How to display 3D images on a television screen

Abstract

The image is displayed using the distance of the subject within the image. There is a need for the development and commercialization of a specialized computing integrated circuit for rearranging the positions of the image signal sequence displayed on a television screen. [Solution] The image is corrected and displayed at a position corresponding to the binocular parallax of the distance to the subject shown in the image on the television screen. The two-dimensional image of the subject shown on the television screen is projected onto the left and right television screens by the corrected images of the subject on the left and right, and synchronized with each other, allowing the viewer to see a three-dimensional screen by looking through a light-blocking filter.

Description

Technical Field

[0001] This disclosure relates to a method for displaying a stereoscopic image on a TV screen.

Background Art

[0002] Movies are also shown in digital image data, and many users obtain the image data via the Internet. The two-dimensional screen captured using a TV camera is different from the situation of the screen where a person is present. The present invention provides a three-dimensional screen in which distance data is added to two-dimensional image data. Make the image (avatar) reflected on the two-dimensional virtual space (metaverse) set on the TV screen appear as a three-dimensional image reflected on the three-dimensional virtual space. The present invention is a method for obtaining distance data of image data and a method for processing the image data using the obtained distance data to view the processed three-dimensional image. As a method for measuring the distance to a subject in association with the position of the subject's image identified from a TV screen captured using a TV camera, there are the following documents.

Prior Art Documents

Patent Documents

[0003]

Patent Document 1

Patent Document 2

Summary of the Invention

[0004] A method of driving a TV camera whose shooting direction is changed by a numerically controlled drive mechanism using drive numerical values associated with the position of an image reflected on a TV screen captured by the TV camera, zooming in on the subject at the position of the image reflected on the TV screen, and shooting so that an image of a subject far away can be recognized. This method uses a laser rangefinder that changes the direction of the laser beam emitted for distance measurement using a numerically controlled drive mechanism, based on drive values ​​associated with the position of the image displayed on the television screen captured by the television camera. The laser beam is then shone onto a distant subject in the image displayed on the television screen to measure the distance to the subject. [Problems that the invention aims to solve]

[0005] While the method described in the above patent document can measure the distance to the subject in an image, it does not disclose how to represent the image using this measured distance. [Means for solving the problem]

[0006] Using distance data from the subject, the image position of the subject on the television screen is corrected to the position corresponding to the distance data using a calculation circuit. One method for correcting the image position described above is to adjust the image displayed on the television screen so that, in relation to the distance of the image, the image of the subject appears to be at the distance of the subject, based on the interpupillary distance between a person's left and right eyes. Another method for correcting the image position described above is to use the binocular parallax value of the distance to the subject to correct the display position of the image so that the subject on the television screen appears in the position of the subject on the left and right television screens viewed by the left and right eyes. By using VR goggles to view images of a subject that have been corrected to appear at the position shown on the left and right television screens, the image of the subject can be projected to appear at a measured distance. Alternatively, by displaying images of the subject at corrected positions on the left and right television screens, and using stereoscopic glasses with light-blocking filters that synchronize these images, the subject can be viewed with both eyes simultaneously, making it appear as if the subject is at a measured distance.

[0007] As for the above distance data, the present inventor can use the distance measured from the subject in the image using a numerically controlled laser distance measuring device, which is used to irradiate a distance-measuring laser beam onto the subject in an image recognized from a television screen captured using a television camera, as described in Patent No. 6719494, already obtained by the present inventor. Furthermore, as the distance data mentioned above, the distance to the recognized subject can be used, which is obtained by measuring the distance to the recognized subject by focusing the distance-measuring light emitted by a distance-measuring light-emitting element on the subject and measuring the reflected light, derived from the position of the image of the subject recognized from the image of the subject on the television screen captured using a pixel emission distance-measuring television camera according to Patent No. 7195093. Furthermore, the distance data mentioned above can be obtained by measuring the distance to an object by focusing the light emitted from a distance-measuring light-emitting element at the position of the image element of the pixel emission distance-measuring television camera onto the object and measuring the reflected light, thereby accurately measuring the shape of the object. Furthermore, the distance data mentioned above can be obtained by using a pixel-receiving distance-measuring television camera to measure the distance to the recognized subject. This distance is determined from the position of the image of the recognized subject on the television screen captured using the television camera, and the measurement is taken at the position of the light-receiving element of the pixel-receiving distance-measuring television camera where the reflected light from the distance-measuring light shining on the subject is focused.

[0008] Furthermore, as the distance data mentioned above, the distance obtained by accurately measuring the shape of the subject can be used, which is measured by receiving the reflection of the measurement light irradiated onto the subject by the distance-measuring light-receiving element at the position of the image element of the pixel-receiving distance-measuring television camera. Furthermore, the distance data mentioned above can be the set distance to the subject on the television screen. Furthermore, the distance data used above can be calculated from the shape of the subject on the television screen. Furthermore, the distance data used can include measured distance, set distance, and calculated distance. [Effects of the Invention]

[0009] By using a distance that accurately measures the shape of the subject, it is possible to represent the shape of the subject as an image, providing a television screen that allows for a three-dimensional view of the subject. The images shown below illustrate the use of two television cameras, a 65TOF distance measuring television camera, a 78-pixel light-receiving distance measuring television camera, and an 86-pixel light-emitting distance measuring television camera, assuming that the captured images of the subject are normally recognizable. [Brief explanation of the drawing]

