JP4923635B2 - Moving image display device and moving image display method - Google Patents

Description

  The present invention relates to setting of adjustment processing for a moving image, and more particularly to a technique for setting the degree of adjustment in adjustment processing.

  Conventionally, when a moving image is displayed on a moving image display device such as a CRT or a television, flickering in a portion representing a moving object in a moving image (hereinafter referred to as “moving image flicker”) or an afterimage (hereinafter referred to as “moving image flicker”) In some cases, this is called “bokeh”. Such moving image flicker or moving image blur is a moving image display device (hereinafter referred to as “storage type display device”) in which each pixel is configured by a storage type display element, like a liquid crystal display device using a liquid crystal panel. Likely to happen.

  In order to reduce moving image flicker and moving image blur during moving image display, techniques for performing various adjustment processes on moving images are disclosed (for example, Patent Documents 1 to 3).

Japanese Patent Laid-Open No. 04-302289 JP 2001-296841 A JP 2002-132220 A

  In general, a moving image is displayed while a frame image is switched at a cycle of 30 frames per second, so that the effect of adjustment processing on a moving image, that is, the difference between before and after processing is difficult to be recognized by the user. There are characteristics. In particular, moving flicker and moving image blur have individual differences in how they are felt, and there are differences in the degree of occurrence of moving image flicker and moving image blur depending on the contents of moving images.

  Due to these characteristics of moving images, even when the moving image display device has a function for adjusting moving images, the function is often not fully utilized. In addition, it is difficult for the user to appropriately set the degree of adjustment in the moving image adjustment process.

  The present invention has been made to solve the above-described conventional problems, and an object of the present invention is to provide a technique that allows a user to appropriately set the degree of adjustment in moving image adjustment processing.

In order to solve at least a part of the above problems, a moving image display device of the present invention provides
Moving image adjustment means for performing predetermined moving image adjustment processing on moving image data;
Moving image display means for displaying a moving image based on the moving image data after the predetermined moving image adjustment processing;
An adjustment designation input means for inputting an adjustment designation for designating the degree of adjustment in the predetermined moving image adjustment processing;
Parameter value setting means for setting a parameter value used for the predetermined moving image adjustment processing in accordance with the input adjustment designation;
Sample image storage means for storing sample moving image data for displaying a predetermined sample moving image,
When the adjustment designation input unit inputs the adjustment designation, the moving image adjustment unit performs the predetermined moving image adjustment process using the parameter value set by the parameter value setting unit with respect to the sample moving image data. The moving image display unit displays a moving image based on the sample moving image data after the predetermined moving image adjustment processing.

  In this moving image display device, when the adjustment designation input means inputs an adjustment designation, the moving image adjustment means uses the parameter value set by the parameter value setting means for the sample moving image data to perform a predetermined moving image adjustment process. I do. The moving image display unit displays a moving image based on the sample moving image data after the predetermined moving image adjustment processing. Therefore, the user can confirm the sample image after the adjustment process according to the input adjustment designation. Therefore, in this moving image display apparatus, the degree of adjustment in the moving image adjustment process can be appropriately set by the user.

In the moving image display device,
The sample image storage means stores a plurality of sample moving image data for displaying a plurality of sample moving images having different moving characteristics of the moving body in the moving image,
The moving image display device further includes:
Sample image setting means for setting at least one of the plurality of sample moving image data stored in the sample image storage means as sample moving image data used for display by the moving image display means may be provided.

  In this way, the user can confirm the image after the moving image adjustment process for a plurality of sample moving images having different moving characteristics of the moving body in the moving image. Therefore, in this moving image display apparatus, the degree of adjustment in the moving image adjustment process can be appropriately set by the user.

In the moving image display device, further,
A movement characteristic designation input means for inputting movement characteristic designation for designating movement characteristics of a moving body in a sample moving image is provided.
The sample image setting means may set sample moving image data used for display in accordance with the input movement characteristic designation.

  In this way, the user can confirm the image after the moving image adjustment processing for the designated sample moving image. Therefore, in this moving image display apparatus, the degree of adjustment in the moving image adjustment process can be appropriately set by the user.

In the moving image display apparatus,
The sample image storage means stores a plurality of sample moving image data for displaying a plurality of sample moving images in which at least one of the shape and color of the moving body in the moving image is different from each other,
The moving image display device further includes:
Sample image setting means for setting at least one of the plurality of sample moving image data stored in the sample image storage means as sample moving image data used for display by the moving image display means may be provided.

  In this way, the user can check the image after the moving image adjustment process for a plurality of sample moving images in which at least one of the shape and color of the moving body in the moving image is different. Therefore, in this moving image display apparatus, the degree of adjustment in the moving image adjustment process can be appropriately set by the user.

In the moving image display device, further,
Comprising designation input means for inputting designation for designating at least one of the shape and color of the moving object in the sample moving image;
The sample image setting means may set sample moving image data used for display in accordance with the input designation.

  In this way, the user can confirm the image after the moving image adjustment processing for the designated sample moving image. Therefore, in this moving image display apparatus, the degree of adjustment in the moving image adjustment process can be appropriately set by the user.

In the moving image display apparatus,
The predetermined moving image adjustment process is a process for reducing moving image flicker,
The degree of adjustment in the predetermined moving image adjustment process may be a degree of reduction of moving image flicker.

  In this way, the user can appropriately set the degree of reduction of moving image flicker in the moving image adjustment process for reducing moving image flicker.

In the moving image display apparatus,
The predetermined moving image adjustment processing reduces the luminance based on a predetermined criterion with respect to at least one of the first frame image and the second frame image in the frame image constituting the moving image. By combining the first frame image and the second frame image after the luminance reduction processing, N (N is 1) for display between the first frame image and the second frame image. This may be processing for generating intermediate frame images of the above integers).

  In this way, the moving image adjustment process can be a process for reducing moving image flicker.

In the moving image display apparatus,
The predetermined moving image adjustment process is a process for reducing motion blur,
The degree of adjustment in the predetermined moving image adjustment process may be a degree of reduction of moving image blur.

  In this way, it is possible to cause the user to appropriately set the degree of reduction of moving image blur in the moving image adjustment process for reducing moving image blur.

In the moving image display apparatus,
The predetermined moving image adjustment processing is based on a frame image constituting the moving image, and at least one mask image in which the luminance of at least some of the pixels constituting the image is reduced using a predetermined reduction coefficient It may be a process of generating.

  In this way, the moving image adjustment process can be a process for reducing moving image blur.

  The present invention can be realized in various modes. For example, a moving image display method and apparatus, a moving image adjustment method and apparatus, a moving image correction method and apparatus, a moving image output method and apparatus, and these The present invention can be realized in the form of a computer program for realizing the functions of the method, system or apparatus, a recording medium storing the computer program, a data signal including the computer program and embodied in a carrier wave, and the like.

