JP3890619B2 - Image processing device - Google Patents

Description

[0001]
BACKGROUND OF THE INVENTION
The present invention relates to an image processing apparatus that transforms the length of a line segment and the angle of two sides of a displayed figure into a desired scale.
[0002]
[Prior art]
Conventionally, in this type of image processing apparatus, for a graphic drawn on a display screen, the length and angle of the graphic are displayed as the current scale, and then the graphic scale is deformed based on the current scale. There is a first method or a second method in which a scale of a figure is deformed so as to be the desired scale input by the key after inputting a desired scale from the keyboard.
[0003]
[Problems to be solved by the invention]
However, since the image processing apparatus according to the conventional example described above transforms the drawn figure from the displayed current scale to a desired scale in the first method described above, the relationship between the figure and the current scale is determined. It becomes difficult to understand, and the operation is troublesome. On the other hand, in the second method described above, a desired scale is input by key operation for the drawn figure. Since the operation is not continuous due to a deformation error, the key operation becomes troublesome and the usability is poor.
[0004]
An object of the present invention is to provide an image processing apparatus capable of transforming a figure being displayed to a desired scale by a simple operation in order to solve the problems caused by the above-described conventional example.
[0005]
[Means for Solving the Problems]
An image processing apparatus according to claim 1 is an input means for hand-drawing graphic data including line figures, a display means for displaying a figure based on the figure data handwritten by the input means, Deformation information input means for inputting deformation information by hand to the graphic displayed by the display means; Recognizing means for recognizing deformation information input by handwriting by the deformation information input means; If it is recognized that the The part of the figure connected by the handwritten input curve Graphic data part to be transformed As A deformation target specifying means for specifying, and when the recognizing means recognizes the deformation information as a number, a designated scale setting means for setting the recognized number as a designated scale; The graphic data portion to be deformed is specified by the deformation information recognized as not a number by the deformation target specifying means, and the recognized number is specified by the deformation information recognized as a number by the designated scale setting means. When set as a scale, The graphic data portion to be deformed is further provided with deformation display means for deforming and displaying the specified scale size set by the designated scale setting means.
[0006]
According to the above configuration, the input means By Graphic data including a line graphic or the like is input by handwriting, the display means displays a graphic based on the graphic data input by handwriting by the input means, and deformation information is displayed on the graphic displayed by the display means by the deformation information input means. When the handwriting input is performed, the recognizing unit recognizes the deformation information input by handwriting by the deformation information input unit, and the deformation target specifying unit determines that the deformation information is not a number. , The deformation information The part of the figure connected by the handwritten input curve Graphic data part to be transformed As The specified scale setting means sets the recognized number as the specified scale when the deformation information is a number, When the graphic data part to be deformed is specified by the deformation information recognized as not a number, and when the recognized number is set as the designated scale by the deformation information recognized as a number, The specified graphic data portion to be deformed is deformed and displayed at the specified scale size.
[0007]
Therefore, it is handwritten to the figure being displayed. Specify the graphic data part to be deformed, and the desired scale Since the figure is deformed and displayed simply by inputting, the displayed figure can be transformed and displayed on a desired scale by a simple operation.
[0026]
DETAILED DESCRIPTION OF THE INVENTION
Exemplary embodiments of the present invention will be described below in detail with reference to the accompanying drawings.
FIG. 1 is a block diagram showing an embodiment of an image processing apparatus according to the present invention. In FIG. 1, reference numeral 1 denotes the image processing apparatus.
The image processing apparatus 1 illustrated in FIG. 1 includes, for example, a CPU 2, a ROM 3, a RAM 4, a touch panel 5, a designated position recognition unit 6, a character recognition unit 7, a display drive circuit 8, and a display unit 9. In this embodiment, the input pen 10 is employed as a pointing device for specifying a position in the coordinate position detection unit 5 described later.
[0027]
The CPU 2 is a central processing unit that controls the entire control device 1 in accordance with a control program stored in the ROM 3. The CPU 2 is coupled to the ROM 3, RAM 4, designated position detection unit 6, character recognition unit 7, and display drive circuit 8. The CPU 2 executes control programs, reads / writes data, and recognizes designated positions and characters by pen input (graphics). Including the dimension setting process) and controlling operations such as display driving. For example, the graphic dimension setting process is executed by a control program according to the flowcharts shown in FIGS.
[0028]
The ROM 3 is a memory for storing various control programs for operating the CPU 2 and data such as parameters necessary for the various programs. For example, the ROM 3 stores programs according to the flowcharts shown in FIGS.
[0029]
The RAM 4 includes memories such as a graphic information memory 41, a display memory 42, and a work memory 43. The graphic information memory 41 is a memory for storing graphic information (first graphic information, second graphic information) before and after deformation of dimensions as shown in FIGS. 5, 7, 10, and 12 described later. The first graphic information includes a type indicating the line type of the graphic (straight line, two sides, etc.), a designated scale (line length, two side angles, etc.), a mode (actual size transformation to the designated scale, two figures Relative deformation between), pre-deformation information (point position, straight line start and end points, two side start points, middle point and end point, actual size (line length, two side angles, etc.)), post-deformation information ( Point position, straight line start point and end point, two side start point, middle point and end point). Note that the second graphic information is also required for the relative deformation, and the second graphic information includes a designation method, pre-deformation information, and post-deformation information as in the FIG. 1 shape method.
[0030]
The display memory 42 is a memory that supplies image data (dot data) to the display unit 2 by expanding dots of image data such as a figure drawn by operating the input pen 10, a figure whose dimensions have been changed, a menu, and an icon. . The work memory 43 is a memory used as a work area when the CPU 2 operates according to various control programs.
[0031]
The touch panel 5 has a configuration in which the display unit 9 is laminated on the upper surface and the coordinate position of the display unit 9 is substantially matched. For example, the touch position is specified by touching the input pen 10 using a pressure-sensitive method. This is supplied to the position recognition unit 6 and the character recognition unit 7. The designated position recognition unit 6 recognizes the designated position (coordinate position) from the touch position supplied from the touch panel 5 and supplies coordinate position data to the CPU 2. The character recognition unit 7 detects the stroke of the input pen 10 from the touch position supplied from the touch panel 5, performs character recognition, and supplies the recognition result to the CPU 2.
[0032]
The display drive circuit 8 is a circuit that drives the display unit 9 under the control of the CPU 2, and the display unit 9 is an output device that forms a display image based on the display data stored in the display memory 42 according to the control of the display drive circuit 8. is there.
