JP2012238046A - Image display processing device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an image display processing device which can quickly display desired information even by a viewer using a memory with relatively low capacity and/or a CPU with low performance.SOLUTION: In an image display processing device, a CPU 11 classifies digital spatial data into a space layer including space order for specifying digital spatial data by space, a time layer including time order for specifying digital spatial data by time, and quality layer including quality order for specifying digital spatial data by quality, then determines their priority order. For displaying information of an area selected by a user on a display screen, the CPU selects digital spatial data on the basis of the determined priority order, so that even a viewer using a memory with relatively low capacity and/or a CPU with low performance can quickly display proper information on the basis of the selected digital spatial data.

Description

  The present invention relates to an image display processing apparatus that displays an aerial photograph image or a map image based on digital spatial data using a viewer function of a small portable information terminal device (information processing terminal) such as a PDA or a notebook PC.

  For example, an image display processing device that executes processing for drawing and displaying a map image on a display device is known. Such an image display processing device generally has a map image scrolling function. Scrolling refers to displaying a desired place by moving a map image two-dimensionally up and down and left and right on the screen display. An example of such an image display processing device is disclosed in Patent Document 1, for example.

JP 2008-41028 A

  According to the prior art of Patent Document 1, the basic structure elements (rectangular image data, rectangular index data) are simple and independent, so that the structure of the information structure can be mass-produced at low cost and can be flexibly applied to various types of information. It can correspond to. Further, according to the image display processing device of the present invention, appropriate information (rectangular image data of an appropriate layer) corresponding to the position and range of interest is selected and displayed from a large amount of position and shape information. Therefore, the user is always provided with sufficient information as necessary.

  On the other hand, in the same region, taking time-lapse aerial photographs and satellite photographs, or creating map data and GPS data, various raster data and vector data are created. In particular, there are a number of image formats such as JPEG, JPEG2000, and PNG other than Tiff alone, and there are those that allow lossy compression and those that allow a pyramid structure having a plurality of resolutions internally. For lossless compression and pyramid image technology, Mr. There are various formats such as SID (Lizard Tech) and ECW (Leica Geosystem). These are designed to hold data far exceeding the upper limit of Windows OS, 2.1 GB (windows 32-bit machine). This Mr. SID and ECW can display the basic resolution such as enlargement / reduction and panning instantly with the pixel on-demand function and the benefits of the wavelet compared to the image format such as ordinary JPEG. The file size can be kept small to about 1/2 to 1/6, and it is also used for data communication. Since there are various types of raster data and vector data in this way, when an image is to be displayed on a display for a certain area, the problem is how to quickly display an image required by the user. Here, if all the raster data and vector data are stored in a large-capacity memory and a CPU capable of high-speed processing is used, it is possible to quickly display images of all locations on the earth. It is difficult for a small portable information terminal device.

  The present invention has been made in view of such problems, and provides an image display processing apparatus that can quickly display desired information even with a viewer using a relatively low-capacity memory or a low-performance CPU. Objective. In addition, the present invention provides an image format and display processing technology that can freely replace actual data because at least one or more header information indicating the display range and properties is automatically generated from actual data every time. Provide an image format that can perform optimal display even when images and vector data of at least two periods overlap, and a format and display processing technology that can automatically recognize and display vector data and raster data Provides a display processing technology that has a mechanism for accessing, extracting, and displaying necessary data from the integrated digital spatial data in the shortest time. Further, even in a powerless machine, the upper limit of the main memory (RAM) is not exceeded. An object of the present invention is to provide a display processing technique having a dependency index mechanism.

The image display processing device according to claim 1, wherein the image display processing device is used to display an image based on at least one of a plurality of digital space data corresponding to the same region.
Each digital spatial data is given a spatial order related to the resolution of the image, a time order related to the data creation time, and a quality order related to the quality of the image,
The image display processing device has an integrated index means for determining a display order for a plurality of digital spatial data corresponding to the same region based on the spatial ranking, the temporal ranking, and the quality ranking,
An image is displayed based on the digital space data selected according to the determined display order.

  According to the present invention, the image display processing device determines a display order for a plurality of digital space data corresponding to the same region based on the space order, the time order, and the quality order. Therefore, even in a viewer using a relatively low-capacity memory and a low-performance CPU, an appropriate image is quickly displayed based on the digital space data selected in the display order.