[0010] [Figure 1] An explanatory diagram illustrating how to measure the distance L-1 to subject 1 by using drive values ​​associated with the position of subject 21 in the image of 18 TV screens captured by a drive mechanism that changes the shooting direction of a 2C numerically controlled television camera, so that subject 21 is positioned in the center of 18 TV screens, and driving a drive mechanism that changes the direction of the laser beam emitted for distance measurement by a 4C numerically controlled laser distance measuring device attached to a 2C numerically controlled television camera to measure the distance toward the center of 18 TV screens. [Figure 2] An explanatory diagram illustrating how a subject captured by two television cameras is identified through image recognition, and the distance L-1 to the identified subject is measured by driving a drive mechanism that changes the shooting direction of a laser distance measuring device to irradiate the subject associated with the position in the image with a measuring laser beam. [Figure 3] An explanatory diagram illustrating how human vision perceives a distance L-1 from a subject using binocular parallax resulting from the interpupillary distance between the right eye's line of sight to the subject and the left eye's line of sight to the subject. [Figure 4] A diagram illustrating the right-eye parallax and left-eye parallax that result from the interpupillary distance in human vision. [Figure 5]A diagram illustrating the parallax between the position of subject 1 in the direction of the 3C television camera's shooting, the positions of subject A 1A and subject B 1B as seen from the interpupillary distance of a human, and the images of subject A 21A and subject B 21B as seen from the position of both human eyes. [Figure 6] This diagram illustrates the relationship between the position of the subject's image on the television screen (18) when the subject is captured by two television cameras, and the position after correcting for binocular parallax using the L-1 distance measured by a laser rangefinder (19). Specifically, it shows the relationship between the right-eye correction value (25) for the position of the subject's image on the right-eye television screen (19) and the right-eye correction value (26) for the position of the subject's image on the left-eye television screen (20). [Figure 7] An explanatory diagram illustrating how to view a 3D image screen using VR goggles, where the left and right screens of the 19th eye TV screen and 20th eye TV screen are displayed, with the left and right screens being viewed, using 40th VR goggles. This is achieved by using drive values ​​associated with the position of the 21st subject image on the 18th TV screen, captured by 2 television cameras, to drive the drive mechanism of a 4C numerically controlled laser distance measuring device to measure the distance to the 1st subject, and then using the binocular parallax of the measured distance position to calculate the corrected position of the 21st subject image on the 18th TV screen. [Figure 8] An explanatory diagram illustrating how, using drive values ​​associated with the position of the subject image on the television screen captured by the television camera, a drive mechanism of a numerically controlled laser distance measuring device is driven to measure the distance to the subject, and the position of the subject image on the television screen is calculated and corrected using the binocular parallax of the measured distance, so that the right eye screen and the left eye screen are displayed on the stereoscopic television screen, and the three-dimensional images are viewed on the screens of the stereoscopic glasses synchronized with the mutual display. [Figure 9]An explanatory diagram illustrating how to view a 3D image screen by displaying a 19 right-eye television screen and a 20 left-eye television screen on a 40 VR goggle by using drive values ​​associated with the position where the image of the 21 subject appears on the 18 television screen captured by the 2C numerically controlled television camera. A 4 laser distance meter attached to the 2C numerically controlled television camera to measure the distance to the 18 television screen is used to measure the distance to the 1 subject, and the position where the image of the 21 subject appears on the 18 television screen is calculated and corrected using the binocular parallax of the measured distance, and a 19 right-eye television screen and a 20 left-eye television screen are displayed on the television screen of a 40 VR goggle. [Figure 10] Using drive values ​​associated with the position where the image of subject 21 is displayed on the television screen 18, captured by the television camera, the drive mechanism of the 2C numerically controlled television camera is driven to capture the image of subject 1 on the television screen so that it is displayed in the center of the television screen 18. Using a 4 laser distance meter attached to the drive mechanism of the 2C numerically controlled television camera, the distance to subject 1 is measured to measure the distance toward the center of the 88 stereoscopic television screen. Using the binocular parallax of the measured distance, the position where the image of subject 21 is displayed on the television screen 18 is calculated and corrected, and the 36 right-eye television screen and 37 left-eye screen are displayed on the 88 stereoscopic television screen, and the 3D images are viewed mutually through the light-shielding filters of 89 stereoscopic glasses synchronized with the mutual display. (Diagram illustrating the process.) [Figure 11]Soccer players A and B, numbered 47 and 48, wearing 40VR goggles are filmed using TV cameras A and B, numbered 2A and 2B. Images A and B of soccer players 47A and 48B are displayed on TV screens A and B with numerical control, numbered 18A and 18B. Using the drive values associated with the positions of images A and B of soccer players 47A and 48B, the drive mechanisms of laser distance meters A and B with numerical control, numbered 4A and 4B, are driven to measure the distance and direction from soccer players A and B, numbered 47 and 48. Using the measured distance and direction, images of soccer players B and B, numbered 47B and 48B, are expanded and projected onto the position on the 57B metaverse TV screen where the 49 soccer ball appears. The positions on the 57B metaverse TV screen where the images A and B of the competing soccer players 47B and 48B are projected are corrected to the positions of binocular parallax in a wide human visual field using the measured distances from soccer players A and B, numbered 47 and 48. Images A and B of soccer players on the 52 and 53 right-eye battle TV screens are displayed at the 50 right-eye battle correction position on the 19 right-eye TV screen of the 40VR goggles, and images A and B of soccer players on the 54 and 55 left-eye battle TV screens are displayed at the 51 left-eye battle correction position on the 20 left-eye TV screen. Soccer players A and B, numbered 47 and 48, wearing 40VR goggles engage in battle while viewing the stereoscopic images projected onto the left and right TV screens of the 40VR goggles they are wearing. Soccer players A and B, numbered 47 and 48, wearing 40VR goggles reflect the measured distance in the virtual space of the metaverse and expand the images of soccer players A and B, numbered 47 and 48, wearing 40VR goggles as avatars at the measured distance positions for an explanatory diagram of the battle in the measured distance space. [Figure 12]An explanatory diagram illustrating how to play a soccer game on a 36-device television screen using a control console. The positions of the soccer player images C, D, E, F, G, H are displayed on the 57-device television screen of the 56-device soccer game. The positions of the soccer player images C, D, E, F, G, H are corrected to the binocular parallax of the human field of view, according to the set distance for each match position. The images are displayed on the 19-eye television screen of the 40-device VR goggles at positions C, D, E, F, G, H for the 58R, 59R, 60R, 61R, 62R, and 63R game soccer player images at positions C, D, E, F, G, H for the 58L, 59L, 60L, 61L, 62L, and 63L game soccer player images at positions C, D, E, F, G, H for the 56-device soccer game television screen. [Figure 13] Using a control console, the system controls a soccer game match between 56 game machines. The positions C, D, E, F, G, and H of the soccer players' images displayed on the 57 game television screen are calculated using the 64 soccer player image data to determine the 3D distance of the image positions. The positions C, D, E, F, G, and H of the soccer players' images on the 57 game television screen are calculated based on the human interpupillary distance, and the image positions are horizontally corrected to match the distance. An explanatory diagram showing a game between 56 game devices, with the corrected image positions C, D, E, F, G, H of game soccer players displayed on the 57A game television screen and the corrected image positions C, D, E, F, G, H of game soccer players displayed on the 58R, 59R, 60R, 61R, 62R, 63L game soccer players displayed on the 58L, 59L, 60L, 61L, 62L television screen, and the 89 stereoscopic glasses that open and close in accordance with the displays. [Figure 14]Using two TV cameras to photograph, the reflected light of the distance measurement light projected from the 84 light projector onto the 66, 67, 68, 69 subjects A, B, C, D corresponding to the positions of the images A, B, C, D of the 70, 71, 72, 73 subjects shown on the 18 TV screens is measured for the distance from the 66, 67, 68, 69 subjects A, B, C, D using the 65 TOF distance measurement TV camera. The positions of the measured distance group are collated with the positions on the 18 TV screens photographed using two TV cameras, and the binocular disparity of the positions of the images on the 18 TV screens is corrected using the measured distances. The images A, B, C, D of the 70, 71, 72, 73 subjects on the 18 TV screens are displayed as the images A, B, C, D of the 70R, 71R, 72R, 73R subjects on the 19 right-eye TV screen and the images A, B, C, D of the 70L, 71L, 72L, 73L subjects on the 20 left-eye TV screen, and the two-dimensional screen shown on the 18 TV screens is displayed on the 19 right-eye TV screen and the 20 left-eye TV screen of the 40 VR goggles for viewing as a three-dimensional image screen. [Figure 15] The reflected light of the distance measurement light projected from the 84 light projector onto the 66, 67, 68, 69 subjects A, B, C, D corresponding to the positions of the images A, B, C, D of the 70, 71, 72, 73 subjects shown on the 18 TV screens photographed by the 78 pixel light-receiving distance measurement TV camera is received using the 78 pixel light-receiving distance measurement TV camera to measure the distance from the 66, 67, 68, 69 subjects A, B, C, D, and binocular disparity correction is performed using the measured distances. On the 88 stereoscopic TV screen, the display of the positions of the images A, B, C, D of the 70R, 71R, 72R, 73R subjects for the right eye and the display of the positions of the images A, B, C, D of the 70L, 71L, 72L, 73L subjects for the left eye are displayed mutually, and the three-dimensional image screen is displayed on the 88 stereoscopic TV screen through the 89 stereoscopic glasses that open and close according to the display. [Figure 16]At the position of the 93rd image element of the 92-pixel light-receiving distance-measuring television camera's image sensor unit, where the image of subject 68 C is displayed on the television screen captured by the 78-pixel light-receiving distance-measuring television camera, the reflected natural light from subject 68 C passes through the 91st optical lens to form an image of the subject. The distance-measuring light 95 emitted from the 84th floodlight also passes through the optical lens to the 68th subject C, similar to natural light, and is focused at the position of the 93rd image element of the 92-pixel light-receiving distance-measuring television camera's image sensor unit. The distance of subject 68 as it appears in the image at the position of the 93rd image element can be measured by the 100th measuring element incorporated at the position of the 93rd image element of the 92-pixel light-receiving distance-measuring television camera. An explanatory diagram illustrating an example of correcting the position of the N image element shown on the 96 image element of the 78-pixel light-receiving distance-measuring television camera 101 at the position where the image signal is derived, using the binocular parallax of a human at the measured distance, to the N+ side of the right-eye television screen and the N- side of the left-eye television screen. [Figure 17] Using an 86-pixel luminescence distance measuring television camera, subjects A, B, C, and D (66, 67, 68, 69) are photographed. Images A, B, C, and D of subjects (70, 71, 72, 73) displayed on the television screen (18) are collected and formed into an image signal by the optical lens of the 86-pixel luminescence distance measuring television camera. The distance measuring light emitted by the light-emitting element, which is placed at the position of the image element of the image element unit, is collected and illuminated onto subjects A, B, C, and D (66, 67, 68, 69) by the optical lens of the 86-pixel luminescence distance measuring television camera. The reflected light is received by the light receiver (87) and the distances to each subject (66, 67, 68, 69) are measured sequentially. This diagram illustrates how to view a 3D screen using synchronized stereoscopic glasses. It shows the positions of images A, B, C, and D of subjects 70, 71, 72, and 73 on the 18 television screens corrected for binocular parallax, with images A, B, C, and D of subjects 70R, 71R, 72R, and 73R displayed on the right-eye television screen, and images A, B, C, and D of subjects 70L, 71L, 72L, and 73L displayed on the left-eye television screen. [Figure 18]At the position of the 93rd image element of the 105-pixel distance measuring television camera's image element unit, where the 86-pixel distance measuring television camera displays a screen showing 68 subjects, reflected natural light from the 68 subjects passes through the 91st optical lens and is focused, forming an image of the 68 subjects. The distance measuring light emitted by the 103rd light-emitting element, which is installed at the position of the 86-pixel distance measuring television camera's image element in the 107-image-element array unit A, which is installed at the position of the 93rd image element of the 86-pixel distance measuring television camera where the image of the 68 subjects is formed, is also backlit and passes through the 91st optical lens of the 86-pixel distance measuring television camera in the opposite direction, focusing and illuminating the position of the 68 subjects. The reflected light that is focused and illuminated onto the 86 subjects is received by the 87th light receiver to measure the distance. This diagram illustrates an example of correcting the position N of the image signal derived from the 93 image elements, using the binocular parallax of a human eye at the measured distance, so that the position of the image signal derived from the 107 image element array unit A is corrected to the N+ side for the right-eye television screen and the N- side for the left-eye television screen, from the position of the N image elements shown in the horizontal row of the 105 image element unit of the 86-pixel emission distance measuring television camera. [Figure 19]Using an 86-pixel luminous distance measuring television camera, subjects 67 and 68 are photographed. The image signals derived from the image formed at position N of image element A of image element array unit A of 92A and image signals derived from the image formed at position N of image element B of image element array unit B of 92B are used to measure the distance to the positions of subjects 67 and 68 corresponding to positions N of image elements A and B of 93A and 93B, respectively, using distance measuring light emitted by a light-emitting element located at position N from which the image signals were derived. Using the distance signals measured at position N from which the image signals were derived, the positions of subjects 72 and 73 that appear in images C and D are corrected for binocular parallax as seen by humans. The position M of image A 109A on the stereoscopic television screen, which displays image C of subject 72 on the 107A pixel array unit A, corresponds to position N of image element A 93A on the 92A image element array unit A that captured subject 67, and the horizontal position of the pixels displayed on the television screen of image C of subject 72R for the right eye television screen is corrected to the pixel at the horizontal position M+3, and the horizontal position of the pixels displayed on the television screen of image C of subject 72L for the left eye television screen is corrected to the pixel at the horizontal position M-2, and 68 subject This diagram illustrates an example of correcting the position M of the 109B image B, which displays the image D of the 73 subject on the 107B pixel array unit B on the 88 stereoscopic television screen, corresponding to the position N of the 93B image element B of the 92B image element array unit B that captured the subject. The horizontal position displayed by the pixels on the television screen of the 73R subject image D for the right eye television screen is corrected to the pixel at the horizontal position M+4, and the horizontal position displayed by the pixels on the television screen of the 73L subject image D for the left eye television screen is corrected to the pixel at the horizontal position M-3. [Figure 20]Using an 86-pixel luminescence distance measuring television camera, subjects B, C, and D are photographed. The distance to the positions of subjects 67, 68, and 69 corresponding to positions N of image elements A, B, and C is measured using distance measuring light emitted by a light-emitting element located at position N from which the image signals are derived. The image signals derived from the image signals obtained by imaging at position N of image element A of image element unit A of image element A of image element unit A of image element unit B of image element unit B of image element unit B of image element unit B of image element unit B of image element unit B of image element unit B of image element unit B of image element unit C of image element unit C of image element unit C of image element unit C of image element unit C is measured. The position in which the image of the subject is displayed is corrected using the measured distance. Using a control console, operations such as color change or turning off are performed by correcting the position of the image of the subject displayed by the image element that displays position N from which the image signals are derived to the position of the displayed image of the subject. The image C of subject 72 on the 18th television screen is moved to the 107E pixel row unit E on the 88th stereoscopic television screen. The horizontal position M displayed on the television screen of image C of subject 72R for the right eye television screen is corrected to a pixel at a horizontal position M+3, and the horizontal position M displayed on the television screen of image C of subject 72L for the left eye television screen is corrected to a pixel at a horizontal position M-2. Similarly, the image D of subject 73 on the 18th television screen is moved to the 107F pixel row unit F on the 88th stereoscopic television screen. The horizontal position M displayed on the television screen of image D of subject 73R for the right eye television screen is corrected to a pixel at a horizontal position M+4, and the horizontal position M displayed on the television screen of image D of subject 73L for the left eye television screen is corrected to a pixel at a horizontal position M-3. Similarly, this diagram illustrates an example in which image B of subject 71 on television screen 88 is hidden by changing the color or extinguishing the light of pixels M of the 107G pixel array unit G on television screen 88 at the same position. [Figure 21]Using an 86-pixel luminous distance measuring television camera, the distances A, B, C, and D of subjects 70, 71, 72, and 73 displayed on the television screen are measured by illuminating the distance measuring light-emitting element of the 86-pixel luminous distance measuring television camera to the 27 image signals of subjects 70, 71, 72, and 73 displayed on the television screen, and the distance measurement signals obtained by capturing with the 86-pixel luminous distance measuring television camera are added in synchronization with the 27 image signals of subjects 70, 71, 72, and 73 obtained by capturing with the 86-pixel luminous distance measuring television camera. The 34 data signals, with the distance measurement signals added in synchronization with the image signals, are combined using a controller, and transmitted via an interface connected to the internet. 113 Diagram illustrating how the 34 data signals received via the internet network are used to display a 3D television screen using a 3D image position calculation circuit. [Figure 22] 114 A distance measurement signal obtained by capturing an image using a 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera built into a smartphone is added to the image signal obtained by capturing an image, and the resulting combined data signal is transmitted over the internet. 113 An explanatory diagram to be viewed with stereoscopic glasses, which is displayed on the television screen of the smartphone or on a stereoscopic television screen using the data signal received by the smartphone via the internet. [Figure 23]114 A numerically controlled drive mechanism 127 that changes the shooting direction of a smartphone is attached to the smartphone screen 116 and the image C of the subject 72 displayed on the smartphone screen is driven using associated drive values ​​so that the image C of the subject 72 displayed on the smartphone screen 116 is displayed in the center of the screen. 116 An explanatory diagram showing that a data signal 34 obtained by adding a distance signal to an image signal captured using a 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera attached to the numerically controlled drive mechanism 127 to shoot toward the center of the smartphone screen 116 is transmitted via an internet connection, and the data signal 34 obtained via the internet is displayed on the smartphone screen 115 or on a stereoscopic television screen 88 and viewed with stereoscopic glasses 89. Alternatively, the image signal from the screen of a smartphone is transmitted via an internet connection, and the image signal acquired via the internet is used to drive a numerically controlled drive mechanism via the internet using a drive value associated with the position of the image of the subject displayed on the smartphone's television screen, and the image of the subject C is captured in the center of the television screen, which is captured using a 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera attached to the numerically controlled drive mechanism. A data signal obtained by adding the measured distance signal to the captured image signal is transmitted via an internet connection, and the image of the subject C and the image of the subject C are displayed on a stereoscopic television screen using the data signal acquired via the internet, and the image of the subject C and the image of the subject C are viewed using stereoscopic glasses. (Diagram illustrating the process.) [Figure 24]Using the smartphone 114 mounted in the holder, the drive mechanism for changing the shooting direction of the numerically controlled pixel light-receiving distance measuring television camera or the numerically controlled pixel light-emitting distance measuring television camera incorporated in the holder is driven using drive values ​​related to the positions of images A, B, C, and D of subjects 70, 71, 72, and 73 displayed on the television screen of the smartphone 116, so that the images A, B, C, and D of subjects 70, 71, 72, and 73 displayed on the television screen of the smartphone 116 are captured so that they are positioned in the center of the television screen. An explanatory diagram showing how the distances to subjects A, B, C, and D measured using a 78-pixel light-receiving distance measuring television camera or the aforementioned 86-pixel light-emitting distance measuring television camera are attached to the image signals of subjects A, B, C, and D displayed on the television screen of a smartphone, and these data signals are transmitted via the internet, and the data signals acquired via the internet are displayed on a stereoscopic television screen and viewed with stereoscopic glasses. Alternatively, the image signal from the smartphone screen is transmitted via the internet, and the drive mechanism that changes the shooting direction of the numerically controlled pixel light-receiving distance measuring television camera or the numerically controlled pixel light-emitting distance measuring television camera incorporated in the holder is driven via the internet using the drive numerical values ​​associated with the positions of images A, B, C, and D of subjects A, B, C, and D of subjects A, B, C, and D displayed on the smartphone's television screen, so that the images A, B, C, and D of subjects A, B, C, and D displayed on the smartphone's television screen are captured so that they are positioned in the center of the television screen. An explanatory diagram showing how the distances to subjects A, B, C, and D measured using a 78-pixel light-receiving distance measuring television camera or the aforementioned 86-pixel light-emitting distance measuring television camera are attached to the image signals of subjects A, B, C, and D displayed on the television screen of a smartphone, and these data signals are transmitted via the internet, and the data signals acquired via the internet are displayed on a stereoscopic television screen and viewed using stereoscopic glasses. [Figure 25]Using two television cameras incorporated into a holder of a numerically controlled drive mechanism, the holder of the numerically controlled drive mechanism, to which the smartphone is attached, is driven by a drive value associated with the position of image D of the subject (out of images A, B, C, and D of the subject, shown on the television screen of a smartphone, which displays the television screen captured using two television cameras (127), and the smartphone is driven by a drive value associated with the position of image D of the subject (73) to which the smartphone is attached, and image D of the subject (73) is captured in the center of the television screen of a pixel-receiving distance measuring television camera. Simultaneously, the distance between the position of image D of the subject (73) and subject D (69) is measured using the pixel-receiving distance measuring television camera. A data signal (34) with the distance measured by the pixel-receiving distance measuring television camera added to the image of the subject (73) captured using the two television cameras of the smartphone is transmitted via the internet, and the data signal (34) acquired via the internet is used to display image D of the R subject and image D of the L subject on a stereoscopic television screen, which can then be viewed using stereoscopic glasses. Alternatively, the image signal from the screen of the 2 television cameras incorporated in the holder of the 127 numerically controlled drive mechanism is transmitted via the Internet, and the image signal acquired via the Internet is used to drive the 127 numerically controlled drive mechanism, to which the smartphone is attached, via the Internet, using the drive values ​​associated with the position of the image of the subject displayed on the television screen of the smartphone, thereby capturing an image of the subject in the center of the television screen of the smartphone. Simultaneously, the distance from the subject to the position shown in the image is measured using the 78-pixel light-receiving distance-measuring television camera. The 34 data signal, which is the image signal of the subject captured using the 2 television cameras of the smartphone plus the distance signal to the subject measured using the 78-pixel light-receiving distance-measuring television camera, is transmitted via the Internet. The 34 data signal acquired via the Internet is used to display the 73R image D of the subject and the 73L image D of the subject on a stereoscopic television screen and view them using stereoscopic glasses. [Figure 26]Using two television cameras, a holder of a numerically controlled drive mechanism (127) to which a smartphone is attached is driven by drive values ​​related to the positions of images A, B, C, and D of subjects 70, 71, 72, and 73 displayed on the television screen (18) captured by the smartphone (114), thereby capturing images B and D of subjects 71 and 73 on the smartphone's television screen (116). Using a 78-pixel light-receiving distance-measuring television camera incorporated into the holder of the numerically controlled drive mechanism (127), the distances to subjects A, B, C, and D displayed in images A, B, C, and D of subjects 70, 71, 72, and 73 are measured, and these distances are compared with images B and D of subjects 71 and 73 on the smartphone's television screen (116) to measure the distances to subjects 81 and 82. 114 The smartphone takes a picture of the subject, and on the smartphone's television screen, images B and D of the subject (71 and 73) are displayed with the measured distances B and D of the subject (67 and 69). 34 Data signals of this stereoscopic television screen are then transmitted via the internet. 113 An explanatory diagram showing how to display the stereoscopic television screen using the 34 data signals acquired via the internet and view it using 39 stereoscopic glasses. [Figure 27] 130 The 117 right-eye television camera and 118 left-eye television camera of the 130 stereoscopic television camera system are positioned at the distance of a human pupil so that they display the same image in parallel, and one subject is photographed. 129 An image position detection circuit is used to calculate the distance L of the overlapping image position of 21A subject image A and 21B subject image B displayed on the 18 television screen of the photographed subject. This position signal is added to the image signal displaying either 21A subject image A or 21B subject image B, and this 34 data signal is transmitted to the 113 internet network. 113 The image position detection circuit is used to correct the position of the image signal displaying either 21A subject image A or 21B subject image B of the 34 data signal received via the 113 internet network, and this position signal is displayed on the 19 right-eye television screen and 20 left-eye television screen of the 40 VR goggles for viewing. Alternatively, an explanatory diagram showing how to view a stereoscopic television screen using stereoscopic glasses, after correcting the image position of the right eye (36) and left eye (37) so that either image A of subject 21A or image B of subject 21B is displayed, using a 463-dimensional image position calculation circuit. [Figure 28] 117 A right-eye television camera and 118 a left-eye television camera are mounted on a 125 bunch-tilt drive mechanism at the human pupil distance so that they display the same image in parallel, and a moving subject is filmed. 129 An image position detection circuit is used to detect the difference L in the positions of image A of subject 21A and image B of subject 21B on the 18 television screen. The position signal is corrected to the position where the image of the subject is displayed in the image signal where either image A of subject 21A or image B of subject 21B is displayed. 113 The moving subject is then displayed on the 19 right-eye television screen and 20 left-eye television screen of the 40 VR goggles screen via the internet for viewing. Alternatively, 46 A 3D image position calculation circuit is used to correct the 36 right-eye image position and 37 left-eye image position where either image A of subject 21A or image B of subject 21B is displayed. This is an explanatory diagram for viewing the 88 stereoscopic television screen using 89 stereoscopic glasses. [Figure 29] 114 A smartphone A has a built-in 117 right-eye television camera and a 118 left-eye television camera for capturing stereoscopic images. These cameras are set at a distance from each other, and a 34 data signal is transmitted over the internet with a numerical correction added so that the positions of the images of the same subject displayed on the 116 smartphone's television screen overlap. 113 An explanatory diagram showing how the 34 data signal acquired via the internet is displayed on the 40 VR goggles screen, specifically on the 19 right-eye television screen and 20 left-eye television screen or the 88 stereoscopic television screen. [Figure 30] The distance between the 132 welding machine and the 133 welding point of the 131 robot, which is driven by a drive mechanism of drive values, is measured by irradiating them with a laser beam for distance measurement from a laser distance measuring device using drive values ​​associated with the position on a television screen captured using two television cameras. The 34 data signal, which is an image signal of the 132 welding machine and the 133 welding point captured using television camera 2 with the measured distance signal attached, is transmitted over the internet. 113 An explanatory diagram showing how to remotely control the 131 robot using the 34 data signal acquired via the internet, displayed on the 19 right-eye television screen and 20 left-eye television screen of a 40 VR goggles screen or on an 88 stereoscopic television screen and viewed with 89 stereoscopic glasses. [Figure 31]The distance between the 135 shovel and the 136 excavation site of the 134 excavator, which is driven by a drive mechanism with drive values, is measured by irradiating the 135 shovel and the 136 excavation site with a laser beam for distance measurement from a laser distance measuring device using drive values ​​associated with the position on the television screen captured by 2 television cameras attached to the 134 excavator. A 34 data signal, which has the measured distance signal attached to the image signal of the 135 shovel and the 136 excavation site captured by television camera 2, is transmitted via the internet. A diagram illustrating how to remotely control the 131 robot by displaying the 34 data signal acquired via the internet on the 19 right eye television screen and 20 left eye television screen of 40 VR goggles or on the 88 stereoscopic television screen and viewing it with 89 stereoscopic glasses. [Figure 32] A numerical value is calculated to correct the position of the 132 welding equipment and 133 welding points of the 131 robot, which is driven by a drive mechanism of the drive numerical value, so that the positions of the same images captured by the 117-eye television camera and 118-left-eye television camera of the 130 stereoscopic television camera system overlap. A data signal 34, which has the corrected numerical value signal attached to either the image signal obtained by capturing with the 117-eye television camera and 118-left-eye television camera, is transmitted via the internet. A diagram illustrating how to remotely control the 131 robot using the data signal 34 acquired via the internet network, by displaying it on the 19-right-eye television screen and 20-left-eye television screen of the 40 VR goggles screen or the 88 stereoscopic television screen and viewing it with 89 stereoscopic glasses. [Figure 33]The 134 excavator, driven by a drive mechanism of the drive numerical value, calculates numerical values ​​to correct the position of the 135 shovel and 136 excavation site so that the positions of the same images captured by the 117 right-eye television camera and 118 left-eye television camera of the 130 stereoscopic television camera system attached to the 134 excavator overlap. A 34 data signal, in which the signal of the corrected numerical value is added to either the image signal obtained by capturing with the 117 right-eye television camera and 118 left-eye television camera, is transmitted via the internet. An explanatory diagram shows how to remotely operate the 134 excavator by displaying images of the 135 shovel and 136 excavation site on the 19 right-eye television screen and 20 left-eye television screen or 88 stereoscopic television screen of a 40 VR goggles screen and viewing them with 89 stereoscopic glasses. [Figure 34] The 137 crane's 138 hook and 139 steel frame, driven by a drive mechanism of the drive numerical values, are corrected by calculating numerical values ​​so that the positions of the same images captured by the 117 right-eye television camera and 118 left-eye television camera of the 130 stereoscopic television camera system overlap. A 34 data signal, in which the corrected numerical signal is added to either the image signal obtained by capturing with the 117 right-eye television camera and 118 left-eye television camera, is transmitted via the internet. An explanatory diagram shows how to remotely control the 137 crane by displaying images of the 137 crane, 138 hook, and 139 steel frame on the 19 right-eye television screen and 20 left-eye television screen or 88 stereoscopic television screen of a 40 VR goggles screen and viewing them with 89 stereoscopic glasses. [Figure 35]A numerical value is calculated to correct the 141 road path in the direction of travel of an autonomous vehicle 140 driven by a drive mechanism of a drive numerical value, so that the positions of the same images in front of the 141 road path captured by the 117 right-eye television camera and 118 left-eye television camera attached to the 140 vehicle overlap. A 34 data signal, in which the signal of the corrected numerical value is added to either the image signal obtained by capturing with the 117 right-eye television camera and 118 left-eye television camera, is transmitted via the internet. A diagram illustrating how to remotely control an autonomous vehicle 140 using the 34 data signal acquired via the internet, by displaying the image of the 141 road path on the 19 right-eye television screen and 20 left-eye television screen or 88 stereoscopic television screen of a 40 VR goggles screen and viewing it with 89 stereoscopic glasses. [Figure 36] 114 A smartphone A is equipped with a 117 right-eye television camera and a 118 left-eye television camera for stereoscopic displays, which are positioned at a distance from the smartphone. 34 Data signals with corrected values ​​added so that the positions of the images of the same subject displayed on the smartphone's television screen overlap are transmitted via the internet. 113 An explanatory diagram showing how to remotely control a robot using the 34 data signals acquired via the internet, displayed on the 19 right-eye television screen and 20 left-eye television screen of VR goggles or on the 88 stereoscopic television screen, and viewed with 89 stereoscopic glasses. [Examples]