[0033]
Next, the operation will be described. 2, FIG. 3 and FIG. 4, FIG. 6, FIG. 8 and FIG. 9, and FIG. 11 and FIG. 12 are diagrams for explaining the graphic dimension setting procedure in the present embodiment, respectively. FIGS. 10 and 12 are diagrams showing the contents stored in the graphic information memory 41 corresponding to the graphic dimension setting method. 13 to 16 are flowcharts for explaining the graphic dimension setting method in the present embodiment. The operations according to the flowcharts shown in FIGS. 13 to 16 are executed according to the control of the CPU 2, but each operation is performed by each unit.
[0034]
First, when this process is started, an initial screen is set in step S1 as shown in FIG. That is, in FIG. 2A, on the display screen of the display unit 9, an icon area 9a is displayed on the upper left, and a graphic creation area 9b is displayed on the other areas. In the icon area 9a, a point icon 91, a line segment icon 92, and a two-sided icon 93 are set in order from the left in the upper stage, and a line segment distance icon 94, an angle icon 94, and an OK icon 96 are set in order from the left in the next stage.
[0035]
The point icon 91 sets a mode for creating a point graphic, the line icon 92 sets a mode for creating a line graphic at a specified position, and the two-side icon 93 has 2 A mode for creating a side figure is set. The line segment distance icon 94 sets a mode for inputting the distance between both ends of the created line segment graphic, and the angle icon 94 inputs the angle of the vertex angle of the created two-side graphic. The OK icon 96 is for setting a mode for deforming a created figure based on the inputted distance and angle.
[0036]
As described above, when the initial screen setting is completed in step S1, pen input by the input pen 10 is sensed from the icon area 9a in step S2. In this step S2, when a pen input is detected from the icon area 9a, in the subsequent steps S3, S4, and S5, it is determined whether the detected position is a graphic input, a deformation information input, or a graphic deformation. The If it is determined in step S3 that a graphic input is obtained from the detected position, the process proceeds to step S6, and a graphic input process according to the flowchart shown in FIG. 14 is executed. If a determination result indicating that the input is deformation information is obtained, the process proceeds to step S7, and the deformation information input process according to the flowchart shown in FIG. 15 is executed. If the determination result is that the figure is deformed, the process proceeds to step S8, and the figure deforming process according to the flowchart shown in FIG. 16 is executed.
[0037]
Here, the description will be continued with reference to specific examples. For example, as shown in FIG. 2B, if there is a pen touch input to the line segment icon 92 in the icon area 9a by operating the input pen 10, it is not a pen input to the point icon 91 in step S601 in the flow of FIG. Therefore, the pen input position is determined to be the line segment icon 92 in step S605.
[0038]
Thereafter, the process proceeds to step S606. In step S606, the line segment icon 92 input by the pen is displayed in reverse video (indicated by hatching in FIG. 2B), and the first information in the graphic information memory 41 is displayed as shown in FIG. In the graphic information, data indicating “line segment” is stored as the type data. In the subsequent step S607, the pen input of the line segment graphic is sensed, and the pen input specifies the start point (start point) and the end point. 2C, when the start point ST1 and the end point ED1 are designated (pen input) in the graphic creation area 9b by the input pen 10 (step S607), the start point input by the pen is performed. The designated positions of ST1 and end point ED1 are stored in the graphic information memory 41 as the first coordinate data (XA, YA) and the second coordinate data (XB, YB) (step S608). Segment indicated by LN1 connecting the two points ST1, ED1 a straight line is drawn processed on Geometry area 9b based on the coordinate position (step S610).
[0039]
In the mode according to the line segment icon 92, if there are two position designations of the start point ST1 and the end point ED1, the line segment drawing is entered. Therefore, when the position designation of the two points is confirmed in step S609, the process is started. The process proceeds to line segment drawing in step S610.
[0040]
Thus, when the graphic display is completed, the process returns to the flow shown in FIG. 13. If the end of the process is not detected in step S9, icon input is sensed again in step S2. When the point icon 91 is a pen input target (step S601), in the same manner as the process related to the line segment icon 92 described above, in step S602, S603, and S604, the point icon 91 is highlighted and its type data is displayed. The storage of “point”, the storage of the specified position (point position), and the display formation of the point graphic are executed. In this case, only the position of one point is specified, and therefore the processing after step S604 is the flow of FIG. Return to.
[0041]
In the display state of FIG. 2C described above, if there is a pen input to the line segment distance icon 94 as shown in FIG. 3A, this is determined as a deformation information input in the flow of FIG. The processing moves to step S701 in FIG. In step S701, a determination is made as to which of the line segment distance icon 94 and the angle icon 95 has been pen-input. In this case, it is determined in step S701 that the pen input position is the line segment distance icon 94.
[0042]
Thereafter, the process proceeds to step S702. In step S702, a process of highlighting the line segment distance icon 94 input by the pen (indicated by hatching in the drawing) is executed. In the subsequent step S703, pen input to the line segment figure is sensed. The pen input is a stroke input for drawing a curve by sliding the input pen 10 so as to connect the start point (start point) and the end point, and a character (distance is set). Number shown) Stroke input. Therefore, when a stroke DS1 connecting the start point ST1 and the end point ED1 is input to the figure creation area 9b by the input pen 10, the stroke DS1 is displayed as shown in FIG. 3B (steps S703 and S704). In the subsequent step S705, character recognition (numeral recognition) is performed based on the coordinate data of the stroke DS1, and a determination result that the stroke DS1 cannot be recognized and is not a number is obtained. Therefore, the process returns to step S703. Return. By the input of the stroke DS1, the deformation information input process indicates that the deformation information is input for the line segment LN1.
[0043]
Similarly, in this step S703, pen input is sensed, and when the numeral (character) “5” is input as a stroke, the stroke is once displayed in step S704. In the subsequent step S705, the displayed stroke is a numeral. The character is recognized as “5”. Thereafter, the character generator previously stored in the ROM 3 develops the font pattern of the number “5” in the display memory 42 and displays the number pattern CHR1 “5” as shown in FIG. In this case, it is determined in step S706 that the number has been recognized, and in step S707, the number-recognized “5” is stored in the graphic information memory 41 as the designated scale “5 cm”.
[0044]
In step S708, as shown in FIG. 3C, since the figure is only one of the line segments LN1, the process is performed so that the deformation information input process is temporarily ended when the designated scale is stored in step S707. Executed. Thereafter, the process returns to the flow shown in FIG. 13 and is resumed from step S9 described above.
[0045]
Next, in the display state of FIG. 3C described above, if there is a pen input to the OK icon 96 as shown in FIG. 4A, this is determined as a graphic deformation input in the flow of FIG. The process proceeds to step S801 in FIG. In step S801, as shown in FIG. 4A, a process of inverting and displaying the OK icon 96 is executed.