  According to a second aspect of the present invention, in the invention according to the first aspect, the integrated index means assigns a score to the digital space data corresponding to each rank, and is assigned corresponding to each rank. The digital spatial data is listed in the display order according to the total score obtained. Thereby, digital space data desired by the user can be selected in an integrated manner.

  According to a third aspect of the present invention, in the image display processing device according to the second aspect of the present invention, weighting is performed according to each rank in the summation of the scores, the weight of the spatial rank is the highest, and the weight of the quality rank is Characterized by the lowest. This facilitates selection of digital space data desired by the user.

  According to a fourth aspect of the present invention, in the invention according to the second aspect, the weighting can be arbitrarily changed. For example, the weighting can be arbitrarily changed according to the user's request. Specifically, the weight of the time order may be set highest, and data at a time desired by the user may be displayed first.

  According to a fifth aspect of the present invention, in the invention according to any one of the second to fourth aspects, the spatial resolution of the digital spatial data in the spatial order is a display resolution at which an image is displayed based on the spatial resolution. The score is higher as the distance is closer, and the score is lower as the spatial resolution is farther from the display resolution. This facilitates selection of digital space data desired by the user.

  The image display processing device according to claim 6 is characterized in that, in the invention according to claim 5, the spatial resolution of the digital space data is distributed in a range of 0.001 mm or more and 40000 km or less. Thereby, it is possible to deal with digital image data ranging from the microchip to the entire earth.

  According to a seventh aspect of the present invention, in the image display processing device according to any one of the second to sixth aspects, the digital spatial data at a data creation time close to a time when the image display processing device is used in the time order. Is characterized in that the score increases and the score decreases as the image display processing device is moved away from the point of use. This facilitates selection of digital space data desired by the user.

  An image display processing device according to an eighth aspect is characterized in that, in the invention according to any one of the second to seventh aspects, the score increases or decreases according to the type of image in the quality ranking. For example, the desired digital space data can be changed according to the user's usage frequency and preferences.

  The digital spatial data preferably includes raster data and vector data. “Raster data” includes data such as aerial photographs and satellite photographs. “Vector data” refers to map data, GPS (Global Positioning System) data, DEM (Digital Elevation Model), omnidirectional camera data, Includes a ledger DB. The term “information” includes an aerial photograph image, a satellite photograph image, a map image, a GPS image, and the like.

  According to the present invention, it is possible to provide an image display processing device capable of quickly displaying desired information even with a viewer using a relatively low-capacity memory or a low-performance CPU. In addition, the image data set is divided so that the index range (Extent) of the actual data is 32 times to 4096 times the actual data resolution, and is composed of a three-layer structure (spatial resolution one hour and quality), Triple ranking, ranking in space, time and quality, and providing an image data set designed to have the highest space and inferior quality, minimizing memory Provide an index display mechanism, and provide an image display processing apparatus having an index mechanism that basically has a constant search time in any layer, and automatically generates integrated index information every time to directly access the header, An image display processing device with high durability against real data replacement is provided, and the display area is divided into at least about 2 × 2 or more to determine the overlap of index information of actual data. Even if the data is in the shape of a concave key or L, we provide an image display processing device that can calculate the division range and always select the optimal digital space data, and directly access the actual data An indexing mechanism designed to allow the scanning of the display area header from the smallest index data step by step, and search for digital spatial data with the optimum spatial resolution, age, and quality. Since there is no limit on the amount of data, it is expected to be able to handle data from all over the world, and it is possible to build a file size of one file up to 16TB / 1 file. Since it is automatically generated, it is possible to have an infinite number of files. Even in the latitude / longitude image format, it is possible to display while maintaining double precision (low). Spec machines have the effect of drawing required data in the display area at high speed, and the optimal digital spatial data within the range requested by the user is based on the above three-layer structure (data resolution, year, and quality). Can be displayed at high speed. The present invention can be used especially for mobile terminals such as PDAs and smart phones, can also be used for powerless laptops and desktop PCs, and can also be used in the server / client system using cluster servers and large-scale servers in the field of geographic information. The search range designated by the client can be synthesized from the integrated index on the server and transmitted to the client, and the JPG2000 or WebP format can also be used to shorten the transfer time.