[0011] In the example shown in Figure 1, the image of the subject on the television screen obtained by capturing the subject using a numerically controlled television camera whose shooting direction is changed by driving a drive mechanism is tracked and identified using an image recognition method. The position of the image of 21 subjects on the television screen obtained by photographing 1 subject using 2 numerically controlled television cameras, 21 The drive values ​​of the numerically controlled television camera's drive mechanism are associated with the position of the subject's image so that it is displayed in the center of the television screen. Using a 2-digitally controlled television camera, the positions of the images of the several different 21 subjects on the 18 television screen obtained by photographing one subject at several different positions, and the positions of all the 21 subjects on the 18 television screen obtained by photographing one subject at all positions using the 2-digitally controlled television camera, and the positions of all the 21 subjects on the 18 television screen obtained by driving the drive mechanism of the 2-digitally controlled television camera so that the positions of all the 21 subjects are displayed in the center of the 18 television screen, are obtained by calculation using an interpolation method formula. The associated drive values ​​are used to photograph a subject in the center of the television screen 18, such that the position where the image of the tracked and identified subject 21 is displayed on the television screen 18, obtained by photographing with a numerically controlled television camera, is at the center of the television screen 18. Using the 4 laser distance measuring devices attached to the drive mechanism to measure the distance towards the center of the television screen, the distance L-1 to the subject is tracked and measured. The system tracks and recognizes the images of subjects on the television screen captured by the television camera, and then uses a laser distance measuring device to measure the distance to the identified subject in the image being tracked and recognized. The distance to the position of one subject in the image of the 21 subjects being tracked and photographed is continuously identified and measured.

[0012] In the example shown in Figure 2, images of 21 subjects on 18 television screens, obtained by photographing 1 subject using 2 television cameras, are tracked and identified using an image recognition method. The position of the subject image on the television screen obtained by photographing the subject is associated with the drive value of the drive mechanism of a numerically controlled laser distance measuring device that changes the direction of irradiation, by irradiating the subject with a distance-measuring laser beam and measuring the distance. The positions of the images of the 21 subjects at several different positions on the 18 television screen obtained by photographing one subject at several different positions using two television cameras, and the drive values ​​of the several different positions obtained by measuring the distance by irradiating one subject at each of the several different positions with the distance-measuring laser beam at the position where the drive mechanism of the 4 laser distance measuring device was driven, are used to obtain numerical values ​​that relate the positions of the images of the 21 subjects at all positions on the 18 television screen obtained by photographing one subject at all positions using two television cameras, and the drive values ​​of all the positions obtained by irradiating one subject at each of the four positions with the distance-measuring laser beam at the position where the drive mechanism of the 4 laser distance measuring device was driven, using an interpolation method calculation formula. 18 Using the associated drive value, the drive mechanism that changes the irradiation direction of the laser distance measuring device is driven to track the position of the identified subject 21 in the image on the television screen, and the measuring laser light is irradiated onto the subject 1 that appears in the image of the identified subject 21, and the distance is continuously measured.

[0013] In the example shown in Figure 3, a person uses both their left and right eyes to perceive the distance L-1 to a single subject by utilizing the difference in the direction of the gaze directed by the left and right eyes as they fixate on the same subject. This invention allows a person to perceive the L-1 distance to a 3D object using both their left and right eyes by moving and displaying an image of a 2D object at a position that creates a difference in the direction of the gaze of both eyes directed at that object.

[0014] In the example shown in Figure 4, the distance to one subject is perceived by human vision. Humans perceive distance by recognizing the binocular parallax as distance, which is the difference between the right eye's line of sight to a close subject (7) and the right eye's line of sight to a distant subject (12) (14 right eye parallax), and the left eye's line of sight to a close subject (8) and the left eye's line of sight to a distant subject (13 left eye parallax), which is the difference between the left eye's line of sight to a distant subject (15 left eye parallax). Furthermore, the distance is determined from the external shape of one subject and from the size of one subject based on experience.

[0015] Example Figure 5: Humans measure distance by recognizing objects in their field of vision and, if necessary, or unconsciously, directing their left and right gazes towards the recognized object, thereby perceiving distance through the binocular parallax in the horizontal direction of the left and right eyes. Therefore, using two television cameras, the movement of one subject captured from the shooting direction of the third television camera within the shooting range of the third television camera appears to coincide with the line of sight from a distance of six. The human gaze, when viewing the same subject, is directed towards the same subject from the horizontal interpupillary distance of the human eye, specifically from the right eye's perspective and the right eye's perspective when looking into the distance. 8 The movement of the subject is seen by the left eye, and 13 the movement of the right eye when observing from a distance, and how it appears within the field of view at the distant position. The image of the subject as seen in the distant image on the television screen captured by the television camera (18) differs in appearance from the right eye's line of sight (10) to the left eye's line of sight (11) to the left eye's line of sight (8).

[0016] 21. The position of the subject in the image is different from the line of sight, which creates a sense of unease. The present invention corrects the image of a subject (21) as it appears in the distant image on the television screen (18) captured by two binocular parallax-corrected television cameras (7) to the appearance of the subject image (21A) recognized by the right eye (7) and the image of subject (21B) recognized by the left eye (8), thereby displaying the movement of a three-dimensional image on a two-dimensional television screen (18). When the proportion of 3D movement within a 2D screen is large, as seen on large television screens, movie screens, and VR goggles, it can disrupt a person's sense of balance. This invention allows for the viewing of more immersive images by correcting the position of the subject's image on a large television screen, movie screen, or VR goggle screen to 21A subject image A and 21B subject image B, thereby eliminating the sense of unnaturalness and imbalance.

[0017] In the example shown in Figure 6, the position where the image of the subject (21) appears on the television screen (18) is corrected to the position where the image of the subject (22) appears on the right eye screen (19) as viewed with the right eye, and the position where the image of the subject (23) appears on the left eye screen (20) as viewed with the left eye (26) as viewed with the left eye. To match the perception of horizontal binocular parallax in humans, the position of the image of the subject with the 22 right-eye correction value on the TV screen is corrected to the right, and the position of the image of the subject with the 21 left-eye correction value on the TV screen is corrected to the left. In this way, by using a 3D image position calculation circuit to create correction values ​​for the pixel positions that display the 19 and 20 television screens, with the position of the image of one subject shifted for each of the 19 and 20 television screens, and having each eye view these screens, it is possible to simulate the recognition of the distance and position of the image of the 21 subject displayed on the 18 television screen.

[0018] The distance at which the image of the object is shifted is determined by the field of view captured by the television screen and the binocular parallax. The position of the image of the subject with the right eye correction value on the right TV screen (19) and the position of the image of the subject with the left eye correction value on the left TV screen (26) are displayed by shifting the position of the display pixels on the large LCD TV screen or OLED TV screen. A stereoscopic image of the subject is displayed by displaying the image of the subject at each pixel on a television screen that displays the image of the subject, correcting the binocular parallax of the position where the distance to the subject reflected in each pixel is measured. The position of each pixel that displays all subjects, including the background, on the aforementioned television screen is determined using the measured distance from the subject to the position of all pixels, including the background, and the pixels at the corrected positions for parallax between the left and right television screens are used to display all subjects, including the background, on the left and right television screens. By using the distance to the subject displayed on each pixel of a 3D spatial subject displayed on a 2D television screen, the subject is displayed on the left and right television screens of the VR goggles using pixels at positions corrected for binocular parallax, allowing the image of the subject to be viewed as a 3D television screen.

[0019] In the example shown in Figure 7, the controller 31 identifies the images of 21 subjects from the images of 21 subjects on the 18 television screens captured by the 2 television cameras using methods such as image recognition. The drive mechanism is driven using the drive value of a 4C numerically controlled laser distance measuring instrument associated with the position of the image of the subject on the television screen in the manner described in Embodiment 2, and the measuring laser beam is irradiated onto the subject to measure the distance between the image of the identified subject on the television screen and the subject. The computer receives from the controller (31) data signal (34), which contains image signals (27) of a subject (21) captured using two television cameras, and distance signals (28) measured using a numerically controlled laser rangefinder (4C). The computer 35 uses 27 image signals of one subject that display the image of the identified 21 subjects, and 34 data signals consisting of 28 distance signals of the identified subject and the distance to the identified subject measured, to correct the binocular parallax between the left and right eyes so that the subject appears at the distance. 19 The right-eye correction value on the right-eye television screen is calculated using the measured distance to create 34 image data of all pixels that display the subject at the position where the image of the subject with the right-eye correction value (22) is displayed on the right-eye television screen. 26 The left-eye correction value on the left-eye television screen is calculated using the measured distance to create 34 image data of all pixels that display the subject at the position where the image of the subject with the left-eye correction value (23) is displayed on the left-eye television screen.

[0020] The computer 35 sends correction values ​​for all pixels showing the identified subject to the controller 31 via data signals 34, including the right-eye television screen 19 and the left-eye television screen 20. The 19 right-eye TV screen and 20 left-eye TV screen created in this way are transmitted from the 31 controller to the 40 VR goggles as the 38 right-eye image signal and 39 right-eye image signal. By using 40VR goggles and displaying the right-eye TV screen and the left-eye TV screen on the left and right screens respectively, it is possible to reproduce a 3D image screen of a single subject whose distance has been measured using a distance-measuring laser beam. Image recognition of the 21 images of the 1 subject described above can be performed continuously, and the measurement of the distance of the 1 subject in the image of the 21 image-recognized subjects using the numerically controlled 4C numerically controlled laser distance measuring device can also be performed continuously. A 4C numerically controlled laser distance measuring device continuously measures the distance between each of the 21 subjects in the image. Using the continuously measured distances, it is possible to create a 3D screen in which the images of the 21 subjects are displayed at a corrected position by continuously calculating the position of the images of the 21 subjects on the television screen. Users wearing 40VR goggles can use the goggles to view the 19 right-eye TV screen and the 20 left-eye TV screen separately with their left and right eyes. The 32 control console allows for individual adjustment of the distance measured to the subject being displayed, and also enables correction of the subject's position when it is moved. 18. Using drive values ​​associated with the position of the background image on the TV screen, a 4C numerically controlled laser distance measuring device is driven to measure the distance to the background image and correct the position of the background image. The measured distance of each individual subject is used to correct the position of the image of each individual subject.

