JPS6220029Y2 - - Google Patents

Description

[Detailed explanation of the idea]

The present invention relates to a character processing device capable of using the Tatsuchi method, and is particularly useful for both beginners and experts; This invention relates to a character processing device that is possible and has the possibility of sufficiently increasing speed. Conventional character processing devices that handle kanji include the following. (1) Keystroke type: Gives an input that uniquely defines a kanji. (a) Kantele, Japanese type (b) Memory code type (2) Man-machine type Inputs ambiguous input (homonyms) while interacting with the machine. (c) Kana input display selection type (d) Kana input additional instruction type (3) Machine translation type Kana-Kanji conversion (4) Pattern recognition type When evaluated using four key factors, the above-mentioned device did not satisfy any of the four key factors. The present invention provides a character processing device that improves the above-mentioned points. The present invention provides a character processing device that reduces the rate of keystroke errors, has a fast processing speed, and does not require any skill. Another object of the present invention is to provide a character processing device that arranges selected kanji with the same sound or the same reading, or each kanji of a group of kanji, by making their attributes correspond to keys on a keyboard. Another purpose of this invention is to make the attributes of each kanji mentioned above correspond to the keys on the keyboard.
To provide a character processing device that includes keyboard arrangement information in each Kanji information. Another object of the present invention is to provide a character processing device that further includes skip information in addition to kanji information. Another object of the present invention is to provide a character processing device in which the operation of the display section can be manually selected. Another object of the present invention is to provide a character processing device having means for freely separating the main body of the device and the display section. Another object of the present invention is to provide a character processing device that allows repeated symbols to be easily input into a device. Other objects of the present invention will become clear from the description of the embodiments given below in conjunction with the drawings. An embodiment of the present invention will be described below. FIG. 1 is a perspective view of a character processing device according to the present invention. In the figure, KB is a keyboard, which has keys as described below. DP is a display device, and characters are displayed in the form of the key layout of the keyboard.
P is a printer, and the selected characters are printed. The present invention relates to a character processing device that, when inputting characters, figures, etc., specifies a specific group of characters or figures by pressing a first key, and selects one of the specified groups by pressing a second key. Note that the first keystroke here is a keystroke for designating a specific group, and therefore there is no restriction on the number of strokes. Furthermore, the display character arrangement should be the same as the keyboard key arrangement (for example, the same size or similar shape), and the arrangement of each character within that format should correspond to the keyboard pronunciation, symbol, etc. This is what I did. For example, the first keystroke is the onyomi or kunyomi of the kanji. If you input “Saku”, the specific group represented by “Saku” is
"Saku, Vinegar, Sakura, Saki, Shape, Last, Rip, and Tan" are selected.
The arrangement of these characters, as shown in FIG. 1, is done as follows. The character ``Saku'' is derived from the initial letter of ``Takekanmuri'' as one of its attributes, and is displayed at the position corresponding to ``TA'' on the keyboard. The character ``shibuki'' is derived from the first letter of ``tehen'' and is displayed at the position corresponding to ``te'' on the keyboard. The character ``Saku'' is derived from the first letter of its component ``Ito'' and is displayed at the position corresponding to ``I'' on the keyboard. The character ``Isu'' is derived from the first letter of its component, kin, and is displayed at the position corresponding to ``ki'' on the keyboard. The character ``Saku'' is derived from the first letter of its component ``Ninben'' and is displayed at the position corresponding to ``ni'' on the keyboard. The character for "vinegar" is derived from the first letter of its component, salmon, and is displayed at the position corresponding to "sa" on the keyboard. The character for "cherry blossoms" is derived from the first letter of its constituent element, kihen, and is displayed at the position corresponding to "ki" on the keyboard. The character ``Kare'' is derived from the initial letter of its constituent element, Rituto, and is displayed at the position corresponding to ``Ri'' on the keyboard. The character for “vinegar” is