It is a schematic block diagram of the whole system of the image display processing apparatus which concerns on this Embodiment. It is a figure which shows the system flow concerning this Embodiment. It is a figure which shows a quadrangle (Quadra) and an extent (Extent). It is a figure which shows the quadrilateral (Quadra) and extent (Extent) incorporated in the layer. It is a figure which shows the 3 layer structure of a space layer, a time layer, and a quality layer. It is an example of a spatial ranking table. It is an example of a time order table. It is an example of a quality ranking table. It is a figure which shows a layer (Stratum). It is a figure which shows a layer structure (Strata). It is a figure which shows the layer structure (Strata) dividedly stored. It is a flowchart which shows the scanning of digital space data. It is a figure which shows how to give a score. It is an example of the digital space data which attached the priority in a cell. It is an example of the digital space data which attached the priority in a cell. This is an example in which the number of the first place in one cell is tabulated. It is an example of a layer sent to the display list. This is an example of selecting the next candidate. This is an example of selecting the next candidate. This is an example of listing. It is a figure which shows the example of the memory | storage to a display ready storage area.

  Embodiments according to the present invention will be described below with reference to the drawings. The image display processing device according to the present embodiment relates to processing for efficiently displaying digital image information (also simply referred to as information) such as a map and a graphic in a virtual plane area (window or view) of the information processing device. is there. FIG. 1 is a schematic configuration diagram of the entire system of the image display processing apparatus according to the present embodiment. The main body of the image display processing apparatus system according to the present invention is assumed to be constructed by a small portable information terminal device such as a PDA (Personal Digital Assistant) or a notebook PC (Personal Computer). Although the best results are obtained when the present invention is applied to information terminal devices, the present invention is not necessarily applied to small portable information terminal devices and the like, and is not limited to small personal information terminals or other information. It can also be applied to equipment.

  In FIG. 1, 10 is a system bus, 11 is a CPU (Central Processing Unit), 12 is a RAM (Random Access Memory), 13 is a ROM (Read Only Memory), 14 is a communication control unit that controls communication with an external information device, 15 is an input control unit such as a keyboard controller, 16 is an output control unit such as a display controller, 17 is an external storage device control unit, 18 is an input unit including input devices such as a keyboard, pointing device, and mouse, 19 is an LCD display, etc. The output unit 20 includes a display device (viewer) and a printing device, and an external storage device 20 such as an HDD (Hard Disk Drive).

  In FIG. 1, the CPU 11 retrieves and acquires data by communicating with an external device in accordance with a program ROM stored in the ROM 13 or a program stored in the large-capacity external storage device 20. Processing of output data in which graphics, images, characters, tables, etc. are mixed is executed, and management of a database stored in the external storage device 20 is further executed.

  The CPU 11 controls the devices connected to the system bus 10 in an integrated manner, and particularly functions as an integrated index unit by reading software. The program ROM in the ROM 13 or the external storage device 20 stores an operating system program (hereinafter referred to as OS) that is a basic program for controlling the CPU 11. The ROM 13 or the external storage device 20 stores various data used when performing output data processing or the like. The RAM 12 functions as a main memory and work area for the CPU 11.

  The input control unit 15 controls the input unit 18 from a keyboard or a pointing device (not shown). The output control unit 16 controls output of a display device such as an LCD display and a printing device such as a printer.

  The external storage device control unit 17 is an external storage such as an HHD (hard disk drive) that stores a boot program, various applications, font data, user files, editing files, a printer driver, or a flexible disk (FD) in some cases. Control access to the device 20. Further, the communication control unit 14 controls communication with an external device via a network, thereby acquiring data required by the system from a database held by an external device on the Internet or an intranet, It is configured to be able to send information to an external device.

  In addition to an operating system program (hereinafter referred to as OS) that is a control program of the CPU 11, the external storage device 20 is installed and stored with a system program (for example, an integrated index) of the image display processing device of the present invention and a database used in this program.・ It is remembered.

  Next, the layer structure in the digital space data used in the image display processing apparatus according to the present embodiment and the concept of the rectangular image data (and the rectangular index data that is the index) constituting each layer will be described.

  The present invention is assumed to be used for a map viewer or the like in a small portable information terminal device (information processing terminal) such as a PDA, a mobile phone, a smartphone, a tablet PC, or a mobile notebook PC. In a viewer in such a small portable information terminal device, display processing such as enlarging / reducing a desired location on a map that the user wants to refer to or moving by scrolling must be performed. Such display processing must be performed instantaneously so as not to cause the user to feel stress, but is mounted on small portable information terminal devices due to power consumption problems and restrictions on space in the device housing. The power of the CPU is also limited, and therefore it is usual that complicated processing such as image processing requires processing time. According to the present invention, the integrated index means lists information that is expected to be desired by the user in advance and stores the identification ID so that the optimum information is selected. It is intended to perform high-speed scrolling and high-speed enlargement / reduction without causing stress.