[0021] Example Figure 8 shows a modified version of the example described in Figure 7. In the example shown in Figure 8, 46 stereoscopic screen calculators are connected to 31 controllers, making it possible to create 88 stereoscopic television screens. The 46 stereoscopic screen calculator uses the measured distance to the subject to create binocular parallax-corrected television screens for the right eye and the left eye, so that the position of the subject's image on the 18 television screen appears to be at the distance of the subject. The 46-dimensional screen calculator displays images at the positions of the 36-right-eye image and the 37-left-eye image on the 88-dimensional television screens created above, specifically for the 7-right-eye television screen and the 8-left-eye television screen. Furthermore, the 46-dimensional screen calculator sends 41 screen switching signals to the 31 controllers. The controller 31 transmits a light-blocking filter switching signal 42 to the stereoscopic glasses 89 based on the screen switching signal 41, causing the right eye light-blocking filter 44 and the left eye light-blocking filter 45 of the stereoscopic glasses 89 to open and close in sync with the screens on the stereoscopic television screen 88 that display the images at the right eye position 36 and the left eye position 37. A user viewing the 88 3D television screen can see the image at the 36 right eye position on the 88 3D television screen with their right eye during the time when the 44 right eye light-blocking filter of the 89 3D glasses is open, and can see the image at the 37 left eye position on the 88 3D television screen with their left eye during the time when the 45 left eye light-blocking filter of the 89 3D glasses is open. 21 The two-dimensional screen of the television screen 18 on which the image of the subject is displayed, 88 the screen of the stereoscopic television screen showing the subject at the corrected right eye image position 36 and the screen showing the subject at the corrected left eye image position 37 The 88 stereoscopic television screens, which are displayed on each other, can be viewed as three-dimensional stereoscopic images by the left and right eyes.

[0022] In Example 9, the position of the images of 21 subjects on the television screen captured by a 2C numerically controlled television camera is identified using an image recognition method. Using the drive values ​​associated with the method described in Embodiment 1, the drive mechanism of the 2C numerically controlled television camera is driven at the position where the image of the 21 subject is displayed on the identified television screen 18, and an image of the 21 subject is captured at the center position on the television screen 18. Using a laser distance meter attached to a 2C numerically controlled television camera to measure the distance to the center of the television screen, the distance to the subject is measured. Using the binocular parallax of the measured distance, the position where the subject's image appears on the television screen is calculated and corrected. The position where the right-eye subject's image appears (right-eye correction value) is displayed on the right-eye television screen of the 40VR goggle, and the position where the right-eye subject's image appears (left-eye correction value) is displayed on the left-eye television screen, allowing the user to view a three-dimensional image. In Example 10, the position of the image of the subject displayed on the television screen, obtained by photographing the subject using two television cameras, is associated with the drive value of the drive mechanism of the numerically controlled television camera, which was driven to position the image of the subject so that it was displayed in the center of the stereoscopic television screen.

[0023] Using the positions of the images of the several different 21 subjects displayed on the 18 television screens, each of which is captured using two television cameras at several different positions, and the several different drive values ​​of the drive mechanism of a 2C numerically controlled television camera, each of which is captured so that the image of the subject is displayed in the center of the 88 stereoscopic television screen, the positions of all the images of the 21 subjects displayed on the 18 television screens, each of which is captured using two television cameras at all positions, and the drive values ​​of the drive mechanism of a 2C numerically controlled television camera, each of which is captured so that the image of the subject is displayed in the center of the 88 stereoscopic television screen, are calculated and obtained using an interpolation method formula. Using the associated drive values, the drive mechanism of the numerically controlled television camera is driven to capture the position of the image of the subject on the television screen, which was captured using two television cameras, so that the image of the subject is displayed in the center of the stereoscopic television screen. To measure the distance to the center of the 88-dimensional television screen, a 4-laser distance measuring device attached to the drive mechanism of a 2C numerically controlled television camera is used to measure the distance to a 1-subject. An explanatory diagram illustrating how the position of an image of a subject on a television screen or stereoscopic television screen is calculated and corrected using the binocular parallax of the measured distance, and how the right-eye television screen and the left-eye screen are displayed on the stereoscopic television screen, and how the three-dimensional images are viewed through the light-blocking filters of the stereoscopic glasses synchronized with the mutual display.

[0024] Example Figure 11 is a diagram illustrating the configuration for realizing a virtual space (metaverse) match between soccer players using the present invention, displayed on a 3D screen. 47, 48 Soccer players A and B are filmed by television cameras A and B, and television screens A and B are connected to the internet network to allow them to compete against each other from physically separate locations. 47, 48 Soccer players A and B are each wearing VR goggles. Using the same method as in Example Figure 2, a 47 soccer player A wearing 40 VR goggles is filmed with a 2A television camera, and the image A of the 47 soccer player A on the 18A television screen A is tracked and identified using image recognition or the like from the screen displaying the image A of the 47 soccer player A on the 18A television screen A. Using the associated drive values, the drive mechanism of the numerically controlled laser rangefinder A is driven at the position of the image A of the soccer player A (47A) on the identified television screen A (18A), and a laser beam for distance measurement (5A) is shone onto the soccer player A (47A) wearing VR goggles to measure the distance to the soccer player A. Similarly, 48 soccer players B wearing 40VR goggles are filmed with a 2B television camera, and from the screen showing 48A soccer players B on 18B television screen B, the image B of 48A soccer players on 18B television screen B is tracked and identified using methods such as image recognition.

[0025] Using the associated drive values, the drive mechanism of the numerically controlled laser rangefinder B is driven at the position of the identified image B of the soccer player B on the television screen B, and a laser beam for distance measurement is shone onto the soccer player B wearing the VR goggles, measuring the distance to the soccer player B. The 463-dimensional image position calculation circuit receives 27 image signals of the identified images of soccer players A and B (47 and 48) taken from the 31 controller located at a physically distant location, and 28 distance signals of soccer players A and B (47 and 48) whose distances to the identified soccer players in the images have been measured. Corresponding to the measured distances, the circuit uses the measured distances to create and display a match image on the 57B metaverse television screen. The 463-dimensional image position calculation circuit captures images of soccer players A and B wearing 40VR goggles using television cameras A and B, respectively. The images of soccer player A on television screen A and soccer player A on television screen B are then displayed on the television screen of the 57B metaverse, using the measured distance to match the position of the soccer balls being played against, and the identified images of soccer player A and soccer player B being played against are then displayed on the television screen. Using a 463-dimensional image position calculation circuit, images A and B of soccer players 47A and 48A on the competitive TV screen displayed on the 57B metaverse TV screen are corrected for binocular parallax so that soccer players A and B 47 and 48 wearing 40VR goggles appear at the measured distance. The positions of the images on the screen are then corrected to the positions of images A and B of soccer players 52 and 53 on the right eye competitive TV screen from the 50 right eye competitive correction position on the 19 right eye TV screen, and to the positions of images A and B of soccer players 54 and 55 on the left eye competitive TV screen from the 51 left eye competitive correction position on the 20 left eye TV screen.

[0026] The corrected images are displayed on the right-eye television screen (19) and the left-eye television screen (20) on the left-eye television screen (20) of soccer players A and B (47 and 48), who are wearing VR goggles, using one of the methods described above. Alternatively, by setting up 47 and 48 soccer players A and B for the match, the audio captured from the images displayed on the 40VR goggles can be transmitted via the internet, allowing viewers to watch the match while listening to the images and audio displayed on the stereoscopic TV screens on the left and right TV screens of the set players' 40VR goggles.

[0027] In the example shown in Figure 12, 56 players on game machines wear 40 VR goggles and use 32 control consoles to play a soccer video game against each other. The players compete by looking at the 3D screen of their VR goggles to locate the positions of images C, D, and E of their opponent's soccer players (images 58, 59, and 60) displayed on the TV screen (image 19 for the right eye) and the positions of the right-eye corrected images C, D, and E of the soccer players (images 58R, 59R, and 60R) displayed on the TV screen (image 20 for the left eye) and the left-eye corrected images C, D, and E of the soccer players (image 58L, 59L, and 60L) displayed on the TV screen (image 40 for the left eye). The players compete by viewing the positions of images F, G, and H of their opponent's soccer players (games 61, 62, and 63) displayed on the TV screen (game 57), the right-eye corrected images F, G, and H of soccer players (games 61R, 62R, and 63R) displayed on the TV screen (game 19), and the left-eye corrected images F, G, and H of soccer players (games 58L, 59L, and 60L) displayed on the TV screen (game 20) on the 3D screen of the VR goggles (game 40). The players can play a soccer game in real life. Several opponents connected to the 463-dimensional image position calculation circuit can also realistically play a soccer game by viewing the position of their opponent's corrected soccer player displayed on the 3D screen of the 40VR goggles and measuring the distance to their own soccer player.

[0028] Furthermore, when viewing the same screen for both eyes on an existing metaverse television screen using VR goggles, the human sense of binocular parallax is lost, resulting in an inability to maintain balance and leading to unstable behavior. However, when viewing the 19th right-eye TV screen and the 20th left-eye TV screen, which have been corrected for binocular parallax, on the left and right screens of the 40VR goggles, the human sense of binocular parallax is obtained, allowing for stable actions with a sense of balance. Therefore, the images of avatars joining the metaverse's virtual space will also be corrected for binocular parallax on the television screen and displayed on the virtual space's television screen. Even with currently available 4K and 8K large-screen televisions, a sense of instability remains because the correction for human binocular parallax is not completely achieved. By applying the correction method of this invention to correct the position of images on large 4K and 8K television screens broadcast on television, viewers can enjoy more immersive images. By adding positional information about the subject's distance to the image data, digital movies can be viewed on large screens, providing a more immersive experience. This allows for a more immersive visual experience in fast-paced RPG game screens.

[0029] In the example shown in Figure 13, the distance of each game soccer player is calculated by using pre-set soccer player image data to determine a correction value based on the distance between the positions of each soccer player's image on the game screen and the distance between the positions of each soccer player's image based on a comparison of their sizes. Using the control console, the images of soccer players C, D, E, F, G, and H displayed on the game television screen, showing a soccer match on a game machine, can be compared with their respective soccer player image data to calculate the distance between the shapes of the players and their positions. Using the 32 control consoles, the positions of the 56 game machines playing soccer are adjusted for binocular parallax by calculating the distance from their positions on the 57 game television screens. These positions are then displayed on the 57A game television screens. The aforementioned 57A displays on the left and right game television screens. The right-eye corrected images C, D, E, F, G, and H of the game soccer player are displayed on screens for the right eye (58R, 59R, 60R, 61R, 62R, 63R) and viewed by the user's right eye while operating the game, synchronized with the display on the right eye's television screen of the 89 3D glasses (7). The 44 right-eye light-blocking filter is opened and closed to allow the user to view the images with their right eye.

[0030] The left-eye corrected images C, D, E, F, G, and H of the game soccer player are displayed on screens 58L, 59L, 60L, 61L, 62L, and 63L for the left eye, and the user's left eye view is controlled by opening and closing the left-eye light-blocking filter in 893D glasses, in sync with the display on the left-eye television screen. This allows users wearing 89 3D glasses to control 56 gaming devices and view and control a soccer game screen as if they were playing against each other in 3D, creating a realistic experience. In the embodiments described above, the distance to the subject was explained using the methods described in Patent Documents 1 and 2, The distance to the subject shown in Example Figure 14 can also be measured using a 65TOF distance measuring television camera, a pixel light receiving distance measuring television camera, or a pixel light emission distance measuring television camera. Using two television cameras, distance-measuring light projected from a floodlight is shone onto the real-world objects A, B, C, and D, which are represented in images A, B, C, and D of subjects A, B, C, and D on the television screen obtained by capturing images A, B, C, and D on the television screen. The reflected light is then measured using a TOF distance-measuring television camera to determine the distances on the screen. The distances to subjects A, B, C, and D are measured by comparing the screen positions of the distance groups 66, 67, 68, and 69 on the 65TOF distance measuring television camera with the positions of the images of subjects A, B, C, and D on the 18 television screen 70, 71, 72, and 73.

[0031] Using the measured distances, the distances to the positions of images A, B, C, and D of subjects 70, 71, 72, and 73 on the television screen are identified, and binocular parallax correction is performed. The positions of images A, B, C, and D of subjects 70, 71, 72, and 73 displayed on the 18th television screen are measured by a 65th TOF distance measuring television camera. The binocular parallax of the distances of subjects A, B, C, and D 66, 67, 68, and 69 is used to correct the parallax angle position and display them on the 19th right-eye television screen so that images A, B, C, and D of subjects 70R, 71R, 72R, and 73R on the right-eye television screen and images A, B, C, and D of subjects 70L, 71L, 72L, and 73L on the 20th left-eye television screen appear in their respective positions. With this configuration, users wearing the 40VR goggles can view the 3D screen with both eyes without any problems.

[0032] Example Figure 15: The present invention can also be realized using a 78-pixel light-receiving distance-measuring television camera that integrates a distance-measuring function equivalent to that of a 65TOF distance-measuring television camera into a television camera. The natural light reflected from subjects A, B, C, and D (66, 67, 68, 69) that are exposed to natural light passes through the optical lens of the 78-pixel light-receiving distance-measuring television camera, and an image of the subject is captured at the position of the image element of the image element unit of the 78-pixel light-receiving distance-measuring television camera where the natural light is collected. Images of subjects A, B, C, and D, captured by a 78-pixel light-receiving distance-measuring television camera, are identified on the television screen (70, 71, 72, 73) using an image recognition method. The positions of the image elements in the image sensor unit of the 78-pixel light-receiving distance-measuring television camera, which displays images A, B, C, and D of the identified subjects 70, 71, 72, and 73, can be determined in advance. The distance measuring light emitted from the 84 floodlight and reflected from subjects A, B, C, and D (66, 67, 68, 69) is also collected by the optical lens of the 78-pixel light-receiving distance measuring television camera. The light-collecting measuring element at the pre-identifiable position of the measuring element unit, which is located at the same position as the image element of the identified and specified image element unit that displays the image of the natural light from the subject, receives the light in a pre-identified manner. 66, 67, 68, 69 The distance measurement light reflection from subjects A, B, C, D is used to sequentially measure the predetermined positions at a time staggered using measurement elements corresponding to the positions of the image elements of subjects A, B, C, D, which have been image-recognized by 70, 71, 72, 73.

[0033] The distance to subjects A, B, C, and D can be sequentially measured by sequentially measuring the predetermined positions of subjects A, B, C, and D at a time staggered for each subject A, B, C, and D, using the distance measurement light from the identified measuring elements that receive light from subjects A, B, C, and D, as shown in images Using natural light, subjects A, B, C, and D were photographed. Only the light-receiving elements installed at the positions of the identified image elements where the real images of subjects A, B, C, and D are displayed on the television screen of the 78-pixel light-receiving distance-measuring television camera's image sensor unit are displayed, can measure the distance to each subject by sequentially receiving and measuring the distance-measuring light emitted at different times by the pre-set light-receiving elements. 84 The distance to subjects A, B, C, and D is measured using the time difference between the time the light was emitted from the 84 floodlight and the time the distance measuring element received the light. 66, 67, 68, 69 The measured distance signal is added in synchronization with the image signal obtained by capturing an image using a 78-pixel light-receiving distance-measuring television camera.

[0034] Using the image signal to which the distance signal has been added, the positions of images A, B, C, and D of subjects 70, 71, 72, and 73 on the television screen, which are displayed on the television screen captured by the 78-pixel light-receiving distance-measuring television camera, are calculated using a 46-dimensional image position calculation circuit based on the binocular parallax of the distances to subjects A, B, C, and D of subjects 66, 67, 68, and 69, as measured by the 78-pixel light-receiving distance-measuring television camera. The display position on the television screen is corrected, and a stereoscopic screen is displayed on the 88 stereoscopic television screen, which mutually displays the images A, B, C, and D of subjects 70R, 71R, 72R, and 73R for the right eye television screen and the images A, B, C, and D of subjects 70L, 71L, 72L, and 73L for the left eye television screen. This stereoscopic screen can be viewed using stereoscopic glasses 89 that open and close 44 right-eye light-shielding filters and 45 left-eye light-shielding filters, which are synchronized with the display. 89 When a user views a 3D screen using 3D glasses, the distance to the image captured by the image sensor of the 78-pixel light-receiving distance-measuring television camera is measured by a distance-measuring element installed at the position of the image sensor of the 78-pixel light-receiving distance-measuring television camera. The measured distance signal is added in synchronization with the image signal obtained from the 78-pixel light-receiving distance-measuring television camera. Using the distance of the distance signal added to the image signal of the aforementioned screen, a stereoscopic screen can be viewed using the 89 stereoscopic glasses that open and close in synchronous manner, displaying images of the positions of the image elements corrected for binocular parallax, relative to each other.