[0046]
In the subsequent step S802, the number of pieces of graphic information having designated scale data is checked from the graphic information provided with an area in the graphic information memory 41, and the number is used as the number of figures to determine whether it is singular or plural. Is executed. In the graphic information memory 41 shown in FIG. 5, the designated scale data is stored only in the area of the first graphic information, and a determination result of singular is obtained in step S802. Therefore, the process proceeds to step S803, and the actual size deformation is performed. Start the mode. At that time, the graphic information memory 41 stores an actual size deformation mode as a mode in the area of the first graphic information. In the case of a plurality of processes, the process proceeds to step S805 to start the relative deformation mode.
[0047]
When the figure is single, that is, in the actual size deformation mode, the first coordinate data (XA, YA) of the starting point ST1 before the deformation is used as the starting point (starting point ST1) after the deformation, so in step S803, the line is started from the starting point ST1. The first coordinate data (XA, YA) of the start point ST1, the second coordinate data (XB, YB) of the end point ED1, and the specified scale data “5 cm” are obtained so that the end point RED1 after the change in the vector direction of the minute LN1 can be obtained. The end point RED1 is calculated based on the above. For example, when the actual scale is 7 cm, the designated scale is 5 cm with respect to the line segment LN1, and therefore the end point ED1 before the change is directed toward the start point ST1 as shown in FIG. 4B. Reduction (deformation) corresponding to the correction distance “2 cm” indicated by Δd1 is given to become a deformation line segment RLN1. The corrected end point is RED1, and the coordinate data is stored as the second coordinate data (XC, YC) in the changed information in the graphic information memory 41. Since the first coordinate data is a starting point, it is unchanged before and after the change.
[0048]
Further, at the time of this graphic reduction (deformation) display, as shown in FIG. 4B, the stroke DS1 is reduced (deformation) with the movement of the end point ED1 to become a deformation stroke RDS1, and the stroke DS1 Along with the deformation, the display position of the character pattern CHR1 is moved.
[0049]
Now, after the graphic input process for the line segment LN1, the graphic input process for the line segment LN2 shown in FIG. 6A is performed, and the procedure for performing the deformation information input process for each line segment LN1, LN2 is also described. To do.
[0050]
In the graphic input process, as in the case of the line segment LN1, data related to the line segment LN2 is stored in the graphic information memory 41 as the second graphic information. That is, in the pre-deformation information of the line segment LN2, the coordinate data of the start point ST2 is stored as the first coordinate data (XD, YD), and the coordinate data of the end point ED2 is stored as the second coordinate data (XE, YE). Further, in the deformation information input process, as shown in FIG. 6A, the stroke DS2 and the character pattern CHR2 “3 cm” as the designated scale are displayed and formed in the graphic creation area 9b according to the pen input. In the deformation information input process for only the line segment LN1 described above, the recognition result “5” is stored in the graphic information memory 41 as the designated scale data “5 cm” in step S707, and then it is immediately determined to end in step S708. However, in the example of FIG. 6A accompanied by the line segment LN2, until the designated scale data is stored for each of the line segments LN1 and LN2, the process is not terminated except for the forced termination, and the process is repeatedly executed from step S703 again. Is done.
[0051]
Thereafter, when the position of the OK icon 96 is designated by the input pen 10, the process proceeds to the graphic transformation process shown in FIG. 16 as described above, and first, in step S801, as shown in FIG. A process of highlighting the icon 96 is executed.
[0052]
In the subsequent step S802, as is apparent from the graphic information memory 41 shown in FIG. 7, the designated scale data is stored in each of the first and second graphic information, and it is confirmed that there are a plurality of figures. Since this is possible, the process proceeds to step S805. That is, the relative deformation mode is executed by the processing after step S805.
[0053]
In this relative deformation mode, first, in step S805, the actual scale of the first graphic serving as the reference graphic is calculated and stored based on the pre-deformation information (graphic information memory 41). When three line segment figures are input and no deformation information is input to the first reference figure, the second figure is substituted as the reference figure and its actual scale is calculated.
[0054]
In the actual scale calculation method, the pre-deformation information of the first graphic information (first coordinate data (XA, YA), second coordinate data (XB, YB)) for the line segment LN1 that is the first graphic. The distance between the start point ST1 and the end point ED1 is calculated, and the distance is stored in the actual scale area as the actual scale data (for example, “7 cm”) as shown in FIG. When there are three or more graphic inputs and no specified scale (deformation information) is input for the first graphic, the pre-deformation information (first coordinate) of the n-th graphic information for the n-th graphic with a smaller number The distance between the start point STn and the end point EDn is calculated from the data (second coordinate data), and the distance is stored in the actual scale area as the actual scale data.
[0055]
Next, in step S806, the reference graphic in this relative deformation is defined as the first graphic, that is, the line segment LN1, and the size of the line segment LN2, which is the second graphic (other graphic), is set to the size of the line segment LN1. The comparison is made and the ratio is calculated. In this comparison, since the same type is used as a condition, if there is another figure that is different from the type of the first figure, the other figure is not a comparison target. Will hold.
[0056]
Specifically, by dividing the designated scale “5 cm” of the line segment LN1 as the reference figure as the denominator and the designated scale “3 cm” of the line segment LN2 as another figure as the numerator, the ratio as a result of the division is 3/5 = 0.6.
[0057]
In subsequent step S807, in order to apply the ratio “0.6” obtained in step S806 to the deformation of the line segment LN2 of the second graphic, the ratio “0...” Is added to the actual scale “7 cm” of the line segment LN1 as the reference graphic. 6 "is multiplied to obtain the actual scale data" 4.2 cm ". Based on the actual scale data “4.2 cm” of the line segment LN2 and the pre-deformation information (first coordinate (XD, YD), second coordinate (XE, YE)), the coordinate position of the end point ED2 of the line segment LN2 Is moved in the vector direction of the line segment LN2, the second coordinate data (XF, YF) of the end point RED2 that is the coordinate position after the deformation is calculated. In this case, the end point RED2 after the deformation moves toward the start point ST2 from the end point ED2 before the deformation, and the line segment RLN2 after the deformation has its first coordinates as shown in FIG. 6B. Drawing is performed so as to connect the data (XD, YD) and the second coordinate data (XF, YF), and the data is reduced (deformed) toward the start point ST2 from the line segment LN2 before the deformation.