It is derived from the first letter of its constituent element, hi, and is displayed at the position corresponding to ``hi'' on the keyboard. “Crack”
The character is derived from the initial letter of its component, koromo, and is displayed in the position corresponding to the letter ``ko'' on the keyboard. The character ``Tan'' comes from the okurikana ru that follows Saguru, and is displayed in the position corresponding to ``ru'' on the keyboard. As described above, each kanji is arranged in correspondence with its reading, symbol, etc. on the keyboard. Here, we will enumerate ways of dealing with this, including methods other than those described above. (a) Correlate the initial letter of the part reading with the letter on the keyboard. (Example) In Figure 1, “strategy, squeezing, cable, complex, production, vinegar,”
Sakura, Saki, Shape, Last, Split, Exploration, Sakuta or T. In this case, each key on the keyboard should be printed with not only the ``yomi'' but also the shape of the part such as ``bamboo'' and ``ki.'' It is convenient for the user. (b) The information that follows the information input by the first keystroke is made to correspond to the letter on the keyboard. (Example) “Search” Saguru “R” or “R” in Figure 1
Or L” This method is the best for things that are pronounced with three or more syllables, including okurikana. This method is the best because you can input them exactly as they are pronounced.
In terms of knowledge, it is similar to an automatic kana-kanji exchange device. For sounds that are pronounced using four or more tones, information on the third tone is not associated with the keyboard. For example, in the case of the first keystroke, aya, two of the displayed kanji are ``ayamatsu'' (error) and ``ayamaru'' (mistake). Both have the same pronunciation up to the third note, but differ in the fourth note. Therefore, it is better to match the fourth note to a key on the keyboard. (c) Correlate the initial letter of a reading different from the reading entered by the first keystroke with the letter on the keyboard. (Example) “Suna” first key press “Sa” or “S”
position. (d) Corresponding (making) the pronunciation or shape of the constituent elements of a kanji with the character symbol on the keyboard (Example) The first keystroke for “rei” is “seki” display device.
Position of “Hi” or “H” on the keyboard (e) Correlate the pronunciation of the idiom with the pronunciation on the keyboard. (Example) The display position of the first keystroke for “mine” is “Kou”.
The frequently used idiom ``mine'' (kouzan) is made to correspond to the position of ``sa'' or ``S'' on the keyboard. (f) Correlate the initial letters of the English pronunciation with the keyboard pronunciation. (Example) The first key press for “love” is “eye” display device.
It corresponds to the position of “la” or “L” from the English word love. (g) Others Even if you use any of the above mapping methods, there may be times when it is not possible to create a one-to-one mapping between each kanji and the keyboard, or the mapping becomes complicated due to forced one-to-one mapping. If it becomes difficult to memorize, the kanji's display position is made to correspond to the vicinity of the keyboard position that corresponds more appropriately. (Example) First keystroke “Niyo” Female → O or O Niyo → Ya (immediately to the right of O) A display position or P Tables 1, 2, and 3 show the reading (sound or For kanji whose first sound begins with "a", we have listed the corresponding key, that is, the position where each kanji should be displayed. In this table, the first keystroke is a keystroke for selecting a specific group containing one or more characters as described above. Here, for kanji characters that are represented by one sound and which means hitting the space key, we decided to hit the space key as the second stroke in order to be consistent with other characters. Furthermore, it is not necessarily necessary to press the Daku sound key, and in the case of a keyboard that does not have an independent Dak sound key (not based on two strokes), this does not matter; the same is true for the second keystroke. The table on the right shows multiple kana, alphabets, radicals, and partial figures corresponding to each kanji. (a), (b), (c), (d), (e), and (f) respectively refer to the corresponding methods described above, and the following is the corresponding keyboard character or character when using those methods. It is a sign. Methods (b) and (c) are considered to be superior in terms of operability for users. However, it is inevitable that a plurality of kanji characters in the same group correspond to the same key, and it is necessary to appropriately select from (a) to (f). Ideally, it would be desirable for all the kanji listed in Tables 1 to 3 to correspond to this table, but
It is conceivable that for some reason on the part of the operator or designer, such correspondences may be made for only some kanji. However, even in this case, at least 1/5, preferably 1/2 or more of all the kanji listed in Tables 1 to 3 are listed in Tables 1 to 3.