[0035] In the example shown in Figure 16, the reflected natural light from the 68 subject passes through the 91 optical lens of the 78-pixel light-receiving distance-measuring television camera, and an image of the 68 subject is formed at the position of the 93 image element of the 92 image element unit. The RGB image signals for images captured from 68 subjects are derived from 96 image elements, specifically 97 (R), 98 (G), and 99 (B). The diffusely reflected distance measuring light irradiated from the 84 floodlight onto the 86 subject, just like natural light, passes through the 91 optical lens of the 78-pixel light-receiving distance measuring television camera, and the diffusely reflected distance measuring light that reaches the 91 optical lens is focused at the position of the 93 image element. A 78-pixel light-receiving distance-measuring television camera has 100 measuring elements incorporated into the position of the 93rd image element, which is located in a horizontal row of the 92-image-element unit. These 100 measuring elements allow for the measurement of the distance to 68 subjects that appear in the image at the position of the 93rd image element.

[0036] The image signal derived from the 93 image elements is corrected horizontally from the position of the N image element shown in the 101 image element row to the N+ side on the right eye television screen and the N- side on the left eye television screen. This corrects the position of the 93 image element of the 92 image element unit that derives the RGB image signals derived from the 66, 67, 68, 69 subjects A, B, C, and D captured by the 78-pixel light-receiving distance-measuring television camera, and the position of the pixels that display the image signal of the 93 image element on the 88 television screen is obtained. Furthermore, by correcting the position of all pixels that display the image signals for subjects A, B, C, and D (images 66, 67, 68, and 69) captured by the 78-pixel light-receiving distance-measuring television camera, subjects A, B, C, and D (images 66, 67, 68, and 69) can be viewed as real three-dimensional images. This invention is based on a method of measuring distance by measuring the time it takes for a 100-light-receiving element, which is installed at the position of the 93 image element, to receive the reflected natural light from 68 subjects using the optical mechanism of the 91 optical lens used in a 78-pixel light-receiving distance-measuring television camera. This light is collected by the 91 optical lens used in the camera to capture images, and the amount of distance-measuring light that reaches the 93 optical lens at the position of the 93 image element to form a real image of the subject.

[0037] Example Figure 17 This invention can also be realized using an 86-pixel light-emitting distance-measuring television camera that integrates a distance-measuring function equivalent to that of a 65TOF distance-measuring television camera into a television camera. The natural light reflected from subjects A, B, C, and D (66, 67, 68, 69) that are exposed to natural light passes through the optical lens of the 86-pixel luminous distance measuring television camera, and an image of the subject is captured at the position of the image element of the image element unit of the 86-pixel luminous distance measuring television camera where the natural light is focused. Images of subjects A, B, C, and D, captured by an 86-pixel luminous distance measuring television camera, are identified on the television screen (70, 71, 72, 73) using an image recognition method. The positions of the image elements in the image element unit of the 86-pixel emission distance measuring television camera, which displays images A, B, C, and D of the identified subjects 70, 71, 72, and 73, can be determined in advance. 66, 67, 68, 69 Subjects A, B, C, D are captured by an 86-pixel light emission distance measuring television camera, and images of subjects A, B, C, D are captured on the television screen 70, 71, 72, 73 using natural light.

[0038] 66, 67, 68, 69 Reflected natural light from subjects A, B, C, and D is focused by the lens mechanism of the 86-pixel luminous distance measuring television camera at the position of the image element unit of the 86-pixel luminous distance measuring television camera, and the real images of subjects A, B, C, and D are projected. The distance-measuring light emitted and diffused by light-emitting elements, which are incorporated into the image sensor units 70, 71, 72, and 73 of the 86-pixel luminous distance-measuring television camera's image sensor unit, is focused at the positions where images A, B, C, and D of the subject are displayed, and then backlit by the lens mechanism of the 86-pixel luminous distance-measuring television camera and focused onto subjects A, B, C, and D, 66, 67, 68, and 69. The reflected light of the distance measuring light that diffuses from the focused and illuminated objects A, B, C, and D (66, 67, 68, 69) is received by the light receiver (87). In the image sensor unit of the 86-pixel luminescence distance measuring television camera, the previously identified light-emitting elements at the previously identified positions of the image sensor elements where images A, B, C, and D of subjects are displayed (70, 71, 72, 73) emit distance measuring light at different times. The distance measuring light emitted by the identified light-emitting elements at these positions is focused onto subjects A, B, C, and D (66, 67, 68, 69) and strikes them. The identified reflected light from subjects A, B, C, and D (66, 67, 68, 69) is received by the light receiver (87) at different times, and the distance to the subject corresponding to the identified position of the image sensor at the position where images A, B, C, and D of subjects (70, 71, 72, 73) are displayed is measured sequentially at different times. The measured distance signal is added in synchronization with the image signal obtained by capturing an image using an 86-pixel distance-measuring television camera.

[0039] The positions of images A, B, C, and D of subjects 70, 71, 72, and 73 on the television screen, as captured by the 86-pixel luminous-distance measuring television camera, are corrected using a 46-dimensional image position calculation circuit to adjust the positions of the pixels displaying images A, B, C, and D of subjects 70, 71, 72, and 73, as measured by the 86-pixel luminous-distance measuring television camera. This results in a stereoscopic screen where images A, B, C, and D of subjects 70R, 71R, 72R, and 73R for the right eye and images A, B, C, and D of subjects 70L, 71L, 72L, and 73L for the left eye are mutually displayed on the 88 stereoscopic television screen. This stereoscopic screen can be viewed using 89 stereoscopic glasses that open and close 44 right-eye light-blocking filters and 45 left-eye light-blocking filters, which are synchronized with the display. 89 When a user views a stereoscopic screen using stereoscopic glasses, they can view a stereoscopic screen by opening and closing the stereoscopic glasses in sync with each other. This screen displays images of the positions of pixels on a stereoscopic television screen, corrected for binocular parallax, using the distance of the image of the screen measured by a light-emitting element at the position of the image element of the 86 pixel luminescence distance measuring television camera, and the position of the image element of the image of the screen measured by a light-emitting element at the position of the image element. In the embodiments described above, the display destination for the subject image was described as a television screen or a video game screen. However, the present invention can also be applied to image media that display subjects in three dimensions, including television broadcasts and movie screens, as well as animated television screens and CG television screens.

[0040] The image captured by the 86-pixel light emission distance measuring television camera in the example Figure 18, which photographs 68 subjects, passes through the 91 optical lens, and at the position of the 93 image element of the 105 image element unit, an image of the 68 subjects is formed by the reflected natural light from the 68 subjects. The distance-measuring light emitted at different times by the 103 light-emitting element, which is installed at the position of the image element of the 107-pixel row unit of the pixel element unit of the 86-pixel light-emitting distance-measuring television camera where the image of the subject is formed, as well as the amount of the distance-measuring light that has been diffusely reflected and reached the 91 optical lens of the 86-pixel light-emitting distance-measuring television camera, are transmitted in the opposite direction to the reflected natural light and focused at different times to illuminate the position of the subject 68. The amount of reflected light that reaches the optical lens 91, which is focused and illuminated onto the subject, is received by the light receiver 87 at a time delay, and the distance from the light-emitting element 103 to the subject 86 is measured at the time. 68 The time difference between the emitted light and the received light is measured using the reflected light that is focused and illuminated onto the subject.

[0041] Using natural light, an image is formed at the position of the 93 image elements, and the image signal derived from the 93 image elements is corrected horizontally on the 88 stereoscopic television screen, with the position of the image signal derived from the 102 image element N of the 107 image element array unit being corrected horizontally from the position of the N image element of the 107 pixel array unit located in the horizontal row of the 105 image element unit of the 86-pixel emission distance measuring television camera's image element unit, to the N+ side of the 19 right-eye television screen and the N- side of the 20 left-eye television screen. The light-shielding filters of the 89 stereoscopic glasses, which are synchronized with each other, are opened and closed, allowing the image captured by the 86-pixel emission distance measuring television camera to be viewed on the 88 stereoscopic television screen. This invention relates to a method for measuring distance by using the optical mechanism of an 86-pixel luminescent distance measuring television camera, in which reflected light from 68 subjects of natural light is focused to form a real image, and using the amount of distance measuring light emitted from the position where the reflected light from 21 subjects forms an image, and using the amount of distance measuring light that reaches the area of ​​the optical lens of the optical mechanism of the 91 optical lens, or using the amount of distance measuring light that reaches the area of ​​the optical lens of a similar optical mechanism, the reflected light that is scattered from 1 subject by the amount of distance measuring light that is focused and illuminated onto 1 subject is received by an 87 light receiver to measure the distance, and the distance can be measured at the position where the image of the subject is displayed on the television screen.

[0042] The image C of subject C on the television screen, obtained by photographing subject C using the 86-pixel luminous distance measuring television camera in the example Figure 19, is displayed by an image signal derived from the reflected light diffused from subject C in natural light passing through the optical lens of the 86-pixel luminous distance measuring television camera and being focused onto the image element N of the image element array unit of the 86-pixel luminous distance measuring television camera's image element unit. The distance measurement light emitted by the light-emitting elements on the N image elements of the 92A image element array unit of the 86-pixel light-emitting distance measurement television camera emits light at different times, and the light diffuses in the direction of the focus 94. This distance measurement light passes through the optical lens of the 86-pixel light-emitting distance measurement television camera, and the light that reaches the optical lens 68 is focused and illuminates the subject C. The distance C to the subject C is measured by receiving the reflected light that diffuses from the subject C (68), which has been focused and illuminated, using the light receiver (87) at a time delay. Similarly, images D of 73 subjects on 18 television screens, obtained by photographing 69 subjects D using an 86-pixel luminous distance measuring television camera, are displayed by the image signal derived from the illumination of N of the 93B image element in the 92B image element array unit of the image element unit of the 86-pixel luminous distance measuring television camera.

[0043] Similarly, using an 86-pixel luminescent distance measuring television camera, the light-emitting element located at position N of the 93B image element emits light at different times, and the distance measuring light that diffuses in the direction of focusing passes through the optical lens of the 86-pixel luminescent distance measuring television camera and is focused onto the 69 subject D. The distance D of the subject is measured by receiving the reflected light that diffuses from the distance-measuring light 69, which has been focused and irradiated, using the light receiver 87, with a time delay. The light-emitting element on the 93A image element of the 92A image element array unit emits light at a time delay and diffuses, and the light-emitting element on the 93B image element of the 92B image element array unit emits light at a time delay and diffuses. The distance-measuring light rays pass through the optical lens of the 86-pixel light-emitting distance-measuring television camera and are focused and illuminated onto subjects C and D in 68 and 69, so that the time-delayed reflected light from subjects C and D can be identified. The image signals displaying images C and D of subjects C and D on the television screen are combined with the distances measured for subjects C and D, and this combined data signal is sent to the stereoscopic television screen as a data signal.

[0044] Images A, B, C, and D of subjects 70, 71, 72, and 73 displayed on the television screen are derived from a distance signal measured using the distance measuring element of the 65TOF distance measuring television camera in Figure 12, or the 78-pixel light-receiving distance measuring television camera in Figure 14. The images A, B, C, and D of subjects 66, 67, 68, and 69 were captured using the two television cameras and the 65TOF television camera, or the 78-pixel light-receiving distance measuring television camera, or the 86-pixel light-emitting distance measuring television camera. The 34 data signal is a distance signal obtained by receiving light and measuring the distance using the 100 distance measuring element incorporated at the position of the image element of the 96-pixel light-receiving distance-measuring television camera, which is derived from the image signal of the 101-pixel light-receiving image element array unit of the pixel light-receiving image element unit of the video camera, or a distance signal obtained by emitting light and measuring the distance using the 103 light-emitting element incorporated at the position of the image element of the 102-pixel light-emitting distance-measuring television camera, which is derived from the image signal of the 107-pixel light-emitting image element array unit of the pixel light-emitting image element unit of the 86-pixel light-emitting distance-measuring television camera shown in Figure 16. The position of the image element that displays images C and D of subjects 72 and 73 on the television screen corresponds to the position of pixels M of pixels A and B in pixel row units A and B, 107A and B, of the pixel unit that displays pixels on the stereoscopic television screen.

[0045] The position of the image of the subject displayed on the 88-dimensional television screen is calculated using the 28-distance signal, which is the position of the subject displayed in the 27-image signal of the 43-data signal, and the position corrected for binocular disparity is calculated using a 46-dimensional image position calculation circuit. For the 88 stereoscopic television screen, the display position M of the 109A pixel in the 107A pixel row unit A, which is displayed in the horizontal row of the pixel unit on the television screen of the 72R subject image C for the right eye screen, is corrected to the pixel at the M+3 position, and the display position M of the 109A pixel in the 107A pixel row unit A, which is displayed in the horizontal row of the pixel unit on the television screen of the 72L subject image C for the left eye screen, is corrected to the pixel at the M-2 position. This is an example of correcting the positions of the corrected pixels for the 111R image light R from the corrected M+3 pixel for the right eye television screen and the 111L image light L from the corrected M-2 pixel for the left eye television screen, in the 107A pixel row unit A displayed in the horizontal row of the pixel unit of the 88 stereoscopic television screen. For the 88 stereoscopic television screen, the display position M of the 109B pixel in the 107B pixel row unit B, which is displayed in the horizontal row of the pixel unit on the television screen of the 73R subject image D for the right eye television screen, is corrected to the pixel at the M+4 position, and the display position M of the 109B pixel in the 107B pixel row unit B, which is displayed in the horizontal row of the pixel unit on the television screen of the 73L subject image D for the left eye television screen, is corrected to the pixel at the M-3 position.

[0046] This is an example of correcting the position of the corrected light beams for the right-eye television screen, specifically the 112R image light R from the corrected M+4 pixel in the 107B pixel row unit B of the 88 stereoscopic television screen, and the 112L image light L from the corrected M-3 pixel in the left-eye television screen. The 88 stereoscopic television screen displays the image C of the 72R subject on the 19 right-eye television screen and the image C of the 72L subject on the 20 left-eye television screen, and the image D of the 73R subject on the 19 right-eye television screen and the image D of the 73L subject on the 20 left-eye television screen. The corrected image position is explained by measuring the distance between the position of the image sensor on which the subject is reflected and the corresponding part of the subject reflected on one image sensor when the two television cameras and the 65TOF television camera, or the 78-pixel light-receiving distance-measuring television camera, or the 86-pixel light-emitting distance-measuring television camera photograph subjects B and C, respectively. In this method, distance signals from all parts of the subject that are reflected on all image sensors are sequentially measured and added to the 34 data signals, along with the image signal data derived from all image sensors on which the image of the subject is reflected.

[0047] By using distance data added to the background image signal, which includes the subject image, the binocular parallax of the background image, including the subject image, is corrected and displayed on the 88 3D television screen, allowing the 88 3D television screen to be viewed with 98 3D glasses. By adding either a distance for correcting binocular parallax of the subject displayed on the television screen, or a numerical value for correcting binocular parallax, to the image signal, the user viewing the television screen can use the aforementioned distance and binocular parallax value to perform calculations that correct the position of the pixels displayed on a normal television screen for binocular parallax, thereby correcting the image to appear as a stereoscopic television screen. By adding distance signals to the image signals on the television screen, a regular television screen can be viewed as a stereoscopic television screen as needed.

