WO2017150348A1

WO2017150348A1 - Toy and method for manufacturing toy

Info

Publication number: WO2017150348A1
Application number: PCT/JP2017/006929
Authority: WO
Inventors: ニコリッチニコ
Original assignee: ニノ・サイバーパル株式会社
Priority date: 2016-02-29
Filing date: 2017-02-23
Publication date: 2017-09-08
Also published as: JP2017153545A

Abstract

Provided are a toy allowing for improved expressiveness of an image displayed on an image display mechanism, and a method for manufacturing a toy. A method for manufacturing a toy 1 that is manufactured by arranging lights 7 on a back surface 6a of a liquid crystal panel 6, connecting an image processing unit 8, which transmits image signals to the liquid crystal panel 6, to the liquid crystal panel 6, and incorporating, into a housing 2, an image processing mechanism 3 including the liquid crystal panel 6, the lights 7, and the image processing unit 8, said method including: configuring a display unit 12 by binding in parallel a plurality of optical fibers into a bundle to form a fiber bundle, and forming a flat rear end surface 12a on the rear end of the fiber bundle in the axial direction thereof and forming a curved front end surface 12b on the front end of the fiber bundle in the axial direction thereof; and disposing the rear end surface 12a of the display unit 12 on a front surface 6b of the liquid crystal panel 6.

Description

Toy and toy manufacturing method

The present invention relates to a toy having an image display mechanism and a toy manufacturing method, and more particularly to a toy and a toy manufacturing method capable of improving the expressiveness of an image displayed on the image display mechanism. .

Various toys have been proposed in which an image display mechanism including a liquid crystal panel or the like is arranged on the face portion of a doll and the like and the facial expression of the doll is expressed by this image display mechanism (see, for example, Patent Document 1).

Patent Document 1 proposes a toy in which a facial expression composed of eyes, nose, and mouth drawn in advance on a liquid crystal panel changes according to a predetermined input signal. The toy described in Patent Document 1 has a facial expression displayed on a flat liquid crystal panel. Expressions such as dolls are expressed in two dimensions, so their expressive power is limited.

Japanese Unexamined Patent Publication No. 2009-207730

The present invention has been made in view of the above problems, and an object of the present invention is to provide a toy and a toy manufacturing method capable of improving the expressiveness of an image displayed on an image display mechanism.

A toy of the present invention that achieves the above object includes a liquid crystal panel, a light that emits light from the back of the liquid crystal panel, and an image processing unit that transmits an image signal displayed on the liquid crystal panel to the liquid crystal panel. A toy having an image display mechanism having a display unit disposed on the front surface of the liquid crystal panel, and the display unit is a fiber bundle in which a number of optical fibers are bundled in parallel and bundled, The rear end of the fiber bundle in the bundle axis direction is disposed on the front surface of the liquid crystal panel, and the front end surface of the front end of the fiber bundle in the bundle axis direction has a curved surface portion.

In the toy manufacturing method of the present invention that achieves the above object, a light is disposed on the back of a liquid crystal panel, an image processing unit that transmits an image signal to the liquid crystal panel is connected to the liquid crystal panel, and the liquid crystal In a toy manufacturing method in which an image display mechanism having a panel and the light and the image processing unit is built in a housing, a plurality of optical fibers are consolidated in parallel and bundled to form a fiber bundle, A planar rear end surface is formed at the rear end in the bundle axis direction of the fiber bundle, and a front end surface having a curved surface portion is formed at the front end in the bundle axis direction of the fiber bundle to constitute a display unit, and the display The rear end surface of the unit is installed on the front surface of the liquid crystal panel.

According to the present invention, the light of the image displayed on the liquid crystal panel is transmitted from the rear end surface of the display unit to the front end surface. Since the image is displayed on the front end surface, which is a three-dimensional surface having a curved surface portion, it is advantageous for improving the expressiveness of the image.

A light is a point light source, a Fresnel lens that is placed between the light and the liquid crystal panel, converts the light of the light into parallel light parallel to the bundle axis direction of the fiber bundle and transmits it to the back of the liquid crystal panel It can be set as the structure provided.

According to this configuration, light can be sent directly to the liquid crystal panel, which is advantageous for keeping the light intensity at the front end face of the display unit on which an image is displayed high. In addition, since each optical fiber is irradiated with light parallel to the axial direction by the Fresnel lens, distortion of the light wavelength hardly occurs. Therefore, the color of the image displayed on the liquid crystal panel can be reproduced on the front end surface of the display unit with high accuracy.

