JPH01149163A - Document editing processing device - Google Patents

Abstract

PURPOSE:To change the arranging form of a character string by respectively designating the change of the character string, a moving destination and the arranging direction of the character string to be a subject with first-third destinating means. CONSTITUTION:The character string to be the subject of a moving or copying is designated to document data, which are stored in a storing means (a), by a first designating means (b). The moving destination or copying destination of the character string, which is designated by the first designating means (b), is designated by a second designating means (c). Further, change designation is executed by a third designating means (d) in order to change the arranging direction of the character string to be designated by the first designating means (b). The respective characters of the character string, which is designated by the first designating means (b), are successively arranged in the arranging direction, which is designated by the third designating means (d), by an edition processing means (e) with the moving destination or copying destination to be designated by the second designating means (c).

Description

DETAILED DESCRIPTION OF THE INVENTION [Field of Industrial Application] The present invention relates to a document editing processing device such as an office computer or a word processor.

[JA of invention! ] The first invention is a one-document editing processing device that performs movement processing,
Alternatively, when it is specified to change the arrangement direction of the character string to be processed during copy processing, by moving or copying with the arrangement direction changed as specified, the original arrangement form is changed. It can be moved or copied using the .

A second invention provides a document editing processing device that performs movement processing;
Or, during copy processing, if it is specified to rotate and change the character direction for each character in the character string to be processed, each character can be rotated and moved in the specified direction, or copied. This allows the original layout to be moved or copied in a modified form.

[Prior Art] In document movement processing in a conventional document editing processing device, a character string to be moved is simply moved to a specified movement destination, and the arrangement direction of the character data string and
The orientation of each character (top, bottom, left, right, etc.) remained the same, and the arrangement form could not be changed.

[Problems to be Solved by the Invention] Therefore, for example, as shown in FIG. 9, an output ( When obtaining the "degree of expansion" etc., it was not possible to use movement processing or copying processing, making the operation difficult.

In other words, in order to output the vertically written and right-facing "degree of expansion" shown in Figure 9, even if the character string "degree of expansion" pointing upwards and arranged from left to right in the usual way is placed in a different position. Even if it is entered in ``exhibition'', ``open'', r degree''
, and enter each character separately, and this input will print the letters ``exhibition'', ``exhibition'', ``
Open”.

It was necessary to specify a 90° rotation for each "degree".

An object of the present invention is to enable a character string to be moved or copied in a changed form from its original layout.

[Means for solving problems] The means of the first invention is as follows.

Storage means a (see the functional block diagram in Figure 1; the same applies hereinafter)
stores one document data.

The first specifying means (a) specifies a character string to be moved or copied with respect to the document data stored in the storage means (a).

The second specifying means C specifies a destination or a copy destination for the character string specified by the first specifying means.

The third specifying means d specifies a change in the arrangement direction of the character string specified by the first specifying means.

The editing processing means e edits each character of the character string specified by the first specifying means, starting from the movement destination or compound destination specified by the second specifying means C.

They are sequentially arranged in the arrangement direction specified for change by the third specifying means d.

The means of the second invention is as follows.

The storage means al (see the functional block diagram in FIG. 2, the same applies hereinafter) stores document data.

The first specifying means bl specifies a character string to be moved or copied with respect to document data stored in the storage means at.

The second specifying means C1 specifies a destination or a copy destination for the character string specified by the first specifying means b1.

The third specifier 19dl specifies a change in the character string specified by the first specifying means b1 so that the character direction of each character is rotated.

The editing processing means el rotates each character of the character string specified by the first specifying means bl in the direction of the character specified for rotation change by the third specifying means di, and converts it into a second specified character string. Sequential placement starting from the JIJ destination or copy destination specified by means C1.

[Work] The operation of the means of the first invention is as follows.

The fJll designation means designates a character string to be moved or copied with respect to the document data stored in the storage device a. Further, the second specifying means C specifies the destination or copy destination of the character string specified by the first specifying means.

Further, the third specifying means d specifies a change to change the arrangement direction of the character string specified by the first specifying means. Then, by the first editing processing means e, each character of the character string specified by the first specifying means is transferred to a third destination starting from the movement destination or copy destination specified by the second specifying means C. They are sequentially arranged in the arrangement direction specified for change by the specifying means d.