[0058]
For example, if the actual scale before deformation of the line segment LN2 is 5 cm, the correction distance indicated by Δd2 as the deformation amount is “0.8 cm”. The coordinate data of the corrected end point RED2 is stored as second coordinate data (XF, YF) in the post-change information in the graphic information memory 41, and the first coordinate data is unchanged before and after the change because it is the starting point.
[0059]
Further, when the graphic reduction (deformation) display is performed on the line segment LN2, the stroke DS2 is reduced (deformation) as the end point ED2 moves to become a deformation stroke RDS2 as shown in FIG. Along with the deformation of the stroke DS2, the display position of the character pattern CHR2 is moved.
[0060]
Now, as shown in FIG. 8A, when a pen input is made to the two-sided icon 93 in the icon area 9a by operating the input pen 10, the pen input position is set to 2 in step S605 in the flow of FIG. The side icon 93 is determined.
[0061]
Thereafter, the process proceeds to step S611. In this step S611, a process of highlighting the two-side icon 93 input by the pen (indicated by hatching in the figure) is executed, and the type of the first graphic information in the graphic information memory 41 is classified as shown in FIG. Data indicating “two sides” is stored as data. In the subsequent step S612, pen input of a two-sided figure is sensed, and the pen input specifies the start point (start point), the midpoint, and the end point. 8B, when the start point ST3, the middle point MD3, and the end point ED3 are designated (pen input) in the graphic creation area 9b by the input pen 10 (step S612). The designated positions of the start point ST3, the middle point MD3, and the end point ED3 input by the pen are stored in the graphic information memory 41 in the first coordinate data (XG, YG), the second coordinate data (XH, YH), and the third coordinate data. (XI, YI) are stored (step S613), and two sides indicated by LN3 and LN4 connecting the three points ST3, MD3, and ED3 with line segments based on the coordinate positions of the three points are on the graphic creation area 9b. (Step S615) In the mode according to the two-sided icon 93, if there are three position designations of the start point ST3, the middle point MD3, and the end point ED3, the line segment is drawn. When it is confirmed that the position of the point has been designated, the processing shifts to the two-side drawing in the next step S615.
[0062]
Thus, when the graphic display is completed, the process returns to the flow shown in FIG. 13. If the end of the process is not detected in step S9, icon input is sensed again in step S2.
[0063]
In the display state of FIG. 8B described above, if there is a pen input to the angle icon 95 as shown in FIG. 8C, this is determined as deformation information input in the flow of FIG. The process proceeds to step S701 in FIG. In step S701, a determination is made as to which of the line segment distance icon 94 and the angle icon 95 has been pen-input. In this case, it is determined in step S701 that the pen input position is the angle icon 95.
[0064]
Thereafter, the process proceeds to step S709. In step S709, a process of highlighting the line segment distance icon 95 input by the pen (indicated by hatching in the drawing) is executed. In the subsequent step S710, pen input for a two-sided figure is sensed, and the pen input is a stroke input for drawing a curve by sliding the input pen 10 so as to connect the line segment LN3 and the line segment LN4 near the midpoint MD3. , And character (number indicating the angle) stroke input. Therefore, when a stroke ANG1 connecting the line segment LN3 and the line segment LN4 is input by the input pen 10 to the graphic creation area 9b, the stroke ANG1 is displayed as shown in FIG. 9A (steps S710 and S711). ). In subsequent step S712, character recognition (numeral recognition) is performed based on the coordinate data of the stroke ANG1, and the determination result that the stroke ANG1 cannot be recognized and is not a number is obtained. Therefore, the process returns to step S710. Return. By the input of the stroke ANG1, the deformation information input process indicates that deformation information is input for two sides (line segment LN3 and line segment LN4).
[0065]
Similarly, in this step S710, when a pen input is sensed, and the number (character) “45” is input as a stroke, the stroke is once displayed in step S711. In the subsequent step S712, the displayed stroke is a number. The character is recognized as “45”. Thereafter, the character pattern stored in the ROM 3 in advance develops the font pattern of the number “45” in the display memory 42 and displays the number pattern CHR3 “45” as shown in FIG. In this case, it is determined in step S713 that the number has been recognized, and in step S714, the number-recognized “45” is stored in the graphic information memory 41 as the designated scale “45 °”.
[0066]
In step S715, as shown in FIG. 9A, since the figure is only one figure having two sides consisting of the line segments LN3 and LN4, the deformation information input process is temporarily performed when the designated scale is stored in step S714. Processing is executed to finish. Thereafter, the process returns to the flow shown in FIG. 13 and is resumed from step S9 described above.
[0067]
Next, in the display state of FIG. 9A described above, if there is a pen input to the OK icon 96 as shown in FIG. 9B, this is determined as a graphic deformation input in the flow of FIG. The process proceeds to step S801 in FIG. In step S801, as shown in FIG. 9B, a process of inverting and displaying the OK icon 96 is executed.
[0068]
In the subsequent step S802, the number of pieces of graphic information having designated scale data is checked from the graphic information provided with an area in the graphic information memory 41, and the number is used as the number of figures to determine whether it is singular or plural. Is executed. In the graphic information memory 41 shown in FIG. 10, the designated scale data is stored only in the area of the first graphic information, and a determination result of singular is obtained in step S802. Therefore, the process proceeds to step S803 and the actual size deformation is performed. Start the mode. At that time, the graphic information memory 41 stores the actual size deformation mode as the mode in the area of the first graphic information, as shown in FIG. In the case of a plurality of processes, the process proceeds to step S805 to start the relative deformation mode.
[0069]
When the figure is singular, that is, in the actual size deformation mode, the second coordinate data (XH, YH) of the middle point MD3 and the third coordinate data (XH, YH) of the end point ED3 are used in order to leave the line segment LN4 before the deformation as a baseline. XI, YI) is the same coordinate data after deformation. Therefore, in step S803, first, the length of the line segment LN3 is calculated, the length of the line segment LN3 is set as the radius, and the angle between the midpoint MD3 and the base line segment LN4 is set as the designated scale. The starting point RST3 after deformation of the starting point ST3 when the angle is 45 ° is calculated and obtained. For example, when the actual scale is 60 °, the designated scale is 45 °. Therefore, as shown in FIG. 9C, the angle formed by the line segment LN3 and the line segment LN4 before the change is Δθ1. The correction angle “15 °” shown in FIG. As a result, the figure to be deformed is only the line segment LN3, and the deformed line is defined as a deformed line segment RLN3. That is, the corrected start point is RST3, and the coordinate data is stored as first coordinate data (XJ, YJ) in the changed information in the graphic information memory 41. Note that the second coordinate data and the third coordinate data form a line segment LN4 that is a base line, and are therefore unchanged before and after the change.
