JP4940911B2 - Image processing apparatus and image processing selection method - Google Patents

Description

  The present invention relates to a technique for selecting at least one image process from a plurality of image processes.

  Conventionally, image processing such as deforming or enlarging / reducing a part of an image has been performed in a personal computer, a printer, or the like. Generally, when executing image processing, the user selects (designates) desired image processing by pressing an operation button (menu icon) displayed on the display (see Patent Document 1 below).

JP 2003-196242 A

  In the configuration in which image processing is selected by pressing an operation button as described above, the user must perform an action such as searching for an operation button corresponding to the desired processing content from a plurality of operation buttons and pressing it. did not become. Therefore, for example, when a plurality of image processes are switched and executed for various parts in an image, every time an area to be processed is selected, a desired image process operation button is searched and pressed. It was a very troublesome task.

  An object of the present invention is to provide a technique capable of selecting a desired image processing from a plurality of image processing by a simple method.

In order to achieve the above object, an image processing apparatus according to the present invention includes a display unit, a point instruction receiving unit that receives an instruction of a position of an instruction point on an image displayed on the display unit, and a locus of the instruction point. Accordingly, an image processing selection unit that selects at least one image processing from a plurality of predetermined image processings, and a specific region extraction unit that extracts a specific region that satisfies a predetermined condition in the image, The image processing selection unit selects at least one image processing from among the predetermined plurality of image processes according to the positional relationship between the locus and the specific area, and the shapes of the locus are substantially the same. Thus, in two cases in which the directions to be traced are opposite to each other , the gist is to select image processes that are opposite to each other .

  In the image processing apparatus of the present invention, the user can execute the desired image processing by moving the instruction point so that the locus corresponds to the desired image processing. Desired image processing can be selected from among them by a simple method.

  The image processing apparatus further includes a specific area extracting unit that extracts a specific area that satisfies a predetermined condition in the image, and the image processing selection unit is configured to determine a positional relationship between the locus and the specific area. At least one image processing may be selected from the predetermined plurality of image processing.

  In this way, the user can select desired image processing by moving the instruction point so as to have a predetermined locus in a portion in the image having a predetermined positional relationship with the specific region. In addition, the user can avoid selecting image processing when the instruction point is moved by mistake so as to become a predetermined locus at a position unrelated to the specific region.

  The image processing apparatus may further include an image processing unit that executes the selected image processing in at least one of the region determined based on the locus and the specific region.

  In this way, the user can determine the instruction point trajectory based on the instruction point trajectory in a simple manner by moving the instruction point such that the instruction point trajectory has a predetermined positional relationship with the extracted specific region. Desired image processing can be executed in at least one of the area and the specific area.

  In the image processing apparatus, the specific area is an area representing a person's face in the image, and the image processing selection unit determines whether the specific locus is close to the specific area within a predetermined range. If one image process is selected and the locus is not close to the specific area within a predetermined range, a second image process different from the first image process may be selected.

  In this way, the user can select the person's face and execute the first image processing, and execute the second image processing for portions other than the person's face even if they have the same trajectory. can do. Therefore, the user can execute different image processing in a region representing a person's face and other regions by a simple method.

  In the image processing apparatus, the image processing selection unit selects image processing that is opposite to each other in two cases where the shapes of the trajectories are substantially the same and the directions to follow are opposite to each other. Also good.

  By doing in this way, the user can intuitively perform an operation (movement of the instruction point) for selecting an image processing opposite to the processing already performed. In addition, the relationship between the locus of the instruction point and the selected image processing can be easily stored.

  The present invention can be realized in various forms, for example, an image processing selection method, a computer program for realizing the functions of the image processing selection method or the image processing apparatus, and the computer program recorded therein. The present invention can be realized in the form of a recording medium, a data signal including the computer program and embodied in a carrier wave, and the like.