The front end surface of the fiber bundle can be configured as a spherical surface protruding forward or a belt-like curved surface protruding forward. Moreover, it can be set as the structure by which the display part is each arrange | positioned at the position of the eyes and mouth of a toy.

A configuration including a speech recognition / synthesis mechanism including a microphone that converts external speech into a signal, a processing unit that identifies speech input from the microphone, and a speaker that outputs the speech synthesized by the processing unit to the outside. can do.

FIG. 1 is an explanatory view illustrating the front of a toy according to the present invention. FIG. 2 is an explanatory diagram illustrating the image display mechanism. FIG. 3 is an explanatory view illustrating a side surface of the image display mechanism. FIG. 4 is an explanatory diagram illustrating the front of the Fresnel lens. FIG. 5 is a three-view diagram illustrating a display unit arranged in the eye. FIG. 6 is a three-view diagram illustrating a display unit arranged in the mouth. FIG. 7 is an explanatory view illustrating another embodiment of the toy.

Hereinafter, the toy of the present invention and the manufacturing method of the toy will be described based on the embodiment shown in the drawings.

As illustrated in FIG. 1, the toy 1 of the present invention includes a housing 2 imitating the shape of a doll and an image display mechanism 3 incorporated in the housing 2. In this embodiment, the image display mechanism 3 displays the eyes 4 and the mouth 5 of the toy 1. The image display mechanism 3 can express the facial expression of the toy 1 by changing the displayed images of the eyes 4 and the mouth 5 (hereinafter sometimes referred to as face images).

As illustrated in FIGS. 2 and 3, the image display mechanism 3 includes a liquid crystal panel 6, a light 7 that emits light from the back surface 6 a side of the liquid crystal panel 6, and an image signal displayed on the liquid crystal panel 6. And an image processing unit 8 for transmitting to the liquid crystal panel 6. The liquid crystal panel 6 is configured by a liquid crystal display called a color TFT (thin film transistor) in this embodiment. The liquid crystal panel 6 is not limited to this, and may be any mechanism that can display an image, such as an organic EL display. The liquid crystal panel 6 is not limited to color, and may be black and white. The liquid crystal panel 6 of the present embodiment has a size of about 35 mm × 35 mm and a thickness of about 2 mm. The size of the liquid crystal panel 6 is not limited to this, and can be appropriately changed depending on the size of the toy 1 or the like. In this specification, the back surface 6a of the liquid crystal panel 6 means the side on which the light 7 is disposed.

The image processing unit 8 is connected to the liquid crystal panel 6 through a signal line 9. The image processing unit 8 selects appropriate image data according to a signal input from the outside of the image processing unit 8 and transmits the image data to the liquid crystal panel 6. That is, the liquid crystal panel 6 can switch the image to be displayed by the image processing unit 8. The image processing unit 8 may be configured to switch an image every time a predetermined time elapses without depending on a signal input from the outside.

The light 7 is installed on the substrate 10 and is arranged on the back surface 6 a side of the liquid crystal panel 6. In this embodiment, the light 7 is composed of a white LED, and is arranged in a state of illuminating positions corresponding to the eyes 4 and the mouth 5 displayed on the liquid crystal panel 6. That is, three white LEDs are installed on the substrate 10, which becomes a point light source. The light 7 is not limited to the above, and any light that can irradiate the liquid crystal panel 6 may be used. The color of the light 7 is not limited to white, and may be other colors such as blue.

A Fresnel lens 11 is disposed between the liquid crystal panel 6 and the light 7. As illustrated in FIG. 4, the Fresnel lens 11 has Fresnel areas 11 a formed at positions corresponding to the eyes 4 and the mouth 5, and the other part is composed of a pure area 11 b. The Fresnel area 11 a is an area that converts the diffused light emitted from the light 7 into parallel light, and the pure area 11 b is an area that blocks the diffused light from the light 7. In this embodiment, the Fresnel area 11a corresponding to the eye 4 is formed in a circle, and the Fresnel area 11a corresponding to the mouth 5 is formed in a quadrangle. In this embodiment, the thickness of the Fresnel lens 11 is about 1 mm.

