JP4773087B2 - Three-dimensional pseudo image effect device and image effect method - Google Patents

Description

  The present invention relates to a three-dimensional pseudo image effect device that produces an effect by forming a pseudo image in three dimensions, and an image effect method using the device.

  A character is often displayed three-dimensionally by light irradiation.

  Patent Document 1 discloses a display device that includes a rotating body that has a peripheral surface on which a pattern is drawn and is provided with light-emitting means corresponding to the peripheral surface, and has a predetermined center around the rotation axis of the rotating body. A first effect display for displaying a picture drawn on a peripheral surface of the rotating body by providing light emitting means on a circular locus of the radius, turning off the light emitting means and rotating the rotating body; Control means for controlling the second effect display for displaying an afterimage image by light emission of the light emitting means by rotating the rotating body while turning on the light emitting means, wherein the control means includes the first The display device controls the effect display by switching between the effect display and the second effect display.

  In Patent Document 2, in a rotating body structure including a rotating body in which a character is arranged on the outer peripheral surface, at least one stereoscopic processing character formed by a stereoscopic image by combining a plurality of screens having continuous parallax is displayed on the outer peripheral surface. And a lenticular lens arranged in the vicinity of the rotator on the side where the character is displayed to a player and displaying the stereoscopic character in a three-dimensional manner. ing.

JP 2004-298471 A JP-A-6-269535

  In the display device described in Patent Document 1 or 2, a character such as a pattern is drawn on a rotating body, and a means for irradiating light to the character is employed. According to these means, in order to draw a character on a rotator, a three-dimensionally displayed character is on the rotator surface and cannot produce a three-dimensional image in an area including the center of the rotator. .

  In addition, there are three-dimensional images with safety in lighting equipment or display equipment used in the doll industry, lighting equipment industry, healing lighting industry, toy industry, wedding hall industry, advertising tower / signboard / interior industry, supermarket / convenience store industry. There is a need for a production device. For example, on a newspaper, an article that often warns you about the candlelight, and that warns you about the light of the Buddhist altar so that the fire does not occur is often introduced, imitating a candlefire Safety can be improved if an illumination image can be created. In the toy or gaming industry, there is a demand for a display device with enhanced visual effects and presentation effects.

  In view of this point, the present invention provides a three-dimensional pseudo-image effect device that has safety, enhances visual effects and effect effects, and can produce an effect particularly by forming a stereoscopic image in a region including the center of rotation. It is an object to provide a three-dimensional pseudo-image production method.

A bowl-shaped main body, a rotary drive source disposed inside the main body, a power source thereof, a plate-like rotary unit attached to an output shaft of the rotary drive source and defining a cylindrical rotary region, and the A rotary screen device composed of an effect character unit integrally formed in the radial direction on the rotation unit, and exposed to the main body and positioned around the effect character unit in the height direction and below And a light emitter that is connected to the power source and emits light from below toward the effect character portion, and the rotational drive source and the light emitter controller.
When the illuminating body emits light to the effect character portion and the rotating screen device rotates, the effect character portion makes a three-dimensional effect in the rotation area of the rotating screen device. Provided is a three-dimensional pseudo image rendering device.

  The present invention also relates to a structure, a rotary drive source disposed in the structure, a power source thereof, a plate-like rotary unit that is attached to an output shaft of the rotary drive source and delimits a cylindrical rotation region, and the rotation A rotary screen device composed of an effect character part integrally formed in the radial direction on the part, and exposed to the structure from the structure, and around the effect character part in the height direction below and above A light-emitting body that is attached in a state where it is located on one or both sides, is connected to the power source, and emits light from one or both toward the effect character section, and the rotation drive source and the light-emitting body control section; When the light is emitted from the light emitter to the effect character portion and the rotary screen device is rotated, the effect character portion is within the rotation area of the rotary screen device. Three-dimensional pseudo image Te provides a three-dimensional pseudo image effect device being characterized in that so as to be three-dimensional effect.

  According to the present invention, a three-dimensional pseudo image that can be produced by using a visual afterimage effect, providing safety, enhancing visual effects and rendering effects, and particularly forming a stereoscopic image in a region including the rotation center. A rendering device and a three-dimensional pseudo image rendering method using the device are provided. This three-dimensional pseudo image can be viewed as a three-dimensional stereoscopic image from any direction from any of the multi-directional directions.

