

In particular, if the above-mentioned experienceable production is suitable for the production when a character such as a manga or an animation performs a special move, the user is allowed to experience a simulated experience of how to perform the special move, and a high degree of satisfaction is utilized. Can be given to a person.

(E2) Since the perceptible effect can be output stepwise in response to the predetermined movement, the fun and enjoyment felt by the user can be further enhanced.

(E3) Since a plurality of movements are prepared as the predetermined movements and the user can select the desired movement, a high degree of satisfaction can be given to the user in this respect as well.

(E4) The correctness of the actual movement is judged based on the predetermined movement, and if it is not correct, the desired effect is not output. Therefore, the sense of accomplishment is further enhanced in this respect as well. be able to.

Next, a modified example of the above-mentioned production output toy will be described.

(M1) The production output toys corresponding to two types of movements are shown as predetermined movements, but if three or more types of movements and productions corresponding to each movement are prepared, the first movement and the second movement are provided. It is possible to select a movement different from the movement of and output a different effect from these. Further, as a predetermined movement, a movement that passes through the initial position, the intermediate position, and the final position in order is shown, but the initial position and the final position may be different, or the movement has two or more intermediate positions. It may be present, or it may be a movement that goes through only the initial position and the final position.

(M2) As a predetermined movement, a production output toy corresponding to two types of movements is shown, but three or more types of movements and a production corresponding to each movement are prepared, and one of them is initially used. Only movements can be selected, and the second type of movement can be selected on condition that the first type of movement and its effect are properly performed, or this second type of movement and its effect can be properly selected. A third type of movement may be selectable on condition that it has been performed.

(M3) A first contact detection unit 34 for detecting contact of a human body (for example, a hand) with a first position (first mark 10a) of the toy body 10, and a first position of the toy body 10. Showed an effect output toy having a second contact detection unit 35 for detecting contact of a human body (for example, a hand) with a different second position (second mark 10b). An operation flow in which the part 34 is eliminated and the step ST3 in FIG. 10 is eliminated may be adopted, or both the first contact detection unit 34 and the second contact detection unit 35 are eliminated and the steps ST3 and ST9 in FIG. 10 are eliminated. The operation flow excluding the above may be adopted.

(M4) If the above-mentioned production output toy is provided with a hanging string for carrying or neck-hanging to be locked to the human body, the production output toy is mistakenly used when the toy body is moved according to a predetermined movement. It is possible to prevent the toy from being dropped and causing a failure. FIG. 11 shows an example in which the hanging string 50 is provided. The unit case is provided with a notch 12c at the opening edge of the second main body 12 and a hole 26 communicating with the inside on the outer peripheral surface of the unit case 20. The end of the hanging string 50 is connected to one of the rod-shaped portions 25 in 20, and the other end is pulled out through the hole 26 of the unit case 20 and the notch 12c of the second main body portion 12. is there. Of course, the first main body portion 11 or the second main body portion 12 may be provided with a portion for attaching the hanging cord, and the hanging cord may be attached to the portion.

10 ... toy body, 10a ... first mark, 10b ... second mark, 11 ... first body part, 12 ... second body part, 20 ... unit case, 30 ... production output unit, 31 ... control unit , 32 ... power switch, 33 ... motion selection switch, 34 ... first contact detection unit, 35 ... second contact detection unit, 36 ... motion detection unit, 37 ... sound output unit, 38 ... optical output unit, 39 ... Vibration output unit, 40 ... storage unit, 41 ... power supply unit, 50 ... hanging string.

Claims (5)

A toy body, a motion detection unit that is a three-dimensional acceleration sensor that detects the movement direction when the toy body moves, and a storage unit that stores the movement direction of the toy body from the first position to the second position. A determination unit for determining whether or not the movement direction detected by the detection unit corresponds to the movement direction stored in the storage unit, an effect output unit for outputting an effect, and an effect produced by the effect output unit. Equipped with a control unit that controls the output of
The control unit is based on the determination by the determination unit that the movement direction of the toy body from the first position to the second position is the movement direction stored in the storage unit. controls capable of outputting the presentation output section the effect of the second position, the second definitive the position effect of changing the output capable said in response to the rest time of the toy body at said first location Control the production output section,
Directing output toys. In the production output toy according to claim 1,
The motion detection unit can detect the amount of movement when the toy body moves, and can detect the amount of movement.
The storage unit stores the amount of movement of the toy body from the first position to the second position.
The determination unit determines whether or not the movement amount detected by the detection unit corresponds to the movement amount stored in the storage unit.
The control unit is based on the determination by the determination unit that the amount of movement of the toy body from the first position to the second position is the amount of movement stored in the storage unit. The effect output unit is controlled so that the effect corresponding to the position 2 can be output.
Directing output toys. In the production output toy according to claim 1 or 2.
Wherein, when the toy body is in said first position, controls the output capable the presentation output unit the effect corresponding to the position of the first,
Directing output toys. In the production output toy according to claim 3,
When the toy body is in the first position, the control unit changes the effect corresponding to the first position by the effect output unit according to the rest time at the first position. ,
Directing output toys. In the production output toy according to any one of claims 1 to 4,
When the toy body is in the second position, the control unit changes the effect corresponding to the second position by the effect output unit according to the rest time at the second position. ,
Directing output toys.

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