As illustrated in FIG. 3, a light 7 is disposed at a position that becomes a focal point of the Fresnel lens 11, and diffused light emitted from the light 7 that is a point light source becomes parallel light when passing through the Fresnel lens 11, and the liquid crystal panel. 6 reaches the back surface 6a side. In FIG. 3, some light paths are indicated by broken lines. In this embodiment, the focal length of the Fresnel lens 11 is about 8 mm, and the distance between the Fresnel lens 11 and the back surface 6a of the liquid crystal panel 6 is about 2 mm.

Parallel light reaching the back surface 6a of the liquid crystal panel 6 is transmitted to the front surface 6b side of the liquid crystal panel 6. On the front surface 6 b of the liquid crystal panel 6, display units 12 are respectively arranged at positions corresponding to the eyes 4 and the mouth 5. In this specification, the front surface 6b of the liquid crystal panel 6 is a surface opposite to the back surface 6a, and means a surface on the side where the display unit 12 is disposed.

The display unit 12 is composed of a fiber bundle in which a large number of optical fibers are consolidated in parallel and bundled. In this embodiment, a fiber bundle is formed by bundling about 30,000 optical fibers having a diameter of 0.125 mm that are made of a core and a clad and are not covered. The optical fibers constituting the fiber bundle are bundled in a state of being parallel to each other. The optical fibers are bundled in a straight state without bending at all from one end to the other end. In this specification, a direction in the fiber bundle that is parallel to the axial direction of the optical fiber is referred to as a bundle axis direction.

5, the display unit 12 corresponding to the eye 4 has a cylindrical shape, the front end surface 12b includes a spherical surface protruding forward, and the rear end surface 12a includes a flat surface. As shown in a three-view diagram in FIG. 6, the display unit 12 corresponding to the mouth 5 has a rectangular parallelepiped shape, the front end surface 12b is configured by a belt-like curved surface protruding forward, and the rear end surface 12a is configured by a plane. In FIG. 5 and FIG. 6, a large number of optical fibers expressed thicker than the actual are shown for the sake of explanation. Since the diameter of the optical fiber is 0.125 mm, each optical fiber cannot be visually confirmed on the display unit 12. The axial direction of the optical fiber coincides with the bundle axial direction of the fiber bundle.

As illustrated in FIG. 3, the rear end surface 12 a of the display unit 12 is disposed on the front surface 6 b side of the liquid crystal panel 6. In this specification, the rear end surface 12a of the display unit 12 is a surface facing the front surface 6b of the liquid crystal panel 6, and the front end surface 12b of the display unit 12 is a surface opposite to the rear end surface 12a in the bundle axis direction. It is. That is, the opening ends of the respective optical fibers are arranged on the rear end surface 12a and the front end surface 12b of the display unit 12. In the present embodiment, the rear end surface 12a of the display unit 12 is directly fixed to the front surface 6b of the liquid crystal panel 6 by UV bonding.

Next, the manufacturing method of the fiber bundle which comprises the display part 12 is demonstrated. First, an ingot is formed by bundling a large number of optical fibers in a state of being aligned in parallel. Adjacent optical fibers are fixed to each other by, for example, bonding with an adhesive or fusion by heating. The ingot has a cylindrical shape of 28 mm in diameter and a length of 300 mm or a rectangular parallelepiped shape of 28 mm × 28 mm × 300 mm. Since the optical fibers are aligned and bundled and fixed in a straight line, they can be manufactured relatively easily. Further, the arrangement of the optical fibers hardly changes at both ends in the bundle axis direction. Therefore, when light such as an image is incident from one end of the fiber bundle and the image is displayed on the other end, the correlation between the two images can be maintained extremely high.

Next, the display unit 12 is cut out from the created ingot. For example, after the ingot is cut to a predetermined length, the front end surface 12b of the display unit 12 is processed by cutting or the like.

As illustrated in FIG. 3, the light emitted from the light 7 passes through the Fresnel lens 11 and the liquid crystal panel 6 displaying an image, and further passes through the display unit 12. That is, the light is transmitted along the direction of the bundle axis of the fiber bundle constituting the display unit 12. The same image as that displayed on the liquid crystal panel 6 is displayed on the front end surface 12 b of the display unit 12.

The image of the eye 4 displayed on the liquid crystal panel 6 is displayed on the front end surface 12b constituting a part of the spherical surface. Although the image of the eyes 4 displayed on the liquid crystal panel 6 is a two-dimensional image, it is displayed on the front end surface 12b formed on a three-dimensional curved surface, so that it is recognized three-dimensionally from the outside of the toy 1. It will be. It will be very close to the actual eye. Similarly, the image of the mouth 5 is also displayed in a three-dimensional manner from the outside of the toy 1 because the image of the mouth 5 is displayed on a belt-like curved surface that protrudes from the center as compared to the left and right ends.

