JPS61271565A - Kanji inputting and processing system - Google Patents

Abstract

PURPOSE:To perform the input of KANJI (Chinese character) with good interest taken in the type of the KANJI and to acquire this KANJI type, by providing a dividing type selecting part to divide an area where KANJI shouls be supplied into plural parts and to select a desired dividing type after displaying the layout of those divided areas. CONSTITUTION:The division type keys arranged on a keyboard 5 are pushed to deliver a command to a dividing type selecting part 1 to shown the input of KANJI for example. Thus the part 1 divides an area for display of KANJI into plural areas on a display 6 and displays the layout of two areas, for example, divided vertically. Then the digit keys on the keyboard 5 are pushed for the selection of a desired dividing type. Various patterns are displayed on the display 6 for input to the area corresponding to the selected dividing type. Then the desired patterns are selected successively. Then it is decided whether the input KANJI is equal to the desired one or not. The result of this decision is displayed on the display 6.

Description

DETAILED DESCRIPTION OF THE INVENTION [Explanation] A region in which kanji are to be input is divided into a plurality of regions, and patterns to be stored in the divided regions are sequentially specified to input desired kanji.

[Industrial application field]

The present invention relates to a kanji input processing method in which kanji are divided into a plurality of areas such as ``bia'' and ``ro'', and a desired one is selected and input.

[Conventional technology]

Conventionally, the kana-kanji conversion method has been widely used for inputting kanji in Japanese word processors.

This allows you to input the reading of a kanji in kana, search a dictionary, and convert it into kanji.

[Problem that the invention seeks to solve]

When schoolchildren who have not yet fully mastered the shapes of kanji use a conventional Japanese word processor that converts kana to kanji, they tend to become indifferent to the detailed shapes of kanji.
There was a risk that a situation would arise where the user could read kanji but would not be able to write them correctly on paper with a pencil or the like. For example, there was a problem in that it was unclear whether the second character of the word ``situation'', the left side of the kanji character ``situation'', was ``1'' or ``γ''.

[Means for solving problems]

In order to solve the above-mentioned problems, the present invention divides kanji into a plurality of areas such as ``bias'' and ``ro'', displays various patterns for storage in the divided areas, and selects a desired pattern. By adopting a configuration in which kanji are input using a keyboard, kanji can be entered while paying sufficient attention to the shape of the characters.

Furthermore, since a desired pattern is selected and a kanji is inputted, non-existent kanji characters, that is, cursive characters, can also be input, so a configuration is also adopted in which cursive characters are excluded.

Fig. 1 shows the basic configuration of the present invention, in which ■ is a division format selection section that selects what kind of area the kanji to be input should be divided into, and 2 is a division format selection section that selects the pattern to be input into the divided areas. A dividing element selection unit to select, 3, a kanji discrimination unit that determines whether the input pattern is a kanji or a kanji, 4
5 represents a control/processing unit, 5 represents a keyboard for manually operating keys, and 6 represents a display.

Using FIG. 1, an example will be described in which, for example, the kanji "situation" is manually divided into two parts, a part indicating the left part and a part indicating the right part.

First, a division format key arranged on the keyboard 5 is pressed to notify the division format selection unit 1 of a command to, for example, manually input Chinese characters.

Upon receiving this notification, the division format selection section 1 selects the display 6.
Divide the area where kanji should be stored above into multiple areas, for example, display a layout in which it is divided into two vertically, and
Press the number keys on the keyboard 5 to select the desired division format.

Second, after completing the first selection, a pattern for inputting into the divided areas on the display 6, for example,
, "γ", etc. are displayed, and by pressing a number key on the keyboard 5, a desired pattern, for example, "n" is selected. Similarly, for Labor, choose ``older brother.'' As a result of both parties' choices, the "situation" will be managed manually.

