JPH1093806A - Image processor, image processing system, image processing method and storage medium - Google Patents

Abstract

PROBLEM TO BE SOLVED: To improve the input operability by receiving the entry of a moving direction and a moving amount to an image output position calculating the desired image output position. SOLUTION: A reader section scans an original 30 with an exposure lamp 32 to input a reflected optical image to a full color sensor 34 via a lens 33, and a color separate image signal is sent to a printer section via an image processing section. In the printer section, a transfer device 5 transfers a color image being a toner image on a photoreceptor drum 1 to a recording medium 7 and on which a full color image is outputted. The image processing section is provided with a touch screen consisting of a liquid crystal display device and displays the touch key to receive an instruction input. For example, in the case of designating the position of an image printed on the recording medium 7, the touch switch to designate the moving direction of the image and the touch switch to enter a moving distance are used to designate them respectively. The image processing section calculates a coordinate of a print image based on the input information.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

[0001] 1. Field of the Invention [0002] The present invention relates to an image processing apparatus, system, method, and recording medium for inputting an image and outputting the image to a selected output position.

[0002]

2. Description of the Related Art Conventionally, when an output position for outputting input image information is changed, centering (moving to a center portion), cornering (peripheral portion) are performed on an output area (for example, output paper). A desired output has been obtained by designating processes such as (move to), move, and binding margin.

[0003]

However, in the above-described conventional example, a margin is added to the centered output, the cornered output is moved, and when the double-sided printing is performed, the front and rear sides are moved. The direction could not be changed.

The present invention has been made under such circumstances, and provides an image processing apparatus, an image processing system, an image processing method, and a storage medium that can easily output an image to an appropriate output position. It is intended to do so.

[0005]

In order to achieve the above object, according to the present invention, an image processing apparatus includes the following (1), (4),
As described in (7), (10) to (12), the image processing system is changed to the following (2), (5), (8), (13) to
As described in (15), the image processing method is changed to the following (3),
As described in (6) and (9), the storage medium is changed to the following (1).
Configure as described in 6).

(1) An image processing apparatus for inputting an image and outputting the image to an image output position input by an image output position input mechanism, wherein the image output position input mechanism inputs a moving direction of the image output position. An image processing apparatus comprising: a first input unit for inputting a moving amount of an image output position;

(2) A terminal having an image output position input mechanism, and an image processing device coupled to the terminal via a line for inputting an image and outputting an image to an image output position input by the terminal. Image processing system, wherein the image output position input mechanism has first input means for inputting a moving direction of the image output position, and second input means for inputting a moving amount of the image output position. Image processing system.

(3) An image processing method in an image processing apparatus for inputting an image and outputting the image to an image output position input by the image output position input configuration, wherein a moving direction to the image output position is input and stored. A first step, a second step of inputting and storing an amount of movement to an image output position,
An image processing method comprising: a third step of calculating coordinates of an image output position based on the content stored in the first step and the content stored in the second step.

(4) The image processing apparatus according to the above (1), wherein the first input means inputs the movement to the center and the movement to the periphery in the output area.

(5) The image processing system according to (2), wherein the first input means inputs the movement to the center and the movement to the periphery in the output area.

(6) The image processing method according to (3), wherein the first step is to input and store the movement to the central part and the movement to the peripheral part in the output area.

(7) The first input means is for inputting whether to move to the central portion, move to the peripheral portion, and change the moving direction on the front surface and the back surface in the output area. The image processing apparatus according to any one of the preceding claims.

(8) The first input means is for inputting whether to move to the central portion, move to the peripheral portion, and change the moving direction on the front surface and the back surface in the output area. The image processing system described in the above.

(9) The first step is to input and store whether to move to the center, move to the periphery, and change the moving direction on the front and back sides in the output area. ).

(10) The image processing apparatus according to (4), wherein the output area is an output paper surface.

(11) The image processing apparatus according to (4), wherein the output area is a frame of an image signal.