It is good that the measures listed in item 3 are in place.
Next, an example will be described in which one kanji character has a plurality of display positions. From the user's (operator's) point of view, this means that various search methods are possible, and operations that take advantage of the individuality of the operator are possible. It can be very useful when you think about it. FIG. 2 shows an example of the display when the first keystroke is "Aku". The display, characters and positions can be easily understood from Table 3. A very convenient display device for the operator is thus made possible. For beginners, they can already guess where the desired kanji will be displayed based on association, and it is very easy to select it with the second keystroke. It is also very useful for experts in reducing the memory burden.

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[Table] Next, a device that performs the above processing will be explained.
That is, as the first keystroke, the first two characters of the on-yomi or kun-yomi of a kanji are input, and the second keystroke selects one of the homophone kanji displayed on the CRT. An embodiment of a display selection type character processing device will be described. FIG. 3 shows a block diagram of the character processing device shown in FIG. Reference numeral 1 designates a keyboard corresponding to the keyboard of the character processing device shown in FIG. 1, which has a JIS keyboard with kanji shift KS as shown in FIG. 2 is a kanji mode flag register that stores whether information from the keyboard 1 is kanji mode information or kana mode information. Registers 3, 4, and 5 store output information from the keyboard 1. 6 is a display information generation unit, and register 3 stores output information from the keyboard inputted by the first keystroke.
The file 7 that stores character codes of information to be displayed is searched according to the contents of 4, and the character codes to be displayed are output. Reference numeral 8 denotes a display control section which converts the character code sent from the display information generation section 6 into a display pattern, for example a 24×24 dot pattern, by a character generator 9 and stores it in the memory 10.
Send the dot pattern to (Cathode Ray Tabe) 11 and display it. The above-mentioned memory 10 has a capacity for one screen of the CRT 11. 12 is a code converter, which stores the output information input by the first keystroke, the contents of registers 3 and 4;
One of the characters displayed on the CRT 11 is converted into a Kanji code in response to the contents of the register 5 that stores the output information of the keyboard 1 inputted by the second keystroke. 13 is a printer control unit, code converter 1
The output of step 2 is converted into a dot pattern by the character generator 9, and sent to the printer 14 for printing. The printer 14 is a dot printer.
Consists of thermals, wires, etc. Reference numeral 15 denotes an output control section which sends the Kanji code obtained by the code converter 12 to an external memory such as a magnetic tape, a magnetic core, a semiconductor memory, or other peripheral device. 16 is a system controller. The operation of the embodiment having the above configuration will be explained. When the operator wants to input characters other than kanji, such as kana, alphanumeric characters, etc., the operator inputs them from the keyboard 1 according to the normal keyboard usage. At this time, the kanji mode flag 2 must be reset in advance, but the kanji mode flag 2 is reset when the power is turned on or when kanji input is completed, as will be described later. The system controller 16 knows from the output S1 of the kanji mode flag 2 that it is not currently in the kanji mode. At this time, the system controller 16 gives a command to the register 3 using control data S3 to store the output data S2 from the keyboard 1 in the register 3. Therefore, the output S2 from the keyboard 1 is stored in the register 3. At this time, the contents of register 4 and register 5 are reset by control outputs S4 and S5. However, the code converter 12 receives the information outputs S6, S6, and S6 of the registers 3, 4, and 5, respectively.
