JP2018082316A - Image analyzing apparatus and control method of the same - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide an image analyzing apparatus capable of visualizing correspondence relation and differences between contents of a plurality of different methods and a control method of the same.SOLUTION: The image analyzing apparatus includes: first generating means for generating a first waveform monitor on the basis of first input image data; second generating means for generating a second waveform monitor on the basis of second input image data; and synthesizing means for synthesizing the first waveform monitor and the second waveform monitor.SELECTED DRAWING: Figure 1

Description

  The present invention relates to an image analysis apparatus and a control method thereof.

  Waveform monitors and vectorscopes are used in video shooting and editing sites. The waveform monitor is a device that analyzes and visualizes the brightness distribution of image data. The vector scope is an apparatus that analyzes and visualizes the hue and saturation distribution of image data. These apparatuses are disclosed in Patent Document 1, for example.

  On the other hand, in recent years, a method called HDR (High Dynamic Range) has been proposed as a method for realizing an image with a wider dynamic range of brightness than the conventional method. Also, there is an operation of producing both conventional SDR (Standard Dynamic Range) type content and HDR type content from the same material (image data acquired by photographing). As in this operation, there is a demand for an image analysis apparatus suitable for analyzing a plurality of types of content generated from the same material.

JP 2014-107799 A

  In the operation for producing both the SDR system and the HDR system, the image quality adjustment (color grading) may be performed for the SDR system, and then the image quality adjustment may be performed again for the HDR system. In this case, it is necessary for the image analysis apparatus to display the correspondences and differences between the various characteristics of the HDR content (HDR signal) and the SDR content (SDR signal) in an easy-to-understand manner.

  However, in the above-described conventional technology, the analysis results of the HDR and SDR contents are visualized independently, and it is difficult to determine the correspondence and the difference. Accordingly, an object of the present invention is to provide an image analysis apparatus capable of visualizing correspondences and differences between contents of a plurality of different methods, and a control method thereof.

The first aspect of the present invention is:
First generation means for generating a first waveform monitor based on the first input image data;
Second generation means for generating a second waveform monitor based on the second input image data;
Synthesis means for synthesizing the first waveform monitor and the second waveform monitor;
An image analysis apparatus comprising:

The second aspect of the present invention is:
First generation means for generating a first vectorscope based on the first input image data;
Second generation means for generating a second vector scope based on the second input image data;
A synthesizing unit that divides the first vectorscope and the second vectorscope into different hue ranges and synthesizes images juxtaposed for each same hue range;
An image analysis apparatus comprising:

The third aspect of the present invention is:
A first generation step of generating a first waveform monitor based on the first input image data;
A second generation step of generating a second waveform monitor based on the second input image data;
A combining step of combining the first waveform monitor and the second waveform monitor;
It is a control method of the image-analysis apparatus characterized by having.

The fourth aspect of the present invention is:
A first generation step of generating a first vectorscope based on the first input image data;
A second generation step of generating a second vectorscope based on the second input image data;
A synthesis step of dividing the first vectorscope and the second vectorscope into a plurality of different hue ranges and synthesizing images juxtaposed for each same hue range;
It is a control method of the image-analysis apparatus characterized by having.

  A fifth aspect of the present invention is a program for causing a computer to execute each step of the control method for the image analysis apparatus according to the present invention.

  According to the present invention, it is possible to visualize the correspondence and difference between contents of different types.

1 is a block diagram illustrating a schematic configuration of an image analysis apparatus according to first to third embodiments. Examples of conversion characteristics of gamma conversion units of image analysis apparatuses according to first to third embodiments Drawing example of waveform monitor of image analysis apparatus according to embodiment 1 Example of image based on image data 131 according to first to third embodiments Example of image based on image data 141 according to first to third embodiments Drawing example of waveform monitor of image analysis apparatus according to embodiment 2 Drawing example of waveform monitor of image analysis apparatus according to embodiment 3 FIG. 4 is a block diagram illustrating a schematic configuration of an image analysis apparatus according to a fourth embodiment. Drawing example of vector scope of image analysis apparatus according to embodiment 4 Example of image based on each image data according to embodiment 4

<Example 1>
In the present embodiment, an example of a waveform monitor that can visualize the correspondence and difference between HDR content (HDR signal) and SDR content (SDR signal) regarding the brightness distribution of image data will be described. In this specification, the term “waveform monitor” is also used to indicate the result (graph) of image data analyzed by the image analysis apparatus.