Next, embodiments of the present invention will be described in the following order based on examples.
A. First embodiment:
A-1. Configuration of video display device:
A-2. Configuration and operation of video adjustment circuit:
A-3. Movie adjustment setting process:
B. Second embodiment:
C. Variations:

A. First embodiment:
A-1. Configuration of video display device:
FIG. 1 is an explanatory diagram schematically showing the configuration of a moving image display apparatus 100 as a first embodiment of the present invention. The moving image display apparatus 100 according to the first embodiment is configured as a projector. The moving image display apparatus 100 includes a video signal input circuit 110, a memory write control circuit 120, a frame memory 130, a moving image adjustment circuit 140, an enlargement / reduction circuit 160, a liquid crystal driver 170, a liquid crystal panel 180, a light source A unit 80, a projection optical system 90, a CPU 190, and an operation panel 200 are provided.

  The video signal input circuit 110 is a circuit that inputs video signals such as a composite signal, an S video signal, and a component signal from an external device such as a DVD player, a video deck, or a personal computer. These video signals are generally analog signals composed of 30 frame images per second. The video signal input circuit 110 includes a synchronization separation circuit 112 and an A / D conversion circuit 114.

  The synchronization separation circuit 112 is a circuit that separates synchronization signals such as a vertical synchronization signal VSync and a horizontal synchronization signal HSync from an input video signal. The synchronization separation circuit 112 also generates the dot clock DCK using a PLL circuit or the like according to the period of the separated vertical synchronization signal VSync and horizontal synchronization signal HSync. Note that the synchronization separation circuit 112 may be omitted when a video signal from which the synchronization signal has been separated in advance is input.

  The A / D conversion circuit 114 is a circuit that converts an analog video signal from which a synchronization signal is separated into a digital video signal. When generating the digital video signal, the A / D conversion circuit 114 outputs the digital video signal to the memory write control circuit 120.

  The memory write control circuit 120 writes the digital video signal (moving image data) input from the video signal input circuit 110 or the setting circuit 50 to the frame memory 130 for each frame. In this embodiment, a write area for two frames is secured in the frame memory 130 ("area A" and "area B" in the figure), and the memory write control circuit 120 The frame images constituting the moving image are alternately written. In the present embodiment, two write areas are provided. However, three or more write areas may be provided, and writing may be sequentially performed in these areas.

  The moving image adjustment circuit 140 is a circuit that performs moving image adjustment processing on input moving image data. The moving image adjustment process executed by the moving image adjustment circuit 140 according to the present embodiment is a process for reducing moving image flicker when displaying a moving image. The moving image adjustment circuit 140 includes a setting circuit 50.

  The setting circuit 50 is a circuit that executes various setting processes such as a moving image adjustment setting process described later. The moving image adjustment setting process is a process for setting the degree of adjustment in the moving image adjustment process described later by the moving image adjustment circuit 140. The setting circuit 50 includes a parameter value setting circuit 52, a sample image storage circuit 54, and a sample image memory 56. The parameter value setting circuit 52 sets a parameter value PV used for moving image adjustment processing. The setting circuit 50 supplies the set parameter value PV to the moving image adjustment circuit 140. The sample image storage circuit 54 stores sample moving image data representing the sample moving image displayed during the moving image adjustment setting process. The sample image memory 56 is a memory area used when reading sample moving image data stored in the sample image storage circuit 54.

  The enlargement / reduction circuit 160 is a circuit that enlarges or reduces the moving image data input via the moving image adjustment circuit 140 so as to match the resolution of the liquid crystal panel 180. Note that the enlargement / reduction of moving image data may be performed when the memory writing control circuit 120 writes a frame image into the frame memory 130, or when the moving image adjustment circuit 140 reads out a frame image from the frame memory 130. It may be done. In such a case, the enlargement / reduction circuit 160 can be omitted.

  The liquid crystal driver 170 is a circuit that inputs moving image data from the enlargement / reduction circuit 160 and drives the liquid crystal panel 180 according to the RGB gradation values.

  The light source unit 80 emits illumination light toward the liquid crystal panel 180. The liquid crystal panel 180 is a storage type display device driven by the liquid crystal driver 170, and converts the illumination light emitted from the light source unit 80 into light (image light) representing an image. The projection optical system 90 projects an image on the projection screen SC by forming image light on the projection screen SC.

  The CPU 190 receives various operations from the user via the operation panel 200, and controls the memory write control circuit 120, the setting circuit 50, the moving image adjustment circuit 140, the enlargement / reduction circuit 160, the liquid crystal driver 170, and the like according to these operations. I do.

A-2. Configuration and operation of video adjustment circuit:
FIG. 2 is an explanatory diagram showing a detailed configuration of the moving image adjustment circuit 140 (FIG. 1). The moving image adjustment circuit 140 according to the present embodiment executes image processing for reducing moving image flicker as moving image adjustment processing. In the present embodiment, the moving image adjustment processing in the moving image adjustment circuit 140 is performed for the moving image (shown as “Data” in FIG. 2) input via the frame memory 130 (FIG. 1) and the sample image of the setting circuit 50. The sample moving image (shown as “SData” in FIG. 2) input via the memory 56 (FIG. 1) is executed for one of the targets.

  Specifically, the moving image adjustment circuit 140 reads two frame image data from the frame memory 130 or the sample image memory 56 and combines them while adjusting the luminance of these frame image data, whereby M (M is 1 (Integer) pieces of intermediate frame image data are generated. The intermediate frame image represented by the generated intermediate frame image data is displayed between the two original frame images. The number M of intermediate frame images generated by the moving image adjustment circuit 140 (hereinafter referred to as “intermediate frame number M”) is input from the setting circuit 50 (FIG. 1) to the moving image adjustment circuit 140 as a parameter value PV.

  In addition to the setting circuit 50 (FIG. 1), the moving image adjustment circuit 140 includes a luminance coefficient determination circuit 210, a multiplexer 220 connected to the luminance coefficient determination circuit 210, and a first latch circuit 272 that latches data from the frame memory 130. A synthesis circuit 230 connected to the multiplexer 220 and the first latch circuit 272; a second latch circuit 274 that latches data from the synthesis circuit 230; and a third latch circuit 276 that latches data from the first latch circuit 272. , A second latch circuit 274 and a selection circuit 240 connected to the third latch circuit 276. Furthermore, the moving image adjustment circuit 140 includes a control circuit 250 for controlling each circuit described above and a field identification signal generation circuit 260.