A three-dimensional pseudo-image rendering apparatus according to an embodiment of the present invention is attached to a bowl-shaped main body, a rotational drive source disposed inside the main body, a power source thereof, and an output shaft of the rotational drive source. A rotating screen device composed of a rotating part and an effect character part formed integrally with the rotating part, and exposed to the main body from the main body, around the effect character part in the height direction and downward A light-emitting body that is attached in a positioned state and that is connected to the power source and emits light from below toward the effect character section; and a control unit for the rotational drive source and the light-emitting body,
When the effect character portion is irradiated with light from the light emitter and the rotary screen device rotates, a rotation image of the rotary screen device and a three-dimensional pseudo image by the effect character portion within the rotation area are three-dimensional effect. Configured as described.

Further, this embodiment, the presentation character portion is characterized by being constituted flames, in character data of cartoon or toy.

  Embodiments of the present invention will be described below with reference to the drawings.

  FIG. 1 is a configuration diagram including a partial cross section showing the configuration of the first embodiment of the present invention. In FIG. 1, a three-dimensional pseudo-image rendering device 100 includes a cylindrical bowl-shaped main body 1, a motor 2 serving as a rotational drive source disposed inside the main body 1, and an output shaft (rotary shaft) of the motor 2. 3, a rotating screen device (screen means, subject) 5 connected to 3, a light emitter (light emitting section, light emitting means) 6 provided in the main body 1, a control section (control means) 7, and a power cable serving as a power source 10.

  The rotary screen device 5 includes a rotary unit 52 and an effect character unit 52. The rotating unit 51 and the effect character unit 51 are configured as one body and become a subject, but the effect character unit 52 is configured to include an effect character. In the case of the example shown in FIG. 1, the rotating unit 51 has a candle flame shape, where the candle flame shape becomes the effect character unit 52, and the flame becomes a character. The main body is used in a concept including the structure of an amusement machine. In the case of a structure, the light emitter 6 can emit light from one or both of the lower side and the upper side of the structure. That is, irradiation can be performed from one side or both sides in the vertical direction, and this case is suitable when the three-dimensional pseudo-image effect device is enlarged.

  Inside the main body 1, various electronic components 9 are placed on the substrate 8 and the substrate 8, and the control unit 7 is configured by the substrate 8 and the electronic components 9.

  A battery can be used in place of the power cable 10 as a power source. Reference numeral 29 denotes a connection terminal.

  The lower part of the motor 2 is supported by a substrate 8 by a support body (support member) 4 and the upper part is disposed inside a recess 12 formed inwardly on a light emitter support plate 11 formed in the main body 1. The fixing means is formed.

  The light emitter support plate 11 is formed with a recess 12 that is inward and inclined toward the effect character portion 52. The light emitter 6 is disposed in the recess 12, and the light from the light emitter 6 is the effect character. Light emission, that is, irradiation is performed toward the unit 52. Two to four light emitters 6 are provided on a circular locus having a predetermined radius with the output shaft 3 as the center (there may be one). In particular, it is recommended to provide three or four at 120 degree intervals. In the drawing, the light emitter 6 is arranged on one circular locus, but may be provided on a plurality of circular locus having different radii around the output shaft 3.

  The installation position and irradiation direction of the light emitter 6 are important. It is visually undesirable to provide the illuminant 6 directly on the side of the effect character unit 52. The effect character unit 52 is irradiated from an oblique direction around the lower side of the effect character unit 52 and visually disturbed. It is better not to become. Therefore, in this embodiment, the light emitter 6 is below the effect character portion 52 in the height direction (therefore, the downward direction is viewed from the main body 1), and the output shaft 3 is the center. Are provided on a circular locus having a predetermined radius, or a plurality of them are arranged obliquely (inclined) so that the irradiation direction faces the effect character portion 52. The light emitter 6 is provided so as not to wrap the effect character portion 52 in the horizontal direction, but is disposed close to the lower portion as long as there is no hindrance to rotation. In FIG. 1, a light emitter 6 is disposed on the upper side of the motor 2. As an example of the light-emitting body 6, a high-intensity light-emitting diode is used. As the high-intensity light emitting diode, a light emitting diode that emits red, green, and blue, which are the three primary colors of light, is used. Other light emitting means can be used as the light emitter 6.