  FIG. 2 is a diagram showing a system flow according to the present embodiment. First, as pre-processing, aerial photograph image, satellite photograph image, map data, GPS (Global Positioning System) data, DEM, omnidirectional camera data, digital space data such as ledger DB are divided into small plane units, which will be described later. In this way, the layers are configured, and identification IDs are individually assigned and stored in predetermined storage areas (space 202 to space 205).

  On the other hand, the CPU 11 of the image display processing apparatus according to the present embodiment reads and executes the integrated index as software. The CPU 11 uses a search engine to score individual information stored in a predetermined storage area (space 202 to space 205), and lists and stores identification IDs in descending order of the score. The integrated index is read by the CPU 11 every time the image display processing apparatus is activated.

  In the present embodiment, the concept of quadrilateral and extent is used to associate vector data with raster data. For example, in FIG. 3, there is a case where the map image MG is superimposed on the aerial photograph image AG. At this time, the map image MG is represented by a plurality of black dots and line segments connecting them, and further corresponds to this by plane coordinates ( The aerial photograph image AG (for example, inscribed) is represented by a dotted line. These are stored so as to overlap (correspond to) as part of the stratum as shown in FIG.

  Further, the digital spatial data layer (stratum) used in the present embodiment will be described. As shown in FIG. 5, each digital spatial data in the same region has a three-layer structure of a spatial layer, a time layer, and a quality layer. Here, a plurality of data are ranked in the spatial layer with the resolution as the spatial order, a plurality of data are ranked within the time layer with the data creation time as the time order, and a plurality of data with the quality of the image as the quality order. Rank within the quality layer.

  More specifically, in the spatial layer, as shown in FIG. 6, the spatial order is set from 0 to 229, for example, and the reference resolution (spatial order) is distributed from 40000 km to 0.001 mm and input. Depending on which resolution the digital spatial data corresponds to, a corresponding spatial order is given.

  In the time group, as shown in FIG. 7, the time rank is set from 0 to 255, for example, and the age (time rank) is distributed and input from 500 million years ago to 500,000 years later. Corresponding time ranks are assigned according to which age the digital spatial data corresponds to.

  In the quality layer, the input digital space data is a monochrome image, color photograph, orthophoto, illustration map image, grid elevation data, orthophoto map, triangle network, vector map data, GPS trajectory data, text data, The data is classified into one of database, audio data, GPS positioning data, moving image data, and omnidirectional camera moving image, and each rank is assigned as shown in the left column of the lower table of FIG. For each data, as shown in the upper table of FIG. 8, composition (Composition), adjustment (Rectify), classification (Classify), overhang (Gadget), structured (Organized), extraction (Abstract), symbolization (Symbolized) and continuous (Stream) items can be classified by bit pattern as shown in the right column of the lower table of FIG. It should be noted that the priority among the ranks is selected such that the highest priority of the spatial rank is selected so that the priority of the spatial rank is the highest and the priority of the quality rank is the lowest, that is, if the rank of the quality rank is the same. May be given.

  In this way, the spatial layer, the time layer, and the quality layer that classify the digital spatial data with the rankings are set to a triple ranking (a three-dimensional structure composed of three rankings (x, y, z)), and a quadrilateral. (Quadra) and range (Extent) are combined to form a layer (Stratum) shown in FIG. 9 for each digital space data. That is, arbitrary digital space data can be represented by a triple rank (for example, 133, 146, 3). However, not limited to the above, it is also possible to manage a plurality of coordinate systems and jump to each other as necessary.

  Further, FIG. 10 is a schematic view of a layer structure (Strata) including a plurality of layers. Here, the control information includes an identification ID for accessing individual digital space data (Datum).

  FIG. 11 is a diagram illustrating a state in which the layer configuration is distributed and stored. That is, the layer configuration may be divided and stored in the RAM 12 (FIG. 1). Since the layer structure does not include image data and includes only numerical data such as an identification ID, it can be stored in a small-capacity memory of a portable terminal and can be accessed quickly. The areas A to D may be separate or overlapped.