  The field identification signal generation circuit 260 receives the horizontal synchronization signal HSync and the vertical synchronization signal VSync from the video signal input circuit 110 or the setting circuit 50, and generates a field identification signal from these synchronization signals. The field identification signal is a signal for identifying whether the field to be displayed is an even field or an odd field in the interlaced display method. When the field identification signal generation circuit 260 generates the field identification signal, the field identification signal generation circuit 260 outputs the field identification signal to the control circuit 250.

  The control circuit 250 receives the horizontal synchronization signal HSync, the vertical synchronization signal VSync, and the dot clock DCK from the video signal input circuit 110 or the setting circuit 50, and also receives the field identification signal from the field identification signal generation circuit 260, and receives these signals. Based on the above, reading of frame image data from the frame memory 130 and operations of the first latch circuit 272, the second latch circuit 274, the third latch circuit 276, the multiplexer 220, the synthesis circuit 230, and the selection circuit 240 are controlled.

  The control circuit 250 receives frame image data to be displayed first (hereinafter referred to as “first frame image”) and frame image data to be displayed later (hereinafter referred to as “back frame image”) from the frame memory 130 or the setting circuit 50. Are read continuously (2M + 1) times at a cycle of (M + 1) times the frame rate of the original video (hereinafter, such reading is referred to as “overscan”). For example, when the number of intermediate frames M is 1, the previous frame image and the subsequent frame image are each read out three times in a cycle twice the frame rate of the original video (see the middle part of FIG. 7). ). At this time, the frame image read for the (M + 1) th time is read independently. On the other hand, other frame images are read out simultaneously by alternately reading out the previous frame image and the subsequent frame image for each pixel. For example, when the number M of intermediate frames is 1, the frame image read for the second time is read independently (see the middle row in FIG. 7). On the other hand, for example, the third previous frame image and the first subsequent frame image are read simultaneously. Reading from the frame memory 130 can be performed from each area in a burst mode.

  The over-scanned frame image data is held in pixel units by the first latch circuit 272. The first latch circuit 272 branches and outputs the held frame image data D1 to the synthesis circuit 230 and the third latch circuit 276. The third latch circuit 276 is the data of the frame image data D1 output from the first latch circuit 272, the frame image data read out independently (that is, the (M + 1) th frame image read out). Are stored as frame image data D3. For example, when the number M of intermediate frames is 1, the third latch circuit 276 holds only the previous frame image data read second time as the frame image data D3.

  The luminance coefficient determination circuit 210 determines the values of the luminance coefficient K2 and the luminance coefficient K3, and outputs a signal representing these values to the multiplexer 220. The luminance coefficient K2 is a parameter for adjusting the luminance of the previous frame image that is the generation source of the intermediate frame image, and the luminance coefficient K3 is a parameter for adjusting the luminance of the subsequent frame image that is the generation source of the intermediate frame image. is there.

  The luminance coefficient determination circuit 210 determines the values of the luminance coefficient K2 and the luminance coefficient K3 according to the number of intermediate frames M as the parameter value PV input from the setting circuit 50. 3 to 5 are explanatory diagrams showing an example of a method of determining the values of the luminance coefficient K2 and the luminance coefficient K3 according to the number M of intermediate frames. The luminance coefficient determination circuit 210 determines an angle θ (rd) (0 ≦ θ ≦ π) for determining the luminance coefficients K2 and K3 for each intermediate frame image based on the table shown in FIG. In the table shown in FIG. 3, values obtained by dividing the interval from 0 to π by the number of intermediate frame images are defined. According to this table, for example, when three intermediate frame images are generated (when M = 3), θ for generating the first intermediate frame image is (1/4) π. The first sheet is (1/2) π, and the third sheet is (3/4) π. Then, using the value of θ and a sine function shown in the following formulas (1) and (2), luminance coefficients K2 and K3 used for generating each intermediate frame image are determined. The following equation (1) is a function representing the maximum value (= 1) to the minimum value (= 0) of the sine function, and the equation (2) is expressed from the minimum value (= 0) to the maximum value (= It is a function representing up to 1). FIG. 4 is a graph showing the following functions, and FIG. 5 shows specific examples of values of the luminance coefficient K2 and the luminance coefficient K3 corresponding to the angle θ.

K2 = (COSθ) /2+0.5 (1)
K3 = 0.5− (COSθ) / 2 (2)

  Referring to FIG. 5, according to the functions (1) and (2), when generating three intermediate frame images, the luminance coefficient K2 applied to the first intermediate frame image is 0.85. The luminance coefficient K3 is 0.15. The luminance coefficient K2 applied to the second intermediate frame image is 0.50, and the luminance coefficient K3 is also 0.50. Further, the luminance coefficient K2 applied to the third intermediate frame image is 0.15, and the luminance coefficient K3 is 0.85.

  The multiplexer 220 (FIG. 2) receives signals representing the luminance coefficient K2 and the luminance coefficient K3 from the luminance coefficient determination circuit 210, multiplexes these signals in a time division manner, and outputs them to the synthesis circuit 230.

  The synthesizing circuit 230 receives signals representing the luminance coefficient K2 and the luminance coefficient K3 from the multiplexer 220, and inputs the over-scanned frame image data D1 from the first latch circuit 272 in units of pixels. When the first frame image and the subsequent frame image are simultaneously input from the first latch circuit 272, that is, for example, when the number of intermediate frames M = 1, the synthesis circuit 230 reads the first frame image and the first frame image that are read the first time. When the rear frame image is input simultaneously, the luminance coefficient K2 is integrated with the luminance value of the pixel of the previous frame image, and the luminance coefficient K3 is integrated with the luminance value of the pixel of the rear frame image. Then, the pixels of the previous frame image and the pixels of the subsequent frame image obtained by integrating the luminance coefficients are synthesized based on the following equation (3) to generate intermediate frame image data D2. When the intermediate frame image data D2 is generated by the synthesis circuit 230, the intermediate frame image data D2 is held by the second latch circuit 274.

D2 = (front frame image D1 * K2) + (back frame image D1 * K3) (3)

  When the selection circuit 240 (FIG. 2) receives the intermediate frame image data D2 held by the second latch circuit 274 and the frame image data D3 held by the third latch circuit 276, the selection circuit 240 (FIG. 2) receives the vertical synchronization signal of the original video. Two pieces of data are selectively acquired at a cycle obtained by multiplying VSync by (M + 1). Then, the selection circuit 240 outputs the selected frame image data to the enlargement / reduction circuit 160 as frame image data D4. The enlargement / reduction circuit 160 outputs a dot clock MDCK, a horizontal synchronization signal MHSync, and a vertical synchronization signal MVSync necessary for displaying the frame image data D4 on the liquid crystal panel 180 from the control circuit 250. In the case of the present embodiment, the vertical synchronization signal MVSync has a period that is (M + 1) times the vertical synchronization signal VSync input from the video signal input circuit 110.