  In the main body 1, a hood 12 can be provided around the production screen device 5 so as to cover it. In the figure, it is indicated by a chain line.

  As described above, the production screen device 5 is formed by the rotation unit (rotary body) 51 and the production character unit 52. The rotation unit 51 has a plate shape and corresponds to the shape of the rotation unit 51 when rotated. Thus, a cylindrical rotation area is formed, and the effect character section 52 is formed integrally with the rotation section 51 in the radial direction, and rotates integrally when the rotation section 51 rotates, and the rotation area formed by the rotation section 51 at this time Rotate inside. In this way, the characters are arranged in the radial direction. As shown in FIG. 1, when the rotation unit 51 and the effect character unit 52 are the same body, the rotation region formed by the rotation unit 51 matches the region where the effect character unit 52 rotates. FIG. 2 shows an example in which the rotating part 51 is formed of another plane rotating body. 2A is a plan view and FIG. 2B is a side view. The rotating part 51 is a thin plate-like body, and the effect character part 52 is an effect character part composed of two colors of A and B colors. The rotating part 51 has a flame shape. Therefore, for example, when the A color is a light die-dye and the B color is blue, two colors of flames are produced in the rotating region as described later, and the outer flame is a flame at a temperature. It becomes possible to produce the inner flame as a high-temperature flame.

  FIG. 3 shows an example in which the rotating unit 51 is formed of a three-dimensional rotating body. 3A is a plan view and FIG. 3B is a side view. The rotating part 51 is a cross-shaped thin plate-like body, and the effect character part 52 is an effect character part composed of two colors of A and B as in FIG. The effects are the same as in the example of FIG. You may provide a hole in the rotation part 51. FIG.

  In the example of FIG. 4, the card on which a picture (picture) is drawn is used as the effect character unit 52, the card holder is used as the rotating unit 51, and the rotating unit 51 is fixed to the output shaft 3 of the motor 2 shown in FIG. An example is shown. FIG. 4A is a diagram illustrating the process, and FIG. 4B is a side view of FIG. In the case of this example, the rotation part 51 and the effect character part 52 are clearly divided.

  As shown in FIG. 5, the card on which the picture is drawn can be used as the rotation unit 51 and the production character unit 52 and can be held by being inserted into the card clip 22. The card clip 22 is fixed to the output shaft 3 via the holder 21.

  Fig.5 (a) is a side view, FIG.5 (b) is a side view when rotated 90 degree | times.

  The example in FIG. 6 uses a card cut out in the shape of a picture. The card is inserted and held in a card clip as in the example of FIG. In the case of this example, the card cut out in the shape of a picture becomes the rotation unit 51 and the production character unit 52. In the example shown in FIG. 5 and FIG. 6, since each card is held by a method of inserting into the card clip 22, different effects can be given to the character by changing the card whose pattern has been changed.

  The example shown in FIG. 7 is substantially the same as the example shown in FIG. 4, but the blade part 53 is formed in the rotating part 51, and wind can be sent along with the rotation of the rotating part 51.

  In the example shown in FIG. 8, when the rotation number of the rotation unit 51 is increased, the effect character unit 52 with the outer picture opens to the left and right as shown by the arrows by the action of centrifugal force, and is drawn inside the rotation unit 51. The picture can be seen. That is, when the rotational speed of the rotating part increases, the rotating part 51 is provided with doors 54 and 55 that open to the left and right as a slide by the action of centrifugal force. When the doors 54 and 55 are closed (FIG. 8A), An effect character portion 52 is provided by being hidden by the doors 54 and 55, and has a feature that is an effect character portion different from the doors 54 and 55.

  FIG. 9 is a diagram illustrating an assembly method for the example illustrated in FIG. 4. The picture card (FIG. 9A) is attached to the card holder (FIG. 9B), and is secured to the output shaft 3 by the holder 21 (FIG. 9C) to complete the assembly (FIG. 9). 9 (d)).