[0048] Using the 86-pixel emission distance measuring television camera in the example Figure 20, subjects C and D are photographed on the television screen 18. The position of subjects C and D on the television screen 18 is determined by measuring the distance and direction from subjects 67 and 68 to subjects 80 and 81. The measured distance and direction are then used with the control console 32 to move the display position of the image signal that displays images C and D of subjects 72 and 73 on the stereoscopic television screen 88, thereby moving the display position of the pixel unit that displays the image on the stereoscopic television screen 88 at a different position to a position where it is unfolded. The horizontal and vertical display positions of the image C of the subject on the 18th television screen are moved to the position where it is displayed at M of the 109D pixel D of the 107D pixel row unit D of the 88th stereoscopic television screen, thereby correcting the position where the image C of the subject on the right eye's television screen is displayed at the pixel at the horizontal position M+3, and correcting the position where the image C of the subject on the left eye's television screen is displayed at the pixel at the horizontal position M-2.

[0049] The horizontal and vertical display positions of the image C of the subject on the 18th television screen are shifted to different positions. The horizontal position displayed at pixel E of pixel 109E of pixel row unit E of pixel unit E of pixel unit E of pixel unit E of pixel unit E of pixel unit E of 88th television screen is corrected by moving the display position of the image D of the subject 73R on the left eye television screen to the pixel at the horizontal position M+4. The display position of the image D of the subject 73L on the left eye television screen is corrected by moving the display position to the pixel at the horizontal position M-3. The horizontal and vertical positions of the image B of the subject on the television screen are moved away from the display positions of the pixel unit that displays the stereoscopic television screen, so that the image B is removed from the stereoscopic television screen. Alternatively, the image of 71 subjects on the 18 television screens of the 88 stereoscopic television screen is manipulated by changing the light of pixel M of pixel 109E of pixel F in pixel row unit F of pixel unit 107F of pixel unit F. Alternatively, leave images A, B, C, and D of subjects 70, 71, 72, and 73 on the TV screen 18, and manipulate the background screen on the TV screen 18.

[0050] Using the 86-pixel luminescence distance measuring television camera shown in Example Figure 21, subjects A, B, C, and D (66, 67, 68, 69) were photographed to obtain the image signals that display images A, B, C, and D of subjects 70, 71, 72, and 73 on the television screen (18). The distance measuring light-emitting element of the 86-pixel luminescence distance measuring television camera's image element unit, located at the position of the image element that displays images A, B, C, and D of subjects 70, 71, 72, and 73 on the television screen, is used for distance measurement. Light is emitted at different times and directed towards subjects A, B, C, and D (66, 67, 68, 69). The reflected light from subjects A, B, C, and D (66, 67, 68, 69), which has been focused and illuminated through the optical lens of the 86-pixel emission distance measuring television camera, is measured using the light receiver (87) to determine the time difference between the time of emission and the time of reflection and reception of the reflected light. The distance to subjects A, B, C, and D (66, 67, 68, 69) is then calculated and obtained.

[0051] The measured distance of the position of the light-emitting element is added to the image signal derived from the natural light received by the image elements at the positions of the light-emitting elements 70, 71, 72, and 73 of the subject images A, B, C, and D. A 34-data signal consisting of the image signal and a distance signal added to it, or a 34-data signal consisting of the image signal and a correction signal that corrects the binocular disparity of the distance position added to it, is transmitted via the Internet using a controller 31. 113 Images of subjects A, B, C, and D on a stereoscopic television screen, created by a 3D image position calculation circuit using data signals received via the internet, 66, 67, 68, and 69 to correct the positions of subjects A, B, C, and D, 70R and 70L, 71R and 71L, B and 72R and 72L, C and 73R and 73L, can be viewed through stereoscopic glasses.

[0052] In the example shown in Figure 22, a smartphone 114 incorporating the functions of a television camera, or the 65TOF television camera, or the 78-pixel light-receiving distance-measuring television camera, or the 86-pixel light-emitting distance-measuring television camera, captures subjects A, B, C, and D 66, 67, 68, 69. The image signal showing images A, B, C, and D of subjects 70, 71, 72, 73 on the television screen of the smartphone 116 is combined with the distance signal measured between the images of subjects A, B, C, and D displayed on the television screen of the smartphone 116 using the 65TOF television camera, or the 78-pixel light-receiving distance-measuring television camera, or the 86-pixel light-emitting distance-measuring television camera, or a correction signal obtained from the measured distance, and this data signal 34 is transmitted via the internet 113. 113 A data signal is received by a 115 smartphone via the internet. Using the 3D image position calculation function built into the 115 smartphone, a stereoscopic television screen displayed on the 115 smartphone's television screen can be viewed through 89 stereoscopic glasses. Alternatively, 113 data signals can be transmitted via the Internet network, and 88 stereoscopic television screens can be viewed through 89 stereoscopic glasses using the function of 3D image position calculation.

[0053] In the example shown in Figure 23, the position of the image of the subject 71 displayed on the screen B of the smartphone 116, which was photographed using the smartphone 114 attached to a numerically controlled drive mechanism 127 that changes the shooting direction of the smartphone, is associated with the drive value that drove the numerically controlled drive mechanism 127 to photograph the subject 67 so that it is displayed in the center of the screen B of the smartphone 116. The positions of the images of the 67 subjects at several different positions, which are displayed on the screen B of the 116 smartphone, are obtained by using the several different drive values ​​that drove the numerically controlled drive mechanism 127 to capture the images so that they are displayed in the center of the screen B of the 116 smartphone. The positions of all the images of the 71 subjects at all positions, which are displayed on the screen B of the 116 smartphone, are obtained by using the several different drive values ​​that drove the numerically controlled drive mechanism 127 to capture the images so that they are displayed in the center of the screen B of the 116 smartphone. A numerical value relating all the drive values ​​that drove the numerically controlled drive mechanism 127 to capture the images so that they are displayed in the center of the screen B of the 116 smartphone is obtained by using an interpolation method calculation formula. The numerically controlled drive mechanism is driven using the associated drive values ​​so that the image of the subject 71 displayed on the screen B of the smartphone is captured so that it is displayed in the center of the screen B of the smartphone. The data signal of the stereoscopic television screen, obtained by photographing the subject using a 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera, which is attached to a numerically controlled drive mechanism, so as to photograph the center of the screen B of the smartphone, is transmitted via an internet connection. 113 Using the data signals 34 acquired via the Internet network, the 363-dimensional image position calculation circuit corrects the 3D image position calculation circuit, and the 71R image C and 71L image C are displayed on the 3D television screen and viewed with 3D glasses.

[0054] Alternatively, the screen signal of the smartphone is transmitted via the internet, and the screen signal obtained via the internet is used to drive a numerically controlled drive mechanism via the internet using a drive value associated with the position of the image of the subject displayed on the smartphone's television screen, and the image of the subject is captured using a 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera attached to the numerically controlled drive mechanism, so that the image of the subject is displayed in the center of the television screen. 127 A 78-pixel light-receiving distance-measuring television camera incorporated into a numerically controlled drive mechanism, or the 86-pixel light-emitting distance-measuring television camera, capture an image signal, and a 34 data signal obtained by adding a distance signal measured using the 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera is transmitted via an internet connection. 113 Using the 34 data signal obtained via the internet network, 46 a 3-dimensional image position calculation circuit corrects the 88 stereoscopic television screen, and the 72R image C and 72L image C are displayed in the center and viewed with stereoscopic glasses.

[0055] In the example shown in Figure 24, the position of the image D of the subject D shown on the TV screen of the smartphone, which was photographed using the smartphone mounted on the holder, is related to the position of the image of the subject A shown on the TV screen of the smartphone, which was photographed using the smartphone mounted on the holder, which was photographed using the smartphone mounted on the holder, which was mounted on the holder, which was related to the position of the image of the subject A shown on the TV screen of the smartphone mounted on the smartphone, which was photographed using the smartphone mounted on the holder, which was related to the position of the image of the subject A shown on the TV screen, which was photographed using the smartphone mounted on the holder, which was related to the position of the image of the subject A shown on the TV screen, which was related to the position of the numerically controlled drive mechanism, which was driven to photograph the subject A so that it was photographed so that it was photographed in the center of the stereoscopic TV screen that displays the image of the smartphone mounted on the smartphone, which was mounted on the holder, which was mounted on the holder, which was related to the position of the numerically controlled drive mechanism, which was driven to photograph the subject A so that it was photographed in the center of the stereoscopic TV screen that displays the image of the smartphone mounted on the smartphone, which was mounted on the holder, which is related to the position of the image D of the subject A shown on the TV screen of the smartphone, which was mounted on the smartphone mounted on the holder, which was mounted on the smartphone, which was mounted on the holder, which was mounted on the smartphone, which was mounted on the holder, which is related to the position of the image of the subject A shown on the TV screen, which was mounted so that it was photographed in the center of the stereoscopic TV screen that displays the image of the smartphone mounted on the smartphone, which was mounted on the holder, which is related to the position of the image D of the subject D shown on the TV screen of the smartphone, which was mounted on the smartphone mounted on the holder, which was mounted on the smartphone, which was mounted on the holder, which was mounted on the smartphone, which was mounted on the holder, which was mounted on the smartphone, which was mounted on the holder, which was mounted on the TV screen, which was mounted 114 Using a smartphone, 69 subjects D are photographed at several different positions. 116 The position of the images D of the several different subjects D displayed on the smartphone's television screen, and 127 Using a numerically controlled drive mechanism to change the shooting direction, the position of the images D of the several different subjects D displayed on the smartphone's television screen is photographed so that it is displayed at the center of the 88-dimensional television screen of the 78-pixel light-receiving distance measuring television camera or the 86-pixel light-emitting distance measuring television camera, using several different drive values ​​of the position where the numerically controlled drive mechanism is driven. Then, the positions of all the images D of the 69 subjects D at all positions are captured using a smartphone, and the positions of all the images D of the 69 subjects D at all positions are captured using a 78-pixel light-receiving distance measuring television camera, or the 86-pixel light-emitting distance measuring television camera, which drives a numerically controlled drive mechanism to change the shooting direction. The positions of all the images D of the 69 subjects D at all positions are captured using a 78-pixel light-receiving distance measuring television camera, or the 86-pixel light-emitting distance measuring television camera, so that they are captured in the center of the 88 stereoscopic television screen of the 78-pixel light-receiving distance measuring television camera or the 86-pixel light-emitting distance measuring television camera. The driving values ​​of all the driving positions of the driven numerically controlled drive mechanism are calculated and obtained using an interpolation method formula.

[0056] 116 Using a smartphone mounted in a holder, the image D of the subject D is photographed. Using the interpolated values ​​associated with the position of the image D of the subject D displayed on the smartphone's television screen, the numerically controlled drive mechanism built into the holder is driven to photograph the subject D using a 78-pixel light-receiving distance measuring television camera or the 86-pixel light-emitting distance measuring television camera. The data signal of the stereoscopic television screen, consisting of the image signal and distance signal taken using the 78-pixel light-receiving distance measuring television camera or the 86-pixel light-emitting distance measuring television camera, is transmitted via the internet. The data signal acquired via the internet is used to display the stereoscopic television screen corrected by the 3D image position calculation circuit and viewed with stereoscopic glasses. Alternatively, the screen signal of the 116 smartphone is transmitted via an internet connection, and the 113 screen signal acquired via the internet network is used to drive the 127 numerically controlled drive mechanism via the internet network using a drive value associated with the position of the image displayed on the television screen of the 115 smartphone B, which has been captured by the 114 smartphone, so that the image is displayed in the center of the 88 stereoscopic television screen captured using the 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera attached to the 127 numerically controlled drive mechanism. The 34 data signals, consisting of the screen signal and distance signal of the 88 stereoscopic television screen captured above, are transmitted via the Internet, and the 46 88 stereoscopic television screen is displayed using the 34 data signals acquired via the Internet network and viewed with 89 stereoscopic glasses. The position of the subject on the screen of smartphone 114 and smartphone B 115 may be the position of the image recognized on the screen, the position of the image indicated on the screen, or the position relative to an external signal.

[0057] In the example shown in Figure 25, the position of the image D of the subject 69, which is captured using two television cameras incorporated into the holder 128, is related to the position of the image D of the subject 73 displayed on the television screen of the smartphone 116 attached to the holder 128, by driving the numerically controlled drive mechanism 127 incorporated into the holder 128, which changes the shooting direction of the smartphone 114, so that the position of the image of the subject D captured using the 78-pixel light-receiving distance measuring television camera or the 86-pixel light-emitting distance measuring television camera incorporated into the smartphone 114 is displayed in the center of the television screen. The positions of the images D of the several different subjects, and the positions of the images of the 69 subjects D at the several different positions, taken using two television cameras built into a holder, are displayed on the television screen of a smartphone mounted in a holder, and the numerically controlled drive mechanism is driven so that the images of the 69 subjects D at the several different positions, taken using a 78-pixel light-receiving distance measuring television camera or an 86-pixel light-emitting distance measuring television camera built into the smartphone, are displayed in the center of the television screen, using several drive values ​​of the positions, and all positions of the 69 subjects D are 128 The positions of all the images D of the subjects displayed on the TV screen of the smartphone mounted on the holder, and the positions of the images of all the subjects D at all the positions captured using the 78-pixel light-receiving distance measuring TV camera or 86-pixel light-emitting distance measuring TV camera mounted on the smartphone, are obtained using an interpolation method calculation formula to drive the numerically controlled drive mechanism so that the images are displayed in the center of the TV screen.

[0058] Using the two television cameras incorporated in the 128 holder, subjects A, B, C, and D are photographed. Using the drive values ​​associated with the respective positions of images A, B, C, and D of subjects 70, 71, 72, and 73 displayed on the television screen of the 116 smartphone attached to the 128 holder, the numerical control drive mechanism 127 is driven, and the 78-pixel light-receiving distance measuring television camera or the 86-pixel light-emitting distance measuring television camera is used to photograph each of subjects A, B, C, and D, and the corresponding images A, B, C, and D of subjects 70R, 70L and 71R, 71L and 72R, 72L and 73R, and 73L are displayed in the center of the television screen of the 116 smartphone attached to the 114 smartphone. 114 A data signal consisting of an image signal captured using the 78-pixel light-receiving distance-measuring television camera or 86-pixel light-emitting distance-measuring television camera incorporated in the smartphone and a distance signal measured using the 78-pixel light-receiving distance-measuring television camera or 86-pixel light-emitting distance-measuring television camera, and a data signal consisting of an image signal captured using the 2 television cameras incorporated in the smartphone and a distance signal measured using the 78-pixel light-receiving distance-measuring television camera or 86-pixel light-emitting distance-measuring television camera matched to the position of the image captured using the 2 television cameras, is transmitted via the internet, and 113 a stereoscopic television screen corrected by a 3D image position calculation circuit is displayed using the data signal acquired via the internet and viewed using stereoscopic glasses.

[0059] Furthermore, the images captured by the 2 television cameras built into the 116 smartphone are transmitted via the internet, and the drive values ​​associated with the position of the image displayed on the television screen of the 115 smartphone B, captured by the 2 television cameras acquired via the internet network, are used to drive the 127 numerically controlled drive mechanism via the internet network, so that the image is displayed in the center of the 88 stereoscopic television screen captured using the 78-pixel light-receiving distance-measuring television camera or the 86-pixel light-emitting distance-measuring television camera attached to the 127 numerically controlled drive mechanism. The captured image signal and distance signal 88 are transmitted via an internet connection, and the 3D image position calculation circuit uses the acquired 34 data signals to display the corrected 88 stereoscopic television screen, which is then viewed using 89 stereoscopic glasses.

