JPH0433051A - Document processor - Google Patents

Abstract

PURPOSE:To input a Chinese character (KANJI) by Japanese syllabary (KANA) / KANJI conversion by inputting reading information when inputting the same KANJI in the next time by simultaneously displaying the reading of the KANJI when displaying the KANJI inputted to a dividing point code. CONSTITUTION:A KANJI storing means 101 stores a lot of KANJI together with the reading information and when the dividing point code is inputted from an input means 102, a reading means 103 reads the KANJI and the reading information corresponding to the dividing point code from the KANJI storing means 101. A reading information storing means 104 stores the read KANJI and the reading information while making them correspondent, and a display means 105 displays the stored KANJI and the reading information. Thus, since the reading is similarly displayed when displaying the KANJI inputted by the dividing point code, in the case of inputting the same KANJI again, the KANJI can be inputted by the input of the KANA / KANJI conversion afterwards.

Description

DETAILED DESCRIPTION OF THE INVENTION (A) Field of Industrial Application The present invention relates to a document processing device having a kana-kanji conversion function, and more specifically, to a document processing device having a kana-kanji conversion function.
The present invention relates to a document processing device capable of manually inputting kanji characters by inputting digit numbers.

(B) Conventional technology Conventionally, in this type of document processing device, when inputting a kanji, if the reading of the kanji is unknown, the kanji is searched for in a Kuten code table and the corresponding Kuten code is input. , I am trying to input that kanji.

(c) Problems to be Solved by the Invention As described above, when the pronunciation of kanji is unknown, the kana-kanji conversion function cannot be used manually.

Therefore, Kuten input is used as another input method, but if you input using Kuten input, the reading is unclear even if you re-enter the same character manually, so you have to input it again using Kuten input. The problem is that it doesn't.

This invention was made in consideration of these circumstances, and it displays the pronunciation of the kanji that was created manually using Kuten's human power, and when re-writing the same character, it is possible to enter the kanji using the kana-kanji conversion function. In this way, the present invention provides a document processing device that facilitates re-input of the same character.

(d) Means for Solving the Problems FIG. 1 is a block diagram showing the configuration of the present invention. As shown in the figure, the present invention is a document processing device capable of converting input reading information into a sentence containing kanji and kana. An input means 102 capable of specifying the kanji by inputting a Kuten code, and an input means 10
When the Kuten code is input from 2, the Kanji memorization hand it o
reading means 103 for reading out the kanji and its reading information corresponding to the Kuten code from t; and reading means 10.
The reading information storage means 104 stores the kanji read out in step 3 and their reading information in correspondence with each other, and the display means 105 displays the kanji stored in the reading information storage means 104 and their reading information. This is a document processing device.

In the present invention, the kanji storage means 101 may be any device that can store a large number of kanji together with their pronunciation information, such as a large-capacity ROM, or a magnetic storage medium such as a floppy disk or hard disk and its drive device. is used.

The input means 102 may be any device that can specify a kanji character by inputting a numeric Kuten code, such as a keyboard device,
Input devices known in the art, such as tablet devices, are used.

The reading means 103 is a CPU ROM.

It is convenient to use a microcomputer consisting of a RAM and an I10 board, and the RAM therein is usually used as the reading information storage means 104.

The display means 105 may be any device as long as it can display the kanji and their reading information stored in the reading information storage means 104, such as a CRT display device, an LC (liquid crystal) display device, or the like.

(E) Effect According to the present invention, a large number of kanji are stored in the kanji storage means 101 along with their reading information, and the input means 102
When a Kuten code is input from , the reading means 103 reads out the Kanji character and its reading information corresponding to the Kuten code from the Kanji storage means 101 .

Then, the reading information storage means 104 stores the read kanji and their reading information in correspondence, and the display means 105 displays the kanji and their reading information stored in the reading information storage means 104. Ru.

Therefore, when a kanji input using the Kuten code is displayed, its reading will also be displayed, so if you want to input the same kanji again manually, you will need to input that kanji using kana-kanji conversion input. be able to.

(f) Examples Hereinafter, the present invention will be described in detail based on examples shown in the drawings. Note that this invention is not limited to this.

FIG. 2 is a block diagram showing the configuration of an embodiment in which the present invention is applied to a Japanese word processor.

In this figure, 1 is a keyboard with other character keys, numeric keys, function keys, etc.
It is possible to specify kanji by entering the Kuten code of the digit. The keyboard 1 sends this input Kuten code to the control unit 2.
Output to.

The control unit 2 is composed of a microcomputer consisting of a CPU ROM, a RAM, and an I10 board.
Various data processes, which will be described later, are performed using control programs stored in the controller.

Reference numeral 3 denotes a kanji-to-slang conversion dictionary consisting of a ROM, which stores a large number of kanji along with their reading information.

Reference numeral 4 denotes a kana-kanji conversion dictionary consisting of a ROM for converting an input kana character string into a sentence containing kanji and kana, and stores a large number of words including kanji along with their reading information.

Reference numeral 5 denotes a kanji buffer consisting of a RAM, which stores kanji input from the keyboard as a Kuten code as a character code.

Reference numeral 6 denotes a reading buffer consisting of a RAM, which stores the reading information of the kanji stored in the kanji buffer 4 in the form of hiragana character strings in both on-yomi and kun-yomi.