[0070]
Further, at the time of this deformation display, as shown in FIG. 9C, the stroke ANG1 is reduced (deformed) with the movement of the start point ST3 to become a deformation stroke RANG1, and along with the deformation of the stroke ANG1. The display position of the character pattern CHR3 is moved.
[0071]
Now, after the graphic input processing of the two-sided graphic consisting of the line segments LN3 and LN4 described above, the graphic input processing of the two-sided graphic consisting of the line segments LN5 and LN6 shown in FIG. A procedure for performing deformation information input processing on a side figure will also be described.
[0072]
In the graphic input process, as in the case of the two-sided graphic (first graphic) consisting of the line segments LN1 and LN2, the data relating to the two-sided graphic (second graphic) consisting of the line segments LN5 and LN6 is used as the second graphic information. It is stored in the graphic information memory 41. That is, in the pre-deformation information of the two-side graphic that is the second graphic, the coordinate data of the start point ST4 is stored as the first coordinate data (XK, YK), and the coordinate data of the midpoint MD4 is the second coordinate data (XL, YL). ) And the coordinate data of the end point ED4 is stored as the third coordinate data (XM, YM). Further, in the deformation information input process, as shown in FIG. 11A, the stroke ANG2 and the character pattern CHR4 “30 °” as the designated scale are displayed and formed in the graphic creation area 9b in accordance with the pen input. . In the deformation information input process for only the first graphic described above, the recognition result “45” is stored as the designated scale data “45 °” in the graphic information memory 41 in step S707, and then it is determined that the process ends immediately in step S708. However, in the example of FIG. 11 (a) with the second graphic, until the designated scale data is stored for each of the first and second graphics, the process is not terminated except for the forced termination, and the process starts again from step S710. It is executed repeatedly.
[0073]
Thereafter, when the position of the OK icon 96 is designated by the input pen 10, the processing shifts to the graphic deformation processing shown in FIG. 16 as described above. First, in step S801, as shown in FIG. A process of highlighting the icon 96 is executed.
[0074]
In the subsequent step S802, as is apparent from the graphic information memory 41 shown in FIG. 12, the designated scale data is stored in each of the first and second graphic information, and it is confirmed that there are a plurality of figures. Since this is possible, the process proceeds to step S805. That is, the relative deformation mode is executed by the processing after step S805.
[0075]
In this relative deformation mode, first, in step S805, the actual size scale (angle) of the first graphic serving as the reference graphic is calculated and stored based on the pre-deformation information (graphic information memory 41). If three two-sided figures are input and no deformation information is input to the first reference figure, the second figure is substituted as the reference figure and its actual scale (angle) is calculated. . In addition, about the calculation method of this exact scale, it can obtain | require by a well-known technique by using the 1st coordinate, 2nd coordinate, and 3rd coordinate which are the information before a deformation | transformation. As a result, the angle is stored in the actual scale area as actual scale data (for example, “60 °”) as shown in FIG. When there are three or more graphic inputs and no specified scale (deformation information) is input for the first graphic, the pre-deformation information (first coordinate) of the n-th graphic information for the n-th graphic with a smaller number The angle formed by the two sides is calculated from the data, the second coordinate data, and the third coordinate data), and the angle is stored in the actual scale area as the actual scale data.
[0076]
Next, in step S806, the reference graphic in this relative deformation is set as the first graphic (consisting of line segments LN3 and LN4), and the second graphic (line segment LN5) is formed with respect to the angle formed by the two sides of the first graphic. And the angle formed by the two sides of LN6 are compared, and the ratio is calculated. In this comparison, since the same type is used as a condition, if there is another figure that is different from the type of the first figure, the other figure is not a comparison target. Will hold.
[0077]
Specifically, the division result is obtained by performing division with the designated scale “45 °” of the first figure as the reference figure as the denominator and the designated scale “30 °” of the second figure as another figure as the numerator. The ratio is 30/45 = 2/3.
[0078]
In subsequent step S807, in order to apply the ratio “2/3” obtained in step S806 to the deformation of the second graphic, the ratio “2/3” is added to the actual scale “60 °” of the first graphic as the reference graphic. The actual scale data “40 °” is obtained by multiplication. Based on the actual scale data “40 °” of the second graphic and the pre-deformation information (first coordinate (XK, YK), second coordinate (XL, YL), third coordinate (XM, YM)) The coordinate position of the start point ST4 of the minute LN5 is the first coordinate data of the start point RST4 that becomes the coordinate position after deformation so that the line segment LN5 is 40 ° apart from the midpoint MD4 as the axis and the line segment LN6 as the base line ( XN, YN) is calculated. A line segment RLN5 is drawn and deformed so as to connect the starting point RST4 after the deformation, (first coordinate data (XN, YN)), and the invariant middle point MD4 (second coordinate position data (XL, YL)). The display is completed (step S808).
[0079]
For example, if the actual scale before deformation of the second graphic is 60 °, the correction angle indicated by Δθ2 as the deformation amount is “20 °”. The coordinate data of the corrected start point RST4 is stored as the first coordinate data (XN, YN) in the post-change information in the graphic information memory 41, and the second coordinate data and the third coordinate data are the base line segment LN6. Because it is formed, it will be unchanged before and after the change.
[0080]
Further, when the figure is reduced (deformed) with respect to the second figure, as shown in FIG. 11B, the stroke ANG2 is deformed as the start point ST4 is moved to become a deformed stroke RANG2, and the stroke ANG2 is displayed. The display position of the character pattern CHR4 is moved according to the deformation.
[0081]
As described above, according to the above-described embodiment, simply by inputting the deformation information and the type information of the figure by hand by operating the input pen 10 with respect to the figure being displayed on the display unit 9, the figure is classified into the type of the figure. Therefore, it is possible to display the figure being displayed in a desired size or scale in a desired engineering unit by a simple operation.
[0082]
In addition, by simply inputting deformation information and figure type information by handwriting with respect to a plurality of figures being displayed on the display unit 9, each figure can be changed based on one figure according to the figure type. Since it is displayed in a modified engineering unit, it is possible to compare the size and shape between figures by presenting the reference figure and other figures as relative deformation amounts according to the deformation information. It can be performed objectively, and the figure being displayed can be transformed and displayed in a desired size or scale by a simple operation.
[0083]
In addition, when the number of graphics displayed on the display unit 9 is singular, the transformation is performed based on the transformation information and the type information of the graphics. Since the display is transformed with the engineering unit based on the type of the figure, when checking the figure at the actual size, it is only necessary to handle the figure by one, while when comparing the relative size and shape between the figures It is sufficient to handle a plurality of figures, and in any case, the figure being displayed can be transformed and displayed in a desired size or scale by a simple operation.