  FIG. 6 is an explanatory diagram simply showing a timing chart of the operation of the moving image adjustment circuit 140. FIG. 6 shows an example when the number of intermediate frames M = 1. According to the moving image adjustment circuit 140 described above, when the horizontal synchronization signal HSync, the vertical synchronization signal VSync, and the dot clock DCK are input from the video signal input circuit 110 or the setting circuit 50, the field identification signal is derived from these synchronization signals. FS is generated. Then, from the moving image adjustment circuit 140, the frame image data D3 (D3 (n− in the drawing) in the figure is obtained as it is from the original moving image at the timing even when the even field is displayed as the frame image data D4 to be finally output. 1), D3 (n), D3 (n + 1)) are output, and the intermediate frame image data D2 (D2 (n-1) in the drawing, D2 (n), D2 (n + 1)) are output.

  FIG. 7 is an explanatory diagram visually representing a moving image formed on the liquid crystal panel 180 in accordance with the frame image data output by the moving image adjustment circuit 140. FIG. 7 shows an example when the number of intermediate frames M = 1. The upper part of the figure shows the frame image data Data stored in the frame memory 130, and the middle part of the figure shows the frame image data D1 overscanned from the frame memory. In the lower part of the figure, the frame image data D4 output from the selection circuit 240 is shown. The frame image data D4 shown in the lower part of the figure has the same frame number as the frame image data D4 shown in FIG.

  As shown in the upper part of FIG. 7, when the frame image data of the frame (N−1), the frame (N), and the frame (N + 1) are sequentially stored in the frame memory 130, as shown in the middle part of FIG. These frame images are overscanned by the control circuit 250, and three frames are output for each frame. For the convenience of illustration, the frame (N−1) and the frame (N + 1) are shown for the output of two of the three sheets. Of the three frame images thus overscanned, the second frame image is output as frame image data D4 by the selection circuit 240 as it is. On the other hand, the third frame of the first frame image and the first frame image are synthesized by the synthesis circuit 230 by adding the luminance coefficients K2 and K3 to the luminance values of the respective images, and synthesized. Data D2 is generated. The intermediate frame image data D2 is selected by the selection circuit 240 and output as frame image data D4. As a result, as shown in the lower part of FIG. 7, the selection circuit 240 sends a moving image between the frame image data D3 constituting the original moving image, such as D3, D2, D3, D2,. The intermediate frame image data D2 generated by the adjustment circuit 140 is output so as to be sandwiched, and the image is formed on the liquid crystal panel 180.

  FIG. 8 is an explanatory diagram showing the effect of the moving image adjustment processing in the present embodiment. FIG. 8 shows an example when the number of intermediate frames M = 1. FIG. 8 shows an example in which a moving image in which a black circle figure moves from left to right is displayed. The left side of the figure shows a display example when no intermediate frame image is generated, and the right side of the figure shows a display example when an intermediate frame image is generated according to the present embodiment. As shown on the left side of the figure, when the intermediate frame image is not generated, the display state of the black circle changes only in two stages of displaying / not displaying, so that the frame rate is appropriately secured However, when the moving speed of the black circle is fast, it is observed to move discontinuously, and moving image flicker occurs. However, in this embodiment, as shown on the right side of the figure, an intermediate frame image synthesized by adjusting the luminance of the previous and next frames is inserted between the frame images constituting the original moving image. Is observed to move. Therefore, moving image flicker is reduced, and the user's viewing load can be reduced.

  Such an effect of reducing moving image flicker varies depending on the number M of intermediate frames. Specifically, it is considered that the greater the number of intermediate frames M, the greater the effect of reducing moving image flicker. FIG. 9 is an explanatory diagram visually representing a moving image formed on the liquid crystal panel 180 in accordance with the frame image data output by the moving image adjustment circuit 140 when the number of intermediate frames M = 2. As shown in the upper and middle stages of FIG. 9, in the case where the number of intermediate frames M = 2, the memory write control circuit 120 stores the frame (N−1), frame (N), and frame (N + 1) in the frame memory 130. When the frame image data is sequentially written, the control circuit 250 reads out five times continuously at a cycle three times the frame rate of the original video. At this time, the third reading is performed independently. On the other hand, for example, a fourth previous frame image and a first subsequent frame image, and a fifth previous frame image and a second subsequent frame image are read out simultaneously by alternately reading out each pixel. As a result, as shown in the lower part of FIG. 9, the third frame image out of the five images subjected to overscan is directly output as frame image data D4 by the selection circuit 240. On the other hand, with respect to the above-mentioned fourth front frame image and the first rear frame image, and the fifth front frame image and the second rear frame image, the luminance value of each image is obtained by the synthesis circuit 230. The luminance coefficients K2 and K3 are integrated and combined to generate intermediate frame image data D2. The intermediate frame image data D2 is selected by the selection circuit and output as frame image data D4.

  In the example shown in FIG. 9, the luminance coefficient K2 and the first intermediate frame image data D2 and the second intermediate frame image data D2 out of the two intermediate frame image data D2 generated continuously are The values of the luminance coefficient K3 are integrated in different combinations. Specifically, in the first intermediate frame image, the luminance coefficient K2 is set to 0.75 and the luminance coefficient K3 is set to 0.25. In the second intermediate frame image, the luminance coefficient K2 is set to 0.25. The coefficient K3 is set to 0.75 (see FIGS. 3 and 5). By doing so, the luminance of the previous frame image gradually decreases and the luminance of the subsequent frame image gradually increases, and an effect as if the moving body is gradually moving can be obtained. In this way, when the number of intermediate frames M is set to 2, it is possible to further reduce moving image flicker compared to the case where the number of intermediate frames M is set to 1.

A-3. Movie adjustment setting process:
In the moving image display apparatus 100 of the present embodiment, it is possible to perform a moving image adjustment setting process for setting the degree of adjustment in the moving image adjustment process. In this embodiment, the degree of adjustment in the moving image adjustment process means the degree of reduction of moving image flicker. The moving image adjustment setting process is executed by the CPU 190 mainly controlling the setting circuit 50.

  FIG. 10 is a flowchart showing the flow of the moving image adjustment setting process in the present embodiment. The moving image adjustment setting process is started in response to a process start instruction from the user via the operation panel 200 (FIG. 1). When a start instruction is input via the operation panel 200, a setting menu screen is displayed (step S110). FIG. 11 is an explanatory diagram illustrating an example of a setting menu screen. The user can issue an instruction to change brightness or contrast by operating the operation panel 200 while the setting menu screen is displayed. Further, the user gives an instruction to select a moving image mode depending on the type of moving image to be displayed.

