JPS5981675A - Kanji learning machine - Google Patents

Abstract

(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

DETAILED DESCRIPTION OF THE INVENTION Technical Field The present invention relates to a kanji learning machine, and more particularly to a kanji learning machine having a function of outputting the stroke order of kanji.

BACKGROUND OF THE INVENTION In recent years, kanji learning machines have been known which are capable of outputting kanji corresponding to the reading of a kanji by inputting the reading of the kanji using kana using electronic control. Further, among such kanji learning machines, various kanji learning machines have been proposed that output and display the stroke order of the output kanji for each stroke.

Conventional kanji learning machines with a stroke order output function were only able to output one type of stroke order for each kanji, which caused the following problems.

In other words, the idea that only one type of stroke order is allowed for each kanji is irrational considering that kanji were originally hieroglyphs; in reality, there are more than two types of stroke order that are considered correct. There are quite a number of kanji among the commonly used kanji. For example, for the kanji ``上'',
It is permissible to start writing with the short horizontal bar at the top or with the vertical bar.

Conventional kanji learning machines have more than two types like this.

If an attempt is made to output the stroke order of Chinese characters that have an order, only one of the correct stroke orders will be output, so the stroke order that the user remembers will be treated as incorrect, causing dissatisfaction to the user.

In addition, at the manufacturing stage of the device, with conventional devices, it is necessary to decide which stroke order to select and store.
It also has the disadvantage of being time consuming.

Purpose The present invention has been made in view of the above points, and an object of the present invention is to provide an excellent kanji learning machine that can handle kanji with multiple stroke orders without any problems and does not cause discomfort to the operator. purpose. In order to achieve the above-mentioned objective 1, in the present invention, the kanji characters having a plurality of stroke orders stored in the storage means are
A configuration is adopted in which a means for outputting a plurality of stroke orders is provided.

EXAMPLES Hereinafter, the present invention will be explained in detail based on examples shown in the drawings.

FIG. 1 shows the overall structure of the kanji learning machine of the present invention.

In the figure, the central processing unit (hereinafter referred to as CPU)
A group of kana keys 21, a kanji key 22, a first stroke order key 23, and a second stroke order key 24 are connected to 10, and further,
A display 32 is connected via fixed storage devices 41 and 42 and a display driver 31.

The CPU which is the control device of the kanji learning machine of the present invention is
ROM (read only memory), RAM (
Random access memory), control unit, etc. are integrated, and control is performed using a known ROM method.
Fixed storage device 41 based on the input signal of each connected key
performs various signal processing based on the kanji pattern and stroke order information stored in , and applies this signal to the display driver 31;
The signal is converted into a display drive signal to cause the display 32 to display kanji, kana, symbols, etc.

Here, the kana key group 21 is a key group that does not allow manual pronunciation of kanji, and is composed of 50-on keys or romaji keys, etc., and the kanji key 22 permanently stores the kanji input using the pronunciation. This is a command key for searching device information and outputting it to the display 32.

The first stroke order key 23 is a key for displaying the first priority stroke order of the kanji displayed on the display 32. Further, the second stroke order key 24 is a key for outputting the second priority stroke order of the Chinese characters displayed on the display 32.

The display 32 is composed of, for example, a kanji display section consisting of a 16x16 matrix and a liquid crystal display having another auxiliary information display section. It shall be possible to display the ranking.

The fixed storage device 41 stores a 4-digit kanji code, the number of stroke orders, the priority of the stroke order, and the corresponding stroke order and pattern information corresponding to each address.
2 stores the reading of a kanji and the kanji code of that kanji. That is, the configuration is such that the reading in the fixed storage device 42 is searched from the reading input from the kana key group 21, and each piece of information stored in the fixed storage device 41 corresponding to the obtained kanji code is processed. .

Here, the structure of the storage information of the fixed storage device 41 is shown in FIG.
Shown in A).

As shown in the figure, the fixed storage device 41 has an address section 41.
It has storage units 411 to 414 corresponding to each address of 0. The kanji code storage unit 411 stores a 4-digit kanji code, and the stroke order number storage unit 412 stores the stroke order number of the kanji. Two types of stroke order and pattern information are stored in the priority storage unit 413 and below, and the priority storage unit 413 stores two types of stroke order priority and pattern storage unit 4.
Kanji patterns corresponding to these priorities are stored in 14 in stroke order.

Next, the storage state of the pattern storage section 414 is shown in FIG. 2(B).
Explain with reference to.

The kanji pattern is 16 dots horizontally (X-axis) and 16 dots vertically (Y-axis).
The pattern storage unit 414 has 16 starting points and ending points for each stroke.
They are stored in order using xy coordinates in base notation. For example, the r84B 4J, the first car with the first priority of "Top" shown in FIG.