(12) The image processing apparatus according to (4), wherein the output area is a display surface of a display.

(13) The image processing system according to (5), wherein the output area is an output paper surface.

(14) The image processing system according to (5), wherein the output area is a frame of an image signal.

(15) The image processing system according to (5), wherein the output area is a display surface of a display.

(16) A storage medium storing a program for realizing the image processing described in (3) above via a CPU.

[0022]

DESCRIPTION OF THE PREFERRED EMBODIMENTS Embodiments of the present invention will be described below in detail with reference to examples of a "full color laser copying machine". The present invention is not limited to a copying machine, but can be implemented by an appropriate image forming apparatus such as a laser printer.

The present invention is not limited to the apparatus, but is implemented in the form of a system in which a laser printer or the like is controlled from a terminal such as a personal computer having an image output position input mechanism via a wired or wireless line, and the image output is controlled. You can also.

In the embodiment, the image position is recognized from the document and the image position is changed at the time of output. However, the present invention is not limited to this, and the document is immediately recognized as an image and the image position is changed at the time of output. It can also be implemented in the form.

In the embodiment, the output paper surface is used as the output area (hard copy). However, the present invention is not limited to this, and the frame of the image signal is used as the output area. Alternatively, the present invention can be implemented in a form (soft copy) in which a display surface of a display is used as an output area.

Further, the present invention can be implemented in the form of a storage medium storing a program for realizing a required image processing operation via the CPU.

[0027]

【Example】

Embodiment 1 <Description of Configuration> FIG. 1 is a cross-sectional view showing the overall configuration of a "full-color laser copying machine" of the present embodiment. As shown in the figure, a digital color image reader unit is provided at the upper part, and a digital color image printer unit is provided at the lower part.

In the reader section, the original 30 is placed on an original platen glass 31 and is exposed and scanned by an exposure lamp 32 so that the reflected light image from the original 30 is reflected by mirrors 32a and 32a.
The light is condensed from the lenses 2b and 32c to the full color sensor 34 through the lens 33, and a color separation image signal is obtained. The color-separated image signal is processed by an image processing unit, which will be described later, via an amplification circuit (not shown), and then sent to a printer unit.

In the printer section, a photosensitive drum 1, which is an image carrier, is provided around a pre-exposure lamp 11, a corona charger 2, a laser exposure optical system 3, a potential sensor 12, and four developing devices 4y, 4c, 4m, 4m. 4Bk, on-drum light amount detecting means 1
3, a transfer device 5 and a cleaning device 6 are arranged, and are supported rotatably in the direction of the arrow.

In the laser exposure optical system 3, an image signal from a reader unit is converted into an optical signal by a laser output unit (not shown), reflected by a polygon mirror 3a, and then reflected by a lens 3.
b and the mirror 3c is projected onto the surface of the photosensitive drum 1.

At the time of image formation in the printer section, the photosensitive drum 1 is rotated in the direction of the arrow, the surface of the drum is neutralized by the pre-exposure lamp 11, and then uniformly charged by the charger 2, and the optical image is formed for each of the separated colors. Irradiate E to form a latent image.

Next, a predetermined developing unit is operated to develop the latent image on the photosensitive drum 1 to form a resin-based toner image. The developing devices are eccentric cams 24y, 24c, 24m,
By the operation of 24Bk, the photosensitive drum 1 is selectively approached in accordance with each separation color.

Further, the transfer device 5 transfers the toner image on the photosensitive drum 1 to a recording material 7 supplied to a position facing the photosensitive drum 1 via a transport system. The transfer device 5
Transfer drum 5a, transfer charger 5b, suction charger 5c for electrostatically attracting a recording material, suction roller 5g, inner charger 5
d, an outer charger 5e, which is rotatably supported so as to be rotatably driven, and a recording material carrying sheet 5f made of a dielectric polycarbonate film is integrally stretched in a cylindrical shape in a peripheral opening area. As the transfer drum 5a rotates, the toner image on the photosensitive drum 1 is transferred onto the recording material carried on the recording material carrying sheet 5f by the transfer charger 5b.