  FIG. 10 is a diagram illustrating the configuration of the control unit. FIG. 10A shows the configuration of the control unit in blocks, and FIG. 10B shows the light emitting unit current and the motor drive current. In FIG. 10A, the control unit 7 includes a calculation unit 71, pattern data 72, a high-speed switch circuit 73, and a high-speed switch circuit 74, and is connected to a power source 75. The calculation unit 71 reads the pattern data 72, operates the high-speed switch circuit 73 to output the light emission control signal to the light-emitting unit 6, and operates the high-speed switch circuit 74 to output the motor control signal to the motor 2 for rotation. The irradiation control of the light applied to the unit 51 is performed, and the rotation control of the rotating unit 51 is performed. That is, the calculation unit 71 reads the pattern data 72, calculates the brightness level of the issuing unit 6 and the rotation speed of the motor 2 in advance of the pattern data, and controls the current ON / OFF control as shown in FIG. I do. Since the ON / OFF speed of the light emitting unit 6 is so fast that it cannot be detected by human eyes, it is recognized as bright / dark, not on / off by human eyes. Since the motor 2 rotates by inertia even when the current is turned off, it is controlled not as rotation / stop but as a change in the rotation speed.

  An image effect when the three-dimensional pseudo-image effect device 100 configured as described above is driven will be described with reference to FIG.

  FIG. 11 shows an example in which a light, such as a candle flame, is produced with light. 11 (a) is a plan view when stationary and rotating, and 11 (b) is a side view. As shown in FIG. 11, in the stationary state, the character that is the flame of the production character unit 52 has a flat and long elliptical shape (however, 90 degrees) on the inside and a long and narrow elliptical shape that is the outer shape of the rotating unit 51. Although only visible, the effect screen device 5 comprising the rotation unit 51 and the character unit 52 rotates, and light irradiation from the light emitting unit 6 (not shown in the case of this figure) is directed to the effect screen device 5. In the rotation region of the rotator 51, the inner elliptical shape and the outer elliptical shape appear as a three-dimensional image, that is, a three-dimensional pseudo image due to the visual afterimage effect, and in particular, the inner elliptical shape should be brightly colored. Can be seen in the rotating region, especially the candle flame flame. Overall, it can be seen that there is an inner flame in the candle's outer flame and it is burning. In this example, the inner and outer ellipses are drawn symmetrically about the center line, so it just looks like the inner flame is burning in the outer flame, but it is slightly asymmetrical. If this is done, the elliptical tip will sway as it rotates, making the candle flame appear to sway. Even in the case of left-right symmetry, if the effect screen device to the output shaft is slightly decentered, it will still appear that shaking occurs.

Example Asymmetrical but the area is almost the same Small flame swaying Asymmetrical and different area Large swaying flame Symmetrical and almost the same area No flame swaying By changing the thickness of the candle core drawn on the front and back of the screen You can produce the shaking of the flame near the core. In these cases, in order to produce light fluctuations, a real candle is lit, the change in the brightness of the flame is measured under a certain condition, fluctuation pattern data is created based on the data base, and the control unit 7 The fluctuation of the light of the actually lit candle can be reproduced by the combination of the electronic circuit and the illuminant. In this way, by combining and combining the shaking of the flame and the fluctuation of the light, it is possible to produce a realistic three-dimensional pseudo flame as if it were placed in the natural world. Note that shaking and fluctuation can be collectively referred to as fluctuation.

  FIG. 12 shows an example in which a picture of a robot is drawn or pasted on the rotating body 52 as a character part. 12A is a plan view, and FIG. 12B is a side view.

  As shown in FIG. 12, in the stationary state, the character that is the image of the effect character unit 52 and the background image of the rotating unit 51 itself appear independently, but when the rotating unit 51 is rotated, the background of the rotating unit itself is visible. It becomes difficult and the character appears to be blended into the background image. That is, when the light is emitted from the light emitting unit 6, the character rotates about the central axis and appears as an afterimage as if it is a three-dimensional object. As shown in FIG. 11B, when the effect character portion rotating from the light emitter 6 is irradiated with light and the rotary screen device 5 rotates, a three-dimensional pseudo image is generated by the effect character portion in the rotation area of the rotary screen device 5. Appears to be three-dimensionally produced. Therefore, the three-dimensional image can be called a three-dimensional image. The visual effect and the production effect are enhanced by the three-dimensional pseudo image produced in the rotation area.