  When the “Next” button is selected while the setting menu screen is displayed, the moving image adjustment setting screen is displayed. FIG. 12 is an explanatory diagram illustrating an example of a moving image adjustment setting screen. As shown in FIG. 12, the moving image adjustment setting screen includes a sample moving image display area SA that is an area in which the sample moving image is displayed. The moving image adjustment setting screen includes various UIs (user interfaces). Specifically, a UI for designating the degree of the moving image flicker reduction effect, a UI for designating display / non-display switching of the sample moving image display area SA, and the sample moving image display area SA are displayed. A UI for designating the moving characteristics (moving direction and moving speed) of the moving object in the sample moving image and the pattern of the sample moving image displayed in the sample moving image display area SA (that is, the shape of the moving object, the moving object, and the moving object) And a UI for designating a background color.

  When display of the sample moving image display area SA is designated through the UI for designating switching between display / non-display of the sample moving image display area SA, the sample moving image is displayed in the sample moving image display area SA. The The display of the sample moving image is performed based on the sample moving image data read from the sample image storage circuit 54 (FIG. 1) of the setting circuit 50 to the sample image memory 56. The sample image storage circuit 54 stores a plurality of sample moving image data corresponding to a plurality of sample moving images having different moving characteristics and moving image patterns of moving objects in a moving image. When the first moving image adjustment setting screen is displayed, the default sample moving image is displayed in the sample moving image display area SA.

  Various moving images can be adopted as the pattern of the sample moving image. For example, as shown in FIG. 12, in the pattern of the sample moving image, the shape of the moving body may be a relatively small rectangular shape, and is a band shape extending from the upper end to the lower end (or the left end to the right end) of the moving image. There may be. Moreover, the some strip | belt shape arrange | positioned in parallel may be sufficient. Further, the combination of the color of the moving object and the background may be a combination of black and white, a combination of black and 50% gray, or a combination of white and 50% gray. The pattern of the sample moving image may be a natural image such as a leaf image.

  In the example of FIG. 12, a vertically long strip-shaped pattern is selected as the pattern of the sample moving image, and the right direction is selected as the moving direction. For this reason, a moving image in which the band-shaped pattern moves from left to right is displayed in the sample moving image display area SA (see the arrow displayed in the sample moving image display area SA in FIG. 12).

  In addition, when the first moving image adjustment setting screen is displayed, the degree of the moving image flicker reduction effect is designated as the minimum. When the degree of the moving image flicker reduction effect is designated as the minimum, the moving image adjustment processing in the moving image adjustment circuit 140 is not performed. That is, the sample moving image data stored in the sample image storage circuit 54 of the setting circuit 50 is output as it is.

  When a different moving characteristic is specified through the UI for specifying the moving characteristic of the moving body in the sample moving image during the display of the moving image adjustment setting screen (FIG. 12) (step S120: Yes), The sample moving image displayed in the sample moving image display area SA is updated so that the moving characteristic of the moving body of the moving body is changed according to the designation (step S140). Specifically, moving image data corresponding to the designation is selected from a plurality of sample moving image data stored in the sample image storage circuit 54, and the sample moving image display area SA is selected based on the selected moving image data. A sample video is displayed. As described above, the user can variously change the moving direction and moving speed of the moving body in the sample moving image displayed in the sample moving image display area SA.

  Similarly, when a different pattern is designated through the UI for designating the pattern of the sample moving image while the moving image adjustment setting screen is displayed (step S130: Yes), the pattern of the sample moving image is changed according to the designation. As described above, the sample moving image displayed in the sample moving image display area SA is updated (step S140). Specifically, moving image data corresponding to the designation is selected from a plurality of sample moving image data stored in the sample image storage circuit 54, and the sample moving image display area SA is selected based on the selected moving image data. A sample video is displayed. In this way, the user can change various patterns of the sample moving image displayed in the sample moving image display area SA (the shape and color of the moving body, the background color, etc.).

  When the moving image adjustment setting screen is displayed, if a specification for changing the degree of moving picture flicker reduction is made through the UI for specifying the degree of moving picture flicker reduction effect (step S150: Yes), the parameter value setting circuit 52 is set. (FIG. 1) sets the number M of intermediate frames as the parameter value PV corresponding to the specified degree of reduction of moving image flicker (step S160). The relationship between the degree of reduction of moving image flicker on the UI and the number of intermediate frames M is determined in advance. This relationship is such that the greater the degree of reduction in moving image flicker, the greater the number M of intermediate frames. The intermediate frame number M as the newly set parameter value PV is supplied to the luminance coefficient determination circuit 210 of the moving image adjustment circuit 140. The moving image adjustment circuit 140 performs a moving image adjustment process on the sample moving image data using the newly supplied parameter value PV. Thereby, the sample moving image after the moving image adjustment processing is displayed in the sample moving image display area SA.

  For example, when a designation is made to increase the degree of reduction of moving image flicker, a moving image adjustment process in which the number M of intermediate frames is set is executed. Accordingly, the sample moving image displayed in the sample moving image display area SA is updated to an image in which moving image flicker is further reduced. On the other hand, when a designation is made to reduce the degree of reduction of moving image flicker, a moving image adjustment process in which the number of intermediate frames M is set smaller is executed, and the sample moving image displayed in the sample moving image display area SA is executed. Is updated to an image with a smaller moving flicker reduction effect.

  If an instruction to complete the moving image adjustment setting is given by selecting the “setting completed” button while the moving image adjustment setting screen is displayed (step S170: Yes), the moving image adjustment setting process ends. After the moving image adjustment setting process is completed, the moving image input from the video signal input circuit 110 is displayed in accordance with an instruction from the user via the operation panel 200. At this time, the moving image adjustment circuit 140 executes the moving image adjustment processing using the parameter value PV corresponding to the degree of moving image flicker reduction specified at the end of the immediately preceding moving image adjustment setting processing. Therefore, the moving image input from the video signal input circuit 110 is displayed with moving image flicker reduced to the extent desired by the user.

  As described above, in the moving image display apparatus 100 of the present embodiment, the moving image adjustment setting process is performed. In the moving image adjustment setting process, when the degree of moving image flicker reduction is designated by the user, the parameter value PV used for the moving image adjustment process in the moving image adjustment circuit 140 is set according to the designated degree. Then, a moving image adjustment process using the newly set parameter value PV is performed on the sample moving image data, and the processed sample moving image is displayed. Therefore, the user can easily recognize the effect of the moving image adjustment process. Further, the user can set a desired degree of moving image flicker reduction while checking the degree of moving image flicker in the displayed sample moving image. Therefore, in the moving image display apparatus 100 of the present embodiment, the parameter value PV used for the moving image adjustment process can be appropriately set.