S7 and S8 are input. code converter 12
The JIS code (in this example, 8bit JIS code) output from the keyboard 1 is converted into a kanji code (in this example, the 4bit kanji code determined by the implementer based on experience, preferably a code that will be specified by JIS in the future) The converted kanji code signal S9 is sent to the output control unit 15, and the system controller 16 takes the timing and outputs it to the outside as an output signal S10. S10 is sent to the printer control unit 13 to print out the character.The printer control unit 13 converts the kanji code into a pattern using the character generator 9, and sends it to the printer 14 at the timing determined by the system controller 16. Thus, when a character other than a kanji character is input from the keyboard, the character is printed on the printer in the same way as a normal printer, and the kanji code of the input character is output to the outside. (Of course, when the kanji code is a control code, the appropriate control is applied to the printer.) Next, we will explain when to input kanji. When trying to input kanji, the operator should:
First, press the kanji shift key KS on your keyboard. Set Kanji mode flag 2 by pressing the Kanji shift key. This operation is performed by a signal S11 indicating that the Kanji shift key has been pressed. When kanji mode flag 2 is set, the system controller commands the first keystroke to be input from the keyboard.
Stroke information is stored in register 3, and second stroke information is stored in register 4. The system controller command at this time is the control signal S
3, performed by S4. Now, when trying to input the kanji ``saku'', if the operator inputs sa in the first stroke and ku in the second stroke, sa and ku are stored in the register and in the register, respectively. When the information is stored in both registers, the system controller 16 activates the display information generating section 6. The display information generating section 6 includes a register 3 and a register 4.
Based on the contents of , the corresponding homophone kanji is found in the file 7, and the position where the homophone kanji should be displayed is determined and sent to the display control section 8 in a predetermined format. File 7 has a unit of 1WORD8bit.
It consists of ROM (of course, other memory is also possible), and stores the code of the homophone group of kanji specified by the first keystroke and the display position of each kanji on the CRT in the format shown in Figure 5. . The first WORD of each group in the file stores the total number of characters in that group. In this embodiment, the maximum is 48 and the minimum is 1. (Figure 5) Next, find the kanji code for one character in the group.
MSD7 bits, then LSD7 bits of the Kanji code of the same Kanji, and then an address representing the display position of the Kanji on the CRT is stored. This address is 1:1 for each key on the keyboard as shown in Figure 6.
It corresponds to (The numbers in the figure indicate hexadecimal numbers.) In the case of "Saku" in the above example, the numbers are stored in the following order. [LENGTH=OC (12 in decimal) Strategy code MSD 〃 LSD Strategy display address = OD Strategy code MSD 〃 LSD Strategy display address = OE 〓 〓 〓 Search code MSD LSD Search display address = 2D] As explained above The file 7 stores the codes of homophone kanji and their display positions, and the display information generating section 6 refers to the file 7 to generate the characters to be displayed corresponding to the information in registers 3 and 4. You can know the code and the position of the character to be displayed. At this time, when the display information generating section 6 refers to the file 7, the address on the file of the kanji group corresponding to the information in the registers 3 and 4 must be known in advance. The display information generating section 6 has a table therein for determining the address on the file of the kanji group corresponding to the information in the registers 3 and 4, thereby making it possible to know the address. It is assumed that the signal S12 sent from the display information generating section 6 to the display control section 8 is in the format shown in FIG. The first bit is a control code that informs the display control unit 8 that information for one screen will be sent from now on. Next, the code of the character that should be displayed in ADDR00
MSD followed by the LSD of the code of the character to be displayed in ADDR00, then the MSD of the code of the character to be displayed in ADDR01, the LSD of the code of the character to be displayed in ADDR01 and the following in order, and finally the code of the character to be displayed in ADDR2F. shall send the LSD of (Here, a blank code is sent to the position not to be displayed.) The display information generating section 6 generates the information to be displayed on the CRT 11 according to the format of the symbol S12.