Next, a command is sent to the kanji character discriminating unit 3 to determine whether the result inputted in the second step from the keyboard 5 is a kanji character or a correct character. When the kanji discriminator 3 receives the notification, for example, if the result is "situation", it displays on the display 6 that the corresponding kanji is not retrieved, that is, the bias is incorrect, and that the character is the correct character. let The result is “situation”
If so, since a word corresponding to a kanji is searched, a message to the effect that it corresponds to a kanji is displayed on the nice play 6.

The control/processing unit 4 is for controlling and processing, such as displaying kanji and patterns on the display 6.

[Effect]

By notifying the division format selection unit (■) of a signal indicating that the area where kanji is to be stored is to be divided into a plurality of areas, layouts of various division formats are displayed on the display 6, so that the desired division format can be displayed. Select. Next, various patterns to be input into the area corresponding to the selected division mode are displayed on the display 6, and desired patterns are sequentially selected. This allows the kanji to be input.

Then, it is determined whether the input kanji is a correct character or not, and the result is displayed on the display 6.

〔Example〕

FIG. 2 shows the configuration of one embodiment of the present invention. In the figure, 1-1 is a division format selection control unit, 1-2 is a division format dictionary memory, and 2-
Reference numeral 1 represents a division element selection control section, 2-2 a division element dictionary memory, 3-1 a kanji discrimination control section, and 3-2 a kanji discrimination dictionary memory. In addition, 1.2.3.4.5 and 6 in the figure are the first
This corresponds to that shown in the figure.

In FIG. 2, the divided format dictionary memory 1-2 stores various types B for dividing the area in which the kanji to be inputted is to be stored into a plurality of areas, such as the one shown in FIG. 3. The display contents are stored in association with the division format code.

The division element dictionary memory 2-2 stores patterns to be input into the divided areas, and displays them in association with division format codes, position codes, and serial numbers, as shown in FIG. 4, for example. The content is stored. Here, 0'' and "1" in the position code column indicate the left side area (bia) and right side area (ro) of the divided kanji, respectively.

The kanji discrimination dictionary memory 3-2 is for discriminating whether the input result is a kanji or a kanji,
For example, as shown in FIG. 5(a), display contents are stored in association with division format codes and division element numbers. Here, the division element numbers are, for example, "0" and "1" in the position code column shown in Figure 4, that is, those corresponding to the left area (bias) and right area (ro) when the kanji is divided. It is written.

Next, the operation of the configuration shown in FIG. 2 will be explained in detail using FIG. 6.

FIG. 6(A) shows an example of the layout displayed on the display 6 when the split format key arranged on the keyboard 5 is pressed. This is read out from the divided format dictionary memory 1-2 shown in FIG. 3 and displayed on the display 6 by pressing the divided format key arranged on the keyboard 5. Each area divided into squares shown at the bottom of the display 6 is a schematic representation of a divided area into which kanji are to be input.

A division format code is attached below these squares. Next, if you manually press, for example, "01" using the numeric keypad arranged on the keyboard 5, the horizontally divided into two parts will be selected, and the next step shown in FIG. 6 (b) will be selected. The divided element selection control unit 2-1 reads out the divided element dictionary memory 2-2 (as shown in FIG. 4),
displayed on the display 6.

FIG. 6 (B) shows the position code column shown in FIG. The part marked with ``corresponds to the left part (biased part) of the divided area where you want to input kanji. Next, when you manually press a desired number, for example "004", using the numeric keypad, the pattern "n" corresponding to '004' is selected, and the next step shown in FIG. The divided element selection control unit 2-1 reads out the divided element dictionary memory 2-2 and displays it on the display 6.

FIG. 6(c) shows the position code column shown in FIG. 4 corresponding to "1", and shows the layout of the pattern to be input into the labor part. Here, the shaded part corresponds to the right part (labor part) of the divided area where the kanji is to be input. Next, when you manually press a desired number, for example '020'', using the numeric keypad, the pattern 'brother' corresponding to '1020' is selected, and the next step shown in FIG. 6(d) is displayed on the display 6. displayed above.