[0060] In the example shown in Figure 26, two television cameras are used to photograph subjects A, B, C, and D. From the images of subjects A, B, C, and D on the television screen, the position of image D of subject 73 is associated with the numerical value of the position where the numerically controlled drive mechanism of the holder to which the smartphone is attached is driven. Using two television cameras to capture 69 subjects D at several different positions, the positions of the images D of the 73 subjects at several different positions on the television screen, and using a smartphone to capture the 69 subjects D at several different positions in the center position on the television screen of the smartphone, the positions of all the images D of the 73 subjects at all positions on the television screen, and using a smartphone to capture the 69 subjects D at all positions in the center position on the television screen of the smartphone, the positions of all the images D of the 73 subjects at all positions on the television screen, and using a smartphone to capture the 69 subjects D at all positions in the center position on the television screen of the smartphone, the positions of all the images D of the 73 subjects at all positions on the television screen, and using a smartphone to capture the 69 subjects D at all positions in the center position on the television screen of the smartphone, are calculated and obtained using an interpolation formula.

[0061] Using two television cameras, subjects A, B, C, and D are photographed. Using the drive values ​​associated with the positions of images A, B, C, and D of subjects on the television screen (70, 71, 72, 73) in the manner described above, the numerically controlled drive mechanism is driven, and images of subjects A, B, C, and D are photographed at the center of the television screen using a 78-pixel light-receiving distance-measuring television camera incorporated into the numerically controlled drive mechanism. The distances A, B, C, and D of subjects 79, 80, 81, and 82, which are positioned at the locations of images A, B, C, and D of subjects 70, 71, 72, and 73, which are displayed in the center of the screen of the 78-pixel light-receiving distance-measuring television camera, are measured using the 78-pixel light-receiving distance-measuring television camera. The positions of images A, B, C, and D of subjects 70, 71, 72, and 73, captured using two television cameras, are compared with the positions of images A, B, C, and D of subjects 66, 67, 68, and 69, captured using a 78-pixel light-receiving distance-measuring television camera. The distances A, B, C, and D of subjects 79, 80, 81, and 82 are then matched to the positions of images A, B, C, and D of subjects 70, 71, 72, and 73.

[0062] 114 Using a smartphone, the image signals of subjects B and D (images B and D) are captured, and distance signals of subjects B and D (distances B and D) (measured by a 78-pixel light-receiving distance-measuring television camera) are added to these data signals. These data signals are transmitted via the internet, and 113 a 3D image position calculation circuit is used to calculate the data signals acquired via the internet, so that the images D of subject R and L of subject D are displayed on a stereoscopic television screen and viewed with stereoscopic glasses. Alternatively, the image signal from the smartphone screen is transmitted via an internet connection, and the image signal obtained via the internet is used to drive a numerically controlled drive mechanism, which is incorporated into the holder of the smartphone, via the internet, using the drive values ​​associated with the position of the image of the subject displayed on the smartphone's television screen in the manner described above, thereby capturing an image of the subject in the center of the smartphone's television screen. Simultaneously, a 127 numerically controlled drive mechanism incorporated in the holder is driven to measure the distance between the subject and the position of the subject in the image using a 78-pixel light-receiving distance-measuring television camera. A 78-pixel light-receiving distance-measuring television camera captures an image of the subject, to which a distance signal of the subject measured using the same 78-pixel light-receiving distance-measuring television camera is added. This 34 data signal is transmitted over the internet, and a 46-dimensional image position calculation circuit is used to calculate the 34 data signal acquired via the internet, so that the 73R image D of the subject and the 73L image D of the subject are displayed on a stereoscopic television screen and viewed with stereoscopic glasses.

[0063] In the example shown in Figure 27, the present invention corrects the position of the image of a subject displayed on a television screen in the horizontal direction of human binocular parallax using the distance to the subject. This system displays the image of a subject on an LCD or OLED TV screen using a dedicated 3D image position calculation circuit. The pixel position of the image is calculated based on the binocular parallax due to the distance to the subject. This describes a method for acquiring image correction values ​​when capturing images of LCD or OLED TV screens. As shown in Figure 27, the 117 right-eye television camera and 118 left-eye television camera of the 130 stereoscopic television camera system are positioned in locations related to the human pupillary distance, and one subject is photographed so that the same image is displayed in parallel directions. The 117 right-eye television camera and the 118 left-eye television camera capture images A and B of the same subject 21A and 22B on the television screen. The 129 image position detection circuit corrects the overlapping position of these two separate images, and adds the distance L to the position of the image on either the 21A or 22B subject image A or B on the television screen. This 34 data signal is then transmitted over the internet. 113 Data signals acquired via the Internet network are used to perform calculations using a 3D image position calculation circuit, and 88 a stereoscopic television screen is displayed on the 19 right-eye television screen and 20 left-eye television screen of VR goggles for viewing, or 88 stereoscopic television screens are displayed on large LCD television screens or OLED television screens and 89 can be viewed using stereoscopic glasses.

[0064] For television broadcasting and internet distribution of stereoscopic video images, it is necessary to reduce the size of the stereoscopic video image data by adding a distance signal for correcting binocular disparity to the image signal described above. A data signal 34, which is obtained by adding the distance L of the width or a distance signal to one subject calculated from the distance L of the width to an image signal 34, is received via television broadcasting or the internet network 113. The position signal of the distance L of the data signal 34 is corrected using the image position detection circuit 129 to correct the position of the image signal showing either image A of subject 21A or image B of subject 21B, and displayed on the right eye television screen 19 and the left eye television screen 20 of the VR goggles for viewing. Alternatively, a 463-dimensional image position calculation circuit can be used to correct the 36 right-eye image position and 37 left-eye image position so that either image A of subject 21A or image B of subject 21B is displayed on a large LCD or OLED TV screen, and the 88 stereoscopic TV screen can be displayed on both screens and viewed using 89 stereoscopic glasses. 88. View a 3D television screen using 89. 3D glasses. It is also possible to broadcast the aforementioned 34 data signals by reducing the image data of a stereoscopic television screen using television radio waves. The image signal of the 34 data signal, which is a reduced version of the stereoscopic television image data received from television broadcasts, and the distance signal are corrected using the 129 image position detection circuit to determine the position where either image A of subject 21A or image B of subject 21B is displayed, allowing for viewing of the stereoscopic television screen.

[0065] In the example shown in Figure 28, the 117 right-eye television camera and the 118 left-eye television camera of the 130 stereoscopic television camera system, which are attached to the 125 van tilt drive mechanism, are positioned at the human pupil distance of 9 so that they capture the same image in a parallel direction, and one subject is photographed. 113 Via the internet, an acceleration sensor built into the 40 VR goggles detects movement in the direction the 40 VR goggles are viewed, and using this acceleration sensor signal, the 125 bunch tilt drive mechanism of the 130 stereoscopic television camera system is driven to capture the direction the 40 VR goggles are viewed, so that the 117 right-eye television camera and the 118 left-eye television camera capture the direction they are looking. To eliminate the unnatural binocular parallax between the image of a moving subject and the background image on a television screen captured using a 130 stereoscopic television camera system and driven by a 125 bunch-tilt drive mechanism, a position signal is detected using an 129 image position detection circuit. This position signal is attached to the image signal showing either image A of subject 21A or image B of subject 21B, and either a position signal that corrects the binocular parallax width between the two images, or a distance signal to the subject calculated from the correction value, via a 113 internet network. The received 34 data signals are corrected using a 463-dimensional image position calculation circuit, and the direction of the acceleration sensor signal is displayed on the 19 right-eye TV screen and 20 left-eye TV screen of the 40 VR goggles for viewing.

[0066] Alternatively, the 34 data signals are corrected using a 463-dimensional image position calculation circuit to the 36 right-eye image position and 37 left-eye image position where either image A of subject 21A or image B of subject 21B is displayed, and the 88 stereoscopic television screen is viewed using 89 stereoscopic glasses. In addition, 40VR goggles or 88 3D TV screens can be remotely controlled using 89 3D glasses, allowing for extended work sessions while viewing a three-dimensional space. In the example shown in Figure 29, a right-eye television camera (117) and a left-eye television camera (118) for capturing a stereoscopic screen, both incorporated into a smartphone A (114), are set up at a distance from each other to capture a subject. The image position detection circuit (129) incorporated into the smartphone A (114) is used to detect the difference in the position of the subject's image so that the positions of the images of the same subject on the smartphone's television screen overlap. A position signal is then added to the image signal showing either image A (21A) or image B (21B) of the subject captured by the smartphone A (114). This data signal (34) is then transmitted and received via the internet (113). The data signal (34) is then added to the image signal showing either image A (21A) or image B (21B) of the subject, either a position signal that corrects the binocular parallax between the two images, or a distance signal to the subject calculated from the correction value. 113 Using data signals acquired via the Internet network, 34 the content is displayed and viewed on the 40 VR goggles screen, specifically on the 19 right-eye television screen and 20 left-eye television screen, or on the 88 stereoscopic television screen.

[0067] In the example shown in Figure 30, a welding machine 132 is incorporated into the working position of a robot 131 driven by a drive mechanism of drive values ​​to perform welding work on a structure. The welding location 133 is then measured using drive values ​​associated with the positions of the welding machine 132 and the welding location 133, which are displayed on a television screen captured by a television camera 2. The drive mechanism of the laser distance measuring device 4 is then driven using the drive values ​​associated with the positions of the welding machine 132 and the welding location 133 using the method described above, and a laser beam for distance measurement is irradiated onto the welding machine 132 and the welding location 133 to measure the distance. The image signals of the welding equipment and the welding location, captured using the television camera 2, are combined with the measured distance signal using the image signal converter 122 to produce a data signal 34, which is then transmitted over the internet. The data signal 34 acquired via the internet is corrected using the image signal converter 122 to produce right-eye image signals 38 and left-eye image signals 39, which are then used to display the welding operation on the right-eye television screen and left-eye television screen of the VR goggles, or the welding operation is displayed on a stereoscopic television screen 88 and viewed with stereoscopic glasses 89 to remotely control the robot 131. In the example shown in Figure 31, the excavation site 136 is where excavation work is performed using the shovel 135 of the excavator 134, which is driven by the drive mechanism of the drive numerical value. The drive mechanism of the laser distance measuring device 4 is driven using the drive numerical value associated with the positions of the images of the shovel 135 and the excavation site 136 displayed on the television screen, which is captured using two television cameras attached to the excavator 134, and the distance is measured by irradiating the shovel 135 and the excavation site 136 with laser light for distance measurement.

[0068] The image signal of the position where the images of the 135 shovel and 136 excavation site are captured using the television camera 2 is combined with the measured distance signal using the 122 image signal converter, and this 34 data signal is transmitted over the internet. 113 Data signals acquired via the Internet network are corrected using an image signal converter to obtain 38 right-eye image signals and 39 left-eye image signals, which are then displayed on the 19 right-eye television screen and 20 left-eye television screen of a VR goggles screen. Alternatively, the excavator is remotely operated by displaying the excavation work on a 88 stereoscopic television screen and viewing it with 89 stereoscopic glasses. In the example shown in Figure 32, a numerical value is calculated to correct the position of the image so that the positions of the same images captured by the 117-eye television camera and the 118-left-eye television camera of the 130 stereoscopic television camera system overlap, for the welding work performed by the 131 robot, which is driven by the drive mechanism of the drive numerical value, and the 133 welding location where the 132 welding equipment incorporated into the 131 robot is welded to the structure. A data signal 34, in which the corrected numerical signal is attached using an image signal converter 122 to either of the image signals at the position of the image obtained by taking a picture using the 117-eye television camera and the 118-left-eye television camera, is transmitted over the internet. 113 The data signals acquired via the Internet network are used with an image signal converter to display the welding process of the welding equipment and welding points on the right-eye and left-eye television screens of a VR goggles, or the welding process of the welding equipment and welding points are displayed on a stereoscopic television screen and viewed with stereoscopic glasses, thereby enabling remote control of the robot.

[0069] In the example shown in Figure 33, a value is calculated to correct the position of the shovel (135) of the 134 excavator, which is driven by the drive mechanism of the 134 excavator, and the excavation site (136) of the excavation work, so that the positions of the same images captured by the right eye television camera (117) and the left eye television camera (118) of the 130 stereoscopic television camera system attached to the 134 excavator overlap. Using the 117-eye television camera and the 118-left-eye television camera, the excavation work is filmed, and the image signals of the 135 shovel and 136 excavation site obtained are combined with the corrected numerical signal using the 122-image signal converter, and the resulting 34 data signal is transmitted over the internet. The 34 data signal acquired via the internet is used with the 122-image signal converter to display the images of the 135 shovel and 136 excavation site on the 19-right-eye television screen and 20-left-eye television screen of the 40 VR goggles, or the 19-right-eye television screen and 20-left-eye television screen of the 135 shovel and 136 excavation site are mutually displayed on the 88-stereo television screen, and the 134 excavator is remotely operated by viewing with stereoscopic glasses.

[0070] In the example shown in Figure 34, numerical values ​​are calculated to correct the position of the 138 hook and 139 steel frame of the 137 crane, which is driven by the drive mechanism of the drive numerical values, so that the positions of the same images taken of the 139 steel frame and 138 hook by the 117 right-eye television camera and 118 left-eye television camera of the 130 stereoscopic television camera system attached to the 137 crane and 139 steel frame overlap. 117 A data signal obtained by capturing images using the right-eye television camera and 118 a left-eye television camera is transmitted via the internet, with the corrected numerical signal added to either of the image signals. The crane is remotely controlled in a remote control room by using data signals acquired via the internet network to display images of the crane, hook, and steel frame taken from different angles on the right-eye and left-eye television screens or the stereoscopic television screen of VR goggles, thereby viewing the stereoscopic images. In the example shown in Figure 35, a numerical value is calculated to correct the 141 travel path in the direction of travel of the 140 vehicle, which is driven by the drive mechanism of the drive numerical value, so that the positions of the same images in front of the 141 travel path captured by the 117 right-eye television camera and the 118 left-eye television camera attached to the 140 vehicle overlap. 117 A data signal obtained by capturing images using the right-eye television camera and 118 a left-eye television camera is transmitted via the internet, with the corrected numerical signal added to either of the image signals. In a remote control room, the driver operates the automated vehicle using data signals acquired via the internet, displaying images of the driving route on the right-eye and left-eye television screens of VR goggles, or on the stereoscopic television screen, and viewing the stereoscopic images.