Notify the CRT control unit 8. The above functions of the display information generating section can be easily realized by using a known microcomputer. The display information generating section 6 will be explained in more detail using FIGS. 8 and 9. As shown in FIG. 8, the display information generating section 8 is composed of a microcomputer consisting of a processing section 18 and a memory 17. As shown in FIG. 9, the memory 17 is divided into a program memory section 19 (ROM and RAM) and a table section 20 (ROM) of addresses on the Kanji file table for the registers 3 and 4. FIG. 10 shows the control procedure. In this way, the functions of the display information generating section 8 are realized. Next, the display control section will be explained. The display control section 8 has a function of controlling the input information S12 to be displayed on the CRT 11 according to a predetermined format. The display control section 8 is initialized when the input information S12 is a control code. That is,
The display that has already been displayed is canceled and preparations are made to display the newly input information. When a kanji code is input as input information S12, the display control section converts the kanji code into a pattern by referring to the character generator 9 that stores kanji patterns in the form of a dot matrix. . Thereafter, the pattern is written to the corresponding location in the memory 10. The memory has a capacity to store patterns for a maximum of 48 display characters,
The patterns of each kanji are stored in the order of addresses shown in FIG. After receiving all the information of one frame from the display information generating section and writing all the character patterns into the memory 10, the display control section 8 knows that the CRT display preparation is complete and writes the information into the memory 10.
The character pattern is output to the CRT11. (The CRT uses a low-cost raster scan method,
For example, VIDEO signal generation IC (Hitachi HD46505)
Display can be easily performed by using . If the memory 10 has a capacity for the entire screen, then
It is sufficient to write the pattern in the memory 10 to a memory location corresponding to the location where the pattern is to be displayed. However, in the case of this embodiment, the maximum number of characters to be displayed is 48 characters, and it is sufficient if the memory has a capacity to store patterns for 48 characters. At this time, each kanji pattern can be stored in the memory 10 in the order of the addresses shown in FIG. 6, and displayed in the shape of a keyboard by controlling the readout address of the memory 10 at the time of output. As explained above, the first keystroke causes homophone kanji to be displayed on the CRT in the same shape as on the keyboard. A display example for the example "Saku" is as shown in FIG. In Figure 1, the keyboard wakugumi is displayed at the same time as the kanji, but this is to clarify the correspondence with the keyboard, and this allows for more accurate selection by pressing the second key. be able to. This work group display can be written in the refresh memory in advance, or
It may also have another memory (ROM) for format output, and mix it with character patterns when outputting. Next, a second keystroke is performed to select one of the homophone kanji groups. For example, if you want to select ``Saku'', you can accomplish this by pressing the ``D'' key. When the second key is pressed, system control 1
6 stores the output information S2 of the keyboard 1 in the register 5.
A command is given to the register 5 by the control signal S5 so that the data is stored in the register 5. At this stage, register 3, register 4, and third register 5 all store information specifying one kanji character. The code converter 12 converts the information of these three people into a Kanji code. As shown in FIG. 2, when the same kanji is displayed in multiple places, the code converter 12 must output the same kanji code no matter which one of the kanji is selected. Yes, the memory storage within the code converter 12 (built from a conventional ROM) is such that it fulfills the aforementioned needs. After the kanji code is output from the code converter 12, it is output to the outside or printed out in the same manner as described when the kanji code is not in the kanji mode. However, in the case of the kanji mode, no output is performed during the first and second stroke keystrokes, and printing is performed under the control of the system controller 16 when the third stroke keystroke is completed. When the output is finished, system controller 1
6 resets or clears the contents of Kanji mode flag 2, register 3, register 4, and register 5. The system controller 16 is composed of random logic or a microcomputer, and is responsible for setting the timing of each component so that the entire system operates in order, and at the same time initializing various components such as resetting and clearing. . FIG. 13 shows the operation flow. This flow outputs the keystroke of the kanji shift key or the first stroke when not in kanji mode from the keyboard 1.
13, the operation starts. Next, a method for inputting repeated codes without readings will be described. (For example, 〓,〓,ゝ,〃) When inputting these codes, it can be selected by performing the following procedure. Press the kanji shift key KS to enter the kanji mode as described above, then press the SPACE key SK twice.