FIG. 1 is a block diagram illustrating a schematic configuration of the image analysis apparatus according to the present embodiment. The image analysis apparatus can input two types of image data, image data 131 and image data 141. In the following description, it is assumed that the image data 131 is an SDR signal and the image data 141 is an HDR signal. The image analysis apparatus analyzes the image data 131 and the image data 141 and visualizes the results. The image analysis apparatus can display an image based on the image data 131 on the display unit 123. The image data 131 and the image data 141 are image data of a scheme such as HDMI (High Definition Multimedia Interface, registered trademark).

  The image analysis apparatus according to the present embodiment includes an input unit 101, a gamma conversion unit 102, an analysis unit 103, a drawing unit 104, and an image quality adjustment unit 121 regarding the system of the image data 131. Further, the image analysis apparatus according to the present embodiment includes an input unit 111, a gamma conversion unit 112, an analysis unit 113, and a drawing unit 114 regarding the system of the image data 141. Furthermore, the image analysis apparatus according to the present embodiment includes a synthesis unit 122 and a display unit 123.

  The input unit 101 and the input unit 111 perform input image data conversion processing such as decoding. For example, the input unit 101 and the input unit 111 receive HDMI (registered trademark) image data and perform processing such as TMDS (Transition Minimized Differential Signaling (registered trademark)) decoding. The gamma conversion unit 102 converts the pixel value of the image data 131 into a value corresponding to the actual luminance. The gamma conversion unit 112 converts the pixel value of the image data 141 into a value corresponding to the actual luminance. Details of the conversion will be described later.

  The analysis unit 103 and the analysis unit 113 acquire position and luminance value information for each pixel of the image data. For example, the analysis unit 103 and the analysis unit 113 obtain the horizontal position and the luminance value of each pixel and arrange them as (x, A). Here, x represents the horizontal position of the corresponding pixel, and A represents the luminance value. Further, the analysis unit 103 and the analysis unit 113 count the number of pixels corresponding to (x, A). Therefore, the number of pixels belonging to an arbitrary horizontal position and having an arbitrary luminance value is counted. In the present embodiment, the horizontal position is acquired for each pixel, but the vertical position may be acquired. Moreover, an absolute luminance value may be acquired about a luminance value, for example, the relative luminance value which remove | divided the corresponding luminance value by the maximum luminance value may be acquired. As for luminance, any index that can compare the brightness of image contents of different methods can be applied to this embodiment.

  The drawing unit 104 and the drawing unit 114 draw a waveform monitor based on the analysis results of the analysis unit 103 and the analysis unit 113. In this embodiment, the drawing unit 104 draws a waveform monitor with the horizontal position of the image data as the horizontal axis and the actual luminance output from the gamma conversion unit 102 as the vertical axis. In addition, the drawing unit 114 draws the waveform monitor with the horizontal position of the image data as the horizontal axis and the actual luminance output from the gamma conversion unit 112 as the vertical axis. Hereinafter, the axis indicating the luminance of the waveform monitor is also referred to as a brightness axis. In this embodiment, the vertical axis is the brightness axis.

The image quality adjustment unit 121 adjusts the image quality of the color and brightness of the image data 131 and generates an image to be displayed by the image analysis apparatus.
The combining unit 122 combines the image output from the image quality adjusting unit 121 and the waveform monitor drawing image output from the drawing unit 104 and the drawing unit 114. More specifically, the synthesizer 122 synthesizes an image in which two waveform monitors are juxtaposed by associating lightness axes of the waveform monitors. The synthesizing unit 122 may superimpose the waveform monitor on the image output from the image quality adjusting unit 121, or the image output from the image quality adjusting unit 121 and the image of only the waveform monitor may be used alone as a combined image for display. Moreover, those display modes may be switched by user input.
The display unit 123 displays the composite image output from the composition unit 122.