In this way, a desired number of color images are transferred to the recording material sucked and conveyed on the recording material carrying sheet 5f, thereby forming a full color image. Also, the recording material supporting sheet 5f
Cleaning by the fur brush 14, the backup brushes 15 and 17, and the oil removing roller 16 is performed before or after the image formation to prevent a paper jam (paper jam) in order to prevent scattering of the powder on the recording material and adhesion of oil on the recording material. Sometimes done.

When the transfer of the toner image necessary for the mode specified by the user is completed, the recording material is separated from the transfer drum 5a by the action of the separation claw 8a, the separation push-up roller 8b and the separation charger 5h. The paper is discharged to the tray 10 via the printer 9. After the above-described transfer, the residual toner on the photosensitive drum 1 is cleaned by the cleaning device 6 to prepare for the next image formation.

When an image is formed on the screen of the recording material, the conveyance path switching guide 19 is driven immediately after the fixing device 9 discharges the recording material, and the recording material passes through the conveyance vertical path 20 and the reverse path. After reaching the recording medium 21a, the recording material is stored in the intermediate tray 22 with the rear end of the recording material at the head by the reverse rotation of the reversing roller 21b. Thereafter, an image is formed on the other surface by performing the above-described image forming process again.

In the present embodiment, the eccentric cam 25 is operated at a desired timing, and the gap between the recording material carrying sheet 5f and the photosensitive drum 1 can be arbitrarily set by the cam follower 5i integrated with the transfer drum 5a. It has a configuration.

Reference numeral 100 denotes an image processing unit that performs processing such as scaling processing, moving processing, and dot pattern development processing.

<Description of Image Output Position> FIG. 2 is a diagram for explaining an image output position.

In the figure, reference numeral 201 denotes an image to be output;
2 is output paper, 203 is original, 204 is original reference, 20
Reference numeral 5 denotes an output reference, and 211 to 229 indicate the positional relationship between the output image and the output sheet. Note that manuscript 2
03 shows the state seen from the back surface.

Reference numeral 211 denotes an output which is determined to be "no movement". The output from the output reference to the output image is obtained by multiplying the position from the document reference to the image by a magnification.

Reference numeral 225 denotes an output which is referred to as "centering". The output obtained by multiplying the image by magnification is the center of the output.

Others are outputs which are regarded as "corner".

FIG. 3 is a diagram for explaining the movement of an image.

In the figure, reference numeral 201 denotes an image to be output;
2 is output paper, 203 is original, 204 is original reference, 20
5 is an output standard, and 306 is an image standard.

Reference numeral 311 denotes an output which is determined to be "no movement", and a value obtained by multiplying the position from the document reference to the image by a magnification is defined as the distance from the output reference to the output image.

Reference numerals 321 and 322 denote outputs defined as "binding margins", and the output image is moved right and left by designated binding margins 323 and 324.

Reference numeral 331 denotes an output which is referred to as "relative movement", and moves and outputs a reference point of the image by a designated distance 332.

Reference numeral 341 denotes an output designated as "absolute movement", and the image output is moved so that the designated point 342 of the image is moved to the designated point 343.

FIG. 4 is a diagram for explaining a method of calculating the output position.

An input screen 401 has coordinates (X1, Y1) and (X2, Y2) of two points indicating an image area.

Reference numeral 402 denotes an output screen, in which coordinates of two points indicating an image area are (X3, Y3) and (X4, Y4).

Further, the magnification is Mx, My (percent),
The size of the output paper is (Ox, Oy).

In the case of "no movement", (X3, Y3) and (X4, Y4) are as follows: X3 = X1 * Mx / 100 Y3 = Y1 * My / 100 X4 = X2 * Mx / 100 Y4 = Y2 * My / 100 is calculated.