These two presses of the SPACE key SK correspond to the first press when inputting a repeated code without sound. After this, the operations are performed in the same manner as described above. That is, by operating the SPACE key SK twice, two pairs of codes are obtained, and this information is used to derive the above-mentioned four repetition codes into the CRT 11. Next, by performing a key operation to select one of the four characters, printing can be performed in the same manner as the kanji selection described above. At this time, the display positions of the above four types of codes are as follows:
It is important to place it in a position that is easy to see and operate, and there is no need to specifically correspond to the letters, symbols, etc. on the keyboard. In this way, it became possible to input repeated codes. Next, another embodiment according to the present invention will be described. By storing the file shown in FIG. 3 in a storage format as shown in FIG. 14, memory usage efficiency can be improved. At most, in the first embodiment, since address data is added to the display of one character, the amount of character information in the file is reduced by the amount of address data. On the other hand, in the example shown in Fig. 14, character data is stored in the area per frame, and blank codes are inserted in areas other than character data, so when the number of displayed characters per frame increases, there is no address data and the memory can be used more efficiently. Next, another embodiment of the character processing device according to the present invention will be described. In the above example, the character code is stored in the file 7, but the character pattern may also be stored in the file. In this case, the character pattern and display address directly correspond, which is suitable when the degree of duplication of characters stored in the file is low, and because the file and character generator are integrated, costs can be reduced. Can be done. Another example is a CRT where kanji are displayed.
11 may be constructed so that it can be separated from the character processing device as shown in FIG. For experienced users, there is no need to look at the display, and until the user becomes proficient, the display section 21 is connected to the main body 23 with a cable 22 as shown in the figure to input kanji, and when it is no longer necessary to look at the display, the display section 21 can be connected to the main body 23 as shown in the figure. It is possible to realize a character processing device that is extremely compact and inexpensive. Furthermore, when a beginner uses the display section 21 and does not need the display, by operating the switch SW to turn off the power, the durability of the display section 21 can be increased without causing unnecessary operation. Still other embodiments will be described. As mentioned above, for experts, the display section is
It's not always necessary. Therefore, it is not a good idea to constantly supply power to the display section in terms of running costs and life. Furthermore, it is a burden to the operator that the display section changes moment by moment along with the operator's operations when unnecessary. Therefore, it is necessary to be able to specify whether the display section should be turned on or off using a switch or a special key newly provided on the keyboard.
FIG. 16 shows a block diagram for realizing the above object. The block diagram of FIG. 16 has the following additions to the circuit shown in FIG. 3. a switch 24 that determines whether to turn on or off the operation of the display section; a power control section 25 that senses the state of the switch 24 and controls the selection of power supply;
It consists of a power supply unit 26 that supplies power to the entire system based on commands from a power supply control unit 25. The switch 24 is operated by an operator,
The system controller 16 and power supply control unit 25 are informed of the status. The system controller 16 senses the state of the switch 24 and determines whether or not to start the display information generating section 6. Also, the power supply control section 25 similarly senses the state of the switch 24 and determines the destination of the power supply. The power supply unit 26 has a function of separately supplying power to the display unit 27 and other parts. Here, the display section 27 is composed of a CRT 11, a CRT control section 8, a memory 10, a display information generation section 6, and a file 7. When the apparatus does not have a printer section, or when the printer section has its own character director, the character director 9 can also be included in the display section. The power supply section supplies power to each section according to instructions from the power supply control section. Other embodiments of the present invention will be further described. In the above example, a CRT display was used as the display means, but an example will be described in which microfilm is used. 16 on the circumference of a disk-shaped or drum-shaped microfilm as shown in FIG.