Hereinafter, the best mode for carrying out the present invention will be described in the following order based on examples.
A. First embodiment:
B. Second embodiment:
C. Third embodiment:
D. Fourth embodiment:
E. Variations:

A. First embodiment:
FIG. 1 is an explanatory diagram showing a schematic configuration of a printer to which an image processing apparatus as an embodiment of the present invention is applied. The printer 100 includes a control circuit 10, a memory card slot 40, a printer engine 42, an operation unit 44, a touch panel control unit 46, a display unit 50, and a touch pen TP that is a pen-type input device (a stylus pen). It is equipped with. The printer engine 42 is a mechanism that actually performs printing. The display unit 50 includes a liquid crystal display having a resistive film type touch panel disposed on the surface thereof, displays various menu screens and images via the touch panel, and accepts touch input by a touch pen TP or the like. The touch panel control unit 46 detects a contact position (touch point) of an instruction unit such as the touch pen TP on the display unit 50 and periodically notifies the control circuit 10 of the contact position. In addition, since the touch area on the touch panel is large, the touch panel control unit 46 notifies the plurality of coordinates as the touch points when the touch points are detected across the plurality of coordinates.

  The control circuit 10 includes a CPU 20 and a memory 30. A control program for the printer 100 is stored in the memory 30, and the CPU 20 functions as an instruction point recording unit 20a by executing the control program, and also includes a display control unit 20b and an image processing selection unit 20c. , And the image processing execution unit 20d. The instruction point recording unit 20a records the touch point notified from the touch panel control unit 46 as a point (instruction point) on the image. The display control unit 20b controls the display unit 50 to display an image. At this time, when the instruction point is recorded, the display control unit 20b also displays the locus of the instruction point so as to be superimposed on the image. The image processing selection unit 20c selects an image process to be actually executed from among a plurality of image processes that can be executed in the printer 100. The printer 100 can execute a total of three types of image processing, that is, enlargement, reduction, and deformation of an area designated in an image. Note that the printer 100 is not limited to these three types of image processing, and may be configured to execute arbitrary image processing other than processing for drawing the locus of the instruction point itself. The image processing execution unit 20d executes the image processing selected by the image processing selection unit 20c.

  FIG. 2 is a flowchart showing the procedure of image processing in the first embodiment. When the user designates the image data in the memory card MC (FIG. 1) from the initial menu (not shown) displayed on the display unit 50 and selects the image processing menu, the image data is read from the memory card MC. The image is displayed on the display unit 50, and image processing is started.

  In step S205 (FIG. 2), the instruction point recording unit 20a (FIG. 1) records the coordinates notified from the touch panel control unit 46 as instruction points in time series, and the display control unit 20b displays the recorded instruction. Based on the points, the locus of the designated point is displayed on the display unit 50. Therefore, when the user traces the display unit 50 with the touch pen TP, the instruction points are sequentially recorded and the locus is displayed on the image. When a plurality of coordinates are notified as touch points, the instruction point recording unit 20a obtains and records the center (center of gravity) coordinates of the plurality of touch points. Here, the “trajectory” means the shape followed by the designated point and the direction followed by the designated point.

  In step S210, the image processing selection unit 20c selects image processing to be executed from among a plurality of image processing based on a series of recorded instruction point trajectories.

  FIG. 3 is an explanatory diagram showing the correspondence between the locus of the designated point and the selected image processing in the first embodiment. If the locus of the instruction point is a circle and the direction followed by the locus is clockwise, the reduction process is selected as the image process. When the locus of the instruction point is circular and the direction followed by the locus is counterclockwise, enlargement processing is selected as the image processing. The target areas for the reduction process and the enlargement process are both rectangular areas in which the locus (circular shape) of the indication point is inscribed. Further, both the reduction ratio and the enlargement ratio are set in advance. When the locus of the instruction point is a straight line, the deformation process is selected as the image process. Specifically, when the locus of the instruction point intersects the contour portion in the image, the contour portion is distorted in the direction followed by the locus. The target area for the deformation process is a square area having a trajectory as a diagonal line, and the contour portion in the process target area is distorted. Note that contour extraction is performed based on the image data as pre-processing of the deformation processing. The degree of deformation (processing amount) is set in advance. As described above, when the image processing is selected based on the locus of the instruction point, the image processing execution unit 22d (FIG. 1) executes the selected image processing (FIG. 2: step S215).