Figure 6 (D) shows the division format code "O1" and position code "0" selected for input to the offset part shown in Figure 4.
and the superposition of “n” corresponding to the serial number “004” and the “older brother” corresponding to the division format code “01”, position code “1” and serial number “020”, that is, the result of executing the OR operation Indicates “situation”.Then, move the cursor to the position where the next kanji will be inserted.

As explained above, kanji can be input by issuing commands using the keyboard 5 to divide the area in which kanji are to be input, and then sequentially selecting desired patterns to be stored in each of the divided areas. can.

Next, FIG. 7 shows an operation explanatory diagram for explaining the kanji checking operation according to the present invention. This is to check whether the input kanji corresponds to the current character, as explained using FIGS. 6(a) to 2).

FIG. 7(A) corresponds to FIG. 6(C), and in FIG. 6(A), division format code "01" is selected, and in FIG. 6(B), position code "0" is selected. ” and sequence number “001”
” is specified on the display 6. Next, assuming that the position code “1” and the sequence number “020” are specified in FIG. 6 (c), the kanji discrimination control unit 3-1 is the kanji -?
The item "01.001.020" as shown in FIG. 5 (b) is searched from the items shown in (b).

However, the situation shown in Figure 5 (b), that is, the "situation",
Since the kanji cannot be found in the kanji dictionary memory 3-2 shown in Fig. 5 (a), the message "No such kanji" and the current character are displayed on the display 6 as shown in Fig. 7 (b). Ru.

On the other hand, select the division format code "01" in Figure 6 (a), and select the position code "0" and the serial number "0" in Figure 6 (b).
04” and the position code “1” in Figure 6 (c).
and serial number "020", the discrimination control unit 3-1 searches for the item "01.004.020" from the Hankei IM4<Mori3-2 (shown in Figure 5 (a)). be done.

Therefore, the message "There is no such kanji" is not displayed on the display 6.

FIGS. 8 and 9 show flowcharts illustrating operations related to the present invention.

■ in the figure indicates a state in which the key is manually operated. This means that the keys must be pressed manually from the keyboard 5.

■ in the figure indicates a state in which it is determined whether or not the large key in the figure ■ is pressed. If YES, the large characters in the figure ■ are displayed as they are on the display 6, and then the ■ in the figure return. In the case of NO, execute the process (■) in the figure.

■■ in the figure indicates a state in which it is determined whether the key input manually in ■ in the figure is a split format key. In the case of YES, execute the following steps (■) in the figure. In the case of No, an error is displayed at ■ in the figure, and then the process returns to ■ in the figure.

In the figure, ■ indicates a state in which a display as shown in FIG. 6(a) is displayed on the display 6. This means that the division format selection control unit 1-1 displays the division format code and the first item of display content for all items (shown in FIG. 3) stored in the division format dictionary memory 1-2. 6.

In the figure, ■ indicates a state in which the position code "X=O" is set.

In the figure, ■ indicates the state in which the numerical key N is manually input, that is, the split format code is input manually. This means pressing down on the numeric keypad from the keyboard 5 in the state shown in FIG. 6(a).

In the figure, ■ indicates a state in which the layout of the area (work area) in which the next pattern is to be input is displayed, as shown on the left side of FIG. 6(b). This displays the layout of the division mode stored in the area where the next pattern is to be input, that is, the position "X+1" for the row of division format code N read out from the division format dictionary memory 1-2. This means displaying on the display 6.

In the figure, [stock] indicates a state in which a pattern to be inputted is displayed in the labor part, as shown from the center to the right in FIG. 6 (b).

In the figure, ■ indicates a state in which division elements are input using numerical keys.

In the figure, @ indicates the division format code N, position code X, and serial number M(X) stored in the division element dictionary memory 2-2.
This shows the state in which the contents of the row are stored in "U".

0 in the figure indicates a state in which the contents of position code X are incremented.

In the figure, ■ indicates a state in which it is determined whether the value of the position code X is larger than the number of divisions (L-1).