4) indicates that it ends with ゛. However, if one stroke bounces, the coordinates of three positions including the coordinates of the displacement point are stored.

The operation of the above overall configuration will be explained in detail with reference to the flowcharts of FIGS. 3(A) and 3(B). however,
In the following explanation, processing for the above-mentioned kanji "上" will be explained as an example.

First, similar to a known kanji learning machine, the reading is input using the kana key group 21, and by pressing the kanji key 22, the kanji ``upper'' is displayed on the display 32.

If the operator wants to know the stroke order of the first priority,
As shown in Figure (A) Step Sll, the first stroke order key 23
Press . As a result, in step S12, the display 32
a display indicating the first priority on the aforementioned auxiliary information display section of the
For example, the number rlJ is displayed.

Next, the process moves to step S13, and data for the first car is read from the pattern storage section 414 of the fixed storage device 41.

Next, in step SL4, the existence of the data is confirmed, and in step S15, the upper horizontal bar of the kanji character "上" is displayed on the display 32 according to the first car's data r84B4.

Hereinafter, the data r717D stored in the pattern storage unit 414 in a loop of steps SL3 to SL15, rlEE
The display is performed one stroke at a time according to the EJ, but if it is determined in step S14 that there is no more data in the pattern storage section 414, the process moves to step S16, where the priority display "1" on the auxiliary information display section is erased, In step S17, the display returns to kanji display.

On the other hand, if the operator wants to know the second priority stroke order, he or she presses the second stroke order key 24 as shown in step S21 in FIG. 3(B). Of course, the second stroke order key 24 may be pressed after the first priority order has been displayed.

If the second stroke order key 24 is pressed, step 322
The stroke order number (here, 2) stored in the stroke order number storage section 412 of the fixed storage device 41 is called.

Next, in step S23, it is checked whether there are really two stroke orders, but this is done by determining whether or not the called stroke order number is two. If the called stroke order number is not 2, the process moves to step 328, where the auxiliary information display section of the display 32 displays "No second priority", and then returns to the kanji display in step S29. . However, this display may be made to be performed by a known display section that displays "no data".

If the stroke order number is 2 in step S23, the process moves to step S24, and the auxiliary information display section of the display 32 is made to display the priority order "2". Subsequently, steps 325 to S2
The process moves to loop 7, and display is performed according to the stroke order of the second priority. However, steps 325 to S27 are shown in FIG.
) respectively correspond to steps SL3 to S15.
First (&E) Stroke order is displayed in the same way as in the previous order.

When the data is finished in step S26, the priority order is displayed "2" in steps S30 and S31.
'' will be deleted and the display will return to kanji.

As described above, a plurality of stroke orders can be output, and the user will not feel uncomfortable because the stroke order he or she remembers is treated as incorrect.

In the above description, a configuration with two priority order output keys has been exemplified, but it is also possible to use one key and sequentially press the key to output data in order starting from the first priority order.

In addition, in the following explanation, the number of stroke orders that can be output is limited to two, but this is for the sake of ease of explanation; the present invention is not limited to this, and can easily output three or more stroke orders. It can be applied to

In addition, the brush 11 "1 number storage section 412" shown in FIG.
It may be possible to output the number of stroke orders for the kanji, and to display whether the kanji has individual stroke orders.

As is clear from the explanation in ``Effects'' 2, according to the present invention, a configuration is adopted in which a means is provided for outputting a plurality of stroke orders of a cooking character having a plurality of stroke orders stored in a storage means. Therefore, it is possible to cope with kanji having a plurality of '211 orders without any problem, and it is possible to provide an excellent kanji learning machine that does not cause discomfort when operating the long number.

[Brief explanation of the drawing]

FIG. 1 is a block diagram showing the configuration of the control system of the kanji learning machine of the present invention, FIG. 2 (A) is an explanatory diagram showing the configuration of the fixed storage device in FIG. 1, and FIG. FIGS. 3(A) and 3(B) are explanatory diagrams showing display states of the kanji learning machine of the invention, and are flowcharts illustrating the operation of the kanji learning machine of the invention. 10...CPU 21...Kana key group 2
2... Kanji key 23... First stroke order key 24
...Second stroke order key 32...Display 41.42.
...Fixed storage device 414...Pattern storage section Fig. 1 (A) Fig. 3 (B)

Claims (1)

[Claims] A kanji learning machine having a function of storing and retrieving information regarding the stroke order of kanji, characterized by having means for outputting a plurality of stroke orders of kanji having a plurality of stroke orders stored in the storage means. Kanji learning machine.