[0084]
Further, a number is recognized from the deformation information input by handwriting by the operation of the input pen 10, and the length of the line segment, the distance between a plurality of figures, the angle of the figure is determined from the type information of the figure in which the number is input by handwriting. Because it recognizes the angle between multiple figures, the radius of a circle, the diameter of a circle, or the area of a figure, the figure being displayed by a simple operation of entering the number and type of figure Can be transformed to a desired size or scale.
[0085]
In the above-described embodiment, a line figure and a two-sided figure are taken as examples of deformation information input, and the length (distance) and angle are set as units of deformation amount. Information input target and unit settings are not limited to the above. For example, distance between multiple points, distance between points and line segments, slope of line segments, angles formed by multiple line segments, parallel line segments , The radius and diameter of the circle, and the area of a circle or rectangle, the details of which will be described below as first to ninth modifications.
[0086]
First, a case where the distance between a plurality of points is modified as a first modification will be described. Since the image processing apparatus according to the first modification has the configuration shown in FIG. 1 as in the above-described embodiment, the description of each part is omitted, and the same reference numerals are used in describing the operation. .
[0087]
Only differences from the above-described embodiment will be described. FIG. 17 is a diagram for explaining a first modification of the graphic dimension setting procedure in the present embodiment.
In this first modification, an independent distance icon 97 is added to the icon area of the display unit 9 as shown in FIG. In FIG. 17A, a point PNT1 that is a first graphic and a point PNT2 that is a second graphic that have been subjected to graphic input processing (see FIG. 14) by pen input of the point icon 91 are displayed. A stroke DS3 and a character pattern CHR5 are set at the two points PNT1 and PNT2 by a deformation information input process (see FIG. 15) accompanying a pen input to the distance icon 97.
[0088]
In the display state of FIG. 17A, when there is a pen input to the OK icon 96, graphic deformation processing (see FIG. 16) is started, and the OK icon 96 is highlighted as shown in FIG. 17B. When the actual scale is shorter than the designated scale, that is, when there is no distance, the point PNT2, which is the second graphic, is moved by enlarging (deforming) the correction distance Δd3 as shown in FIG. Processing is executed. As a result, the point PNT2 becomes the point RPNT2 due to the movement, and the distance between the two points PNT1 and RPNT2 becomes 3 cm corresponding to the designated scale on the actual scale. Along with this deformation, the stroke DS3 is deformed to the stroke RDS3, and the character pattern CHR5 is moved in the display position according to the deformation of the stroke DS3.
[0089]
Next, a case where the distance between a point and a line segment is deformed will be described as a second modification. Since the image processing apparatus according to the second modified example has the configuration shown in FIG. 1 as in the first modified example, the description of each part is omitted, and the same reference numerals are used for the explanation of the operation. Is used.
[0090]
Only differences from the first modification will be described. FIG. 18 is a diagram for explaining a second modification of the graphic dimension setting procedure in the present embodiment.
In FIG. 18A, a graphic input process (see FIG. 14) is performed by the pen input of the line segment LN7 of the first graphic and the point icon 91 which has been subjected to the graphic input process (see FIG. 14) by the pen input of the line icon 92. A point PNT3, which is the second graphic, is displayed. In these two points PNT3 and line segment LN7, a stroke DS4 and a character pattern CHR6 are set by a deformation information input process (see FIG. 15) accompanying pen input to the distance icon 97.
[0091]
In the display state of FIG. 18A, when there is a pen input to the OK icon 96, graphic deformation processing (see FIG. 16) is started, and the OK icon 96 is highlighted as shown in FIG. 18B. When the actual scale is shorter than the designated scale, that is, when there is no distance, enlargement (deformation) of the correction distance Δd4 is performed as shown in FIG. Processing is executed. As a result, the point PNT3 becomes a point RPNT3 due to the movement, and the distance between the point RPNT3 and the line segment LN7 is 3 cm corresponding to the designated scale on the actual scale. Along with this deformation, the stroke DS4 is deformed to the stroke RDS4, and the character pattern CHR6 is moved in the display position according to the deformation of the stroke DS4.
[0092]
Next, a case where the distance between parallel line segments is modified as a third modification will be described. Since the image processing apparatus according to the third modified example has the configuration shown in FIG. 1 as in the first modified example, the description of each part is omitted, and the same reference numerals are used for describing the operation. Is used.
[0093]
Only differences from the first modification will be described. FIG. 19 is a diagram for explaining a third modification of the graphic dimension setting procedure in the present embodiment.
In FIG. 19A, a line segment LN8 of the first graphic and a line segment LN9 of the second graphic that have been subjected to graphic input processing (see FIG. 14) by pen input of the line segment icon 92 are displayed. In these two line segments LN8 and LN9, the stroke DS5 and the character pattern CHR7 are set by the deformation information input process (see FIG. 15) accompanying the pen input to the distance icon 97.
[0094]
In the display state of FIG. 19A, when there is a pen input to the OK icon 96, graphic deformation processing (see FIG. 16) is started, and the OK icon 96 is highlighted as shown in FIG. 19B. If the actual scale is shorter than the designated scale, that is, there is no distance, the line segment LN9, which is the second graphic, is moved by enlarging (deforming) the correction distance Δd5 as shown in FIG. Is executed. As a result, the line segment LN9 becomes a line segment RLN9 due to the movement, and the distance between the line segment LN8 and the line segment RLN9 is 3 cm corresponding to the designated scale on the actual scale. Along with this deformation, the stroke DS5 is deformed to the stroke RDS5, and the character pattern CHR7 is moved in the display position according to the deformation of the stroke DS5.
[0095]
Next, a case where the radius and diameter of a circle are deformed as a fourth modification and a fifth modification, respectively, will be described. Since the image processing apparatuses according to the fourth and fifth modifications have the configuration shown in FIG. 1 as in the first modification, the description of each part is omitted and the operation is omitted. Similar symbols are used in the description.
[0096]
Only differences from the first modification will be described. 20 and 21 are diagrams for explaining a fourth modification and a fifth modification of the graphic dimension setting procedure in the present embodiment, respectively.