As a result, for example, if the character string to be moved or copied is a horizontal character string arranged from left to right as usual, and this character string is specified to be arranged from top to bottom, , they are moved or copied in a vertically arranged format from top to bottom.

Therefore, it becomes possible to move or copy a character string with its original layout changed.

The operation of the means of the second invention is as follows.

The first specifying means b1 specifies a character string to be moved or copied in the document data stored in the storage means a1. Further, the second specifying means cl allows the destination of the character string specified by the first specifying means b1,
Alternatively, a copy destination is specified. Further, the third specifying means di specifies a rotation change so as to change the rotation of the character direction of each character of the character string specified by the first specifying means bl. Then, the editing processing means e1 changes the rotation of each character of the character string specified by the first specifying means bt in the direction of the character specified for rotation change by the third specifying means di. They are sequentially arranged starting from the movement destination or copy destination specified by the specifying means cl.

As a result, for example, if each character of a string to be moved or copied normally points upward, and you specify that the string should be changed to right, each character of the string will point right. (a shape where the right direction is the top of the character and the left direction is the bottom of the character, i.e., the upward-facing character is turned 9 to the right)
0' rotation), the movement or copying will be performed.

Therefore, it becomes possible to move or copy a character string in a manner that changes its original layout.

[Example] Hereinafter, an example of the present invention will be described with reference to Figs. g43 to Fig. 9.

FIG. 3 shows the components of a document editing processing device according to one embodiment. This document editing processing device performs various processes such as kana-kanji conversion on the character data inputted by the key human power section 1 under the control of the CPU 2, and stores the processing results etc. in the document memory 3 as document data. It performs processing such as storing, displaying on the display section 4, and printing on the printing section 5.

In addition, various document editing processes such as movement and copying are executed on the character data string stored in the document memory 3 by operating a predetermined key of the key input unit 1.

In addition to the character keys 1A for inputting various character data, the key human power section 1 includes a movement key IB for instructing movement processing, a copy key IC for instructing copying processing, and a cursor movement key 10 for moving the cursor. have. Key human resources department
When each key is operated, a code such as a corresponding character code is generated and input to the CPU 2. Therefore, character data is stored in the document memory 3 and the like in the form of character codes (including symbol codes). Therefore, when displaying or printing the contents of the document memory 3, the CPU 2 reads the corresponding character pattern data stored in advance in the character pattern memory (character generator CG) 6, and reads out the corresponding character pattern data stored in the character pattern memory (character generator CG) 6 in advance. Output to the printing section 5. Then, the display section 4,
The printing unit 5 generates a display signal and a print signal corresponding to each input character pattern data, and performs one display and printing.

As shown in FIG. 4, the character data consists of 2 bytes, of which 14 bits are used as a character code and 2 bits are used as rotation bits. This rotation bit indicates the rotation direction of the character indicated by the corresponding character code when outputting. "oo" is the normal upward direction, "O1" is the right direction (90° rotation direction), "1" is the normal upward direction, "O1" is the right direction (90° rotation direction),
0'' indicates downward (180' rotational direction), and 11'' indicates leftward (-90' rotational direction).

Then, as described above, when outputting the character pattern data corresponding to the character code to the display section 4 and the printing section 5, the CPU 2 rotates the character pattern data according to the contents of the rotation bit before outputting it. .

When the movement key IB or the copy key lc is operated, a message is displayed to guide the user to specify the character data string to be moved or copied. According to this message display, when the target character data string is specified using the cursor movement key 10, the specified character data string becomes 1.
Stored in character buffer 7. After that, an example of an output format, such as one in which the arrangement direction of one character string is top to bottom and the direction S (rotation direction) of each character is right, is displayed as a guidance together with the WA number.

Furthermore, a message for specifying a destination to move or a destination to copy is displayed. So, look at this guidance display and select the desired output format.

When inputting , each rotation bit in the specified character data string in the character buffer 7 is changed according to the rotation direction corresponding to the form of the m number. Furthermore, when a move destination or copy destination is specified, the character data string whose rotation bit in the one character buffer 7 has been changed is stored in the one document memory 3 with the specified move destination or copy destination as the starting point, and the character data string whose rotation bit has been changed is stored in the form number mentioned above. The arrangement is changed in the arrangement direction corresponding to the form.

During such movement and copying processing, register x1,
y+, X2, 72, KO,
yo, X, Y.

and output format flag F are used.