Reference numeral 7 denotes a document memory consisting of a RAM, which stores the prepared kanji and kana mixed sentences.

8 is a display device consisting of a CRT display device.

When a Kuten code is input from the keyboard 1, the control unit 2 stores the Kanji corresponding to the Kuten code in the Kanji buffer 5 as a character code by searching the Kanji-reading conversion dictionary 3. The reading information corresponding to the character code is read out from the kanji-reading conversion dictionary 3 as a hiragana character string of on-yomi and kun-yomi, and is stored in the reading buffer 6 in association with the kanji stored in the kanji buffer 5. Then, the content of the reading buffer 6 is set in the guidance buffer for display, and the hiragana character strings of the on-yomi and kun-yomi stored in the reading buffer 6 are displayed in a window display on the display device 8, and the hiragana character strings of the on-yomi and kun-yomi stored in the reading buffer 6 are displayed in a window display. Display the memorized kanji at the current input position. Here, if the corresponding reading information is not in the kanji-reading conversion dictionary 3, only the kanji stored in the kanji buffer 5 is displayed at the current position.

FIGS. 3 to 5 are explanatory diagrams showing examples of displays when inputting by Kuten code.

As shown in Figure 3, when a Kuten code input instruction is given, the memory of the function keys from F1 to FIO on the keyboard 1 contains the most recent kanji of the kanji input by Kuten code input. A maximum of 10 items can be stored, and the contents are displayed in the Fl-FIO column at the bottom of FIG. This internal data storage is performed by having ten 2-byte character codes. Also, F1~
Guidance for inputting kuten is displayed at the top of the display of F10. The keys that can be operated manually in the state shown in FIG. 3 are the numeric keys O to 9 and the function keys up to Fl-Plo (However, Fl-F3 in FIG. 3).

In the display state shown in Figure 3, for example, if the kanji ``Hayashi'' is input with the Kuten code r4651J, the on-yomi reading of ``Hayashi'' will be displayed in a window on the display screen as shown in Figure 4. Kun reading is displayed as a hiragana character string. The keys that can be input in the state shown in FIG. 4 are all keys that are valid on a normal input screen, and by pressing any key, the window screen displaying the reading information is erased.

In addition, in the display state shown in FIG. 3, for example, F2
When the key is pressed, as shown in Figure 5, the character code for the kanji ``right'' is stored in the memory of the F2 key, so the kanji ``right'' is displayed at the current input position. At the same time, the on-yomi and kun-yomi for "right" are displayed in a window on the display screen as a hiragana character string. The keys that can be input in the state shown in FIG. 5 are the same as described above.

These are all keys that are valid on a normal input screen, and by pressing any key, the window screen that displays the reading information will be cleared.

Next, the contents of the processing operation of the control section 2 will be explained according to the flowchart shown in FIG. 6.

First, when a key is pressed (step 11), it is checked whether it is a funk key (step 12).
If it is not a function key, check whether it is an input-enabled key, that is, a 4-digit kuten code input (step 13), and if it is a kuten code input, convert the specified kanji into a character code. The character code is converted and set in the kanji buffer 5 (step 14), and the character code is set in the function table which is the function key memory (step 15).

In step 12, if a function key is pressed, the function table corresponding to the function key is searched and the character code stored there is set in the kanji buffer 5 (step 21) a. From the character code set in buffer 5,
Search the kanji-reading conversion dictionary 3 and set the searched reading in the reading buffer 6 (step 16), display the input character stored in the kanji buffer 5 at the current input position (step 17), and set the reading to the reading buffer 6 (step 16). The pronunciation stored in the buffer 6 is displayed in a window display (step 18).

After that, check whether there is any character input (Step 1
9) If there is no character input, the window display continues; if there is character input, the window display is erased (step 20), and the next input state is entered.

In this way, by displaying the reading of the kanji entered using the Kuten code, when re-entering the same kanji,
Kanji can be input by converting kana-kanji by inputting readings, and kanji input can be simplified.

(g) Effect of the invention According to this invention, when a kanji input using a Kuten code is displayed, the reading of that kanji is displayed at the same time, so if the same kanji is input next time, , it is possible to input kanji by converting kana-kanji by inputting reading information without using kuten hood input, and simplification of kanji input can be achieved.

[Brief explanation of the drawing]

Figure 1 is a block diagram showing the configuration of this invention, Figure 2 is a block diagram showing the configuration of an embodiment of this invention, and Figures 3 to 5 show examples of displays when inputting by Kuten code. The explanatory diagram shown in FIG. 6 is a flowchart showing the operation of the embodiment. l...Keyboard, 2...Control unit, 3...Kanji-reading conversion dictionary, 4...Kana-Kanji conversion dictionary, 5... Kanji buffer, 6...Reading buffer, 7...
. . . Document memory, 8 . . . Display device. Bait 1 Figure 1 [3m Figure 2 4M11 Figure Figure

Claims (1)

[Claims] 1. A document processing device capable of converting input reading information into a sentence containing kanji and kana, which includes a kanji storage means that stores a large number of kanji along with their reading information, and a kanji character designated by inputting a numerical Kuten code. an input means capable of reading a kanji and its reading information from the kanji storage means when a kuten code is input from the input means; A document processing device comprising a reading information storage means for storing kanji characters and their reading information in association with each other, and a display means for displaying the kanji characters and their reading information stored in the reading information storage means.