In the case of "corner", X3 and X4 are
At 211, 222, and 223 in FIG. 2, X3 = 0. X4 = (X2-X1) * Mx / 100. At 224, 225, and 226 in FIG. 2, X3 = (Ox-((X2-X1) * Mx / 100). ) /
2 X4 = (Ox + ((X2-X1) * Mx / 100)) /
2 At 227, 228, and 229 in FIG. 2, X3 = Ox- (X2-X1) * Mx / 100 X4 = Ox is calculated, and Y3 and Y4 are 223 and 22 in FIG.
6, 229, Y3 = 0 Y4 = (Y2-Y1) * Mx / 100 In 222, 225, 226 of FIG. 2, Y3 = (Oy-((Y2-Y1) * My / 100)) /
2 Y4 = (Oy + ((Y2-Y1) * My / 100)) /
2 Y2 = Oy− (Y2−Y1) * My / 100 Y4 = Oy at 221, 224, and 227 in FIG.

X3 <X4, Y3 <Y4, and X3
If 3> Ox or Y3> Oy, the image is not output to the output paper. If X4> Ox, then it is necessary to make corrections such that X4 = Ox, if Y4> Oy, Y4 = Oy.

FIG. 5 is a diagram for explaining the movement of the output image.

Reference numeral 501 denotes an output position before binding and moving, and reference numeral 502 denotes an output position after binding and moving.

The amount of binding margin is Sx (plus or minus), and the amount of relative movement is (Ix, Iy).

In the case of the binding margin, X3 = X1 + Sx X4 = X2 + Sx Y3 = Y1 Y4 = Y2.

In the case of relative movement, X3 = X1 + Ix X4 = X2 + Ix Y3 = Y1 + Iy Y4 = Y2 + Iy

X3 <X4, Y3 <Y4, and X3
3> Ox or Y3> Oy or X4> 0 or Y4 <
If 0, the image is not output on the output paper. If X3 <0, X3 = 0. If Y3 <0, Y3 = 0. If X4> Ox, correct X4 = Ox. If Y4> Oy, correct Y4 = Oy. There is a need.

FIG. 6 shows (I) from the centering output position.
x, Iy), and the output is relatively shifted by the amount shown by X3 = (Ox-((X2-X1) * Mx / 100)) /
2 + Ix X4 = (Ox + ((X2-X1) * Mx / 100)) /
2 + Ix Y3 = (Oy-((Y2-Y1) * My / 100)) /
2 + Iy Y4 = (Oy + ((Y2-Y1) * My / 100)) /
It is output to the position calculated as 2 + Iy.

<Description of Changing Operation of Image Output Position> FIG.
FIG. 3 is a block diagram schematically showing a configuration for realizing the movement of the image output position described above.

In the drawing, reference numeral 101 denotes an image input mechanism, which corresponds to the digital color image reader section shown in FIG.
Reference numeral 2 denotes an image output position input mechanism, which corresponds to a touch screen (also referred to as a touch panel) displayed on a liquid crystal display on an operation panel (not shown) in FIG. 1, and reference numeral 103 denotes an image processing mechanism. The unit 100 corresponds to this, and 104 is an image output mechanism, and the digital color image printer unit in FIG. 1 corresponds to this.

FIGS. 7, 8, and 9 show screens of the touch screen. FIG. 7 shows a “basic image” that is always displayed,
FIG. 8 shows an "image moving direction setting screen" displayed by touching the image position key in FIG. 7 with a finger (hereinafter referred to as "touch"), and FIG. 9 shows a touch on the OK key in FIG. Then, an “image moving amount setting screen” displayed instead of the screen of FIG. 8 is displayed. If the user touches the OK key in FIG. 9, the input setting of the image output position is completed, the screen returns to the basic screen in FIG. 7, and the image position key is turned on. When a reset key (not shown) on the operation panel is touched, the setting conditions are reset regardless of the middle or end of the setting operation, and the screen returns to the basic screen where the image position key is turned off.

Here, for the sake of simplicity, the image position key is selected from the group of operation keys in the application mode and displayed on the basic screen in advance. However, the application mode key is touched by touching the application mode key. The touch screen may be called up and the setting operation may be started by touching the image position key.