  In the example shown in FIG. 12, the robot that is the character is drawn symmetrically, but the robot can be produced in a three-dimensional manner even if it is asymmetrical by raising and lowering the arm or the like.

  As described above, the robot as the character is produced as if it existed three-dimensionally in the rotation area. Even a completely asymmetric planar character such as a monster is produced as if it exists three-dimensionally in the rotation area. You can also produce an image of a child playing with a ball.

  By rotating the effect character portion 52, the three-dimensional pseudo image appears to be in front due to the afterimage effect from any direction of 360 degrees. In this case, the three-dimensional pseudo image can be displayed at any position in the rotation region, and a stereoscopic effect can be felt. If the image contrast between the effect character portion and the background image is increased, a more pseudo three-dimensional effect can be obtained. Further, the pseudo three-dimensional effect can be enhanced by controlling the luminance of the light emitting unit 6.

  When the effect character portion 52 is a candle flame image, the rotary screen device becomes a flame type, and a three-dimensional simulated flame with a fluctuating effect can be produced by light irradiation in which a plurality of color lights are program-controlled.

In the description so far, an example in which a design (including a pattern) or the like is used in the effect character portion has been described, but character display or orientation display can be used in the effect character portion.

  As described above, according to the present embodiment, the bowl-shaped main body 1, the motor 2 disposed in the main body 1, its power source, and the output shaft 3 of the motor 2 are attached to the cylindrical rotation. Exposed from the main body 1 to the rotary screen device 5 composed of a plate-like rotary portion 51 that demarcates the region and an effect character portion 52 formed integrally with the rotary portion 51 in the radial direction. A light emitter 6 that is attached in a direction around the effect character portion 52 and positioned below, and is connected to a power source and emits light from below toward the effect character portion 52, and the motor 2 and the light emitter 6. And the control character 7, and when the effect character unit 52 is irradiated with light from the light emitter 6 and the rotary screen device 5 rotates, the effect character unit 52 performs the tertiary operation within the rotation area of the rotary screen device 5. Original Nizo three-dimensional pseudo image rendering device is formed which is to be three-dimensional effect.

  The effect character portion 52 may be drawn directly on or pasted on a single thin plate or cross-shaped thin plate.

You may comprise the rotation part 51 and the production | presentation character part 52 by the card | curd cut out in the shape of a picture, ie, formed in the shape of a picture .

  In addition, the bowl-shaped main body 1, the motor 2 disposed inside the main body 1, its power source, the rotating part 51 attached to the output shaft 3 of the motor 2, and the effect formed integrally with the rotating part 51 The rotary screen device 5 including the character part 52 and the main body 1 are attached to the main body 1 so as to be exposed from the main body 1 and positioned below the effect character part 52 in the height direction and connected to the power source. The light emitter 6 that emits light from below toward the effect character portion 52, the motor 2 and the control portion 7 of the light emitter 6, and the effect character portion 52 is irradiated with light from the light emitter 6. In addition, when the rotary screen device 5 is rotated, a three-dimensional pseudo-image effect is produced in which the rotary image of the rotary screen device 5 is three-dimensionally rendered by the effect character unit 52 within the rotation area. Location is configured.

  In addition, the bowl-shaped main body 1, the motor 2 disposed inside the main body 1, its power source, the rotating part 51 attached to the output shaft 3 of the motor 2, and the effect formed integrally with the rotating part 51 The rotary screen device 5 including the character part 52 and the main body 1 are attached to the main body 1 so as to be exposed from the main body 1 and positioned below the effect character part 52 in the height direction and connected to the power source. The three-dimensional effect device 100 having the light emitter 6 that irradiates light from below toward the effect character unit 52, and the motor 2 and the control unit 7 of the light emitter 6, the light emitter 6 changes the effect character unit 52. A three-dimensional effect in which a three-dimensional pseudo image is produced in a three-dimensional effect by the effect character unit 52 in the rotation area of the rotary screen device 5 when light is irradiated and the rotary screen device 5 rotates. Nizo presentation method is configured.

  Hereinafter, Example 2 will be described with reference to FIG. The configuration is substantially the same as that of the first embodiment, and the same configuration is denoted by the same number and the description will not be repeated.