  FIG. 12 is a flow diagram illustrating scanning of digital spatial data. When the user tries to display an image on a viewer (not shown), in FIG. 12, the CPU 11 accesses each layer configuration, and the degree of overlap between the quadrilateral and the extent in the range desired by the user will be described later. This is determined (A in FIG. 12).

  Next, a quadrilateral is selected by the quadrilateral pointer (QP) (B in FIG. 12). This is disclosed in Japanese Patent Application Laid-Open No. 2008-41028. Further, the data is sieved in the view grid (C in FIG. 12). As a result, the display area can be divided and scored, so that an optimum image can be displayed superimposed on the display area. After that, since the priority order is determined according to the cell size, the selected digital space data is output to the display ready storage area (RAM 12 in FIG. 1) based on the priority order, and based on the selected digital space data, Information is displayed on an output unit (viewer) 19. When the displayed information is not selected by the user (enlarged or the like), it is replaced with the next candidate data and displayed.

  Next, how to score points related to the display order will be described. In FIG. 13A, an area covering the display range is divided by an appropriate number to provide a grid RC. In this case, the degree of division is preferably about 16 to 32 times the display resolution. For example, 4 × 4 for PDA and 16 × 16 for PC are recommended.

  Next, one divided grid RC is further divided into 8 × 8 small sections PT as shown in FIG. The initial value of the attribute of each small section PT is set to 0. Further, as shown in FIG. 13C, the overlapping of the quadrilateral and the small section PT is determined (corresponding to A in FIG. 12). The attribute of the small section PT (indicated by hatching) that overlaps the quadrilateral is set to 1. In this way, the number of attributes 1 is calculated and tabulated for the small sections PT in all the cells RC (see FIG. 13D). However, regardless of the above, all attributes may be set to 1.

Next, the fullness rate α is calculated by the following formula. Satisfaction rate (also referred to as overlap rate) α indicates the degree of overlap between a quadrilateral and a small section PT in one cell, and the higher the satisfaction rate α, the higher the possibility that the digital space data will be used. Tend.
Satisfaction rate α = number of attributes 1 of small section PT / 64 (1)

Furthermore, score calculation is performed for each square. First, a spatial score ε indicating a spatial resolution score is obtained. Specifically, the score of digital spatial data having a spatial resolution close to the display resolution of a viewer that displays an image is increased. Here, when spatial resolution β <display resolution γ, optimality δ = spatial resolution β / display resolution γ (2)
Otherwise, optimality δ = display resolution γ / spatial resolution β (2 ′)
And This gives the spatial score ε
Space score ε = Optimum δ × Satisfaction rate α (3)
It can be expressed as

Furthermore, the time score κ regarding the age is obtained. Specifically, the reference time order is determined based on the current time (the designated time may be input by the user's setting), and the score of digital space data having a creation time close to that is increased. However, when time rank ζ <reference time rank η,
Simultaneous rate θ = time rank ζ / reference time rank η (4)
In other cases, the simultaneous rate θ = reference time rank η / time rank ζ (4 ′)
And As a result, the time score κ is
Time score κ = Simultaneous rate θ × Satisfaction rate α × 0.5 (5)
It can be expressed as Although 0.5 in equation (5) is a weighting coefficient, it is not limited to this.

Furthermore, the quality score λ can be expressed by the following equation. It can reflect the purpose and preference of the user. Although 0.25 of (6) Formula is a weighting coefficient, it is not restricted to this.
Quality score λ = (1 / quality rank) × satisfaction rate α × 0.25 (6)

From the above, the total score μ can be expressed by the following formula. However, the weighting may be arbitrarily changed (for example, so that the time ranking is weighted highest) according to the user's request.
Total score μ = space score ε + time score κ + quality score λ (7)

  CPU11 calculates | requires a total score about each digital space data for every square, and determines a priority in order with a high score. FIG. 14 is an example of digital space data obtained by calculating each score in each cell, and FIG. 15 shows the priority order. According to the tables in FIGS. 14 and 15, the triple rank of the digital space data with the highest score at the cell number 01 is (140, 146, 3). The priority order may be obtained up to the eighth place, or may be kept up to the third place.