In the case of YES, perform ■ in the figure. In the case of No, execute [phase] in the figure.

■ in the figure indicates the division format code N, division element number M (t) -, M (1) . . . in the kanji discrimination dictionary memory 3-2.
・Indicates the state of searching for the terms M, L-, .

In the figure, [phase] indicates a state in which it is determined whether or not there is a term.

In the case of YES, after displaying the contents stored in “U” at 0 in the figure at a predetermined position on the display 6,
Repeat the following. In the case of NO, after "error display" is performed at O in the figure, the steps from ■ in the figure are repeated.

In the figure, @ indicates "
This shows the state of storage in V''.

In the figure, [phase] indicates a state in which the contents stored in "U#" and "V' are ORed and displayed on the display 6. This can be seen, for example, on the left side of Figure 6 (c) and on the left side of Figure 7 (
It means to display on the display 6 like "t" or "γ" shown on the left side of (b).

In the figure, 0 indicates a state in which the serial number and display contents are displayed on the display 6 for the row of division format code N and position code X stored in the depleted element dictionary memory 2-2.

In the figure, @ indicates a state in which the numeric keys are manually pressed to select the dividing element by number.

In the figure, @ indicates a state in which the display contents are stored in "W" for the row with the division element code N, position code X, and serial number M(X) from the division element dictionary memory 2-2.

In the figure, [phase] is the result of the OR operation of “U” and 6W”.
This shows the state of storage in U”.

In the figure, [phase] indicates a state in which the contents stored in "U" are displayed at a predetermined position on the display 6 (FIG. 6 (d)).

〔Effect of the invention〕

As explained above, according to the present invention, a kanji is divided into a plurality of areas such as ``bia'' and ``ro'', various patterns that can be stored in the divided areas are displayed, and a desired pattern is selected to read the kanji. Since the system adopts a configuration in which kanji are inputted, it is possible to input kanji while paying close attention to the shape of the kanji and learn the shape of the kanji.

In addition, since a desired pattern is selected and a kanji is input, even if a non-existent kanji, ie, a cursive character is input, the cursive character is displayed so as not to be mistaken for a kanji.

[Brief explanation of drawings]

FIG. 1 is a diagram showing the basic configuration of the present invention, FIG. 2 is a diagram showing the configuration of one embodiment of the present invention, FIG. 3 is an example of the configuration of a divided format dictionary according to the present invention, and FIG. 4 is a divided element dictionary according to the present invention. Configuration example, 5th
The figure shows an example of the configuration of a kanji dictionary according to the present invention, FIG. 6 is an operation explanatory diagram explaining the kanji input operation according to the present invention, and FIG. 7 is an operation explanatory diagram explaining the kanji checking operation according to the present invention.
8 and 9 show flowcharts illustrating the present invention in detail. In the figure, l represents a division format selection section, 2 a division element selection section, 3 a kanji discrimination section, 4 a control/processing section, 5 a ho board, and 6 a display.

Claims (2)

[Claims] (1) In a kanji input processing method configured to divide the area into which kanji are to be input into multiple areas and input the desired kanji by sequentially specifying patterns to be stored in the divided areas, the area in which kanji should be input is a division format selection unit (1) that divides the image into a plurality of parts, displays the layout of the divided areas, and performs control so that a desired division format can be selected; and a division area selected by the division format selection unit (1). and a division element selection section (2) that displays a plurality of patterns that can be stored in the area and performs control so that a desired pattern can be selected; A kanji input processing method characterized in that a desired kanji is input by sequentially storing patterns selected by an element selection section (2). (2) By sequentially storing the patterns selected by the division element selection unit (2) in the plurality of division areas selected by the division format selection unit (1), a pattern corresponding to the input pattern exists in the kanji dictionary. The kanji input processing method according to claim 1, further comprising a kanji discriminating unit (3) for searching and determining whether or not a kanji character is a kanji character.