  The embodiment shown in FIG. 13 is characterized in that the main body 1 of a light bulb-type cylindrical casing is used as the casing. Therefore, in this embodiment, the base 31 for taking in electric power is provided at the lower end portion of the main body 1, and in the case of this example, the base 31 can be regarded as a power source. The base 31 is connected to the AC / DC converter 32 and is further connected to the controller 7. Other configurations are the same as those of the first embodiment.

  When the base 31 is attached to a light bulb socket to which AC100V (200V) is applied, the AC / DC conversion unit 32 converts AC100V to about DC5V. The control unit 7 controls the light emission and irradiation of the light emitting unit 6 and the rotation speed of the motor 2 by the converted DC current.

  The third embodiment shown in FIG. 14 is also the same as the first embodiment, and shows examples in which various power sources can be used. The content of Example 1 shall be used for another structure.

  FIG. 14A shows a battery built-in type three-dimensional pseudo-image effect device using a battery 41 as a power source.

  FIG. 14B shows a battery built-in / external power source switching type three-dimensional pseudo-image effect device having a power input terminal 42, which can be used by switching both the battery 41 and the external power source as power sources.

  Example 4 shown in FIG. 15 shows a three-dimensional pseudo-image effect device (unit) in which a plurality of the three-dimensional pseudo-image effect devices of Example 1 are arranged side by side.

  When the power source is small, as shown in FIG. 15, the battery 41 is built in one three-dimensional simulation effect device 100A, the power output terminal 43 is provided, and the other three-dimensional device is connected via the wiring 44. It connects to the power input terminal 45 of the pseudo rendering device 100B. By doing so, the three-dimensional pseudo image effect devices 100A and 100B provided side by side are configured, and different color effects can be effectively performed by separately controlling the light and the rotation speed. Furthermore, it is possible to increase the number of three-dimensional pseudo-image production devices. In the case of a large-scale power source, wiring can be provided in series or in parallel using a three-dimensional pseudo image effect device 100 as shown in FIG.

  In such a case, the control program of the three-dimensional pseudo-image effect device of the slave unit may be changed so that the control unit of the three-dimensional pseudo-image effect device of the main unit is also used.

Picture air Rui to effect character part In the previous embodiments the character display is shown the structure to direct subjected to color the direction indication display or the like, the presentation effect as that emit light when there is irradiation of light Can be increased. In the case of these paintings air Rui character display, in the case of the configuration to direct subjected to color the direction display and the like can form a visually solid image by most convenient technique, inexpensive to manufacture There is a merit that you can.

  Moreover, it does not prevent combining the above-described effect examples with other known effect examples.

BRIEF DESCRIPTION OF THE DRAWINGS The block diagram containing the partial cross section which shows the structure of Example 1 of this invention. The figure which shows the modification of an effect screen apparatus. FIG. 2A is a plan view, and FIG. 2B is a side view. The figure which shows the other modification of an effect screen apparatus. FIG. 3A is a plan view, and FIG. 3B is a side view. The figure which shows the other modification of an effect screen apparatus. FIG. 4A is a diagram illustrating the process, and FIG. 4B is a side view of FIG. The figure which shows the other modification of an effect screen apparatus. FIG. 5A is a side view, and FIG. 5B is a side view when FIG. 5A is rotated 90 degrees. The figure which shows the other modification of an effect screen apparatus. 6A is a side view, and FIG. 6B is a side view when FIG. 6A is rotated 90 degrees. The figure which shows the other modification of an effect screen apparatus. FIG. 7A is a side view, and FIG. 7B is a plan view. The figure which shows the other modification of an effect screen apparatus. FIG. 8A and FIG. 8B are diagrams showing before and after the operation. The figure which shows the assembly method about the example shown in FIG. 4 by Fig.9 (a)-FIG.9 (d). The figure which shows a control part structure. FIG. 10A is a control unit block diagram, and FIG. 10B is a diagram showing a light emitting unit current and a motor drive current. The figure which shows visually the effect by the Example of this invention. The figure which shows visually the other effect by the Example of this invention. The block diagram which shows the structure of the other Example of this invention. The block diagram which shows the structure of the other Example of this invention. FIG. 13A shows one example, and FIG. 13B shows another example. The block diagram which shows the structure of the other Example of this invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 ... Main body, 2 ... Motor (rotation drive source), 3 ... Output shaft (rotation shaft), 4 ... Support body (support member), 5 ... Rotary screen apparatus (screen means, object), 6 ... Light emission part, 7 ... Control unit, 9 ... electronic components, 10 ... power cable (power source), 51 ... rotating unit (rotating body), 52 ... production character unit, 100 (100A, 100B) ... three-dimensional pseudo image effect device (stereoscopic image effect device) ).