Each functional unit included in the image analysis apparatus according to the present embodiment is realized as an operation of a CPU (Central Processing Unit, not shown). Specifically, each function unit described above stores a program stored in a non-volatile memory (not shown) in a RAM (Random).
It is expanded to work memory (not shown) such as Access Memory)
This is realized by executing U.

Details of the gamma conversion unit 102, the analysis unit 103, the drawing unit 104, the gamma conversion unit 112, the analysis unit 113, and the drawing unit 114 will be described below with reference to the drawings.
FIG. 2A is a graph illustrating conversion characteristics of the gamma conversion unit 102 of the image analysis apparatus according to the present embodiment. The horizontal axis is the input pixel value of the input image data 131, and the vertical axis is the output luminance value. In this embodiment, it is assumed that the gamma of the image data 131 is 2.2 and the maximum luminance is 100 cd / m ² . In this embodiment, the image data 131 (input to the gamma conversion unit 102) and the output of the gamma conversion unit 102 are assumed to be 10-bit digital data. The input value range of the gamma conversion unit 102 is 0 to 1023, with 0 corresponding to the darkest black and 1024 corresponding to the brightest white. The output value range of the gamma conversion unit 102 is 0 to 100, with 0 corresponding to the darkest black and 100 corresponding to the brightest white. Since the maximum luminance of the image data 131 is 100 cd / ^{m 2,} when the input of the gamma converter 102 is 1023, the output is 100, it means that the luminance value is 100 cd / ^{m 2.} Further, when the input of the gamma conversion unit 102 is 0, it means that the output is 0 and the luminance value is 0 cd / m ² .

FIG. 2B is a graph illustrating conversion characteristics of the gamma conversion unit 112 of the image analysis apparatus according to the present embodiment. In the present embodiment, it is assumed that the gamma of the image data 141 is Reference Electro-Optical Transfer Function defined in SMPTE ST 2084, and the maximum luminance is 400 cd / m ² . The image data 141 (input to the gamma conversion unit 112) and the output of the gamma conversion unit 112 are 10-bit digital data. The input value range of the gamma conversion unit 112 is 0 to 1023, and 0 corresponds to the darkest black. When the input value is 668, the color is brightest white, and the output value is clipped between 668 and 1023. The output value range of the gamma conversion unit 112 is 0 to 400, with 0 corresponding to the darkest black and 400 corresponding to the brightest white. Since the maximum luminance of the image data 141 is 400 cd / m ² , when the input of the gamma conversion unit 112 is 668 to 1023, it means that the output is 400 and the luminance value is 400 cd / m ² . Further, when the input of the gamma conversion unit 112 is 0, the output is 0, and the luminance value is 0 cd / m ² .

  The analysis unit 103 counts the number of pixels corresponding to each position and luminance value based on the result output from the gamma conversion unit 102. For example, the analysis unit 103 counts the number of pixels for each luminance value for each horizontal position. For the pixel whose horizontal position is 0 (the vertical position is arbitrary), the analysis unit 103 counts the number of pixels whose luminance value is 0 and the number of pixels whose luminance value is 1 that the gamma conversion unit 102 outputs. ... Count the number of pixels whose luminance value is 100. Similarly, the analysis unit 103 repeats counting the number of pixels corresponding to each luminance value as described above for the pixel whose horizontal position is 1, and performs counting for all horizontal positions.

  Similar to the analysis unit 103, the analysis unit 113 counts the luminance values output from the gamma conversion unit 112. For pixels whose horizontal position is 0 (the position in the vertical direction is arbitrary), the number of pixels whose luminance value output by the gamma conversion unit 112 is 0, the number of pixels whose luminance value is 1,... Count the number of pixels that are 400. Similarly, the counting of the number of pixels corresponding to each luminance value is repeated for the pixel whose horizontal position is 1, as described above, and the pixels are counted for all horizontal positions.