FIG. 11 is a flowchart showing the operation of changing the image output position. The processing in this flow is performed by the CPU in the image processing mechanism. Hereinafter, the operation will be described along this flow.

When the "image position key" is touched on the basic screen in FIG. 7, the flow for changing the image output position in FIG. 11 is called, and the setting screen in FIG. 8 is displayed in S1. When, for example, the direction setting key 83 on the upper left is touched on the setting screen of FIG. 8, the key 83 is lit as shown in FIG. 8, and the indicator light 81 indicating “do not move” is turned off and “moves”. The indicated indicator light 82 lights up. Checking this state and touching the “OK key” 92 (S2, YE
S), the setting of the upper left direction is stored in the memory in the image processing mechanism 103 (S3), and the setting screen of FIG. 9 is replaced (S3).
4). When the user touches the cancel key 93 after touching any of the direction setting keys 83 to 91 on the setting screen of FIG. 8, the direction setting key that has been turned on and the indicator light 82 indicating “move” are turned off. Indicator light 8 indicating "do not move"
1 turns on again, and the setting waits (S2, NO). To change the direction after touching any of the direction setting keys 83 to 91, touch the cancel key 93 and then touch the desired direction setting key again, or continue without touching the cancel key 93. What is necessary is just to touch the desired direction setting key. However, if the other direction setting keys 83 to 90 are touched after touching the centering direction setting key 91, both keys are turned on, and the centering position is changed from the centering position regardless of the position of the image 201 on the document 203 (see FIG. 2). The setting is made in the direction set with another direction setting key. When only the centering direction setting key 91 is touched, the center is set regardless of the position of the image 201 on the document 203.

The moving amount of the image is set on the setting screen shown in FIG. For example, without touching 91, 92, 94
When "OK key" 97 is touched (S5, YES), the state is stored in the memory in image processing mechanism 103 (S5).
6) The image coordinates after movement are calculated as described above based on the stored data in S3 and S6, and the image output position is changed based on the calculation result (S7). In this case, since none of the keys 91, 92, and 94 is touched on the setting screen of FIG. 9, if none of the direction setting keys 83 to 91 is touched on the setting screen of FIG.
The image is output at a position corresponding to the position of the image 201 in FIG. 03 (see FIG. 2). If any of the direction setting keys 83 to 90 is touched, the end in that direction (22 in FIG. 2)
1 to 223, 224, 226, 227 to 229), and if the direction setting key 91 is touched, the image is output to the center (the position 225 in FIG. 2).

When any one of the keys 91, 92, and 94 is touched on the setting screen shown in FIG. 9, that key is turned on, and the amount of movement can be input. For example, when the "right binding margin key" 91 is touched, the key 91 is illuminated as shown in the figure, and the amount of movement can be input from the ten keys on the operation panel (not shown). For example, 2,
When "0" is input, "20" is displayed in the display frame 93. When the state is confirmed and the "OK key" 97 is touched, the right binding margin is set to 20 mm, and the image output position is changed accordingly ( S5 to S7). For example, if the direction setting key 87 is touched on the setting screen in FIG. 8, an image is output at a position shifted 20 mm to the left from the state of 228 in FIG. 2, and a right binding margin of 20 mm is secured.

The image output position is similarly changed when the "left binding key" 92 is touched on the setting screen of FIG. 9 and the amount of movement is input. For example, if the direction setting key 91 is touched on the setting screen in FIG. 8, the image is output to a position moved rightward from the center by the amount of the left binding.