  Further, in the moving image adjustment setting process in the present embodiment, the user can specify the movement characteristics (movement direction and movement speed) of the moving body in the sample moving image. When the movement characteristic is designated by the user, a sample moving image corresponding to the designation is displayed. In general, the ease of recognizing moving image flicker varies depending on the movement characteristics of a moving object in the moving image. In the moving image display apparatus 100 according to the present embodiment, since the moving characteristics of the moving body in the sample moving image can be changed, it is possible to change the ease of recognition of moving image flicker. Therefore, for example, after adjusting the moving characteristics so that moving image flicker can be recognized in the sample moving image, it is possible to specify the degree of moving image flicker reduction while confirming the sample moving image. In addition, for example, after setting the moving characteristics of the sample moving image in consideration of the characteristics of the moving image input from the video signal input circuit 110, the degree of reduction of moving image flicker can be designated. Therefore, in the moving image display apparatus 100 of the present embodiment, the parameter value PV used for the moving image adjustment process can be set more appropriately.

  Further, in the moving image adjustment setting process in the present embodiment, the user can specify the pattern of the sample moving image (the shape of the moving body and the color of the moving body and the background) from among a plurality of options. When the user designates a sample moving image pattern, a sample moving image corresponding to the designation is displayed. In general, the ease of recognizing moving image flickers varies depending on the moving image pattern. In the moving image display apparatus 100 according to the present embodiment, since the pattern of the sample moving image can be changed, the ease of recognition of moving image flicker can be changed. Therefore, for example, after selecting a pattern that can recognize moving image flicker in the sample moving image, it is possible to specify the degree of moving image flicker reduction while checking the sample moving image. In addition, for example, the moving image flicker reduction degree can be designated after selecting the pattern of the sample moving image in consideration of the characteristics of the moving image input from the video signal input circuit 110. Therefore, in the moving image display apparatus 100 of the present embodiment, the parameter value PV used for the moving image adjustment process can be set more appropriately.

B. Second embodiment:
FIG. 13 is an explanatory diagram visually showing a moving image formed on the liquid crystal panel 180 in accordance with the frame image data output by the moving image adjustment circuit 140 in the second embodiment. Also in the second embodiment, as in the first embodiment, an intermediate frame image is generated from the input original moving image as the moving image adjustment processing in the moving image adjustment circuit 140. In the example of FIG. 13, the number M of intermediate frames is 3. The moving image adjustment process according to the second embodiment is different from the moving image adjustment process according to the first embodiment in that one of the intermediate frame images is generated as an image with reduced brightness compared to the original moving image. Yes. That is, in the first embodiment, the sum of the luminance coefficients K2 and K3 used for generating the intermediate frame image is 1, but in the second embodiment, the intermediate frame image in which the sum of the luminance coefficients K2 and K3 is less than 1. Is generated as a mask image.

  In the example of FIG. 13, the luminance coefficient K2 applied to the previous frame image and the luminance coefficient K3 applied to the subsequent frame image for one intermediate image among the three generated intermediate frame images. Both are set to 0.1, and the total value is less than 1. In this way, if an intermediate frame image to which a low luminance coefficient is applied is generated, a mask image that is darker than the other frame images is displayed at a predetermined timing while the two original frame images are displayed. Become. If a mask image with low luminance is displayed at such timing, it is possible to reduce an afterimage phenomenon (moving image blur) peculiar to a hold type display device such as a liquid crystal panel.

  In the moving image adjustment process in the moving image adjustment circuit 140 (FIG. 2), the parameter value PV provided from the setting circuit 50 is used as in the first embodiment. In the second embodiment, the values of the luminance coefficients K2 and K3 used for generating the mask image are used as the parameter value PV. As the parameter value PV, the value of the reduction coefficient multiplied by the luminance coefficients K2 and K3 calculated by the luminance coefficient determination circuit 210 in the same manner as in the first embodiment may be used.

  The effect of reducing moving image blur by the moving image adjustment process varies according to the luminance coefficients K2 and K3 used for generating the mask image. Specifically, it is considered that the smaller the values of the luminance coefficients K2 and K3, the greater the effect of reducing moving image blur.

  FIG. 14 is a flowchart showing the flow of the moving image adjustment setting process in the second embodiment. The moving image adjustment setting process of the second embodiment is different from the moving image adjustment setting process of the first embodiment shown in FIG. 10 in that a step (step S152) for inputting a blur reduction amount change instruction is added. . FIG. 15 is an explanatory diagram illustrating an example of a moving image adjustment setting screen according to the second embodiment. As shown in FIG. 15, the moving image adjustment setting screen in the second embodiment is added with a UI for designating the degree of moving image blur reduction effect on the moving image adjustment setting screen in the first embodiment shown in FIG. ing.

  When the moving image adjustment setting screen is displayed, if a specification for changing the degree of moving picture blur reduction is made through the UI for specifying the degree of moving picture blur reduction effect (step S152: Yes), the parameter value setting circuit 52 is set. (FIG. 1) sets mask image generation luminance coefficients K2 and K3 as parameter values PV corresponding to the specified degree of reduction of moving image blur (step S160). The relationship between the degree of reduction of moving image blur on the UI and the values of the mask image generation luminance coefficients K2 and K3 is determined in advance. The newly set parameter value PV is supplied to the luminance coefficient determination circuit 210 of the moving image adjustment circuit 140. The moving image adjustment circuit 140 performs a moving image adjustment process on the sample moving image data using the newly supplied parameter value PV. Thereby, the sample moving image after the moving image adjustment processing is displayed in the sample moving image display area SA.

  For example, when designation is made to increase the degree of reduction in moving image blur, a moving image adjustment process is performed so that a mask image with reduced luminance is generated. Therefore, the sample moving image displayed in the sample moving image display area SA is updated to an image in which moving image blur is further reduced. On the other hand, when a designation is made to reduce the degree of reduction in moving image blur, a moving image adjustment process is performed so that a mask image with a low degree of luminance reduction is generated and displayed in the sample moving image display area SA. The sample moving image is updated to an image with a smaller moving image blur reduction effect. Note that when the degree of the moving image blur reduction effect is designated as the minimum, the mask image is not generated. That is, the combinations of the values of the luminance coefficients K2 and K3 used for generating the intermediate frame image are all combinations with a total of 1.

  As described above, in the moving image display apparatus 100 of the second embodiment, the moving image adjustment setting process is performed. In the moving image adjustment setting process, when the degree of moving image blur reduction is designated by the user, the parameter value PV used for the moving image adjustment process in the moving image adjustment circuit 140 is set according to the designated degree. Then, a moving image adjustment process using the newly set parameter value PV is performed on the sample moving image data, and the processed sample moving image is displayed. Therefore, the user can set a desired degree of reduction in moving image blur while confirming the degree of moving image blur in the displayed sample moving image. Therefore, in the moving image display apparatus 100 of the present embodiment, the parameter value PV used for the moving image adjustment process can be appropriately set.