The drawing unit 104 draws a waveform monitor based on the result counted by the analysis unit 103. In the present embodiment, the waveform monitor has the horizontal axis as the position axis indicating the horizontal position of the image data 131 and the vertical axis as the brightness axis indicating the luminance value output from the gamma conversion unit 102. Plot the numbers with the brightness or color of the plot.
Similarly, the drawing unit 114 draws a waveform monitor based on the result counted by the analysis unit 113. In the waveform monitor, the horizontal axis is the position axis indicating the horizontal position of the image data 141, and the vertical axis is the brightness axis indicating the luminance value output by the gamma conversion unit 112. Or plot the colors in correspondence. Thereby, information on the horizontal position, the luminance value, and the number of corresponding pixels appears on the waveform monitor.

  FIG. 3 shows a drawing example of the waveform monitor in this embodiment. The drawing on the left shows the result of the image data 131 being analyzed by the drawing unit 104, and the drawing on the right shows the result of the image data 141 being analyzed by the drawing unit 114. The image data 131 is a still image, and the image is shown in FIG. 4A. As shown in FIG. 4A, the still image of the image data 131 is composed of three brightness values, and each brightness value is as shown in FIG. 4B. The image data 141 is a still image, and the image is shown in FIG. 5A. As shown in FIG. 5A, the still image of the image data 141 is composed of three brightness values, and each brightness value is as shown in FIG. 5B.

The synthesizer 122 correlates the ranges included in common with the brightness axes of the two waveform monitors, and juxtaposes the waveform monitors. In the present embodiment, the synthesis unit 122 aligns the positions of the range included in common with the brightness axis, and juxtaposes the two waveform monitors. More specifically, as illustrated in FIG. 3, the synthesizing unit 122 sets the position of 0 to 100 cd / m ² that is a value range that is commonly included in the waveform monitor based on the image data 131 and the waveform monitor based on the image data 141. In addition, an image in which two waveform monitors are juxtaposed is generated. As a result, the brightness (luminance value) of the waveform monitor of the SDR signal (image data 131) and the HDR signal (image data 141) is displayed in association with each other, and the relationship between the luminance distributions of both signals can be easily grasped.

In the present embodiment, the image analysis apparatus has been described as a configuration for displaying the image data 131, but a configuration for displaying the image data 141 may be used. Further, the image analysis apparatus may be configured to display the image data 131 and the image data 141 at the same time. These configurations may be switched by user input.
The conversion characteristics of the gamma conversion unit 102 shown in FIG. 2A and the conversion characteristics of the gamma conversion unit 112 shown in FIG. 2B are examples, and the present invention can be implemented with different characteristics.
The image of the image data 131 shown in FIG. 4A and the image of the image data 141 shown in FIG. 4B are examples, and the present invention can also be implemented for signals of other images.

<Example 2>
In the present embodiment, an example of a waveform monitor that can visualize the correspondence and difference between HDR signals and SDR signals regarding the distribution of brightness of image data will be described. In the following description, only differences from the first embodiment will be described.

  FIG. 6 is a drawing example of the waveform monitor in this embodiment. The drawing on the left shows the result of the image data 131 being analyzed by the drawing unit 104, and the drawing on the right shows the result of the image data 141 being analyzed by the drawing unit 114. Image data 131 and image data 141 are the still images shown in FIGS. 4A and 5A.

As illustrated in FIG. 6, the combining unit 122 aligns the positions of 0 to 100 cd / m ² , which is a value range that is commonly included in the waveform monitor based on the image data 131 and the waveform monitor based on the image data 141, to thereby form two waveforms. Juxtapose monitors. Furthermore, in this embodiment, the combining unit 122 compresses a range outside the range that is commonly included in the brightness axis, and juxtaposes two waveform monitors. Specifically, the synthesis unit 122 compresses the analysis result relating to 100 to 400 cd / m ^2, which is a range included only in the waveform monitor based on the image data 141, to a narrow range compared to the range of 0 to 100 cd / m ^2. Is displayed. This emphasizes the information in the common range and makes it easy to compare the two types of image content.

<Example 3>
In the present embodiment, an example of a waveform monitor that can visualize the correspondence and difference between HDR signals and SDR signals regarding the distribution of brightness of image data will be described. In the following description, only differences from the first embodiment will be described.

  FIG. 7 shows a drawing example of the waveform monitor according to the present embodiment. The drawing on the left shows the result of the image data 131 being analyzed by the drawing unit 104, and the drawing on the right shows the result of the image data 141 being analyzed by the drawing unit 114. Image data 131 and image data 141 are the still images shown in FIGS. 4A and 5A.

In this embodiment, the vertical axis of the waveform monitor is displayed as a percentage. In the waveform monitor of the image data 131 drawn by the drawing unit 104, 0 to 100% is associated with the value range 0 to 100 cd / m ² of the image data 131. In the waveform monitor of the image data 141 drawn by the drawing unit 114, 0 to 400% is associated with the value range 0 to 400 cd / m ² of the image data 141.

  In the present embodiment, the synthesis unit 122 aligns the positions of specific values that are commonly included in the brightness axis, and juxtaposes two waveform monitors. Specifically, as shown in FIG. 7, the position of the vertical axis 18% indicates the waveform monitor of the image data 131 drawn by the drawing unit 104 and the waveform monitor of the image data 141 drawn by the drawing unit 114. The synthesis unit 122 generates a synthesized image so that the same position is obtained. According to this method, when two waveform monitors having different vertical scales are compared as in this embodiment, the characteristic common vertical axis values serving as a reference are combined to obtain two image contents. Comparison is easy.

<Example 4>
In the present embodiment, an example of a vector scope that can visualize the correspondence and difference between the HDR signal and the SDR signal with respect to the hue and saturation distribution of the image data will be described. A vectorscope is a device that expresses the color distribution of image data with hue and saturation. Specifically, the vectorscope displays a circle (hue ring) indicating hue as an angle and saturation as a distance from the center as an analysis result. In this specification, the term vector scope is also used to indicate the result (graph) of image data analyzed by the image analysis apparatus.

  FIG. 8 is a block diagram illustrating a schematic configuration of the image analysis apparatus according to the present embodiment. Unlike the block diagram of the first embodiment shown in FIG. 1, there is no gamma conversion unit, and the input unit 101 and the analysis unit 803 (input unit 111 and analysis unit 813) are directly connected. The analysis unit 803, the drawing unit 804, the analysis unit 813, the drawing unit 814, and the combining unit 822 are different in operation from the first embodiment, and will be described in detail later. The operation of other components is the same as that of the first embodiment.

  The analysis unit 803 and the analysis unit 813 calculate an RY value and a BY value for each pixel of the image data. In this embodiment, it is assumed that the image data is a color difference signal. The RY value and the BY value can be calculated by performing various calculations from image data that is a color difference signal. However, since this method is known, the description thereof is omitted.

  The drawing unit 804 draws the vector scope with the BY value as the horizontal axis and the RY value as the vertical axis, and plots the RY value and BY value calculated by the analysis unit 803. The drawing unit 814 draws a vector scope with the BY value as the horizontal axis and the RY value as the vertical axis, and plots the RY value and BY value calculated by the analysis unit 813.

FIG. 9 shows a drawing example of the vector scope in the present embodiment. The drawing on the left shows the result of analyzing the image data 131 by the drawing unit 804, and the drawing on the right shows the result of analyzing the image data 141 by the drawing unit 814. Image data 131 and image data 1
Reference numeral 41 denotes a still image, and the image is shown in FIG. 10A. As shown in FIG. 10A, the still images of the image data 131 and the image data 141 are composed of eight colors, and each color is as shown in FIG. 10B. Although only the color is described in FIG. 10A, the brightness of the image data 131 and the image data 141 may be different from each other or the same.