Since the image processing unit 8 can switch image data in accordance with a signal input from the outside of the image processing unit 8, the facial expression of the toy 1 can be changed. Since the images constituting the eyes 4 and the mouth 5 are displayed on the front end surface 12b of the display unit 12 formed with a three-dimensional curved surface, it is advantageous for improving the reality of the expression of the toy 1. In particular, when the front end surface 12b of the display unit 12 is observed from a position shifted from the front, the expressive power stands out.

Since the optical fiber constituting the fiber bundle of the display unit 12 is linear, the light passing through the inside is likely to pass relatively straight. Since the wavelength of the light passing through the optical fiber is hardly distorted, it is advantageous to make the image displayed on the display unit 12 clear.

A backlight unit that is a surface light source that has been used conventionally can be used as the light 7 instead of the LED that is a point light source. The backlight unit is a mechanism that emits light from a side surface of a flat light guide plate by an LED or the like and emits light repeatedly reflected in the light guide plate as scattered light from the front surface of the light guide plate.

However, the above-described embodiment in which the LED serving as the point light source and the Fresnel lens 11 are combined is more advantageous for improving the light intensity in the display unit 12 because the light is not scattered and attenuated. On the front end face 12b of the display unit 12, the core of each optical fiber emits light and the clad does not emit light. Therefore, the image on the front end face 12b of the display unit 12 tends to be darker than the image displayed on the liquid crystal panel 6. Since the light intensity can be improved in the above-described embodiment, it is advantageous to brighten the image of the front end surface 12b of the display unit 12. Further, since the light can be used efficiently, it is advantageous for reducing the output of the light 7 and suppressing the energy consumption of the image display mechanism 3. Furthermore, since there is no light scattering, it is advantageous for suppressing Gaussian noise.

The shape of the display unit 12 is not limited to the above. For example, when displaying eyebrows, the shape can be formed in a rectangular shape and can be changed as appropriate according to the image to be displayed. The shape of the front end surface 12b of the display unit 12 is not limited to the convex shape protruding forward, and may be formed in a concave shape. Moreover, it can also be made into complicated shapes, such as a wave front. That is, it can be configured to have a curved surface portion on at least a part of the front end surface 12b. Although there may be a gap between the rear end surface 12a of the display unit 12 and the front surface 6b of the liquid crystal panel 6, it is more preferable that the rear end surface 12a is formed in a planar shape and is in close contact with no gap. This is advantageous for suppressing light from leaking from the gap and reducing the light intensity.

In the present embodiment, in the liquid crystal panel 6, images are not displayed on portions other than the eyes 4 and the mouth 5, but an image may be displayed on portions other than the eyes 4 and the mouth 5. The pure area 11b of the Fresnel lens 11 is configured to transmit light, and diffused light from the light 7 is transmitted through the pure area 11b and the liquid crystal panel 6 so that an image of a portion other than the eyes 4 and the mouth 5 can be obtained. Can be displayed. At this time, from the outside of the toy 1, the eyes 4 and the mouth 5 are displayed on the front side by the display unit 12, and the image of the other part is displayed on the front surface 6 b of the back liquid crystal panel 6.

The image display mechanism 3 is not limited to the toy 1 and can be used for other purposes such as an advertising display and an in-vehicle display. With the configuration using the display unit 12, images can be displayed on the front surface 6 b of the liquid crystal panel 6 and the front end surface 12 b of the display unit 12, respectively. That is, while using one liquid crystal panel 6, images can be displayed on the front surface 6 b of the liquid crystal panel 6 and the front end surface 12 b of the display unit 12 having different heights. Therefore, even when the front end surface 12b of the display unit 12 is a flat surface, images can be displayed at different heights, which is advantageous in improving the expressive power of the image display mechanism 3. That is, the front end surface 12b of the display unit 12 is not limited to a configuration having a curved surface portion, and may be configured to be a plane.

As illustrated in FIG. 7, in addition to the image display mechanism 3, various mechanisms can be combined in the toy 1 as appropriate. In FIG. 7, the signal lines are indicated by alternate long and short dash lines for explanation. Although some of the electric wires connected with the signal lines are omitted, the electric wires are appropriately connected as necessary. Note that any of the various mechanisms exemplified below is not an essential component of the toy 1 of the present invention.