  Further, in the moving image adjustment setting process in the present embodiment, the user can specify the movement characteristics (movement direction and movement speed) of the moving body in the sample moving image. When the movement characteristic is designated by the user, a sample moving image corresponding to the designation is displayed. In general, the ease with which moving image blur is recognized varies depending on the movement characteristics of a moving object in the moving image. In the moving image display apparatus 100 according to the present embodiment, since the moving characteristics of the moving body in the sample moving image can be changed, the ease of recognition of moving image blur can be changed. Therefore, for example, after adjusting the moving characteristics so that moving image blur can be recognized in the sample moving image, the degree of moving image blur reduction can be specified while checking the sample moving image. In addition, for example, after setting the moving characteristics of the sample moving image in consideration of the characteristics of the moving image input from the video signal input circuit 110, the degree of reduction of moving image blur can be specified. Therefore, in the moving image display apparatus 100 of the present embodiment, the parameter value PV used for the moving image adjustment process can be set more appropriately.

  Further, in the moving image adjustment setting process in the present embodiment, the user can specify the pattern of the sample moving image (the shape of the moving body and the color of the moving body and the background) from among a plurality of options. When the user designates a sample moving image pattern, a sample moving image corresponding to the designation is displayed. In general, the ease of recognizing moving image blur also varies depending on the pattern of the moving image. In the moving image display apparatus 100 according to the present embodiment, since the pattern of the sample moving image can be changed, the ease of recognition of moving image blur can be changed. Therefore, for example, after selecting a pattern that can recognize moving image blur in the sample moving image, it is possible to specify the degree of moving image blur reduction while checking the sample moving image. In addition, for example, the degree of reduction in moving image blur can be specified after selecting a pattern of a sample moving image in consideration of the characteristics of the moving image input from the video signal input circuit 110. Therefore, in the moving image display apparatus 100 of the present embodiment, the parameter value PV used for the moving image adjustment process can be set more appropriately.

C. Variations:
The present invention is not limited to the above-described examples and embodiments, and can be implemented in various modes without departing from the gist thereof. For example, the following modifications are possible.

C1. Modification 1:
The content of the moving image adjustment process in each of the above embodiments is merely an example, and the content of the moving image adjustment process can be changed to another content. The configuration of the moving image display apparatus 100 can be modified according to the content of the moving image adjustment process.

  For example, the moving image adjustment process in the first embodiment is a process for reducing moving image flicker, and the moving image adjustment process in the second embodiment is a process for reducing moving image flicker and moving image blur. The moving image adjustment process may be a process for reducing moving image blur.

  Also, other methods can be adopted for reducing moving image flicker in the moving image adjustment processing. For example, in each of the above-described embodiments, the luminance coefficients K2 and K3 used for generating the intermediate frame number M are set to values predetermined according to the intermediate frame number M, but the luminance coefficients K2 and K3 are set to the previous frame image. It may be calculated according to the amount of motion vector between the frame and the rear frame image. In this case, the luminance coefficients K2 and K3 may be calculated so that the value of the luminance coefficient K2 is smaller and the value of the luminance coefficient K3 is larger as the motion vector amount is larger. In the above embodiment, the values of the luminance coefficients K2 and K3 are set to a combination of values with a total of 1, but it is not always necessary to set such values.

  Also, other methods can be adopted as a method for reducing moving image blur in the moving image adjustment processing. For example, moving image blur may be reduced by generating, as a mask image, one composite image with reduced brightness from two consecutive frame images, or a certain frame image is read at double speed and read for the second time. Alternatively, a mask image may be generated by reducing the luminance of some or all of the pixels of the frame image, and moving image blur may be reduced without combining the images. Alternatively, a mask image may be prepared in advance, and moving image blur may be reduced by inserting a mask image between frame images constituting a moving image.

  In each of the above embodiments, the intermediate frame image and the mask image are generated by adjusting the luminance value of the preceding and following frame images. For example, any of hue, color, and R, G, and B values can be used. An intermediate frame image or a mask image may be generated by adjusting such a value.

  In each of the above embodiments, the image reading from the frame memory 130 by the control circuit 250 and the luminance adjustment and composition of the image by the composition circuit 230 are performed in units of pixels. Instead of pixel units, it may be performed in frame units, line units, or scanning line units. The unit of processing can be determined according to the data capacity that can be held in each latch circuit and the buffer capacity in the synthesis circuit 230.

C2. Modification 2:
In the first embodiment, the intermediate frame number M is used as the parameter value PV used for the moving image adjustment processing. However, the parameter value PV is replaced with the intermediate frame number M or other values together with the intermediate frame number M. May be used. As other values, for example, the luminance coefficients K2 and K3 used for generating the intermediate frame can be used.

  Similarly, in the second embodiment, the luminance coefficients K2 and K3 at the time of generating the mask image are used as the parameter value PV used for the moving image adjustment process, but other values may be used as the parameter value PV. . As another value, for example, it is possible to use the ratio of the number of luminance reduction pixels to the total number of pixels in the mask image.

C3. Modification 3:
The contents of the moving picture adjustment setting screen (FIGS. 12 and 15) in each of the above embodiments are merely examples, and the contents of the moving picture adjustment setting screen may be other contents. For example, the moving image adjustment setting screen may include a plurality of sample moving image display areas SA. In this case, the sample moving image before the moving image adjustment process is displayed in one of the plurality of sample moving image display areas SA, and the sample moving image after the moving image adjustment process is performed on the other one May be displayed. Alternatively, different sample images, that is, sample images having different moving characteristics of the moving body, or sample images having different patterns may be displayed in each of the plurality of sample moving image display areas SA. Further, the sample moving image display area SA may be set on the entire display screen. In this case, for example, a UI for displaying the sample moving image display area SA on the entire display screen is provided on the moving image adjustment setting screen, and the sample moving image display area is displayed in accordance with an instruction from the user via the UI. SA may be displayed on the entire display screen.

C4. Modification 4:
In each of the above-described embodiments, the moving image display device 100 is configured as a projector. However, the moving image display device 100 may be configured as a liquid crystal display, a cathode ray tube display, a plasma display, or the like. In this case, the liquid crystal driver 170, the liquid crystal panel 180, and the like shown in FIG. 1 are replaced with a drive circuit and a display device suitable for each display device. In addition, the luminance coefficient may be varied according to the type of the display device.

  In each of the above embodiments, a part of the configuration realized by hardware may be replaced by software, and conversely, a part of the configuration realized by software may be replaced by hardware. Also good.