  The synthesizing unit 822 divides each of the two vector scopes drawn by the drawing unit 804 and the drawing unit 814 into two, and juxtaposes hue ranges with negative BY values and hue ranges with positive BY values. Further, when the hue ranges with negative BY values are juxtaposed, the synthesis unit 822 arranges them symmetrically so that the increasing direction of the BY values faces inward, and the hue with a positive BY value. When the ranges are juxtaposed, they are arranged symmetrically so that the increasing direction of the BY value faces outward. Specifically, as illustrated in FIG. 9, the synthesis unit 822 plots the analysis result of the image data 131 on the upper left side when the BY value is negative. When the BY value is positive, the synthesis unit 822 plots the analysis result of the image data 131 on the lower left side. When the BY value is negative, the synthesis unit 822 plots the analysis result of the image data 141 on the upper right side. The composition unit 822 plots the analysis result of the image data 141 on the lower right side when the BY value is positive.

  As described above, in this embodiment, the combining unit 822 divides the two vector scopes into a plurality of different hue ranges, and arranges them in parallel so that the positional relationship of the hue rings is symmetrical for each same hue range. Accordingly, the hue and saturation of the vector scope based on the SDR signal (image data 131) and the HDR signal (image data 141) are displayed in correspondence with each other, and the relationship between the hue and saturation distribution of both signals can be easily grasped. Become.

In the vector scope arrangement method as described above, it is needless to say that comparison of input contents becomes easier by adjusting the scales of the RY value and BY value. In this case, for example, it is also included in the present embodiment to adjust the scale of only one of the RY value and BY value.
Further, although the vector scope is divided into two in this embodiment, a case where the vector scope is divided into three or more is also included in this embodiment. Also in this case, by arranging the same hue range symmetrically, it becomes easy to grasp the relationship between the hue and saturation distribution of both signals.

  In the first to fourth embodiments described above, the HDR method and the SDR method have been described as an example of a plurality of different methods, but the present invention can also be applied to content of other methods. For example, the present invention can also be applied when the image data 131 and the image data 141 are two image data having different dynamic ranges. Also, the present invention can be applied to content of three or more different methods.

In addition, Examples 1-4 are an example to the last, and the structure obtained by changing suitably and changing the structure of Examples 1-4 within the range of the summary of this invention is also contained in this invention. Configurations obtained by appropriately combining the configurations of Examples 1 to 4 are also included in the present invention.
For example, how to assign the vertical and horizontal axes of the waveform monitor is arbitrary. A waveform monitor in which either the vertical axis or the horizontal axis indicates the brightness and the other indicates the horizontal or vertical position of the image based on the input image data is included in the present invention.
Further, in Examples 1 to 4, the lightness axis of the waveform monitor or the hue range of the vector scope is associated in order to make the comparison of analysis results easier, but these are not essential. The synthesizing unit only needs to synthesize a plurality of waveform monitors or vector scopes into one drawing image, so that the user can compare the analysis results. Therefore, the combined drawing image of each embodiment includes a drawing image in which a plurality of analysis results are combined in one image without association of the brightness axis and the hue range. Thus, the user can easily compare a plurality of contents with different methods based on information of one image.

(Other examples)
The present invention supplies a program that realizes one or more functions of the above-described embodiments to a system or apparatus via a network or a storage medium, and one or more processors in a computer of the system or apparatus read and execute the program This process can be realized. It can also be realized by a circuit (for example, ASIC) that realizes one or more functions.

  In addition, each function part of the apparatus of Examples 1-4 may be individual hardware, and may not be so. The functions of two or more functional units may be realized by common hardware. Each of a plurality of functions of one functional unit may be realized by individual hardware. Two or more functions of one functional unit may be realized by common hardware. Each functional unit may be realized by hardware or not. For example, the apparatus may include a processor and a memory in which a control program is stored. The functions of at least some of the functional units included in the apparatus may be realized by the processor reading and executing the control program from the memory.

101, 111: input unit 102, 112: gamma conversion unit 103, 113: analysis unit 104, 114: drawing unit 123: display unit

Claims (21)

First generation means for generating a first waveform monitor based on the first input image data;
Second generation means for generating a second waveform monitor based on the second input image data;
Synthesis means for synthesizing the first waveform monitor and the second waveform monitor;
An image analysis apparatus comprising: The first waveform monitor and the second waveform monitor have a brightness axis;
The synthesizing unit synthesizes the first waveform monitor and the second waveform monitor by associating brightness axes of the first waveform monitor and the second waveform monitor. Item 2. The image analysis device according to Item 1. The image analysis apparatus according to claim 2, wherein the synthesizing unit juxtaposes the first waveform monitor and the second waveform monitor. 4. The image analysis apparatus according to claim 2, wherein the synthesizing unit associates a range included in common with the brightness axis of the first waveform monitor and the brightness axis of the second waveform monitor. 5. The image analysis apparatus according to claim 4, wherein the synthesizing unit aligns the first waveform monitor and the second waveform monitor by aligning positions of the commonly included ranges. The image analysis apparatus according to claim 4, wherein the synthesizing unit compresses a range outside the commonly included range. 4. The image according to claim 2, wherein the synthesizing unit aligns the first waveform monitor and the second waveform monitor in alignment with a position of a specific value commonly included in the brightness axis. Analysis device. In the first waveform monitor and the second waveform monitor, either the vertical axis or the horizontal axis indicates the brightness, the other indicates the horizontal or vertical position of the image based on the input image data, and on the waveform monitor. The image analysis apparatus according to any one of claims 2 to 7, wherein the plotted point is a graph indicating information on the number of corresponding pixels in luminance or color. First generation means for generating a first vectorscope based on the first input image data;
Second generation means for generating a second vector scope based on the second input image data;
A synthesizing unit that divides the first vectorscope and the second vectorscope into different hue ranges and synthesizes images juxtaposed for each same hue range;
An image analysis apparatus comprising: 10. The image analysis device according to claim 1, wherein a dynamic range of luminance of the second input image data is different from a dynamic range of luminance of the first input image data. 11. A first generation step of generating a first waveform monitor based on the first input image data;
A second generation step of generating a second waveform monitor based on the second input image data;
A combining step of combining the first waveform monitor and the second waveform monitor;
A control method for an image analysis apparatus, comprising: The first waveform monitor and the second waveform monitor have a brightness axis;
In the synthesis step, the first waveform monitor and the second waveform monitor are synthesized by associating the brightness axes of the first waveform monitor and the second waveform monitor with each other. Item 12. A method for controlling an image analysis apparatus according to Item 11.   The method of controlling an image analysis apparatus according to claim 12, wherein in the synthesis step, the first waveform monitor and the second waveform monitor are juxtaposed. 14. The image analysis according to claim 12 or 13, wherein in the synthesis step, a range that is commonly included in the brightness axis of the first waveform monitor and the brightness axis of the second waveform monitor is associated with each other. Control method of the device. The control of the image analysis apparatus according to claim 14, wherein, in the synthesis step, the first waveform monitor and the second waveform monitor are juxtaposed in alignment with the position of the commonly included range. Method. 16. The method according to claim 14, wherein in the synthesis step, a range outside the commonly included range is compressed. 14. The composition step according to claim 12, wherein the first waveform monitor and the second waveform monitor are juxtaposed in alignment with a position of a specific value commonly included in the brightness axis. Control method of image analysis apparatus. In the first waveform monitor and the second waveform monitor, either the vertical axis or the horizontal axis indicates the brightness, the other indicates the horizontal or vertical position of the image based on the input image data, and on the waveform monitor. 18. The control method for an image analysis apparatus according to claim 12, wherein the plotted point is a graph indicating information on the number of corresponding pixels in luminance or color. A first generation step of generating a first vectorscope based on the first input image data;
A second generation step of generating a second vectorscope based on the second input image data;
A synthesis step of dividing the first vectorscope and the second vectorscope into a plurality of different hue ranges and synthesizing images juxtaposed for each same hue range;
A control method for an image analysis apparatus, comprising: 20. The image analysis apparatus according to claim 11, wherein a dynamic range of luminance of the second input image data is different from a dynamic range of luminance of the first input image data. Control method.   The program for making a computer perform each step of the control method of the image analysis apparatus of any one of Claim 11 to 20.

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