  FIG. 4 is an explanatory diagram illustrating an execution example of image processing (reduction) in the first embodiment. In the example of FIG. 4A, an image, a redo button B1, an enter button B2, and another menu button B3 are displayed on the display unit 50. When the user traces clockwise around the face of the left person using the touch pen TP, the locus of the instruction point is displayed on the image. When the user presses the enter button B2 with the touch pen TP, the above-described steps S210 and 215 are executed, and image processing is performed. Specifically, since the locus of the instruction point is circular and clockwise, reduction processing is selected as image processing as shown in FIG. Then, as shown in FIG. 4B, the image is reduced in a rectangular area (processing area AR1) in which the locus of the instruction point is inscribed. Note that this reduction processing can be executed by, for example, bilinear interpolation processing. As a result of the reduction process, the face of the left person included in the processing target area AR1 is reduced. After this reduction process, the user can return the image to the state before the reduction process is executed by pressing the redo button B1.

  FIG. 5 is an explanatory diagram illustrating an execution example of image processing (enlargement) in the first embodiment. In FIG. 5, the image and button group displayed on the display unit 50 are the same as the image and button group of FIG. As shown in FIG. 5A, when the user uses the touch pen TP to trace counterclockwise around the cloud on the mountain, the locus of the indication point is displayed on the image. When the user presses the decision button B2 with the touch pen TP, the locus of the instruction point is circular and counterclockwise, so that the image is enlarged in a rectangular area (processing target area AR2) in which the locus of the instruction point is inscribed. As a result, as shown in FIG. 5B, the cloud surrounded by the locus of the indication point is enlarged and displayed.

  FIG. 6 is an explanatory diagram illustrating an execution example of image processing (deformation) in the first embodiment. In FIG. 6, the image and button group displayed on the display unit 50 are the same as the image and button group in FIG. 4. As shown in FIG. 6A, when the user draws a straight line toward the inside of the face so as to intersect with a part of the face contour of the left person using the touch pen TP, the locus of the indication point is an image. Displayed above. When the user presses the enter button B2 with the touch pen TP, the locus of the instruction point is a straight line, and thus the face outline is distorted in the processing target area AR3. As a result, as shown in FIG. 6B, a part of the face contour of the left person is deformed so as to be recessed from the outside to the inside according to the direction of the instruction point.

  As described above, when image processing is to be executed in the printer 100, the user uses the touch pen TP to trace the part on the image to be subjected to image processing in a shape corresponding to the desired image processing content. Thus, the processing target area and the processing content can be designated. Accordingly, since there is no action such as selecting the processing contents from another menu, the user can select and execute desired image processing very easily. Also, even if the shape of the locus of the indication point is circular and the same, if the direction to follow is reversed so that it is reduced when it is clockwise and enlarged when it is counterclockwise, the processing to be executed is also reversed. Is set to Therefore, the user can intuitively perform the reverse operation, and can easily store the relationship between the operation of the touch pen TP and the image processing.

B. Second embodiment:
FIG. 7 is an explanatory diagram illustrating a schematic configuration of a printer according to the second embodiment. This printer 100a is different from the printer 100 (FIG. 1) in the first embodiment in that a face area extraction unit 20e is configured in the CPU 20, and the other configuration is the same as the printer 100 shown in FIG. is there. The face area extraction unit 20e extracts an area indicating a person's face in the image indicated by the image data based on the designated image data. This face area extraction is performed by, for example, matching a template image of a human face prepared in advance by changing the size and rotation angle at various positions in the specified image and superimposing it with the image. can do.

  FIG. 8 is a flowchart showing the procedure of image processing in the second embodiment. The procedure of the second embodiment adds steps S206, S208, and S220 to the flowchart of FIG. 2, and the other procedures are the same as those of the first embodiment. In the first embodiment, the image processing selected in the processing target area is executed regardless of the position of the locus of the instruction point in the image. On the other hand, in the second embodiment, the selected image processing is executed only in the face area existing in the image and its peripheral area.