Next, the movement processing operation of this embodiment will be explained with reference to FIGS. 5 to 9.

When the movement key IB is operated, the CPU 2 first displays the display section 4 according to a predetermined program.

Display the message “Where are you from?” (5th
, step S1), then, in order to specify the starting point of the character string to be moved according to this message, when the cursor is moved to the starting point position by operating the cursor movement key ID, the X component of the starting point coordinate A, y Each component is stored in the register X1.71 (step 52).Next, the message "How far?" is displayed on the display section 4 (step S3). In order to specify the end point of the character string, when the cursor is moved to the end point position by operating the cursor movement key ID, the X component and y component of the end point coordinate B are stored in register X2.72, respectively (step 54). 0th order,
In order to calculate the number of digits per line of character data A to be moved, (
(Contents of register x2) - (Contents of register x1) +1
l ((contents of register y2) - (contents of register y1)
+1) and store the results in the registers Xo and '!, respectively. Store in o (step S5)
, and the character data string within the range surrounded by the start point coordinate A and the end point coordinate B as a document memo.

3 and sequentially stores it in the character buffer 7 (step S6). At this time, as shown in FIG. 7(b), the starting point (a) and the ending point (rl) are not on the same line, When the y components of the starting point coordinates A and the ending point coordinates B are different, the character data string within the range of the rectangle with the starting point coordinates A and the ending point coordinates B as diagonal points is read from the one document memory 3, and the character It is stored in buffer 7.

Next, the exit mode guidance display as shown in FIG. 7(a) is displayed (step s7).

In the guidance display, there are 8 ways of exiting square 1mwo, rAB.
Taking the character string CJ as an example, it is displayed in correspondence with the mode number, and a message ``Please specify number 4 of the mode of delivery'' is also displayed.

For example, shape! The t5 number "6" indicates that the character string arrangement direction is
The digits are oriented from top to bottom, the lines are from right to left, and each character is oriented upwards. That is, for example, DI in FIG. 7(b)
For character data strings as shown in
” indicates that it will be changed and output as shown in D2. Also, the form number “7” is
This shows an output format in which the character strings are arranged in such a way that digits progress from right to left, lines progress from bottom to top, and each character faces right.

That is, for example, when specifying the format number "7" for a character data string as shown in D3 of FIG. 7(C), it indicates that the format number will be changed and output as shown in D4. ing. Regarding the arrangement direction of the character strings, the form numbers "1" and "5", "2" and "6", "3" and "7",
4" and "8"' are the same, and regarding the direction of each character, the form numbers are "1" and "6", "2" and "7", 3" and "8", "4" and " 5″ is the same.

When you look at such an output format guidance display and specify and input the desired format number, the value of that number is set in the output format flag F (step 58).
” is displayed (step S9), and when a destination is specified with the cursor according to the message, the X component and X component of the specified destination C are stored in registers x and Y, respectively (step S9). 5i
o), and determines the content of the output form s7 lag F (step 5ix). As a result, the output form flag F is of the form a
When the number X is "2" or "7", set the +90' rotation bit "01" to all character data strings in the character backer 7 so that each character in the string is oriented rightward (
Step 512), proceed to step S15. Also, when the output format flag F is format number "3" or "8", all character data in the character buffer 7 is In a row, respectively.

+180' rotation bit "10" (step 31)
3) Proceed to step S15, and output format flag F
is the form number "4" or "5", the -90' rotation bit "11" is added to all character data strings in the character buffer 7 so that each character in the string is oriented leftward.
” (step 314) and proceed to step S15.
Note that when the form number is "1" or "5", there is no need to change the orientation of each character in the character string, so the process immediately proceeds to step S15.

In step S15, the character data string within the range surrounded by the starting point A and the ending point B is erased from the document memory 3. and,
Perform movement processing for each output format flag (step 516)
.

When the output format flag F is set to format number "l" or "5", the output format is as shown in FIG. 8(b).
In order to perform normal movement processing without changing the arrangement direction, the sixth
The processes of steps 516-11 to 316-17 in FIG. 3(a) are performed.