Claims (9)

A body of Tadashijo, a rotary drive source disposed in the interior of the body, and its power supply, attached to an output shaft of said rotary drive source to define a cylindrical rotating region, candles picture equi Yarakuta And a rotary screen device comprising a rotary part having a production character part formed by the above-mentioned main body, exposed from the main body, and positioned around or below or above the production character part in the height direction. And a light emitter that is connected to the power source and emits light from below or above toward the effect character portion, and the rotational drive source and the light emitter controller.
The effect character portion is configured such that a candle pattern is formed asymmetrically about the center line of the rotating portion,
When the illuminator is irradiated with patterned light, which is a plurality of color lights, programmed to the effect character portion , and the rotating portion of the rotating screen device rotates, the rotating area of the rotating screen device the candles of the pattern characters three-dimensional pseudo image rendering apparatus characterized that you sterically form a dynamic candle flame images with jitters within. According to claim 1, wherein the rotating part, without the longitudinal section of the candles of the outer flame, the presentation character portion is the three-dimensional pseudo image rendering device according to claim Succoth a longitudinal sectional shape of the candle inner flame. 2. The three-dimensional pseudo image effect device according to claim 1 , wherein two to four light emitters are provided at substantially equal intervals . 4. The three-dimensional pseudo-image rendering apparatus according to claim 3 , wherein the light emitter emits three primary colors, and the light emission period of the three primary colors is controlled by the control unit. Oite to claim 1, the body of the Tadashijo is converted is formed in a bulb shape with a light socket incorporating AC current, AC current taken from the power spheres socket for DC current in該匡shaped body three-dimensional pseudo image rendering apparatus characterized by being. 6. The three-dimensional pseudo-image effect device according to claim 1 , wherein the power source and the control unit are disposed in the bowl-shaped main body . A rod-shaped main body, a rotational drive source disposed inside the main body, its power source, an output shaft attached to the output shaft of the rotational drive source, defining a cylindrical rotational region, and an effect formed by the character A rotary screen device composed of a rotary part having a character part, and attached to the main body in a state of being exposed from the main body and positioned below or above the effect character part in the height direction. A light emitter that is connected to the power source and emits light from below or above toward the effect character portion, and a rotation drive source and a control portion of the light emitter,
In the three-dimensional pseudo-image effect device that stereoscopically produces a dynamic three-dimensional pseudo image in the rotation area of the rotary screen device when the rotary part of the rotary screen device rotates,
The rotating part is composed of a door that is opened by sliding due to the centrifugal force when the rotation number of the rotating part increases, and a character that is not seen by the door when the door is closed, A three-dimensional pseudo-image rendering device , wherein a dynamic three-dimensional pseudo image of the character is generated when the door is opened with the rotation of a rotary unit. 8. The three-dimensional pseudo image effect device according to claim 7, wherein the pattern character is asymmetrical about a center line . A bowl-shaped main body, a rotary drive source disposed inside the main body, a power source thereof, and an output shaft of the rotary drive source are attached to the cylindrical rotary region to form a candle pattern character. A rotary screen device composed of a rotary unit having a produced effect character part, and a state exposed to the main body from the main body and positioned below or above the effect character part in the height direction A three-dimensional pseudo-image effect device comprising: a light emitter that is attached to the power source and emits light from below or above toward the effect character portion; and the rotational drive source and the light emitter control unit. In the three-dimensional pseudo-image production method by
In the effect character portion, a candle pattern formed asymmetrically about the center line of the rotating portion rotates around the center line of the rotating portion,
When the illuminator rotates the rotating portion of the rotary screen device by irradiating the effect character portion with a plurality of color lights that are program-controlled and patterned light and rotating the rotary portion of the rotary screen device, A method for producing a three-dimensional pseudo-image , wherein the candle pattern character forms a three-dimensional dynamic candle flame image with fluctuations .

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