In the fourth modification and the fifth modification, an independent circle icon 98 is added to the icon area of the display unit 9 as shown in FIGS. 20 (a) and 21 (a). In FIG. 20A, the graphic input processing (see FIG. 14) is performed by the pen input of the point PNT4 and the circle icon 98 which are the first graphic processed by the graphic input processing (see FIG. 14) by the pen input of the point icon 91. A circle CRCL1, which is the second graphic, is displayed. A stroke DS6 and a character pattern CHR8 are set in these two points PNT4 and circle CRCL1 by a deformation information input process (see FIG. 15) accompanying pen input to the distance icon 97. Similar to the fourth modified example, in the fifth modified example, when the stroke DS7 is set so as to connect two points on the circle CRCL2 beyond the point PNT5 in FIG. This is a diameter deformation process according to the modified example. In this case, the stroke DS7 and the character pattern CHR9 can be set by the deformation information input process (see FIG. 15) accompanying the pen input to the distance icon 97.
[0097]
First, when there is a pen input to the OK icon 96 in the display state of FIG. 20 (a), graphic deformation processing (see FIG. 16) is started, and the OK icon 96 is inverted as shown in FIG. When the actual scale (radius) is smaller than the specified scale (radius), the point PNT4 is enlarged (deformed) by the correction radius Δr1 with the point PNT4 as the center of the circle as shown in FIG. A process of expanding the circle CRCL1, which is the second graphic, is executed. As a result, the circle CRCL1 becomes a circle RCRCL1 by expansion, and the radial distance between the point PNT4 and the circle RCRCL1 becomes 2 cm corresponding to the designated scale on the actual scale. Accompanying this deformation, the stroke DS6 is deformed to the stroke RDS6, and the character pattern CHR8 is moved in the display position according to the deformation of the stroke DS6.
[0098]
Similarly, in the fifth modified example, when there is a pen input to the OK icon 96 in the display state of FIG. 21A, graphic deformation processing (see FIG. 16) is started, as shown in FIG. In this manner, the OK icon 96 is highlighted, and when the actual scale (diameter) is smaller than the designated scale (diameter), as shown in FIG. 21C, the correction radius Δr2 (= A process of expanding (deforming) Δr3) and expanding the circle CRCL2 as the second graphic is executed. As a result, the circle CRCL2 becomes a circle RCRCL2 by expansion, and the diameter distance between the point PNT4 and the circle RCRCL1 becomes 3 cm corresponding to the designated scale on the actual scale. Along with this deformation, the stroke DS7 is deformed to the stroke RDS7, and the display position of the character pattern CHR9 is moved along with the deformation of the stroke DS7.
[0099]
Next, a case where the area of a circle and the area of a rectangle are deformed as a sixth modification and a seventh modification, respectively, will be described. Since the image processing apparatuses according to the sixth and seventh modifications have the configuration shown in FIG. 1 as in the above-described embodiment, the description of each part is omitted, and the operation is described. Uses the same symbols.
[0100]
Only differences from the above-described embodiment will be described. 22 and 23 are diagrams illustrating a sixth modification and a seventh modification of the graphic dimension setting procedure in the present embodiment, respectively.
In the sixth and seventh modified examples, as shown in FIGS. 22A and 23A, independent circle icons 98 and rectangular icons 100 are added to the icon areas of the display unit 9, respectively. On the other hand, a common area icon 99 is added. In FIG. 22A, the graphic input process (see FIG. 14) is performed by the pen input of the point PNT6 and the circle icon 98 which are the first graphic subjected to the graphic input process by the pen input of the point icon 91 (see FIG. 14). A circle CRCL3, which is the second graphic, is displayed. In this circle CRCL3, a character pattern CHR12 indicating an area is set by deformation information input processing (see FIG. 15) accompanying pen input to the area icon 99. Similar to the sixth modification, in the seventh modification, the point PNT7 and the rectangle PLY1 are displayed by graphic input (see FIG. 14) in FIG. 23A, and the area within the rectangle PLY1 is the area. A character pattern CHR13 indicating an area is set by deformation information input processing (see FIG. 15) accompanying pen input to the icon 99.
[0101]
First, in the sixth modification, when there is a pen input to the OK icon 96 in the display state of FIG. 22A, graphic deformation processing (see FIG. 16) is started, as shown in FIG. 22B. In this manner, the OK icon 96 is highlighted, and when the actual scale (area) is smaller than the specified scale (area), the correction radius starting from the point PNT6 is calculated as shown in FIG. A process of expanding the circle CRCL3, which is the second graphic, is executed based on the above. As a result, the circle CRCL3 becomes a circle RCRCL3 by expansion. Along with this deformation, the display position of the character pattern CHR12 is moved. Similarly, in the seventh modification, when there is a pen input to the OK icon 96 in the display state of FIG. 23A, graphic deformation processing (see FIG. 16) is started, which is shown in FIG. As shown in FIG. 23, the OK icon 96 is highlighted, and when the actual scale (area) is smaller than the specified scale (area), the correction area starting from the point PNT7 is calculated as shown in FIG. A process of expanding the rectangle PLY1 that is two figures is executed. As a result, the rectangle PLY1 becomes a rectangle RPLY1 by expansion. Along with this deformation, the display position of the character pattern CHR13 is moved.
[0102]
Next, the case where the inclination of a line segment is deformed will be described as an eighth modification. Since the image processing apparatus according to the eighth modification has the configuration shown in FIG. 1 as in the above-described embodiment, the description of each part is omitted, and the same reference numerals are used for the description of the operation. .
[0103]
Only differences from the above-described embodiment will be described. FIG. 24 is a diagram for explaining an eighth modification of the graphic dimension setting procedure in the present embodiment.
In the eighth modification, an independent angle icon 101 is added to the icon area of the display unit 9 as shown in FIG. In FIG. 24A, a line segment LN10, which is the first graphic subjected to the graphic input process (see FIG. 14) by the pen input of the line segment icon 92, is displayed. In this line segment LN10, the stroke ANG3 and the character pattern CHR14 are set by the deformation information input process (see FIG. 15) accompanying the pen input to the angle icon 101. The angle indicated by the character pattern CHR14 is a designated scale for providing a base line BS (see FIG. 24C) in the horizontal direction from the start point ST5 and designating an angle formed by the base line BS and the line segment LN10.
[0104]
In the display state of FIG. 24A, when there is a pen input to the OK icon 96, graphic deformation processing (see FIG. 16) is started, and the OK icon 96 is displayed in reverse as shown in FIG. If the actual scale (angle) is smaller than the specified scale (angle), it is necessary to enlarge (deform) the correction angle Δθ3 as shown in FIG. 24C, which is the first figure. A process of rotating the line segment LN10 about the start point ST5 is executed. As a result, the end point ED5 of the line segment LN10 is moved to the end point RED5, the stroke ANG3 is transformed into the stroke RANG3, and the display position of the character pattern CHR14 is moved along with the transformation of the stroke ANG3.