In other words, "O" is stored in register β in step 51.
6-11), store "0" in register α (step 3
16-12), Next, one character data in the character buffer 7 is sent to the document memory 3 from the beginning, (contents of register X) + (contents of register α), (contents of register Y +
The contents of register β)) are copied to the location in document memory 3 corresponding to the coordinates of register β (step 316-13). In the process of step 516-13, since registers α and β are both “0” at the first time, the coordinates of the copy destination remain the same as the contents of registers X and Y, and the coordinates shown in FIG. The character (character code) "A" that is the object of the first copy is copied to the specified destination c (x, y). However, when the form number "5" is specified, the form number -90° rotation bit "11" is set, so when displaying, the CPU performs -906 rotation processing and the As shown in Figure 8 (b), it faces left.

Next, the contents of register α are incremented by “l” (step 516-14), and the contents of register α are
It is determined whether the number of digits of the character data string to be moved in register XQ (“4” in the above example) is equal (step 516-15). If the result is that they are not equal yet, step 516 is performed. - Return to 13. 2nd time 31
At step 8-13, the contents of register α are set to step 516-1.
4, l'@ is incremented to "1", so the copy destination coordinates of the second copy target character "i" are "1" as shown in Figure 8(b). It will be on the right side of "A".

Then, through the loop processing from steps 316-13 to 516-15, as a result of sequentially arranging "u" and "e" to the right, the contents of register α become 4'', and the contents of register XO become "4". If they are equal, step 316-
Proceeding to step 16, the contents of register β are incremented by "l". Next, the contents of register β are changed to register y.

Number of rows of character data string to be moved inside (“2” in this example)
(Step 316-1)
7) As a result, if they are still not equal, return to step 516-12, clear the contents of register α, and perform the processing from step 516-13 onwards. ”, the contents of register β are incremented by “l” to “1” in step 51B-16, and the contents of register α are cleared to “0” in step 318-12. As a result, the copy destination coordinates of "o" are as shown in FIG. 8(b).

It is the lower side of "a". Also, when copying the next “ka”, the contents of register α are changed to “ in step 516-14.
l", and the process returns to step 516-13 via step 516-15. As a result, the copy destination coordinates of "ka" become to the right of "o".

When the output format flag F is set to Ts number "2" or "6", the digits progress from top to bottom and the rows progress from right to left, as shown in Figure 8(e). In order to perform the movement in an output form that progresses to , the process of step 31B-21NS16-27 in FIG. 6(b) is performed, that is,
Store “0” in register β (Step 51B-21)
, stores 0'' in register α (step 516-22)
0 Next, one character data in the character buffer 7 is sent to the document memory 3 from the beginning as (contents of register X) - (contents of register α), (contents of register Y + contents of register β)). Copy to the location of the document memory 3 corresponding to the coordinates (step 516-23), this step 516-
In the process of 23, since both registers α and β are “0” at the first time, the coordinates of the copy destination remain the same as the contents of registers x and Y, and the character (character code) to be copied at the first time is “0”. "A" is the specified destination c (x,
y).

However, in the case of form number "2", the +90° rotation bit "01" is set, so when 1 is displayed, the CPU
A rotation process of +90° is performed by I, and the object is turned to the right as shown in FIG. 8(e).

Next, step 316-24) increments the contents of register β by l", so that the contents of register β are equal to the number of digits of the character data string to be moved in register XO ("4" in the above example). It is determined whether or not they have become equal (step 516-25), and if the result is that they are still not equal, the process returns to step 516-23.Second 0316-
In step 316-23, the contents of register β are incremented by "1" and become "l" in step 316-24, so the copy destination coordinates of the character "i" to be copied the second time are As shown in Figure (e), it is the lower side of "A".

Then, through the loop processing of steps 516-23 to 516-25, "U" and "E" are sequentially arranged below, and the contents of register β become "4", and the contents of register XO become When it is equal to a certain "4", step 51B
-26 and increments the contents of register α by “1” 0 Next, the contents of register α are changed to register y
.

Number of rows of character data string to be moved inside (“2” in this example)
(Step 516-2)
7) As a result, if they are still not equal, return to step 516-22, clear the contents of register β, and perform the processing from step 316-23 onwards. '', the contents of register α are incremented by l'' in step 31B-26 to become l'', and the contents of register β are cleared to "0" in step 516-22. ,
As a result, the copy destination coordinates of "o" are to the left of "a" as shown in FIG. 8(e). When copying the next "ka", the contents of the register β are set to "1" in step S16-24, and the process returns to step 316-23 via step 316-25. As a result, the copy destination coordinates of "ka" are below "o".