[0071] In the embodiment shown in Figure 36, as described above, the right-eye television camera 117 and the left-eye television camera 118, which are incorporated into the 114 smartphone A for stereoscopic display, are set at a distance from each other, and a data signal 34 is added to the television screen captured by the 114 smartphone A, correcting the position of the same image displayed on the television screen of the 116 smartphone so that they overlap, and then transmitted over the internet. 113 Using data signals acquired via the internet, 131 the robot is remotely controlled by viewing a 3D image captured by smartphone A, which is displayed on the 19 right-eye TV screen and 20 left-eye TV screen of the VR goggles or on the 88 stereoscopic TV screen, using 89 stereoscopic glasses. [Explanation of Symbols]

[0072] 1. Subject 1A Subject A 1B Subject B 2 TV cameras 2A TV Camera A 2B TV Camera B 2C numerically controlled television camera 3. Television camera shooting range 3A Television camera shooting range A 3B Television camera shooting range B 3C TV camera shooting direction 4. Laser distance measuring device 4A Numerically controlled laser distance measuring device A 4B Numerically controlled laser distance measuring device B 4C Numerical Controlled Laser Distance Measuring Instrument 5. Laser light for measurement 5A Measuring laser beam A 5B Measurement laser light B 6 Far position 7 Right eye 8 Left eye 9 Interpupillary distance 10. The subject's gaze from the right eye 11. The subject's gaze from the left eye 12. The distant gaze of the right eye 13. The distant gaze of the left eye 14. Right eye parallax 15 Left eye parallax 16. Subject distance 17 far distance 18 TV screen 18A TV screen A 18B TV screen B 18C TV screen C 18D TV screen D 19 Right eye TV screen 20 Left eye TV screen 21 Images of the subject 21A Image of the subject A 21B Image B of the subject 22. Position of the image of the subject in the right eye. 23. Position of the image of the subject in the left eye. 24. Center position of the subject 25 Right eye correction value 26. Left eye correction value 27 Image signals 28 Distance signals 29 Numerical control signals 30 Control position signal 31 Controllers 32 Control console 33 Operating signals 34 Data signals 35 Computers 36 Right eye image position 37 Left eye image position 38 Right eye image signal 39 Right eye image signal 40 VR goggles 41 Screen switching signal 42 Light-shielding filter switching signal 43. Stereoscopic screen signal 44 Right eye light-blocking filter 45 Left eye light-blocking filter 46. ​​3D Image Position Calculation Circuit 46A 3D Image Position Calculation Circuit A 47 Soccer player A 47A Image of a soccer player A 47B Soccer player A on the TV screen during the match 48 Soccer Player B 48A Image of a soccer player B 48B Soccer player B on the TV screen during the match 49. The position of the soccer ball in the image 50 Right eye correction position 51 Left eye cross-sectional correction value 52 Right eye: Image of a soccer player on the TV screen A 53 Right eye: Image B of a soccer player on the TV screen during a match. 54 Left eye vs. TV screen: Image A of a soccer player 55 Left eye vs. TV screen: Image B of a soccer player 56 gaming devices 57 Game TV screen 57A Right and Left Game TV Screen 57B Metaverse TV screen Image A of a 58 game soccer player 58L Game soccer player left eye corrected image A 58R Game soccer player right eye corrected image A 58S Game Soccer Player Image Specifications A 59 Image of a game soccer player B 59L Game soccer player left eye corrected image B 59R Game soccer player right eye corrected image B 59S Game Soccer Player Image Specifications B Image position C of 60 game soccer players 60L Game soccer player left eye corrected image C 60R Game soccer player right eye corrected image C Image standard C for 60s game soccer players Image D of a 61 game soccer player 61L Game soccer player left eye corrected image D 61R Game soccer player right eye corrected image D 61S Game Soccer Player Image Standard D 62 Image position of game soccer player E 62L Game soccer player left eye corrected image E 62R Game soccer player right eye corrected image E 62S Game Soccer Player Image Standard E 63 Images of game soccer players F 63L Game soccer player left eye corrected image F 63R Game soccer player right eye corrected image F 63S Game Soccer Player Image Specifications F 64 Soccer Player Image Data 65 TOF Distance Measuring Television Camera 66 Subject A 67 Subject B 68 Subject C 69 Subject D 70 Image A of the subject Image A of the subject at 70R Image A of the subject in 70L 71 Image B of the subject 71R Image B of the subject 71L Subject Image B 72 Image C of the subject 72R Image C of the subject 72L Image C of the subject 73 Image D of the subject 73R Image D of the subject 73L Subject Image D 74 Distance A of the subject 75 Distance to subject B 76 Distance C of the subject 77 Distance D of the subject 78-pixel light-receiving distance measuring television camera 78A Numerically controlled pixel light-receiving distance measurement television camera 79 Distance A of the subject 80 Distance to subject B 81 Distance C of the subject 82 Distance D of the subject 83 Measurement position signal 84 Floodlights 85 Floodlight signals 86-pixel light emission distance measuring television camera 86A Numerically controlled pixel emission distance measurement television camera 87 Receiver 88 Stereoscopic television screen 89 Stereo glasses 90 Received light signal 91 Optical Lenses 92-pixel light-receiving distance measurement television camera image sensor array unit 92A Image element unit A 92B Image sensor unit B 93 Image elements 93A Image element A 93B Image element B 94 Focusing 95 Irradiation light 96-pixel light-receiving distance measuring television camera image sensor 97 R image elements 98G image sensor 99 B image element 100 measuring elements 101-pixel light-receiving image element array unit 102-pixel light emission distance measuring television camera image sensor 103 Light-emitting element 104 Reflected light 105-pixel light emission distance measuring television camera image element array unit 106 Measurement light 107 Pixel Array Unit A 107A Pixel Array Unit A 107B Pixel Array Unit B 107C Pixel Array Unit C 107D Pixel Array Unit D 107E Pixel Array Unit E 107F Pixel Array Unit F 107G Pixel Array Unit G 108 Pixel Array Unit B 109 Pixel A 109A Pixel A 109B Pixel B 109C Pixel C 109D Pixel D 109E Pixel E 109F Pixel F 109G Pixel G 110 pixels B 111 Pixel Light A 111R Pixel Light R 111L Pixel Light L 112 pixels light B 112R Pixel Light R 112L Pixel Light L 113 Internet Network 114 Smartphones 115 Smartphones 116 Smartphone screen 117 Right eye television camera 118 Left eye television camera 119 TV camera storage rack 120 Right eye image signal 121 Left eye image signal 122 Image Signal Converter 123 VR goggles accelerometer signal 124 Television camera image position signal 125 Bunt Tilt Drive Mechanism 126 Smartphone TV screen 127 Numerical control drive mechanism 128 Smartphone Holder 129 Image position detection circuit 130 Stereoscopic Television Camera System 131 Robots 132 Welding equipment 133 Welding location 134 Excavator 135 Shovel 136 Excavation site [Industrial applicability]

[0073] Digital movie screens, television broadcasts, 3D television screens, 3D video games, remote multiplayer games, medical endoscopes, internet shooting screens, television screens for remote work, television screens for metaverse space, image editing for television cameras, CG image editing, remote operation of 3D television screens, construction machinery operation of 3D television screens.

Claims

1. A television screen characterized by displaying the image of a subject on the television screen at a position corrected for binocular parallax.

2. A television screen comprising the method described in claim 1, characterized in that the binocular parallax is corrected using the distance measured from the position of the subject.

3. The television screen according to claims 1 to 2, characterized in that the binocular parallax is corrected using the distance of a pre-set position of the subject.

4. The television screen according to claims 1 to 2, characterized in that the measured distance signal is added to the image signal of the television screen that displays the subject.

5. The television screen according to claims 1 to 2, characterized in that the correction value is added to the image signal of the television screen that displays the subject.

6. The television screen according to claims 1 to 2, characterized in that a time-of-flight distance measuring television camera is used to measure the distance to the position of the subject.

7. A television screen according to claims 1 to 2, characterized in that a light-receiving element is provided at the position of the image element of the image element unit of the television camera that displays the image of the subject obtained by taking a picture using the television camera, and the distance to the subject is measured by emitting light to measure the distance, collecting the reflected light illuminating the subject, receiving the light with the light-receiving element, and using the difference between the time of emission and the time of reception of the light.

8. A television screen according to claims 1 to 2, characterized in that a light-emitting element is provided at the position of the image element of the image element unit of the television camera that displays the image of the subject obtained by taking a picture using the television camera, and the distance to the subject is measured by receiving the reflected light emitted by the light-emitting element that is focused and irradiated onto the subject, and using the difference between the time of emission and the time of reception.

9. The position of the image of the subject on the television screen obtained by photographing the subject using a television camera is associated with the drive value of the drive mechanism of a numerically controlled laser distance measuring device that changes the direction of irradiation, thereby irradiating the subject with distance-measuring laser light and measuring the distance. The position of the image of the subject at several different positions on the television screen obtained by photographing the subject at several different positions using the television camera is associated with the drive value of the drive mechanism of the laser distance measuring device that drives the subject at several different positions, thereby irradiating the subject at several different positions with distance-measuring laser light and measuring the distance. The position of the subject at all positions is associated with the television. The television screen according to claims 1 to 2, characterized in that the position of the image of the subject at all positions on the television screen obtained by taking a picture using a camera is associated with the drive values ​​of all positions obtained by driving the drive mechanism of the laser distance measuring device to irradiate the subject at all positions with the distance measuring laser light and measure the distance, and the drive mechanism of the laser distance measuring device is driven using the associated drive values ​​to irradiate the subject with the measuring laser light and measure the distance of the subject.

10. The position of the image of the subject on the television screen, obtained by photographing the subject using a television camera whose shooting direction is changed by numerically controlled drive values, is associated with the drive values ​​of the position where the television camera's drive mechanism is driven so that the position of the image of the subject is displayed in the center of the television screen. The positions of the images of the subject on the television screen, obtained by photographing the subject at several different positions using the television camera, and the drive values ​​of the several different positions where the television camera's drive mechanism is driven so that the position of the images of the subject is displayed in the center of the television screen, are used to obtain the position of the subject at all positions using the television camera. The television screen according to claims 1 to 2, characterized in that the positions of the images of all subjects on the television screen and the drive values ​​of all the positions driven by the television camera's drive mechanism so that the positions of the images of all subjects are projected at the center of the television screen are obtained by calculation using an interpolation method, the positions in which the images of the subjects on the television screen obtained by the television camera are projected at the center of the television screen are used to project the subjects to the center of the television screen, and the distance to the subjects is measured using a laser distance meter attached to the drive mechanism so as to measure the distance in the direction of the center of the television screen.

11. A television screen according to claims 1 to 2, characterized in that, using a television camera to photograph a subject and display an image of the subject on the television screen, a light-receiving element is provided at the position of the image element of the image element unit of the television camera, the distance to the subject is measured by using the difference between the time of emission and the time of reception, and the reflected light emitted by the light-measuring light is collected through the optical mechanism of the optical lens of the television camera and received by the light-receiving element.

12. A television screen according to claims 1 to 2, characterized in that a light source for measuring the distance to a light-emitting element is placed at the position of the image element of the image element unit of the television camera, which displays the image of the subject obtained by photographing the subject using the television camera, emits light, passes through the optical mechanism of the optical lens of the television camera and focuses the light on the subject, and the reflected light of the distance-measuring light is received, and the distance to the subject is measured using the difference between the time of emission and the time of reception.

13. The television screen according to claims 1 to 2, characterized in that the television screen is displayed on a digital movie screen for viewing.

14. The television screen according to claims 1 to 2, characterized in that the television screen is displayed on an RPG game screen.

15. The television screen according to claims 1 to 2, characterized in that the television screen is displayed on VR goggles for viewing.

16. The television screen according to claims 1 to 2, characterized in that the left and right screens of the aforementioned television screen are displayed mutually.

17. The television screen according to claims 1 to 2, characterized in that it is viewed using stereoscopic glasses that open and close the television screens in relation to each other.

18. The television screen according to claims 1 to 2, characterized in that the position of the image displayed on the television screen is moved.

19. The television screen according to claims 1 to 2, characterized in that the image displayed on the television screen is a character from a video game.

20. The television screen according to claims 1 to 2, characterized in that the image displayed on the television screen is a computer-generated image.

21. The television screen according to claims 1 to 2, characterized in that the image displayed on the television screen is an avatar on the metaverse screen.

22. The television screen according to claims 1 to 2, characterized in that images of a subject taken using different television cameras are displayed on the television screen at a measured distance from the subject.

23. The television screen according to claims 1 to 2, characterized in that images of the subject are displayed on the television screen at different distances of the subject captured using different television cameras.

24. A television screen according to claims 1 to 2, characterized in that it transmits the television screen using television broadcasting.

25. A television screen according to claims 1 to 2, characterized in that it receives the television screen using television broadcasting.

26. The television screen according to claims 1 to 2, characterized in that the television screen is displayed on the television screen connected via an internet network.

27. The television screen according to claims 1 to 2, characterized in that the position of the character's image on the television screen, which is connected via the Internet network, is corrected for the binocular parallax of the image of the character, and the corrected position of the image of the character on the television screen is corrected for the binocular parallax of the image of the character, which is displayed on the television screen.

28. The television screen according to claims 1 to 2, characterized in that the user remotely controls a robot driven by a numerically controlled drive mechanism by viewing the television screen which is a recording of the robot's work.

29. The television screen according to claims 1 to 2, characterized in that the construction equipment is remotely operated by viewing the television screen captured by the television camera attached to the construction equipment, which is driven by a numerically controlled drive mechanism.

30. The television screen according to claims 1 to 2, characterized in that the operation of a crane driven by a numerically controlled drive mechanism is remotely operated by viewing the television screen which is a recording of the crane's operation.

31. The television screen according to claims 1 to 2, characterized in that it projects an image of a subject displayed on the metaverse screen onto the position of the metaverse screen, correcting the binocular parallax of the position of the subject.

32. The television screen according to claims 1 to 2, characterized in that the driver remotely operates the vehicle by viewing the television screen which has been filmed showing the direction of travel of the vehicle that is driven by a numerically controlled drive mechanism.

33. The television screen according to claims 1 to 2, characterized in that it displays the image of an avatar participating in the metaverse screen at a position on the metaverse screen that has been corrected for binocular parallax at the position of the avatar.

34. A television screen according to claims 1 to 2, characterized by comprising any of the following: means for recognizing a subject in a captured image; means for correcting the position of the image of the subject to the position of binocular parallax using the distance to the subject; and means for displaying the corrected image.

35. The television screen according to claims 1 to 2, characterized in that a numerical value is added to the image signal of one of the television cameras to correct the position of the images of the same subject displayed on two television screens, which are obtained by capturing a stereoscopic image using two television cameras, so that they overlap.

36. The television screen according to claims 1 to 2, characterized in that the position of the image of the subject on either or both of the television screens is corrected using the added corrected numerical value.

37. The television screen according to claims 1 to 2, characterized in that the position of the image of the same subject displayed on two television screens, which were captured using two identical television cameras built into a smartphone, is corrected by a numerical value obtained by correcting one or both of the television screens so that they overlap.

38. The television screen according to claims 1 to 2, characterized in that a signal obtained by adding an image position signal relative to the subject of the image signal to the position on the image signal of the television screen is displayed on a television screen connected via the Internet network at a position corrected for the binocular parallax of the image position of the position signal.

39. The television screen according to claims 1 to 2, characterized in that a signal obtained by adding a binocular parallax correction signal for the position of a subject shown in the image signal to the position on the image signal of the television screen is displayed on a television screen connected via the Internet network, wherein the image signal is displayed on a television screen connected via the Internet network, and the signal is obtained by adding a binocular parallax correction signal for the position of a subject shown in the image signal to the position on the image signal of the television screen.

40. The television screen according to claims 1 to 2, characterized in that a signal obtained by adding a position signal relative to the subject reflected in the image signal to the position on the image signal of the television screen is displayed on a television screen connected via the Internet network at a position corrected for the binocular parallax of the image position of the position signal.

41. The television screen according to claims 1 to 2, characterized in that a signal is generated by adding a numerical value corrected so that the positions of the images of the subjects displayed on two television screens, which capture a stereoscopic image using two television cameras, overlap, to the position signal of the subjects displayed on the television screens, and the image signal is displayed on a television screen connected via the Internet network at a position corrected for the binocular parallax of the position of the image of the position signal.

42. A television screen according to claims 1 to 2, characterized in that it uses the added signal to broadcast television.

43. A television screen according to claims 1 to 2, characterized by receiving the aforementioned television broadcast and displaying it on a television.

Images