It is explanatory drawing which shows schematically the structure of the moving image display apparatus 100 as 1st Example of this invention. 3 is an explanatory diagram showing a detailed configuration of a moving image adjustment circuit 140. FIG. It is explanatory drawing which shows an example of the determination method of the value of the luminance coefficient K2 and the luminance coefficient K3 according to the number M of intermediate frames. It is explanatory drawing which shows an example of the determination method of the value of the luminance coefficient K2 and the luminance coefficient K3 according to the number M of intermediate frames. It is explanatory drawing which shows an example of the determination method of the value of the luminance coefficient K2 and the luminance coefficient K3 according to the number M of intermediate frames. 6 is an explanatory diagram simply showing a timing chart of the operation of the moving image adjustment circuit 140. FIG. 4 is an explanatory diagram visually showing a moving image formed on a liquid crystal panel according to frame image data output by a moving image adjustment circuit. FIG. It is explanatory drawing which shows the effect of the moving image adjustment process in a present Example. FIG. 7 is an explanatory diagram visually showing a moving image formed on the liquid crystal panel 180 in accordance with frame image data output by the moving image adjustment circuit 140 when the number of intermediate frames M = 2. It is a flowchart which shows the flow of the moving image adjustment setting process in a present Example. It is explanatory drawing which shows an example of a setting menu screen. It is explanatory drawing which shows an example of a moving image adjustment setting screen. It is explanatory drawing which represented the moving image formed on the liquid crystal panel 180 according to the frame image data output by the moving image adjustment circuit 140 in 2nd Example visually. It is a flowchart which shows the flow of the moving image adjustment setting process in 2nd Example. It is explanatory drawing which shows an example of the moving image adjustment setting screen in 2nd Example.

Explanation of symbols

DESCRIPTION OF SYMBOLS 50 ... Setting circuit 52 ... Parameter value setting circuit 54 ... Sample image storage circuit 56 ... Sample image memory 80 ... Light source unit 90 ... Projection optical system 100 ... Moving image display apparatus 110 ... Video signal input circuit 112 ... Synchronous separation circuit 114 ... A / D conversion circuit 120 ... Memory writing control circuit 130 ... Frame memory 140 ... Movie adjustment circuit 160 ... Enlargement / reduction circuit 170 ... Liquid crystal driver 180 ... Liquid crystal panel 190 ... CPU
DESCRIPTION OF SYMBOLS 200 ... Operation panel 210 ... Luminance coefficient determination circuit 220 ... Multiplexer 230 ... Composition circuit 240 ... Selection circuit 250 ... Control circuit 260 ... Field identification signal generation circuit 272 ... 1st latch circuit 274 ... 2nd latch circuit 276 ... 3rd latch circuit

Claims (9)

A moving image display device,
Moving image adjustment means for performing predetermined moving image adjustment processing on moving image data;
Moving image display means for displaying a moving image based on the moving image data after the predetermined moving image adjustment processing;
An adjustment designation input means for inputting an adjustment designation for designating the degree of adjustment in the predetermined moving image adjustment processing;
Parameter value setting means for setting a parameter value used for the predetermined moving image adjustment processing in accordance with the input adjustment designation;
Sample image storage means for storing sample moving image data for displaying a predetermined sample moving image,
When the adjustment designation input unit inputs the adjustment designation, the moving image adjustment unit performs the predetermined moving image adjustment process using the parameter value set by the parameter value setting unit with respect to the sample moving image data. The moving image display unit displays a moving image based on the sample moving image data after the predetermined moving image adjustment processing ,
The sample image storage means stores a plurality of sample moving image data for displaying a plurality of sample moving images having different moving characteristics of the moving body in the moving image,
The moving image display device further includes:
A moving image display comprising: sample image setting means for setting at least one of the plurality of sample moving image data stored in the sample image storage means as sample moving image data used for display by the moving image display means; apparatus. The moving image display device according to claim 1, further comprising:
A movement characteristic designation input means for inputting movement characteristic designation for designating movement characteristics of a moving body in a sample moving image is provided.
The sample image setting means is a moving image display device for setting sample moving image data used for display in accordance with the input movement characteristic designation. The moving image display device according to claim 1,
The sample image storing means stores a plurality of sample moving image data for at least one of the mobile shape and color of the moving image to display a plurality of different sample moving images to each other, the moving image display device . The moving image display device according to claim 3, further comprising:
Comprising designation input means for inputting designation for designating at least one of the shape and color of the moving object in the sample moving image;
The sample image setting means is a moving image display device that sets sample moving image data used for display in accordance with the input designation. The moving image display device according to any one of claims 1 to 4,
The predetermined moving image adjustment process is a process for reducing moving image flicker,
The moving image display device in which the degree of adjustment in the predetermined moving image adjustment processing is a degree of reduction of moving image flicker. The moving image display device according to claim 5,
The predetermined moving image adjustment processing reduces the luminance based on a predetermined criterion with respect to at least one of the first frame image and the second frame image in the frame image constituting the moving image. By combining the first frame image and the second frame image after the luminance reduction processing, N (N is 1) for display between the first frame image and the second frame image. A moving image display apparatus which is a process of generating an intermediate frame image of the above integer). The moving image display device according to any one of claims 1 to 4,
The predetermined moving image adjustment process is a process for reducing motion blur,
The moving image display device, wherein the degree of adjustment in the predetermined moving image adjustment processing is a degree of reduction of moving image blur. The moving image display device according to claim 7,
The predetermined moving image adjustment processing is based on a frame image constituting the moving image, and at least one mask image in which the luminance of at least some of the pixels constituting the image is reduced using a predetermined reduction coefficient A moving image display device which is a process for generating the image. A moving image display method,
(A) performing a predetermined moving image adjustment process on moving image data;
(B) displaying a moving image based on the moving image data after the predetermined moving image adjustment processing;
(C) inputting an adjustment designation for designating the degree of adjustment in the predetermined moving image adjustment processing;
(D) setting a parameter value used for the predetermined moving image adjustment process according to the input adjustment designation;
(E) storing sample moving image data for displaying a predetermined sample moving image,
When the adjustment designation is input in the step (c), the predetermined moving image using the parameter value set in the step (d) for the sample moving image data in the step (a). An adjustment process is performed, and a moving image display based on the sample moving image data after the predetermined moving image adjustment process is performed in the step (b) .
The step (e) of storing the sample image data is a step of storing a plurality of sample moving image data for displaying a plurality of sample moving images having different moving characteristics of the moving body in the moving image,
The moving image display method further includes:
At least one of the plurality of sample moving image data stored in the step (e) of storing the sample image data is set as sample moving image data used for display in the step (b) of displaying the moving image. A moving image display method comprising: a step.

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