When the output format flag F is set to format number "3" or "7", as shown in FIG. 8(C),
In order to perform the movement process in an output format in which the digits progress from right to left and the lines progress from bottom to top, steps 51B-31 to 31B-37 in FIG. 6(c) are performed, that is, Store O'' in register β.Step S16-31
), "O' is stored in register α (step 516-3
2) 0 Next, one character data in the character buffer 7 is sent to the document memory 3 in order from the beginning (contents of register X) -
(Contents of register α), (Contents of register Y - Contents of register β)) are copied to the location in the document memory 3 corresponding to the coordinates (Step 51B-33), this step 31
In the process of B-33, both registers α and β are “0” for the first time, so the copy destination coordinates are register x,
The contents of Y remain unchanged, and the character (character code) "A" to be copied the first time is moved to the specified destination C (X
, Y).

However, in the case of model sgi number "3", the +180° rotation bit "lO" is set, so when displaying, C
The PUI performs +180° rotation processing, as shown in Figure 8 (
As shown in b), it points downward. Also, the form number “
In the case of 7", the +90" rotation bit is set, so when 1 is displayed, a rotation process of +90° is performed and the display is oriented to the right.

Next, the contents of register α are incremented by “l” (step 516-34), so that the contents of register α are equal to the number of digits (“4” in the above example) of the character data string to be moved in register xo. If the result is that they are still not equal, the process returns to step 516-33. 2nd time 516-
In step 33, the contents of the register α are incremented by “1'' and become “1” in step 316-34, so the copy destination coordinates of the character “i” to be copied the second time are as follows: As shown in Figure 8 (C), it is on the left side of "A".

Then, through the loop processing of steps 31B-33 to 316-35, "u" and "e" are sequentially arranged on the left, and as a result, the content of register α becomes "4", and the content of register XO becomes "4". , step 316
-Proceed to step 36 and increment the contents of register β by “1” 0 Next, the contents of register β are changed to register y
.

Number of rows of character data string to be moved inside (“2” in this example)
(Step 316-3)
7) As a result, if they are still not equal, return to step 516-32, clear the contents of register α, and perform the processing from step 516-33 onwards. '', the contents of the register β are incremented by 1 in step 516-36 to become l'', and the contents of register α are cleared to O'' in step 516-32. As a result, the copy destination coordinates of "o" are on the north side of "a" as shown in FIG. 8(C). Also, when copying the primary "ka", in step 316-34 register α
The content of is set to "1", and the process returns to step 2 516-33 via step 516-35. As a result, the copy destination coordinates of "ka" are to the left of "o".

When the output format flag F is set to format number "4" or "8", the output format flag F is set to 1 as shown in FIG. 8(d).
In order to perform the movement process in an output format in which the digit progresses from the bottom to 1 and the line progresses from the left to the right, steps 316-41 to S16-47 in FIG. 6(d) are performed. That is, step 31B-4 stores "θ" in register α.
1).

Store 0” in register β (step 516-42) 0
Next, for one document memory 3, one character data in character buffer 7 is stored in the following order from the beginning: (contents of register X) + (contents of register α), (contents of register Y - contents of register β)) (step 316-43), this step 816-4
In the process of step 3, the first time both registers α and β are “
0", the coordinates of the copy destination remain the same as the contents of registers X and Y, and the first copy target character (
Character code) "A" is the specified destination C (X, Y)
is copied to the location.

However, in the case of model number "4", the rotation bit "11" of 190" is set, so when displaying it, the CPU
As a result, a rotation process of -906 is performed, and the object is turned to the left as shown in FIG. 8(d). In addition, in the case of form number "8", the rotation bit of +tao@ is set up, so 1
When displayed, a rotation process of +180° is performed so that it faces downward.

Next, the contents of register β are incremented by “1” (step 516-44), so that the contents of register β are equal to the number of digits of the character data string to be moved in register XO (“4” in the above example). If the result is that they are still not equal, the process returns to step 516-43. 2nd time 318-
In step 43, the contents of register β are incremented by "1" to "1" in step 316-44, so the copy destination coordinates of the character "i" targeted for the second copy are the 8th As shown in Figure (d), it is above the letter "A".