  Specifically, after the locus point of the instruction point is recorded in step S205 (FIG. 8), in step S206, the face area extraction unit 20e (FIG. 7) extracts a face area in the image. In step S208, the image processing selection unit 20c determines whether or not the locus of the instruction point includes at least a part of the extracted face area. When the locus of the instruction point includes a face area, the above-described steps S210 and S215 are executed, and image processing corresponding to the shape of the locus of the instruction point and the direction to follow is selected and executed. On the other hand, in step S208, when it is determined that the locus of the instruction point does not include the face area, the image processing selection unit 20c executes a process (area selection process) for selecting the area specified by the locus of the instruction point. (Step S220).

  FIG. 9 is an explanatory diagram showing an execution example of image processing (reduction and area selection) in the second embodiment. In FIG. 9, the image and button group displayed on the display unit 50 are the same as the image and button group of FIG. In the image, a one-dot chain line rectangular area including a human face indicates the face areas FA1 and FA2 extracted in step S208 (FIG. 8). In the example of FIG. 9A, the user uses the touch pen TP to trace around the face of the person on the left side and the cloud on the mountain in a clockwise circle, respectively, and to indicate the trajectories TR1 and TR2 of the indication points. Is displayed on the image. When the user presses the enter button B2 with the touch pen TP, as shown in FIG. 9B, the face of the left person is reduced and the area around the cloud on the mountain is selected. As shown in FIG. 9A, the trajectory TR1 includes a part of the face area FA1. Therefore, the reduction process is executed in the rectangular area (processing area AR1) inscribed in the trajectory TR1. On the other hand, the trajectory TR2 does not include the face areas FA1 and FA2. Therefore, the area selection is executed for the area surrounded by the trajectory TR2. When an area is selected, other image processing can be executed again for the area. Specifically, for example, if the printer 100a can execute image processing for adjusting brightness, the user selects an area surrounded by the trajectory TR2 (FIG. 9B). The brightness of the cloud above the mountain can be adjusted by pressing the other menu button B3 and selecting a menu (not shown) for adjusting the brightness.

  As described above, in the second embodiment, the face area is extracted in advance, and the process of selecting and executing the image processing depending on whether the locus of the instruction point includes the face area, and the area selection are performed. The process to be executed is switched. Therefore, the user can select and execute desired image processing by designating a face area (more precisely, a processing target area defined by a trajectory including the face area) by a simple method. In addition, when the user moves the touch pen TP so as to have a predetermined locus in a position unrelated to the face region, image processing is selected and executed for the processing target region defined by the locus. Can be prevented.

C. Third embodiment:
FIG. 10 is an explanatory diagram illustrating a schematic configuration of a printer according to the third embodiment. The printer 100b is different from the printer 100 (FIG. 1) in the first embodiment in the configuration of the touch pen, and the other configuration is the same as the printer 100 shown in FIG. Unlike the touch pen TP (FIG. 1) in the first embodiment, the touch pen TPa provided in the printer 100b has two pen tips having different thicknesses. Specifically, the touch pen TPa has a relatively thin nib having the same thickness as the touch pen TP at one end and a relatively thick nib at the other end. In each of the embodiments described above, image processing is selected based on the shape of the trajectory of the indication point and the direction to follow. However, in the third embodiment, an image is displayed based on the shape of the trajectory of the indication point and the contact area on the touch panel. The process is configured to be selected.

  FIG. 11 is a flowchart showing the procedure of image processing in the third embodiment. The procedure of the third embodiment changes step S210 in the flowchart of FIG. 2, and the other procedures are the same as those of the first embodiment. After the locus point of the instruction point is recorded in step S205, in step S210a, the image processing selection unit 20c selects image processing based on the shape of the locus of the instruction point and the touch area on the touch panel. In addition, the contact area in a touch panel can be calculated | required as follows, for example. As described above, when a plurality of coordinates are notified as touch points, the instruction point recording unit 20a (FIG. 10) obtains and records the center (center of gravity) coordinates of the plurality of touch points. At this time, the instruction point recording unit 20a also records a plurality of notified coordinates together with the center coordinates of the touch point. Then, the image processing selection unit 20c calculates an average value of the notified number of coordinates as a contact area on the touch panel.

  FIG. 12 is an explanatory diagram illustrating the correspondence between the locus of the instruction point and the selected image processing in the third embodiment. When the locus of the instruction point is circular and the contact area on the touch panel is smaller than a predetermined area (the width of the locus is narrow), the reduction processing is selected as the image processing. When the locus of the instruction point is circular and the touch area on the touch panel is larger than a predetermined area (the width of the locus is thick), enlargement processing is selected as image processing. When the locus of the instruction point is a straight line, the deformation process is selected as the image process, as in the above-described embodiments, regardless of the contact area. When image processing is selected based on the shape of the locus of the instruction point and the touch area on the touch panel as described above, in step S215 (FIG. 11), the image processing execution unit 22d (FIG. 10) selects the selected image. Execute the process.

  FIG. 13 is an explanatory diagram illustrating an execution example of image processing (enlargement and reduction) in the third embodiment. In FIG. 13, the image and button group displayed on the display unit 50 are the same as the image and button group of FIG. In the example of FIG. 13A, the user uses the touch pen TPa (FIG. 10) to trace clockwise around the face of the left person with a relatively thin pen tip and turn the touch pen TPa upside down for comparison. The target point trajectory is displayed on the image by tracing the surroundings of the clouds above the mountain clockwise with a thick pen tip. Instead of the relatively thick pen tip, the user's finger may trace around the cloud above the mountain. When the user presses the enter button B2 with the touch pen TPa, as shown in FIG. 13B, the face of the left person is reduced and the area around the cloud on the mountain is enlarged.

  As described above, in the third embodiment, the user selects the pen tip of the touch pen TPa, and traces the image in a predetermined direction so that the locus of the indication point has a predetermined shape, thereby obtaining a desired image. Processing contents can be specified. Therefore, since there is no action such as selecting the processing contents from another menu, the user can execute desired image processing very easily. In addition, processing executed in accordance with the area is performed such that the touch point is reduced when the contact area is small (the trajectory width is narrow), and is enlarged when the touch area is large (the trajectory width is thick). It is set to be reversed. Therefore, the user can intuitively perform the reverse operation, and can easily store the relationship between the operation of the touch pen TP and the image processing.

D. Fourth embodiment:
FIG. 14 is a flowchart showing the procedure of image processing in the fourth embodiment. The procedure of the fourth embodiment adds step S212 to the flowchart of FIG. 2, and the other procedures are the same as those of the first embodiment. The configuration of the printer is the same as that of the printer 100b (FIG. 10) in the third embodiment. Also, the correspondence between the locus of the instruction point and the selected image processing is as shown in FIG. In the first embodiment, the processing target area is determined by the locus of the instruction point. Specifically, as described above, when the shape of the locus of the instruction point is a circle, a rectangular area inscribed in the locus is set as a processing target region, and when the shape of the locus is a straight line, the locus is a diagonal line. The square area is the processing target area. On the other hand, in the fourth embodiment, the processing target region is determined in consideration of the touch area on the touch panel along with the locus of the instruction point. In the first embodiment, the enlargement ratio, reduction ratio, and degree of deformation (processing amount) are set in advance, but in the fourth embodiment, the processing amount is determined according to the contact area on the touch panel. It is configured as follows.

  Specifically, after selecting image processing content in step S210 (FIG. 14), the image processing selection unit 20c determines a processing target region and a processing amount based on the touch area of the touch panel (step S212). Then, the image processing execution unit 20d (FIG. 10) executes the selected image processing content for the processing target region determined in step S212 by the processing amount determined in step S212 (step S215).

  FIG. 15A is an explanatory diagram illustrating the display unit 50 after image processing (deformation) is performed when the user traces an image with a relatively thin pen tip using the touch pen TPa. FIG. 15B is an explanatory diagram showing the display unit 50 after image processing (deformation) is performed when the user traces an image with a relatively thick pen tip using the touch pen TPa. 15A and 15B, the image and button group displayed on the display unit 50 are the same as the image and button group in FIG. Similarly to FIG. 6A, when the user draws a straight line toward the inside of the face using the touch pen TPa so as to intersect a part of the face contour of the left person with a relatively thin pen tip, In step S210 (FIG. 14), the deformation process is selected as the image process. The processing target area determined in step S212 is the same as the processing target area AR3 shown in FIG. 6B, and the processing amount (degree of deformation) is also the same as the processing quantity shown in FIG. 6B. . On the other hand, when the user draws a straight line having the same length as in FIG. 6A with a relatively thick pen tip using the touch pen TPa, the selected image processing content is the same in the deformation processing, but the processing target area In addition, the processing amount (deformation degree) is different from that in the case of tracing an image with a relatively thin pen tip (FIG. 15A).

  Specifically, for the processing target region, a region having a predetermined width corresponding to the locus of the instruction point and the contact area (trajectory width) on the touch panel is determined as the processing target region. For example, when the contact area on the touch panel is four times that of FIG. 15A, the length of the locus (straight line) is 1.2 times that of the processing target area AR3 even if the length of the locus (straight line) is the same. Is determined as the processing target area AR4 (FIG. 15B). Similarly, the processing amount (deformation degree) is also determined according to the shape of the instruction point and the contact area on the touch panel. Therefore, as shown in FIG. 15B, when a straight line is drawn with a relatively thick pen tip, the outline of the person's face is larger than the case of FIG.

  As described above, in the fourth embodiment, the user only has to select the pen tip of the touch pen TPa in order to specify a desired processing target area and processing amount. Thus, the desired image processing can be performed on the desired processing target area by the desired processing amount very easily.

E. Variations:
In addition, elements other than the elements claimed in the independent claims among the constituent elements in the above embodiments are additional elements and can be omitted as appropriate. 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.

E1. Modification 1:
In the second embodiment described above, the selected image processing is executed when the locus of the instruction point includes at least a part of the face area. However, the locus of the instruction point does not include the face area at all. Even in such a case, the image processing may be executed in accordance with the positional relationship between the locus of the instruction point and the face area. For example, when the locus of the instruction point does not include any face area, the reduction process is executed when the distance between the locus of the instruction point (clockwise circle) and the face area is within a predetermined range, If it is longer than the predetermined range, the reduction process may not be executed. As can be understood from the above embodiments and modifications, the selected image processing may be executed when the locus of the indication point is close to the face region within a predetermined range.

  Unlike the above-described configuration, the image processing may be executed regardless of the positional relationship between the locus of the instruction point and the face area. Specifically, the image processing selected based on the locus of the instruction point may be performed on all the extracted face areas. In such a configuration, since the image processing is executed regardless of the positional relationship between the locus of the instruction point and the face area, the user draws a clockwise or counterclockwise circle with the touch pen TP in a portion that is not the face area. The image processing to be performed on the face area can be designated. Therefore, for example, when it is desired to perform the reduction process on all the face areas, the user can draw a clockwise circle in an arbitrary part on the image using the touch pen TP, and more easily. It is possible to specify the image processing content and the processing pair area. Note that the deformation process is related to the positional relationship between the locus of the instruction point and the face area. Therefore, when the same deformation process is performed on all the face areas, the user draws a straight line using the touch pen TP in any one of the plurality of face areas. Then, the deformation process may be executed in all other face regions at positions where the relative positions of the locus of the instruction point with respect to the face region are the same.

E2. Modification 2:
In each of the embodiments described above, the processing target area is determined together with the contents of the image processing based on the locus of the instruction point. However, the processing target area may be set in advance. Specifically, for example, the entire image may be set as a processing target area in advance. In this case, for example, the entire image can be enlarged by drawing a counterclockwise circle in an arbitrary part on the image. Even with such a configuration, the user can select and execute image processing with a simple operation.

E3. Modification 3:
In the second embodiment described above, the processing target area is an area determined based on the locus of the instruction point. However, the extracted face area may be the processing target area. For example, in the example of FIG. 9, the reduction process may be executed with the face area FA1 as the process target area. In this way, the user can easily specify the face area when attempting to specify the face area as the processing target area. Further, both the area determined based on the locus of the instruction point and the face area may be set as the processing target area. In this case, the processing content and the processing amount may be different depending on the presence or absence of overlapping regions, such as by increasing the processing amount of a portion where both regions overlap, compared to a non-overlapping portion. The face area extraction processing is executed as part of the procedure of the image processing (FIG. 8). However, if the face area is extracted in advance in a process different from the image processing, the face processing is performed in the image processing. The region extraction process (step S206) may be omitted.

E4. Modification 4:
In each of the embodiments described above, the content of the selected image processing is any one of enlargement, reduction, and deformation. However, a combination of the two processings may be selected. For example, when the shape of the locus of the indication point is a triangle, along with the process of enlarging the predetermined processing target area defined by the triangle, the contour in the processing target area is changed to a predetermined vertex (for example, the lowest A process of deforming by a predetermined amount from the apex located in the direction toward the center of the triangle may be selected.

E5. Modification 5:
In the second embodiment described above, region selection is performed for a region that does not include any face region among the regions surrounded by the locus of the instruction point. However, for such a region, any process different from region selection is performed. May be executed. For example, for such a region, a process for increasing the brightness may be executed regardless of the direction followed by the trajectory or the shape of the trajectory. Further, no processing may be performed on such an area.

E6. Modification 6:
In the first, second, and fourth embodiments, the correspondence relationship between the locus of the instruction point and the selected image processing is not limited to the correspondence relationship shown in FIG. Can do. For example, when the shape of the trajectory is circular and the direction followed by the trajectory is clockwise, the configuration may be such that the deformation process is selected unlike the first and second embodiments. In this case, the direction of deformation may be a direction from the position of the starting point of the locus toward the circular center of the locus. In this way, even if the configuration is such that the processing executed when the direction of the trajectory is reversed does not reverse, the user can execute the desired image processing very easily. Similarly, in the third embodiment, the correspondence between the locus of the instruction point and the selected image processing is not limited to the correspondence shown in FIG.

E7. Modification 7:
In the second embodiment described above, the face area is extracted. However, an arbitrary area different from the face area is extracted as the specific area, and the image is determined based on the relationship between the extracted specific area and the locus of the indication point. A process may be selected and executed. Specifically, for example, a person's “eye” area may be extracted as a specific area. In this way, for example, when the shape of the locus of the instruction point is circular and the direction of the locus is clockwise, the red-eye correction process is selected, and the circumference of the person's eyes is traced clockwise. Thus, red-eye correction can be performed on this eye portion.

E8. Modification 8:
In the third and fourth embodiments described above, the selected image processing is executed regardless of the position of the locus of the indication point in the image, but the locus of the indication point is the same as in the second embodiment. When the image includes a face area, image processing may be selected and executed.

E9. Modification 9:
In the above-described fourth embodiment, the processing target region and the processing amount are determined based on the contact area on the touch panel (FIG. 14: step S212), but at least one of the processing target region and the processing amount is determined. You may make it do. That is, the processing target area is a rectangle that inscribes the trajectory of the instruction point or a square area that has the trajectory of the instruction point as a diagonal line, as in the first to third embodiments. You may make it determine based on a contact area. The processing amount may be a preset amount as in the first to third embodiments, and the processing target area may be determined as in the fourth embodiment described above. .

E10. Modification 10:
In each of the embodiments described above, the touch pens TP and TPa are used as means for instructing the instruction point. However, any device other than the touch pen may be used as the instruction means for the instruction point. For example, the printers 100, 100a, and 100b may be configured to include a mouse connected by a USB (Universal Serial Bus) or the like, and an instruction point may be indicated using such a mouse. In addition to the devices included in the printers 100, 100a, and 100b, as described above, the instruction point may be indicated by a user's finger or a pointed pen.

E11. Modification 11:
In each embodiment described above, the touch panel included in the display unit 50 is a resistive touch panel, but may be an arbitrary touch panel. For example, a capacitive touch panel, an ultrasonic surface acoustic wave touch panel, an infrared shielding touch panel, an electromagnetic induction touch panel, or the like may be used.

E12. Modification 12:
In the embodiment described above, a part of the configuration realized by hardware may be replaced with software, and conversely, a part of the configuration realized by software may be replaced by hardware. .

1 is an explanatory diagram illustrating a schematic configuration of a printer to which an image processing apparatus as an embodiment of the present invention is applied. FIG. It is a flowchart which shows the procedure of the image process in a 1st Example. It is explanatory drawing which shows the correspondence of the locus | trajectory of the indication point in the 1st Example, and the image processing selected. It is explanatory drawing which shows the example of execution of the image process (reduction | reduction) in a 1st Example. It is explanatory drawing which shows the example of execution of the image process (enlargement) in a 1st Example. It is explanatory drawing which shows the example of execution of the image process (deformation) in a 1st Example. It is explanatory drawing which shows schematic structure of the printer in a 2nd Example. It is a flowchart which shows the procedure of the image process in a 2nd Example. It is explanatory drawing which shows the example of execution of the image process (reduction | reduction and area | region selection) in a 2nd Example. It is explanatory drawing which shows schematic structure of the printer in a 3rd Example. It is a flowchart which shows the procedure of the image process in a 3rd Example. It is explanatory drawing which shows the correspondence of the locus | trajectory of the instruction | indication point in the 3rd Example, and the image processing selected. It is explanatory drawing which shows the example of execution of the image process (enlargement and reduction) in a 3rd Example. It is a flowchart which shows the procedure of the image process in a 4th Example. It is explanatory drawing which shows the example of execution of the image process (deformation) in a 5th Example.

Explanation of symbols

10 ... Control circuit 20 ... CPU
20a ... Instruction point recording unit 20b ... Display control unit 20c ... Image processing selection unit 20d ... Image processing execution unit 20e ... Face region extraction unit 22d ... Image processing execution unit 30 ... Memory 40 ... Memory card slot 42 ... Printer engine 44 ... Operation Part 46 ... Touch panel control part 50 ... Display part 100, 100a, 100b ... Printer B1 ... Redo button B2 ... Enter button B3 ... Other menu button MC ... Memory card TP, TPa ... Touch pen FA1, FA2 ... Face area TR1, TR2 ... Trajectory AR1 to AR4 ... processing target area

Claims (5)

An image processing apparatus,
A display unit;
A point instruction receiving unit that receives an instruction of the position of the instruction point on the image displayed on the display unit;
An image processing selection unit that selects at least one image processing from a plurality of predetermined image processing according to the locus of the instruction point;
A specific area extracting unit that extracts a specific area that satisfies a predetermined condition in the image;
With
The image processing selection unit selects at least one image processing from the plurality of predetermined image processes according to a positional relationship between the locus and the specific area, and the shapes of the locus are substantially the same. An image processing apparatus that selects image processes that are opposite to each other in two cases in which the directions to be traced are opposite to each other . The image processing apparatus according to claim 1, further comprising:
An image processing unit that executes the selected image processing in at least one of the region determined based on the locus and the specific region;
Image processing device. The image processing apparatus according to claim 1 or 2,
The specific area is an area representing a human face in the image;
The image processing selection unit selects the first image processing when the trajectory is close to the specific area within a predetermined range, and the trajectory is not close to the specific area within the predetermined range. A second image processing different from the first image processing is selected.
Image processing device. The image processing apparatus according to claim 1 or 2,
The specific area is an area representing a human face in the image;
The image processing selection unit selects the first image processing when the trajectory includes the specific region, and the second different from the first image processing when the trajectory does not include the specific region. An image processing apparatus that selects image processing. A display unit, an image processing apparatus and a point instruction receiving unit for receiving an instruction position of the instruction point on images displayed on the display unit, from among a predetermined plurality of image processing at least one image An image processing selection method for selecting a process,
(A) extracting a specific region satisfying a predetermined condition in the image;
(B) At least one image processing is selected from the plurality of predetermined image processes according to the positional relationship between the locus of the indication point and the specific area, and the shapes of the locus are substantially the same. In the two cases where the directions to be traced are opposite to each other, the step of selecting image processing that is opposite to each other ;
An image processing selection method comprising:

Images