  Thereafter, as shown in FIG. 16, the CPU 11 statistically selects the priority order for one cell, obtains the number of digital space data with the highest priority, and obtains the largest number of digital space data (data (in FIG. 140, 146, 3)) is determined as the highest level information of this cell. In this way, by selecting the largest number of digital space data in one cell and using it as the cell data, it is possible to avoid the possibility that the image or the like changes for each small section.

  As shown in FIG. 17, the CPU 11 sends the digital space data to the essential display list LT formed in the RAM 12 in order from the layer with the smallest number to the layer with the largest number. The first rank 0 is not sent at this point.

  As shown in FIG. 18, it is possible to select digital spatial data having the same spatial ranking and a different quality ranking as the next candidate in the second and lower layers for each cell. In this case, in FIG. 19, the number of digital space data with the second highest priority is obtained, and the largest number of digital space data is selected as the next candidate. The reason for selecting different quality ranks is that if there is digital spatial data with the same resolution at the same time, for example, a map image may be used by overlaying it on a photo image. Is preferable. However, this may be performed only when the user selects as an option.

  Further, as shown in FIG. 20, the CPU 11 sends the digital space data of the layer whose selection frequency is 1 or more to the essential display list LT in the order of the space rank, the time rank, and the quality rank. Time rank and quality rank can be changed (reversed or avoided) as an option by the user.

  FIG. 21 summarizes the above. The CPU 11 creates an essential display list LT for each cell based on the score table, and stores the identification ID of the highest digital space data in the display ready storage area. Alternatively, when displaying a composite image of raster data and vector data, an identification ID of digital space data to be combined is stored in the display composite storage area. The viewer 19 reads and displays the corresponding raster data and vector data from the identification ID of the digital space data stored in the display ready storage area or the display synthesis storage area, so that the image desired by the user can be displayed quickly. It is. It is also possible to jump to completely different data by providing a link to the selected digital space data.

When the display range and resolution (space order) of the viewer change, the essential display list LT in the display ready storage area is always renewed. Further, when the display resolution is the same and the range moves while overlapping, reuse can be expected. However, the order of storage area replacement candidates for prompting reuse is preferably as follows.
(1) Empty (unused) digital space data (2) Digital space data outside the display range (3) Digital space data belonging to the layer with the least number of first place acquisitions (4) Digital space data with many reuses When the number of display ready storage areas is small, the reuse effect cannot be expected.

  The present invention has been described above with reference to the embodiments. However, the present invention should not be construed as being limited to the above-described embodiments, and can be modified or improved as appropriate. For example, the integrated index means may have a learning function.

10: System bus,
11 ... CPU (Central Processing Unit),
12 ... RAM (Random Access Memory),
13: ROM (Read Only Memory),
14: Communication control unit,
15 ... Input control unit,
16 ... Output control unit,
17 ... External storage device control unit,
18 ... input part,
19 ... output part,
20 ... External storage device

Claims (8)

In an image display processing device used for displaying an image based on at least one of a plurality of digital space data corresponding to the same region,
Each digital spatial data is given a spatial order related to the resolution of the image, a time order related to the data creation time, and a quality order related to the quality of the image,
The image display processing device has an integrated index means for determining a display order for a plurality of digital spatial data corresponding to the same region based on the spatial ranking, the temporal ranking, and the quality ranking,
An image display processing apparatus, wherein an image is displayed based on the digital space data selected according to the determined display order.   The integrated index means assigns a score to the digital space data corresponding to each rank, and lists the digital space data in the display order according to the total of the scores given corresponding to each rank. The image display processing apparatus according to claim 1.   3. The image display processing apparatus according to claim 2, wherein weighting is performed according to each rank when the scores are totaled, the weight of the spatial rank is the highest, and the weight of the quality rank is the lowest.   The image display processing apparatus according to claim 3, wherein the weighting can be arbitrarily changed.   In the spatial order, the score increases as the spatial resolution of the digital spatial data is closer to the display resolution based on which the image is displayed, and the score decreases as the spatial resolution moves away from the display resolution. The image display processing device according to claim 2, wherein:   The image display processing apparatus according to claim 5, wherein the spatial resolution of the digital spatial data is distributed in a range of 0.001 mm or more and 40000 km or less.   In the time order, the digital spatial data at the data creation time close to the time when the image display processing device is used increases the score, and the score increases as the image display processing device is used. The image display processing device according to claim 2, wherein the image display processing device is low.   The image display processing device according to claim 2, wherein the score increases or decreases according to the type of image in the quality ranking.

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