[0105]
Next, a case where the angle formed by a plurality of line segments is deformed will be described as a ninth modification. Since the image processing apparatus according to the ninth modification has the configuration shown in FIG. 1 as in the above-described eighth modification, the description of each part is omitted, and the same reference numerals are used for the operation description. Is used.
[0106]
Only differences from the above-described eighth modification will be described. FIG. 25 is a diagram for explaining a ninth modification of the graphic dimension setting procedure in the present embodiment.
In FIG. 25A, a line segment LN11 which is a first graphic and a second graphic LN12 which have been subjected to graphic input processing (see FIG. 14) by pen input of the line segment icon 92 are displayed. In the line segments LN11 and LN12, a stroke ANG4 and a character pattern CHR15 are set by deformation information input processing (see FIG. 15) accompanying pen input to the angle icon 101. The angle indicated by the character pattern CHR15 is an angle (designated scale) formed by the line segment LN11 and the line segment LN12 connected by the stroke ANG4, and extends the start points ST6 and ST7 of the line segment LN11 and the line segment LN12, respectively. And an intersection point CLS (see FIG. 25C) is obtained as an axis.
[0107]
In the display state of FIG. 25A, when there is a pen input to the OK icon 96, graphic deformation processing (see FIG. 16) is started, and the OK icon 96 is displayed in reverse as shown in FIG. If the actual scale (angle) is smaller than the specified scale (angle), it is necessary to enlarge (deform) the correction angle Δθ4 as shown in FIG. A process of rotating the line segment LN12 about the CLS is executed. As a result, the end point ED7 of the line segment LN12 becomes the end point RED7 due to the movement, the stroke ANG4 is transformed into the stroke RANG4, and the display position of the character pattern CHR15 is moved along with the transformation of the stroke ANG4.
[0108]
【The invention's effect】
As described above, according to the first aspect of the present invention, the figure being displayed is handwritten. Specify the graphic data part to be deformed, and the desired scale Since the figure is deformed and displayed only by inputting "," it is possible to obtain an image processing apparatus capable of deforming and displaying the figure being displayed on a desired scale by a simple operation.
[Brief description of the drawings]
FIG. 1 is a block diagram showing an embodiment of an image processing apparatus according to the present invention.
FIGS. 2A and 2B are diagrams for explaining examples (a), (b), and (c) of a figure dimension setting procedure in the present embodiment.
FIGS. 3A and 3B are diagrams for explaining examples (a), (b), and (c) of a figure dimension setting procedure in the present embodiment.
FIGS. 4A and 4B are diagrams for explaining examples (a) and (b) of a figure dimension setting procedure in the present embodiment.
FIG. 5 is a diagram showing the contents stored in the graphic information memory corresponding to FIGS. 2, 3, and 4 in the present embodiment;
FIGS. 6A and 6B are diagrams for explaining an example (a) and (b) of a figure dimension setting procedure in the present embodiment.
7 is a diagram showing the contents stored in a graphic information memory corresponding to FIG. 6 in the present embodiment. FIG.
FIGS. 8A and 8B are diagrams for explaining other examples (a), (b), and (c) of the graphic dimension setting procedure in the present embodiment.
FIGS. 9A and 9B are diagrams for explaining other examples (a), (b), and (c) of the graphic dimension setting procedure in the present embodiment.
FIG. 10 is a diagram showing the contents stored in the graphic information memory corresponding to FIGS. 8 and 9 in the present embodiment.
FIGS. 11A and 11B are diagrams for explaining other examples (a) and (b) of the graphic dimension setting procedure in the present embodiment;
12 is a diagram showing the storage contents of a graphic information memory corresponding to FIG. 11 in the present embodiment. FIG.
FIG. 13 is a flowchart for explaining a graphic dimension setting procedure in the present embodiment;
14 is a flowchart for explaining details of the graphic input process shown in FIG. 13; FIG.
FIG. 15 is a flowchart illustrating details of deformation information input processing shown in FIG. 13;
16 is a flowchart for explaining the details of the graphic transformation process shown in FIG. 13;
FIG. 17 is a diagram for explaining a first modification (a), (b), (c) of the graphic dimension setting procedure in the present embodiment;
FIGS. 18A and 18B are diagrams illustrating a second modification (a), (b), and (c) of the graphic dimension setting procedure in the present embodiment;
FIG. 19 is a diagram for explaining a third modification (a), (b), (c) of the figure dimension setting procedure in the present embodiment;
FIGS. 20A and 20B are diagrams illustrating a fourth modification (a), (b), and (c) of the graphic dimension setting procedure in the present embodiment.
FIG. 21 is a diagram for explaining a fifth modification (a), (b), (c) of the graphic dimension setting procedure in the present embodiment;
FIG. 22 is a diagram for explaining a sixth modification (a), (b), (c) of the figure dimension setting procedure in the present embodiment;
FIG. 23 is a diagram for explaining a seventh modification (a), (b), and (c) of the figure dimension setting procedure in the present embodiment;
FIGS. 24A and 24B are diagrams illustrating an eighth modification (a), (b), and (c) of the graphic dimension setting procedure in the present embodiment;
FIG. 25 is a diagram for explaining a ninth modification (a), (b), (c) of the graphic dimension setting procedure in the present embodiment;
[Explanation of symbols]
1 Image processing device
2 CPU
3 ROM
4 RAM
5 Touch panel
6 Designated position recognition part
7 Character recognition part
8 Display drive circuit
9 Display section
41 Graphic information memory
42 Display memory
43 Work memory

Claims (2)

Input means for handwriting input of graphic data including line figures,
Display means for displaying a figure based on the figure data handwritten by the input means;
Deformation information input means for handwriting input deformation information for the graphic displayed by the display means;
Recognizing means for recognizing deformation information input by handwriting by the deformation information input means;
When the deformation information is recognized as non-numeric by this recognition means, a transformation target specifying means for specifying by a portion of the graphics that are connected by the curves of the handwritten input is the deformation information and graphic data portion of deformable object ,
If the recognizing means recognizes that the deformation information is a number, a designated scale setting means for setting the recognized number as a designated scale;
The graphic data portion to be deformed is specified by the deformation information recognized as not a number by the deformation target specifying means, and the recognized number is specified by the deformation information recognized as a number by the designated scale setting means. An image comprising: a deformation display means for deforming and displaying the specified graphic data portion to be deformed to a size of the designated scale set by the designated scale setting means when set as a scale. Processing equipment. Wherein the designated scale is an image processing apparatus according to claim 1, characterized in that it contains the length, the angle of the figure of the line segment.

Images