When the user touches the "relative movement key" 94 on the setting screen shown in FIG. 9, the key 94 is turned on, and the movement amount (three digits) in the X-axis direction can be input. When the amount of movement is input using the numeric keypad as described above, the amount of movement is displayed in the display frame 95. When a three-digit number is input, the amount of movement in the Y-axis direction can be subsequently input. When these displays are confirmed and the "OK key" 97 is touched, the relative movement is set (S5 to S7). For example, if the direction setting key 83 is touched on the setting screen in FIG. 8, a position moved from the position corresponding to the position of the image 201 on the document 203 by the X-axis and Y-axis movement amounts set in the diagonally upper left direction. The image is output. Similarly, when another direction setting key is touched, an image is output at a position shifted by the X-axis and Y-axis movement amounts set in that direction. When the user touches the direction setting key 91 of the centering direction and another direction setting key on the setting screen of FIG. 8, as described above, regardless of the position of the image 201 on the document 203, The image is output at a position shifted by the set X-axis and Y-axis movement amounts.

As described above, according to the present embodiment,
As described with reference to FIGS. 8 and 9, by independently setting the output position and the movement amount of the image, the image can be easily output to an appropriate output position.

(Embodiment 2) This embodiment is an example in which an image is output on both the front surface and the back surface of a recording medium, and it is possible to select whether the movement of the image is the same or reversed between the front surface and the back surface. It is to be.

The overall configuration in this embodiment is the same as that of FIG. 1, and the configuration for realizing the movement of the image output position is shown in FIG.
The calculation method of the image output position is the same as that of FIGS.

Hereinafter, the changed portion related to the two-sided output will be described.

FIG. 12 shows how an image is output on both sides of an output sheet. For simplicity, both sides of the paper are shown as two-page spreads.

Reference numeral 1201 denotes an input image; 1202, a document reference; and 1203, a document.

Reference numeral 1211 denotes how an output image determined to be “no movement” is output on the front and back of an output sheet. In the case of "no movement", the output position does not change between the front surface and the back surface.

Reference numeral 1212 denotes how the output which is referred to as “cornering” is output on the front and back of the output sheet. Also in the case of “cornering”, the direction of movement of the output position does not change between the front surface and the back surface.

Reference numeral 1213 denotes how the output referred to as “relative movement” is output on the front and back of the output sheet.
Also in the case of “relative movement”, the direction of movement of the output position does not change between the front surface and the back surface.

Reference numeral 1214 denotes how the output that is used as the “binding margin” is output on the front and back of the output sheet. 1
Only in the case of the “binding margin” indicated by 214, the position where the binding margin is formed on the front and back sides of the sheet is changed to change the output position.

In this embodiment, the user can set the change of the processing on the front surface and the back surface determined for each movement mode as described above.

Next, FIG. 13 shows an output when the user sets this process change.

As is apparent from comparison with FIG. 12, the processing on the front surface and the back surface is all reversed.

Reference numeral 1201 denotes an input image, 1202 denotes a document reference, and 1203 denotes a document.

Reference numeral 1311 denotes how the output of "no movement" is output on the front and back of the output sheet.
In the case of "no movement", the output positions on the front and back surfaces do not change.

Reference numeral 1312 denotes how the output which is referred to as "cornering" is output on the front and back of the output sheet. The output direction is changed by changing the output direction on the front surface and the back surface, opposite to 1212.

Reference numeral 1313 denotes how the output of "relative movement" is output on the front and back of the output sheet.
Conversely to 1213, the direction of movement between the front surface and the back surface is changed, and the output position is changed.

Reference numeral 1314 denotes how an output that is used as a “binding margin” is output on the front and back of an output sheet. 1
As opposed to 214, the direction of movement between the front surface and the back surface is not changed.

In order to instruct the above processing, the image movement setting screen is changed from FIG. 9 to FIG. As shown in FIG. 14, "key for reversing the moving direction between front and back" 14
01 is further provided, and without touching this key, "OK key"
When the user touches the key 1402, the processing of FIG. 12 is performed. When the user touches the “key 1401”, the key 1401 is turned on and “O” is pressed.
When the user touches the "K key" 1402, the processing shown in FIG. 13 is performed.

As described above, according to the present embodiment,
In addition to the processing of the first embodiment, it is possible to appropriately select whether the moving direction is the same or reversed between the front surface and the back surface during double-sided output.