For example, the power supply mechanism 13 can be incorporated in the toy 1. The power supply mechanism 13 can be composed of, for example, a dry battery or a rechargeable battery. According to this configuration, the toy 1 can be operated without connecting a power cord or the like. Instead of installing the power supply mechanism 13, the toy 1 may be configured to be connected to a commercial power supply or the like via a power cord.

For example, the voice recognition synthesis mechanism 14 can be incorporated in the toy 1. The voice recognition / synthesizing mechanism 14 identifies the microphone 15 that converts the sound outside the toy 1 into an electrical signal, the speaker 16 that outputs the sound to the outside of the toy 1, and the voice input from the microphone 15. A voice processing unit 17 that performs control to synthesize a predetermined voice according to the voice and output the synthesized voice from the speaker 16. The voice recognition / synthesizing mechanism 14 allows the toy 1 to respond appropriately according to the spoken word.

At this time, a different signal may be sent to the image display mechanism 3 depending on the words spoken from the speech recognition / synthesis mechanism 14. That is, the image display mechanism 3 and the voice recognition / synthesis mechanism 14 can be configured to operate in cooperation with each other. Thereby, the toy 1 can change the face image according to the spoken word and can output the sound from the speaker 16. It is advantageous for improving the expressive power of toy 1 such as emotions.

For example, the vibration mechanism 18 can be incorporated in the toy 1. The vibration mechanism 18 includes a motor 19 in which an eccentric mass body is fixed to a rotating shaft, and a plurality of vibration patterns stored in advance, and a pattern is selected according to a signal input from the outside of the vibration mechanism 18 to select the motor 19. And a vibration control unit 20 for controlling the rotation of the motor.

The signal input from the outside of the vibration mechanism 18 may be configured to use a signal from the voice recognition / synthesis mechanism 14, for example. That is, the voice recognition / synthesizing mechanism 14 and the vibration mechanism 18 can operate in cooperation with each other. Further, a configuration using a signal from the image display mechanism 3 may be used. The toy 1 can be vibrated according to the displayed face image. The vibration mechanism 18 can improve the expressive power of the toy 1 such as emotions.

For example, the light emitting mechanism 21 can be incorporated in the toy 1. The light emitting mechanism 21 includes, for example, a resin member that transmits light, and a light incorporated therein. As illustrated in FIG. 1, for example, the ear 22 of the toy 1 can be constituted by the light emitting mechanism 21. The light emitting mechanism 21 selects a blinking pattern and a light color according to a signal input from the outside of the light emitting mechanism 21, and causes the light to blink based on the selected pattern.

The signal input from the outside of the light emitting mechanism 21 may be configured to use, for example, a signal from the voice recognition / synthesis mechanism 14 or the image display mechanism 3. That is, the voice recognition / synthesizing mechanism 14 and the light emitting mechanism 21 can operate in cooperation with each other.

For example, various sensors 23 can be incorporated in the toy 1. For example, a touch sensor, a three-dimensional acceleration sensor, or a temperature sensor can be incorporated. By inputting the output signals from the various sensors 23 to the image display mechanism 3 or the like, for example, when the toy 1 is touched, the facial expression awakened by the image display mechanism 3 is displayed, and the speech recognition and synthesis mechanism 14 greets, etc. Can be generated. For example, when the temperature is low, the image display mechanism 3 can display a cold expression, the vibration mechanism 18 can vibrate the toy 1, and the light emission mechanism 21 can cause the ear 22 of the toy 1 to glow blue. For example, when the toy 1 is dropped from a high place, a scream or the like can be generated by the voice recognition / synthesis mechanism 14, and the ear 22 of the toy 1 can be blinked in red by the light emitting mechanism 21.

The magnetic sensor 23 can be incorporated in the toy 1. For example, in the vicinity of the mouth 5 of the toy 1, two magnetic sensors can be incorporated with a space in the left-right direction. For example, when a model of food or the like in which a magnet or the like is embedded is created and brought close to the mouth 5 of the toy 1, the eye 4 and the mouth that the image display mechanism 3 follows the food model by the output signal from the magnetic sensor. 5 can be displayed, and the voice recognition / synthesizing mechanism 14 can generate a voice that wants a food model. By incorporating the various sensors 23 into the toy 1, emotions and states of the toy 1 can be expressed with extremely high accuracy.