As shown in the figure, write a character group with the character arrangement of one frame as a keyboard layout. The content of the above-mentioned one frame has homophone kanji arranged on a format having a shape equivalent to the key arrangement of a keyboard. This arrangement method follows the regulations shown in (a) to (g) above. Next, a device using the above microfilm disk will be explained. FIG. 17 shows the optical system, which includes a microfilm disk 27, a light source 28, a lens 29, and a mirror 3.
0, 31, and screen 32. FIG. 18 shows a block diagram of the above device. In the figure, 33 is a keyboard, 34 is a processing unit, 35 is a memory in which control procedures are stored, 36 is a memory, 37 is a file, 38 is a display drive mechanism,
39 is a microfilm disk drive mechanism, 40
is a lighting control mechanism, 41 is a code converter, 42
is an output device, and 43 is a display drive selection switch. The device operates in a controlled sequence as shown in FIG. The display drive mechanism 38 is a display drive selection switch 43
Only when the microfilm drive mechanism 39 is turned ON, a drive request is issued from the processing unit 34, and the microfilm drive mechanism 39 controls the illumination system control mechanism 40 in order to project the microfilm frame at the given address onto the screen. When the display drive selection switch 43 is turned off, the display drive mechanism 38 does not operate, the microfilm is not driven, and the illumination system is not turned on. Therefore, control is performed in which characters are input without being displayed on the CRT of the first embodiment. Still other embodiments will be described. If the output of the display control section 8 shown in FIG. 3 is applied to the video modulator 44 as shown in FIG.
Character processing device 4 as shown in the system diagram in FIG.
Since the television 46 of the CRT display section can be separated from 5, the configuration can be made compact. Note that the output of the video modulator 44 may be connected to a television 46 through a feeder 47 as shown in FIG. Note that Alp's MHS can be used as a video modulator. The operator selects a character from the character group arranged as described above using the keyboard. According to the present invention, when the operator is a beginner, the following new merits are obtained: When the operator is a beginner, the operator inputs characters by searching for the desired character from among the displayed characters and specifying that character with the keyboard.
Therefore, although the input speed does not increase, reliable input can be performed. When the operator is an expert, each kanji is associated with the keyboard pronunciation, symbol, etc., so the operator can easily memorize the arrangement position of the desired kanji, so the operator can follow his or her memory without looking at the display. You can then press the second key. Therefore, input speed can be dramatically improved compared to beginners.

[Brief explanation of the drawing]

Figure 1 is an external view of one embodiment of the present invention;
3 is a block diagram of the embodiment shown in FIG. 1, FIG. 4 is a key layout diagram of the keyboard shown in FIG. 1, and FIG. 5 is a diagram showing memory data. 6 is an explanatory diagram of the keyboard, FIG. 7 is a diagram of the data arrangement of the memory, FIG. 8 is a block diagram of the display information generating section 8, and FIG. 9 is an explanatory diagram of the program memory section 19 of FIG. , FIG. 10 is an explanatory diagram of operation, FIG. 11 is an explanatory diagram of operation, FIG. 12 is a data arrangement diagram of memory, FIG. 13 is a perspective view of another embodiment according to the present invention, and FIG. 14 is another embodiment. 15 is a diagram of a microfilm disk, FIG. 16 is an enlarged view of one comb in FIG. 15, FIG. 17 is a side sectional view of another embodiment, FIG. 18 is a block diagram, and FIG. 20 is a block diagram, FIG. 21 is an external view, and FIG. 22 is an external view. 2, 3, 4, 5...Register, 7...File.

Claims (1)

[Claims for Utility Model Registration] A keyboard having a plurality of keys defining kana, and inputting kana data by operating the keys; and a keyboard for reading kana data input by key operations on the keyboard. display means for displaying a plurality of kanji data corresponding to the arrangement position of the keys of the keyboard based on the correspondence between the attributes of each kanji data and the kana defined for each key of the keyboard; A character processing device comprising: storage means for storing kanji data corresponding to an operated key of the keys of the keyboard while the kanji data is displayed on a display means.