Then, through the loop processing of steps 518-43 to 51B-45, "u" and "e" are sequentially arranged on top, and as a result, the content of register β becomes "4", which is the content of register XO " 4”, step S l
Proceeding to B-46, the contents of register α are incremented by "1". Next, the contents of register α are changed to register y.

Number of rows of character data string to be moved inside (“2” in this example)
(Step 51B-4)
7) If the result is that they are not yet equal, step S! Returning to step 6-42, the contents of register β are cleared and the processing from step 516-43 onward is performed. Therefore, when copying the next "o" after "e", the contents of register α are cleared from step 316-43. The register β is incremented by "1" at step 46 to become "1", and the contents of the register β are cleared to "0" at step 516-42. As a result, the copy destination coordinates of "o" are on the right side of "a" as shown in FIG. 8(d). Also, the first ``ka''
When copying, the contents of register β are set to "1" in step 516-44, and the process returns to step 516-43 via step 316-45. As a result, "ka"
The copy destination coordinates will be above "o".

In this way, according to this embodiment, it is possible to move a character string in a manner that changes its original arrangement form. Moreover, the change designation of the arrangement form can be performed simply by using the form number according to the guidance display, and the change designation operation is simple.

If you want to use the above-mentioned movement process to output the "deployment degree" in the arrangement form shown in Figure 9, you can output 1 at any position with the digits progressing normally from left to right and each character pointing upwards. Input the "degree of expansion" and specify the form number "2" as the output form of this "degree of expansion."

All you have to do is specify the location of "Exhibition" in Figure 9 as the destination.
Similarly, if you want to output "patentability" and "technical ability" in the arrangement form shown in Figure 9, enter "patentability" and "technical ability" in the usual format at any position. , Specify the output form of "Patentability", form number "3" as the destination, and the position of "Special" in Figure 9, and specify the output form of "Technical ability", form number "4" as the destination, and the position of "Special" in Figure 9. All you have to do is specify the position of the "technique" in the diagram.

In this way, unlike conventional methods, the complicated operations of individually specifying the output position of each character and individually giving rotation instructions for each character are not required, but in this embodiment, the simple operation is possible. This makes it possible to output character strings in various layouts.

Note that the present invention is not limited to the above-described embodiment, and it is also possible to copy a character string in a modified form, for example. In this case, Figures 5 and 6
This can be realized using an algorithm almost similar to the one shown in the figure. That is, in this case, the erasing process in step 315 in FIG. 5 may be omitted.

[Effects of the Invention] According to the present invention, it is possible to move or copy a single arrangement in various modified forms by a simple operation, so character strings in various arrangement forms can be easily output. becomes possible.

[Brief Description of the Drawings] Figure 1 is a functional block diagram of the first invention, Figure 2 is a functional block diagram of the second invention, Figure 3 is a configuration diagram of an embodiment, and Figure 4 is a data structure. FIG. 5 and FIG. 6 are flowcharts showing movement processing operations, FIGS. 7 and 8 are diagrams showing specific examples of movement processing, and FIG. 9 is a flow chart for explaining the problems of the prior art. It is a diagram. l...key human power department, IB...movement key, lC...copy key, 10...cursor movement key, 2...CPU , 3...Document memory, 7...Character buffer, F...
-Output format flag. Figure 1 Figure 2 Figure 3 Figure 4 Figure 6 Figure 8-9

Claims (2)

[Claims] (1) A storage means for storing document data; a first designation means for designating a character string to be moved or copied with respect to the document data stored in the storage means; and this first designation means a second specifying means for specifying a move destination or a copy destination for the character string specified by the first specifying means; and a third specifying means for specifying a change in the arrangement direction for the character string specified by the first specifying means. and the third specifying means, each character of the character string specified by the first specifying means, with the movement destination or copy destination specified by the second specifying means as a starting point. 1. A document editing processing device comprising: editing processing means for sequentially arranging the arrangement in an arrangement direction designated for change; (2) a storage means for storing document data; a first designation means for designating a character string to be moved or copied with respect to the document data stored in the storage means; and this first designation means a second specifying means for specifying a move destination or a copy destination for the character string specified by the above; and a rotation change of the character direction of each character for the character string specified by the first specifying means. a third specifying means for specifying, and each character of the character string specified by the first specifying means,
editing processing means for changing the rotation in the character direction specified by the third specifying means and sequentially arranging the characters starting from the movement destination or copy destination specified by the second specifying means; A document editing processing device comprising: