JP2000242185A - Dot display device by image height display patterning - Google Patents

Abstract

PROBLEM TO BE SOLVED: To prevent a judgment error by mis-reading, mis-viewing, misunderstanding or misdirection by high display of images by changing dot positions, sizes and intervals, the shapes of dots and pattern array and arrangement of angles to an indetermined form. SOLUTION: A transparent dot display image capturing detection gage is superposed on a dot display screen and is translated horizontally, perpendicularly, or diagonally, etc., to change the dot array of a straight form into an indetermined form of a high efficiency capturing display rate. Namely, the transparent dot display image capturing detection gage is superposed on a present shadow mask or a dot pattern of luminous bodies. A concentric circle is equally divided by 64 and only the eight lines of a horizontal line-and perpendicular line |, and diagonals of respective right and left 45 deg. / and emitted onto the radial lines from the central point are displayed as one neat straight line without any shaking at all. All the lines exclusive of thereof shake and more particularly the shaking is most significant within +-10 deg. of the particularly neatly display eight pieces.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

[Industrial applications] Various TV receivers for business and home use such as TV broadcasting (satellite broadcasting including HDTV, CATV, etc.), information and communication, multimedia, computer graphics (CG), medical, VTR, VTR camera, digital camera, video on demand, game, C
DROM, DVD, MO, various virtual reality (VR), industrial machinery and measurement, car navigation, mobile phone,
Dot display devices such as monitors and various displays in all fields such as portable TVs and calculators.
T), radar, various liquid crystal (TFT / DSTN, etc.), plasma, various projectors (front / rear projection type), laser (including LED), etc. In all fields that require various displays (including an electronic bulletin board, etc.), this is an application field including various systems and hardware such as software and chips and boards.

[0002]

2. Description of the Related Art Monitors such as television receivers and personal computers, various sports facilities such as street corners, baseball stadiums and horse racecourses, and large displays and news at the Expo venues, various playgrounds, amusements, various theaters, etc. All display methods and devices, including electronic bulletin boards, traffic information signs, various information boards such as gas stations and pachinko parlors, and printing, display pixels (dots and pixels) and express images with a collection of pixels. It is a method to do. In each case, except for some printing methods, there were some fundamental problems as follows. Computer technology, which is said to be fast-moving, is progressing, and multimedia that integrates network technologies such as images, video, audio, communications, and other database technologies, as well as electronics that enable various business activities on the Internet. -Commerce (EC) technology, cancer screening using medical images such as X-ray images, CT scans, MRIs, etc., of the degree of overlap between organs inside and outside the body, skeletons, muscles, blood vessels, and nerves, and the development of diagnostic technologies Establish medical image processing technology and image database, etc.Genetic recombination and incorporation technology for DNA, etc., medical and biotechnology of egg cloning technology, three-dimensionalization and interference of light, radio waves, sound waves, etc. Motor function analysis, CAD-CAM, civil engineering / architecture, design of various industrial equipment and electronic equipment, etc. Wiring, piping and elements in the manufacturing environment , Integrated circuits and their diversification, disaster prevention and crime prevention such as earthquake disasters, fires and landslides, environmental destruction issues such as dioxins, establishment of various VR (virtual reality) technologies in various fields, aircraft, ships, fishing boats and control towers Movement of aircraft on radar and surveillance work, traffic congestion information in car navigation systems, directions to destinations, confirmation of safety by arrows and letters and voices in the direction of travel, establishment of inspection technology for counterfeit bills, securities, etc. And other areas soared. Mistakes due to natural and realistic images and videos as seen by the human eye and “gaps” in checking and monitoring on dot displays and various displays. Misreading, misunderstanding, misconsideration, etc. will eventually lead to misjudgment, and with the expansion of a completely new advanced technology field, the risk of developing into a serious negligence accident relating to human life will increase in the future. For example, most of the monitors and various displays of television receivers, personal computers and the like, and CRTs (CRTs, etc.) are mainly shadow masks and aperture grills, and both are typical. Although many improvements have been made in recent years, no one has ever touched the shadow mask. The shadow mask and aperture grill method, the dot pattern of the shadow mask and the final display method on the screen are real-time,
With natural, realistic and smooth continuous tone like a photo,
Since the display monitor and various displays of the exposure and the development method using the silver salt cannot be manufactured in terms of physical and technical aspects, there is no choice but to express an image or video by a collection of pixels (dots). Geometric / mismatch by mismatching dots (round holes and square holes) such as shadow masks and aperture grilles with grid paper-like (lattice-shaped) pixels (dots) that make up the screen on monitors and various displays. The following basic problems such as lack of display data of pixel (dot) display on the screen due to physical factors remain unresolved, and liquid crystal, plasma, L
In the ED method, the same phenomenon occurs because the final display method is dot display expressed by a group of pixels on grid paper (lattice shape).

For example, paint and draw systems, CAD-CA
With application software such as M and drawing, if you input drawings, line graphs, maps, illustrations, etc. and display them on various monitors, horizontal lines (-), vertical lines (|)
Looking at the / line at an angle of 45 degrees to each of these lines and the oblique line of the ＼ line, the shadow mask method can draw a beautiful line without any backlash (jaggies). Within ± 10 degrees from the center of the line, the most rattled line that jumps four steps or three steps is a single straight line, but it becomes a lightning-shaped two-step continuous line. Lines and planes other than this angle are also displayed as coarse to fine stairs or lightning-type rattled continuous lines, although the degree thereof varies somewhat depending on the angle. If the concentric circle is divided into 16 equal parts and 16 lines are drawn and displayed radially from the center on various monitors, it is possible to understand at a glance which angle has the most backlash and the degree of backlash at each angle.

[0004] In particular, in the shadow mask or aperture grill system, a "blind spot" where no image / video expression can be displayed occurs due to the standard position, angle and size of each dot, and the data shape, size and display angle As a result, a phenomenon occurs in which small shape data is lost and cannot be displayed for a moment because it cannot be displayed.

This phenomenon is caused by the fact that the vertical scanning line is
Even in HDTV with a vertical resolution more than twice that of the TSC system and a TV resolution of 1000 TV lines or more, the blind spot area that cannot be displayed is simply reduced to half, and the exact same phenomenon occurs. On the contrary, the increased amount of calculation processing, the securing of the resident space of a huge memory, the darkness of the entire screen, and other adverse effects increased, and it was not a good idea to adopt it for both manufacturers and users.

[0006] Even in the aperture grill system, since the final display is the same dot pattern system as the shadow mask, exactly the same phenomenon occurs, but the filament of the aperture grill itself corresponding to the dot pitch of the shadow mask itself (wire). Because the beam becomes thinner and the amount of beam received (by the increase in the surface area of the phosphor) increases and it looks vivid, it does not mean that the resolution has increased at all, and ultimately only dot display is possible anyway. All the line segments, objects, backgrounds, icons, etc. are affected in the same way, and eventually, like shadow masks, suppresses unsightly jaggy phenomena and flickering (flicker etc.) where all contours and boundaries are loose. I couldn't do the thing.

When a normal rendering (image representation such as texture definition, etc.) is performed by modeling a sphere with a 24-hedron or less, the boundary of each surface is conspicuous and it does not look like a very smooth sphere.
By the smooth shading method utilizing the Mach band effect, the normal vector of the flat part of each surface (a kind of vertical method for each surface at each angle in the basic method for calculating the angle of light received by the subject) Vector interpolation) and the colors of the vertices (points at the boundaries between the surfaces) are linearly complemented. To put it simply, it performs a calculation process to make the colors in each surface familiar, and the inside of the outline looks smooth, but it cannot handle concave polygons. In addition to the fact that the outline of the image remains honest as the original polygon, the result of the outline correction function (a kind of enhancement) of the television receiver is that the backlash is further noticeable.

In the field of computer graphics (CG), objects that are too small to be displayed on the screen (blind spots), such as distant backgrounds and spots, are interpolated by shaking (jaggies) of contours and contours to make them inconspicuous. There is an anti-elishing method in this method, but this method interpolates the pixel of the color closest to that part in the dent part or fits it between small dots and physically and geometrically in the normal pixel. If the image cannot be displayed, one pixel is divided into two equal parts to 20 equal parts, and the color closest to that part is interpolated. In other words, the calculation processing time is increased, and blurring and rattling and jaggies become less noticeable. However, the effect is too thin for the calculation processing time to take longer than smooth shading, and it is not a fundamental solution.

As a simple method, there is a calculation processing method in which an image after rendering is drawn one pixel at a time in a horizontal and vertical direction or a diagonal line. However, this method can also look unnatural or handle other angles. In addition, there are basic problems such as calculation processing and securing memory resident space, etc., and it cannot be said that this is a fundamental solution. Even if anti-elishing is performed on software, it is limited to CG images and videos. There is no effect on live action. In any case, it is finally a problem of the current pixel display method itself, and it is clear from everyone's eyes that there is almost no effect, and it is said that the dot display method is destined.

Since the shadow mask and aperture grille patterns are completely uniform and have the same fixed shape at the center of both sides of the monitor and near the four corners, the same phenomenon appears at any position.

Not only straight lines but also various line segments, curves, free curves,
Concentric circles, ellipses, spheres, various three-dimensional objects having a three-dimensional curved surface, and all of the sights, backgrounds, real images, CG images / videos, etc. are equally affected.

In particular, in the aperture grill system, although the display area of the luminous body is large, the vertical stripes in the horizontal direction repeat R, G, and B in the horizontal direction from R to the next R.
It will jump over the line, the horizontal line will be rattled finely,
The vertical line is most noticeable when the angle shifts a little, and it is most likely to have a rough backlash, and not only the line segment but also the vertical boundary of each shaped face is discolored and the darker color blends into the lighter color. There was a point.

When an automobile or the like is traveling forward, the tires appear to rotate in the reverse direction or appear to stop at all in the image from the side or obliquely from the front.

[0014] When objects of the same surface material or color are the same, or objects of similar colors are overlapped, their outer shapes and movements melt into each other, making them invisible and very difficult to see.

[0015] Subtitles, drawings, charts, graphs, maps, illustrations, and the like in foreign films and the like are disturbingly visible or mixed with the color of the background and cannot be seen well, and diagonal lines and outlines of each object are visible on the screen. Hateful, hateful because vertical or diagonal line segments are interrupted due to color misregistration, backgrounds and spots, finely complex shapes such as rotating ferris wheels, distant neon lights, signs on signs, etc. Not at all, disappears momentarily at a certain angle, flickers, etc.

The more complicated and finely-shaped objects (the ones with a large amount of data), which are the biggest drawbacks of MPEG and the like,
The calculation processing such as the shape and texture expression was not performed in time, and was displayed as a mosaic tile of 8 × 8 pixels = 64 pixels, and there was also a drawback that what was desired to be seen or needed to be confirmed was not seen.

[0017]

[Problems to be solved by the invention]

The "dead angle" in which the shape cannot be displayed at an angle and its vicinity is eliminated and displayed.

A line segment, a line segment, and a character, as well as a polygon or a polyhedron (Polygon) formed by collecting pixels.
Establish a method to significantly reduce and reduce jaggies in two-step and three-step jumps at display angles indicated by.

It is possible to efficiently display an image / video of an object such as an entourage or background, an object which is too small and lacks shape data or cannot be displayed.

The anti-elishing method enables image / video expression of shape data which was too small at the current resolution and could not be displayed, and made rattling (jaggy) less noticeable.
Easily understand the final display characteristics of various dot display methods and display characteristics of various display methods due to various types of pixels, pattern arrangements and arrangements of various types of light emitters, phosphors, and liquid crystal color filters. For example, a dot display image capture detection gauge such as the one shown in FIG. 1 devised by me is clear, so, for example, a shadow mask, an aperture grill, and various types of light emission are provided for angles at which jaggies are most intensely displayed and angles that are likely to occur. By changing the angle and position, size, arrangement and distribution of various patterns of the body and pixels such as liquid crystal color filters, etc., to minimize the "display blind spot" and the occurrence of jaggies, etc. As with the elimination method, not only the calculation process is performed by software alone, but also some of the above-mentioned hardware improvements are performed, and the fundamental problem is solved. To prevent the occurrence in advance.

Realization of a significant mitigation on the display surface of the biggest disadvantage of MPEG.

It is necessary to secure a correct rotation direction and prevent flicker due to interference of light and pixels.

[0024] Prevention of misjudgment caused by misreading, misunderstanding, misunderstanding, misregistration, etc. caused by these display phenomena, and excellent image / video expression as seen realistically and realistically by human eyes. To the limit and the establishment of an accurate method.

[0025]

[Means for Solving the Problems]

First, the shape and size of the pixel itself are changed.

Second, the position of the dots in the conventional fixed pattern is compared with the whole or a specific portion of the conventional pattern, and a linear dot arrangement which causes a lack of image display or a blind spot is changed to obtain a high efficiency capture display. Change the rate to an irregular type.

Third, the angle of each dot and its integrated pattern is changed on the scanning line as much as possible.

At any position on the screen, a variety of shapes (objects) as well as movements, backgrounds, spots, and distant views are displayed and displayed. Therefore, the transparent dot display shown in FIG. It can be horizontally, vertically, or diagonally superimposed on the screen and evenly divided into 1 to 5 degree units depending on the size of the screen to ensure accuracy in the circumference. Draw a straight line on any position on the screen, and display dots, lines, characters, straight lines, as well as concentric circles, ellipses, curves, free curves and phases, polyhedrons, spheres, etc.
The basic problem can be solved by increasing the display capture rate of the shape data by each dot as efficiently as possible without increasing the resolution as much as possible (rather than simply increasing the number of dots) by arrangement or the like. The shape display image capture rate can be confirmed and verified for each dot with a transparent dot display image capture detection gauge as shown in FIG.

[0030]

[Operation] The printing culture has a history of hundreds of years, but the history of cathode ray tubes and television broadcasting has only been used for decades.
Initially, shadow masks used screens of print culture that have already been used for hundreds of years, but the fundamental differences from printing and how to avoid basic problems are clear, and the following points are important. You can understand at a glance.

First, the above-mentioned fundamental problem is that no phenomenon other than the flickering (moiré) similar to the turtle shell occurs in the pattern or pattern of the clothes of the announcer or the talent.

The main cause is that the printing pixels (dots)
Each pixel itself is pure white (0%) to pure black solid coating (100%).
%), The size of the pixel can be freely changed.

Various monitors and displays use the three primary colors of light, R (red), G (green) and B (blue). In printing, there are white and black inks. It plays a very important role in image and video expression of images and photos, tightens the image, and has a depth and depth that is not thin but sharp and sharp.
Therefore, it is excellent in real image expression, and it can have smooth gradation from pure white to pure black, and even if it is simply called black, it is subtle black by additive color mixing (smooth natural gradation ) Is reproducible and has excellent reproducibility. Black in the case of the three primary colors of light turns off R, G, and B and does not emit light. In addition, since it does not have subtle gradations due to additive color mixing, it is suitable for subtle images and video expressions with depth and depth. Not.

Furthermore, the most serious problem is that the three primary colors (yellow, red, blue) + black are the four primary colors (YMC) + K for printing, but each color has a shadow. The angle of the screen of the dots corresponding to the mask is changed by 15 degrees so that the dots do not basically overlap each other. Of course, when adding colors other than the four primary colors by additive color mixing, the size of the dots of each color is changed and the degree of overlap can be freely adjusted in dot units, and delicate control is possible, as well as delicate art books etc. Fine art prints that require color tone and image expression are printed in 6 colors, which are two colors, light red and light blue, and the number of dots per inch is 200.
Above the line (corresponding to the scan line), the resolution is inferior to the print and shadow masks and aperture grills of monitors and various displays. For reference, the printed matter and the screens of various monitors can be understood at a glance by comparing them with a magnifying glass.

The definition of the resolution is about 1 inch for printing, and the monitor has a resolution that cannot be compared per screen, and the size of the pixel (dot) itself can be freely changed. Further, the angle can be changed by 15 degrees for each color. Even if the number of colors is increased to 16.7 million colors by digitization as it is, if these fundamental problems are not improved at all, it will be completely meaningless. Current monitors and various displays cannot change the size and angle of the dots themselves! Even with black, which plays an important role in visual expression,
Although there is a fundamental problem that bears such a large handicap, such as the ability to express gradations as natural and smooth as printing is impossible, and even the expression of subtle black due to additive color mixing is impossible, printing is completely impossible. Using the same shadow mask and illuminant pattern, even with an aperture grill, at first glance it seems that various shape data can be picked up at any angle and position, but the resolution has not increased at all and it looks a bit more vivid than just a shadow mask It was just.

Therefore, the conclusion of the operation is that in all dot display devices such as a shadow mask, an aperture grill, an LED display system, various liquid crystals, various electric light display panels, etc., a standard defect that all dots, which is a conventional defect, is aligned in a line. The dot pattern cannot be solved even if the number of pixels (the number of dots) is increased, and it is not a good idea in terms of hardware and software calculation processing and cost performance. Since the current dot pattern cannot mathematically and physically correspond to any shape expression, a dot display image capture detection gauge as shown in Fig. 1 is created, and a circle, ellipse sphere,
Dot positions, sizes, and angles corresponding to any shape, linearly and cubically, corresponding to the basic X, Y, and Z directions and other angles in relation to the three-dimensional curved surface, free curve, etc. If the pattern of the shadow mask or aperture grill is changed without changing the device, the "display blind spot" in which the position change on the scanning line is prioritized should be reduced as much as possible, but depending on the control of the electron gun, it is more complicated. It is of course possible to move the pixel (dot) position or the pixel (dot) shape.

[0037] Anti-elishing enables image and video representation of shape data which was too small to be displayed at the current resolution, and makes rattling (jaggy) inconspicuous. The display characteristics of the monitor for each dot display method are the final display due to the pixels, pattern arrangement and arrangement of various types of luminous bodies, phosphors, and various liquid crystal color filters, for example, the figure that I devised. -1 etc. Dot display image capture detection gauge, so that it becomes clear, for example, the shadow mask, aperture grille, various luminous bodies and the liquid crystal type color filter for the angle where jaggies are displayed intensely or at the angle where it is likely to occur The pixel angle and position, size, arrangement and distribution of various patterns, etc., are minimized for “display blind spot” and the phenomenon of occurrence of jaggies. Instead of performing calculations using software only, as in the time-consuming anti-elishing method, it is necessary to perform some of the hardware improvements described above to prevent the occurrence of fundamental problems. To prevent.

[0038]

FIG. 1 shows a dot display image capture detection gauge.
Add circles, ellipses, curves, and surfaces to this. Fig. 2-1
Is an enlarged view of a conventional shadow mask pattern, and each company has exactly the same pattern arrangement. FIG. 2-2 shows a “blind spot” in which small shape data (oblique straight line portion) does not fit into the shadow mask pattern of the U.S. and is not displayed. . FIG. 3-1 shows a pattern of a printing screen (corresponding to a shadow mask of a television receiver or a monitor). However, the dot pitch is overwhelmingly smaller than that of a television receiver or a monitor of a personal computer. Exactly the same.
In FIG. 3B, the angle is changed by 15 degrees for each color, and the resolution is doubled per inch for each additional color, and as a result, the dots are not overlapped. 4
In the case of color, the number of pixels (dots) increases by a factor of four, and at the same time, each pixel (dot) does not overlap, and the printing dots are very fine, resulting in a dot display image of the shape data at any angle. Since the rate can be raised to perfection, the only fundamental figure in the moiré phenomenon caused by the delicate pixel (dot) rubbing such as the expansion and contraction of the paper and film of each color and the aberration of the lens is the only fundamental. Is a serious problem. FIG. 4 shows an example of an aperture grille and a vertical stripe light emitting element pattern. FIG. 5 shows an example of a dot pattern of the aperture grille, mainly of Trinitron (Sony), and FIG. 6 shows an example of Diatron (Mitsubishi Electric). FIG. 7A is an enlarged view of a conventional dot pattern. As shown in FIG.
The shape data (solid line portion) that is arranged in a line and fits between the dots disappears for a moment when a rotating moving image is obtained because each pixel (dot) cannot be captured at all (blind spot). Fig. 8-1 is an enlarged version of the transparent dot display image capture detection gauge of Fig. 1 that I devised, superimposed on the current dot pattern of a shadow mask or luminous body. Only eight horizontal lines and vertical lines | and eight diagonals of 45 degrees each on the left and right, which are displayed on the radiation from the point, are displayed as one beautiful straight line without any backlash. The centers of each dot are aligned.
All the other lines have a backlash, especially within the range of eight + -10 degrees displayed beautifully as described above. 36
How many straight lines, which divide the 0 degree into 64 equal to about 5.625 degrees, all on the same length of radiation from the center point of the circle, are at the center of each dot or as far as possible at the center? The display characteristics of the pattern can be easily understood by counting. Of course, the same result is obtained when the dot shape is round or square. See Fig. 8- (D. The four horizontal lines and the vertical lines are necessarily 9 including the center point, and the four oblique lines at 45 degrees on the left and right are the most This is a phenomenon where each dot pattern is regular and fixed, so that any position on the screen of a monitor or various displays, even if it is translated at any angle, is the same. Paradoxically, changing the dot at the lowest worst-case image preservation rate (eg, position, angle, shape, size,
Number, etc.) and raise the retention rate even a little.

FIG. 8B shows the relationship between each angle by the dot display image capture detection gauge of FIG. 1 and the number of pixels (dot number) in a curve formed by concentric circles and concentric circles. Black dots are dots captured at each angle and in a square grid of a grid paper shape, and white circles are dots not captured. FIG. 8-2 (D is a dot array pattern including the current shadow mask and luminous body, and D-shaped square dot is a dot array pattern including the aperture grill type luminous body. Therefore, at first glance, the square pattern seems to solve the fundamental problem as a result of the matching of the dot pattern forms. However, television broadcasting also adds RGB signals to monochrome images, so The same phenomenon occurs because continuous interpolation cannot be performed with a gap.
-2 (C is a high-definition television in which only the number of dots is doubled (resolution), but blind spots where dots are not displayed are only halved, and blind spots which are not displayed are more than doubled. 8B. (B and (A are the dot positions of the current method, and (A) are the dot positions of the current method.) By changing the angle, size, etc., the dots for each angle and the dots in the horizontal and vertical directions can be used as much as possible, efficiently increasing the dot display image capture rate of various shape data without increasing the number of dots as much as possible. Raised
An example of a pattern of a shadow mask and a luminous body with a “high display ratio” is shown. A white circle is very effective in capturing small shape data such as a curve or a curved surface unlike FIGS. 8-2 (D and 8-2 (C). Which position, angle, circle / ellipse, sphere, B on the screen
It is also possible to obtain various shape data such as various curves including free curves such as splines, various three-dimensional curved surfaces, etc.
The unpleasant and unsightly jaggy display and the harmful effects of light and dot interference (stripes) are also minimized. The part where the black circles overlap in the figure does not overlap when scanning only on the current horizontal line, and if the electron gun has a function that can be controlled, it is naturally possible to do both, but the current microcomputer technology Thus, accurate scanning is possible even with more complicated dot shapes and positions. This enables real-time calculation processing and display of all monitors and various dot display devices, such as shadow masks and aperture grille systems, and extremely smooth continuous natural gradation expressions such as photographs (silver salt development system). As long as a physical monitor or display is not possible, the fundamental problems caused by mismatching with the final dot display device can be largely solved. FIG. 9-1 shows the final screen of various current monitors and displays such as shadow masks, aperture grilles, LEDs and light emitters of small light bulbs, etc., in which pixels (dots) are displayed in a grid-like grid paper. You. One straight line and a part of a sphere or a circle are finally displayed. There are two-image display characteristics for each display pattern of each cable including various liquid crystal color filters, but none of them look like a single straight line, sphere, or circle as you can see, and depending on the angle, it may jump five steps or more. It has many fundamental problems, such as not being able to express images and videos such as rotation and directionality, as well as natural (real) and accurate shape display. In the monitoring and checking work on various monitors, the number of cases leading to misjudgment due to misreading, misreading, misunderstanding, etc. is rapidly increasing. It is not only possible to display only the horizontal and vertical directions (angles) completely with the current standard type and uniform quadrangle, but also to make it possible to display a triangular display divided into four diagonally in addition to the current quadrangle Also, the outline display of diagonal lines, polyhedrons, and various curved surfaces is not perfect, but is smoothed, and a great effect can be obtained in preventing interference of light and dots (stripe). FIG. 9B is an example in which various icons are formed by 1,024 pixels of 32 dots in each of the vertical and horizontal directions, and are actually used for a product. The horizontal outline of the flag with numbers, where the problem can be understood well, is rattling. Also, the curved portions and the oblique portions of the outer shape of the English characters of JR and the katakana characters of supermarket are rattled.

[0040]

[Effect of the Invention] High-definition (high-definition) satellite / CAT
V and other TV broadcasts, shopping on the Internet and Electric Commerce (EC), recognition of new products, and various guidance, environment and disaster prevention, crime prevention, radio interference, industrial machinery and systems, civil engineering and construction, aircraft, and take-off and landing aircraft Control towers for checking shadows, vehicles such as ships and Shinkansen, weather, CT scan, M
Medical image processing of skeletal, muscular, built-in overlaps such as RI, blood vessel and nerve, etc., multimedia by integrating each element technology such as video, audio, network, database, etc.
Map information (GIS), road signs and information boards, car navigation systems,
In mobile TVs, mobile phones, large displays on street corners, ground and subway vehicle operation systems, new transportation systems, various simulation systems, etc., the confirmation and monitoring work using various monitors and various displays is increasing rapidly. The current monitor and various displays have the arrangement and arrangement of dot patterns of the shadow mask, color filters such as aperture grille and various liquid crystals, and vertical grids and patterns of luminous bodies. Is a mismatch between the grid-like pixel (dot) display of the grid and the visual lack (blind spot) of small-sized surface data including backgrounds, sights, etc. due to mismatching, and the backlash of the outline of each object (jaggy). ) And misjudgment due to misunderstanding, misreading, misunderstanding or misunderstanding, etc., can easily lead to serious negligence accidents that are life-threatening, and the role and responsibilities of monitors and various displays will continue in the future. There is something immeasurable. According to the present invention, it is possible to approach real and real image / video expression at least as much as possible, and to enable real and real image expression as long as possible to eliminate gaps and heads from the real thing, from misunderstanding or misunderstanding. In addition to preventing serious negligence that can be life-threatening from misjudgment, it also prevents the production of digital movies, television programs, television commercial films (TVCM, TVCF), newspapers, magazines, and various catalogs. Desktop Publishing such as Publishing (DT
P), CD-ROM works such as various personal computer software, various movies, electronic picture books, electronic catalogs, car navigation software, etc.
In VD works, various game software fields, and various multimedia contents fields, in order to make jaggies in the field of production of still images to various moving image works inconspicuous, the calculation processing time in anti-elishing is mainly used for printing stills. The image has a very large number of pixels (dots) and a large amount of data,
The storage capacity of the memory is not stupid, and the load operation time of the computer is large. 30 per second for more videos
Since the frame must be calculated, 3
Even a minute production requires 5,400 frames of calculation processing, and this anti-elishing processing is usually set to five steps from 0 processing to medium or 2 or 3, 4, 5 which is almost inconspicuous. It can be done, but the calculation processing time sharply increases as it becomes less noticeable as 2 → 3 → 4 → 5, causing a drastic increase in data amount and memory requirements, a rise in production time and cost, and an increase in power consumption. Even in terms of carbon dioxide emissions, it was extremely high, and ultimately it was not a good idea for anyone. Rather than fundamentally and completely changing the monitors of television receivers and personal computers, as well as the various displays and methods, it is only necessary to change a part of the conventional production line. It is a product that is cost-effective for customers, in addition to being suppressed, so the recent large size and high image quality, the demand for the Internet and personal computers, car navigation, DVD, karaoke,
There are many opportunities for new purchases and replacement demands for mobile TVs and digital cameras, and anyone can easily understand by comparing the screens. The illustrations are also natural and easy to see, so there is less eye and nerve fatigue during prolonged use,
The diffusion rate seems to be very fast. Therefore, the effect of the invention is truly immense in a vast field, and the enormous effect of the invention on a global scale can be expected.

[Brief description of the drawings]

FIG. 1 Transparent dot display image capture detection gauge

FIG. 2-1 is an enlarged view of a conventional shadow mask pattern.

FIG. 2-2 “Blind spot” in which small shape data or the like (oblique straight line portion) is not visible for a moment.

FIG. 3-1 is a pattern of a printing screen.

[FIG. 3-2] A pattern in which the angle is changed by 15 degrees.

Fig. 3-3 Moiré phenomenon

FIG. 4 shows an aperture grille and a vertical stripe light emitter pattern.

Fig. 5 Dot pattern of aperture grille, mainly Trinitron (Sony),

FIG. 6 is an example of Diatron (Mitsubishi Electric).

FIG. 7-1 is an enlarged view of a conventional dot pattern.

FIG. 7-2: Shape data in which dots are arranged in a line on a straight line, and are fitted between the dots (solid line portions)
Means that each surface element (dot) cannot be captured at all (blind spot)
If you make a rotating video, it disappears for a moment.

FIG. 8A is an enlarged view of the transparent dot display image capture detection gauge of FIG. 1 superimposed on a dot pattern.

8D is a dot pattern of a current shadow mask, a light-emitting body, or the like, in addition to which the pixel itself has a square shape or a rectangular shape other than a circle. Fig. 8-2 (C) Hi-Vision with twice the current number of pixels. Fig. 8-2
(A) An example in which the dot display surface image capture rate is increased efficiently FIG.
-2 (B) An example of efficiently increasing the dot display image capture rate

Fig. 9-1 The final screen of the current various monitors and displays is displayed as dots on a grid paper like a grid, and one straight line and a part of a sphere or a circle are finally displayed. What you displayed.

FIG. 9B is a display example of an icon actually used for a product.
32 dots vertically and horizontally

──────────────────────────────────────────────────続 き Continued on the front page (51) Int.Cl. ⁷ Identification symbol FI Theme coat ゛ (Reference) G09G 5/28 610 G09G 5/28 610Z F term (Reference) 2H091 FA02Y FA34Y FA41Z FD01 LA19 2H092 GA12 GA21 NA01 5C080 AA05 AA07 AA10 CC03 DD02 EE01 EE17 EE29 FF09 JJ01 5C082 AA01 BA02 BA12 BA35 BD00 CA22 CA85 MM10 5G435 AA00 AA01 BB02 BB03 BB04 BB06 BB12 CC01 CC09 CC12 DD01 FF01 GG12 LL01 LL12 LL11 LL02 LL12 LL03 LL03

Claims (4)

[Claims] 1. A monitor with all pixel (dot) display devices and a current state of pixels such as various display devices such as a shadow mask and an aperture grille, a display color filter such as a liquid crystal, and a dot position of various light emitters. The pattern arrangement and arrangement, such as the size and spacing, the shape and angle of the dots, and the relationship between the current arrangement and arrangement pattern with certain fixed rules, the luminous body, and the upper-chamber grille, Various display devices and methods for changing the physical and visual type to an irregular type or the like and displaying an image higher than the current state. 2. By changing the arrangement and arrangement of screen display pixels (including various illuminants and color filters) having a predetermined fixed rule at the present time, a line segment at any angle and various figures to be displayed are displayed. Also, any display devices and various displays including an electronic bulletin board, etc., in which the shape surface and contour of each object are prevented from rattling (jaggy) and the display is higher than the current state, and various displays and methods. 3. A dot display device of any one of claims 1 and 2, including an aperture grille and all CRTs, an electric bulletin board, a screen, an LED, a liquid crystal (such as a TFT), and a plasma type. Patterns of aperture grille, shadow mask, various color filters of liquid crystal, various luminous bodies, etc., and display pixel patterns on the screen, which are displayed higher than the current state. 4. A RAM automatically controlled by utilizing the functions and functions of claims 1, 2, 3, and 3, or a hardware such as a chip, a board, or a system.