The program processing mechanism 24 can be incorporated in the toy 1. For example, a story can be stored in the program processing mechanism 24 in advance. When the voice is instructed to read the story, the toy 1 recognizes the voice by the processing of the voice recognition synthesis mechanism 14 and outputs a signal to the program processing mechanism 24. The voice data of the story stored in advance in the program processing mechanism 24 is output through the speaker 16 of the voice recognition / synthesis mechanism 14.

In the program processing mechanism 24, for example, a game such as chess can be stored in advance. The toy 1 can consider the next move from the movement of the chess piece identified by the voice recognition synthesis mechanism 14 and can output it through the voice recognition synthesis mechanism 14.

The communication mechanism 25 can be incorporated in the toy 1. The communication mechanism 25 can be configured by a wireless communication mechanism such as Bluetooth (registered trademark) or WiFi (registered trademark). For example, a new story or game stored in the program processing mechanism 24 is obtained from the network and stored in the toy 1 by the communication mechanism 25, or a new pattern of face images such as the eyes 4 and the mouth 5 is newly obtained from the network. Or you can get it.

DESCRIPTION OF SYMBOLS 1 Toy 2 Case 3 Image display mechanism 4 Eye 5 Mouth 6 Liquid crystal panel 6a Back surface 6b Front surface 7 Light 8 Image processing part 9 Signal line 10 Substrate 11 Fresnel lens 11a Fresnel area 11b Pure area 12 Display part 12a Rear end surface 12b Front end surface 13 Power supply mechanism 14 Speech recognition / synthesis mechanism 15 Microphone 16 Speaker 17 Audio processing unit 18 Vibration mechanism 19 Motor 20 Vibration control unit 21 Light emitting mechanism 22 Ear 23 Sensor 24 Program processing mechanism 25 Communication mechanism

Claims

In a toy including an image display mechanism having a liquid crystal panel, a light that emits light from the back of the liquid crystal panel, and an image processing unit that transmits a signal of an image displayed on the liquid crystal panel to the liquid crystal panel,
A display unit disposed on the front surface of the liquid crystal panel, wherein the display unit is a fiber bundle in which a large number of optical fibers are bundled in parallel and bundled, and the rear end of the fiber bundle in the bundle axis direction is A toy disposed on the front surface of the liquid crystal panel, wherein a front end surface of a front end of the fiber bundle in the bundle axis direction has a curved surface portion.
The light is a point light source, and is disposed between the light and the liquid crystal panel, and converts the light of the light into parallel light that is parallel to the bundle axis direction of the fiber bundle. The toy according to claim 1, further comprising a Fresnel lens that allows the light to pass therethrough.
The toy according to claim 1 or 2, wherein the front end surface of the fiber bundle is a spherical surface protruding forward or a belt-like curved surface protruding forward.
The toy according to any one of claims 1 to 3, wherein the display section is arranged at the position of eyes and mouth of the toy, respectively.
A speech recognition / synthesizing mechanism having a microphone for converting external sound into a signal, a processing unit for identifying the sound input from the microphone, and a speaker for outputting the sound synthesized by the processing unit to the outside. The toy according to any one of 1 to 4.
An image display mechanism comprising: a light disposed on a rear surface of the liquid crystal panel; and an image processing unit that transmits an image signal to the liquid crystal panel is connected to the liquid crystal panel; and the liquid crystal panel, the light, and the image processing unit are provided. In the manufacturing method of toys that are assembled and manufactured in a housing,
A plurality of optical fibers are bundled in parallel and bundled to form a fiber bundle, and a flat rear end surface is formed at the rear end in the bundle axis direction of the fiber bundle, and the bundle axis direction of the fiber bundle is formed. Forming a front end surface having a curved surface portion at the front end of the display portion,
A method for manufacturing a toy, characterized in that the rear end surface of the display unit is installed on the front surface of the liquid crystal panel.
The light is composed of a point light source, and a Fresnel lens that converts the light of the light into parallel light that is parallel to the bundle axis direction of the fiber bundle and transmits the light toward the back surface of the liquid crystal panel, The toy manufacturing method according to claim 6, wherein the toy is disposed between the liquid crystal panel and the liquid crystal panel.
The toy manufacturing method according to claim 6 or 7, wherein the display unit is disposed at a position corresponding to an eye and a mouth of the toy on the front surface of the liquid crystal panel.