[0094]

As described above, according to the present invention,
An image processing apparatus and an image processing system that can easily output an image to an appropriate output position can be provided.

[Brief description of the drawings]

FIG. 1 is a diagram showing an overall configuration of a first embodiment.

FIG. 2 is an explanatory diagram of an image output position at the time of single-sided output.

FIG. 3 is an explanatory diagram of image movement.

FIG. 4 is an explanatory diagram of calculation of an image output position.

FIG. 5 is an explanatory diagram of calculating a moving position of an output image.

FIG. 6 is an explanatory diagram of calculation of an image movement position when centering is combined with relative movement.

FIG. 7 is a diagram showing a basic screen (touch screen).

FIG. 8 is a diagram showing a setting screen (touch screen) of an image moving direction.

FIG. 9 is a setting screen (touch screen) of an image moving amount.
Figure showing

FIG. 10 is a diagram showing a schematic configuration of a main part of the first embodiment;

FIG. 11 is a flowchart illustrating an operation of changing an image output position according to the first embodiment.

FIG. 12 is an explanatory diagram of an image output position at the time of double-sided output.

FIG. 13 is an explanatory diagram of an image output position at the time of double-sided output.

FIG. 14 is a view showing a screen (touch screen) for setting an image moving amount and an image moving direction at the time of double-sided output.

[Explanation of symbols]

 101 image input mechanism 102 image output position input mechanism 103 image processing mechanism

Claims (16)

[Claims] 1. An image processing apparatus for inputting an image and outputting an image to an image output position input by an image output position input mechanism, wherein the image output position input mechanism inputs a moving direction of the image output position. An image processing apparatus comprising: a first input unit; and a second input unit for inputting a movement amount of an image output position. 2. A terminal having an image output position input mechanism,
An image processing system comprising an image processing device coupled to the terminal via a line, wherein the image is output to an image output position input at the terminal by inputting an image, wherein the image output position input mechanism includes: An image processing system comprising: first input means for inputting a moving direction of an image output position; and second input means for inputting a moving amount of the image output position. 3. An image processing method in an image processing apparatus for inputting an image and outputting the image to an image output position input by an image output position input configuration, wherein a moving direction to the image output position is input and stored. Step 1, a second step of inputting and storing an amount of movement to the image output position, and coordinates of the image output position based on the contents stored in the first step and the contents stored in the second step. And a third step of calculating the following. 4. The image processing apparatus according to claim 1, wherein the first input means inputs a movement to a central part and a movement to a peripheral part in the output area. 5. The image processing system according to claim 2, wherein the first input means inputs a movement to a central portion and a movement to a peripheral portion in the output area. 6. The image processing method according to claim 3, wherein the first step is to input and store the movement to the central part and the movement to the peripheral part in the output area. 7. A method according to claim 1, wherein the first input means is for inputting whether to move to a central portion, move to a peripheral portion, and change a moving direction on the front surface and the back surface in the output area. The image processing device according to claim 1. 8. A method according to claim 1, wherein the first input means is for inputting whether to move to a central portion, move to a peripheral portion, and change a moving direction on the front surface and the back surface in the output area. The image processing system according to claim 2. 9. The method according to claim 1, wherein the first step is for inputting and storing whether or not the movement to the center portion, the movement to the peripheral portion, and whether to change the moving direction on the front surface or the back surface in the output area. The image processing method according to claim 3. 10. The image processing apparatus according to claim 4, wherein the output area is an output paper surface. 11. The image processing apparatus according to claim 4, wherein the output area is a frame of an image signal. 12. The image processing apparatus according to claim 4, wherein the output area is a display surface of a display. 13. The image processing system according to claim 5, wherein the output area is an output paper surface. 14. The image processing system according to claim 5, wherein the output area is a frame of an image signal. 15. The image processing system according to claim 5, wherein the output area is a display surface of a display. 16. A storage medium storing a program for realizing the image processing according to claim 3 via a CPU.