JPH10111637A - Printed matter with data code - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide printed matter with data codes capable of forming voice information in various and diversified forms according to the scores, progression and victory or defeat of games or the achievement degrees, right and wrong, etc., of learning. SOLUTION: The character and design parts of the printed matter with the data codes having the character and design parts printed with at least either of the characters and designs and optically readable data code printing parts including at least the voice information have one or plural element characters and/or element designs 1a to 1k. These data code printing parts consist of one or plural element data codes 2a to 2m. The printed matter is printed with the element characters and/or element designs 1a to 1k and the element data codes 2a to 2m in the arrangement to allow the viewing of their correspondence relations. The element data codes have coupling relations to each other. The data relating to the coupling relations is included in the element data codes 2a to 2m.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

The present invention belongs to the technical field of printed matter in which audio information is printed as a machine-readable data code. In particular, the present invention relates to a printed matter with audio information used for learning, a game (story, maze, combination) and the like.

[0002]

2. Description of the Related Art A printed material used in a game or learning usually has only a character / pattern printed portion where characters and patterns are printed, and a printed material having a voice information printed portion in which voice information is recorded by a data code or the like. There was no. However, it is clear that the fun of the game and the learning effect and range are expanded by adding the voice information in the game and the learning. Therefore, for example, a language learning machine combining a barcode and a compact disc is known (Japanese Utility Model Application Laid-open No.
No. 62464). This language learning machine uses a compact disc in which a plurality of audio files corresponding to the contents of a picture in a picture book are registered in advance. Then, an audio file identified by reading the barcode printed on the picture book with a barcode reader is selected from the compact disc, and an audio is generated.

[0003]

However, in this language learning apparatus, sound cannot be heard without a compact disc, and if a picture book and a compact disc function integrally, they cannot be used if one is lost. In addition, since it is a single function that only plays a specific barcode and audio file in correspondence, it is difficult to use it in a variety of ways depending on the situation and attract the interest of those who play games and learning. there were. Therefore, the object of the present invention is to
An object of the present invention is to provide a printed matter with a data code capable of generating voice information in various forms according to the score, progress, win / loss of a game, achievement of learning, correctness, etc.

[0004]

The above objects are achieved by the present invention described below. That is, the present invention is "character, a character pattern printed portion on which at least one of the pattern is printed,
In a printed matter with a data code having at least an optically readable data code printing part including voice information, the character / picture part has one or more element characters and / or element patterns, and the data code printing part has The element data and / or the element picture are printed in an arrangement in which the correspondence between the element data and the element data is visually recognizable, and the element data has a connection relation between the element data codes; "A printed matter with a data code, in which data relating to the connection relationship is included in the element data code". According to the present invention, at least one of a character and a pattern is printed on a character / pattern print portion, and has one or a plurality of element characters and / or element patterns. The printed optically readable data code comprises one or more component data codes. Then, the correspondence between the element character and / or element picture and the element data code is printed so that the correspondence can be visually recognized.
The element data codes have a connection relationship, and data on the connection relationship is included in the element data codes. Since there is a character pattern print portion and a data code print portion in which the correspondence relationship and the connection relationship are configured as described above, in various forms according to the score of the game, progress, win / loss, or achievement of learning, correctness, etc. A printed matter with a data code capable of generating audio information is provided.

[0005] The present invention is also a "printed matter with a data code, wherein the connection relation is a relation in arrangement and / or combination and / or selection". According to the present invention, the element picture and the element data can be linked by the connection relation in arrangement and / or combination and / or selection. Further, the present invention is "a printed material with a data code, in which a two-dimensional dot code in which dots are two-dimensionally arranged is printed on the data code printed portion". According to the present invention,
Since the two-dimensional dot code is printed, the amount of information per unit area is large, so that long-time audio information can be recorded, and repetitive reproduction can be performed.

[0006]

DESCRIPTION OF THE PREFERRED EMBODIMENTS Next, the present invention will be described with reference to embodiments. FIG. 1 is a view showing a "slip-taking game" in which mazes are connected by three words as an example (part 1) of a printed matter with a data code according to the present invention. The printed matter with a data code shown in FIG. 1 has a character / pattern printed portion which is at least one of a character and a picture, and an optically readable data code printed portion including at least audio information. The text and pattern printing part is words such as "start", "goal", or
It consists of a part where one character of Hiragana such as "ta", "ka", "i", ... is printed, and a part of a frame figure surrounding them. In addition, the data code printing part is the numerical value 1 surrounded by ○.
13 to 13.

[0007] The character pattern printing portion is composed of a plurality of element characters and element patterns. In FIG. 1, 1a, 1b, 1
c, 1d, 1e, 1f, 1g, 1h, 1i, 1j, 1k
Is an element character. In addition, the data code printing portion is composed of a plurality of element data codes.
a, 2b, 2c, 2d, 2e, 2f, 2g, 2h, 2
i, 2j, 2k, 21 and 2m are element data codes.

The element characters and the element data codes are printed in an arrangement in which the correspondence can be visually recognized. For example, the element data code 2a "" is arranged on the route from the element character 1a "start" to the element character 1b "ta". Element character 1b "ta" to element character 1e
The element data code 2d “” is arranged on the route leading to “nu”. Element character 1e "Nu" to element character 1f
The element data code 2e "" is arranged on the route leading to "". When proceeding from the above-mentioned route from “start”, the element characters are “ta”, “nu” and “ki”, and the element data codes are “”, “”, and “” in the route. As described above, the correspondence between the element character and the element data code is uniquely determined, and there is no other correspondence that may be ambiguous.

The element data codes have a connection relationship. For example, the element data code 2d "" and the element data code 2e "" generate the voice information "Tanuki" when the element data code is read in this order, and otherwise generate the voice information "Tanuki". "Is not generated.

[0010] Data relating to such a connection relationship is included in the element data code itself. For example, it is assumed that the element data code 2d “” includes voice information “ta” and “nu” (other voice information may be included). In addition, the element data code 2e ""
It is assumed that voice information "" is included (other voice information may be included). When the element data code 2d “” is read as the data relating to the connection relationship, the element data code 2e “” is read following the reading of the element data code 2d “”. The data for generating “tanuki” (by a data code reader described later) as audio information to be reproduced from “nu” and “ki” is included (two “ta” and “ki” between “ta” and “ki”). One of the "nu" is not regenerated.)

The data relating to the connection relationship may be included in the element data code 2e "".
When the read data immediately before the element data code 2e “” is read is the element data code 2d “”, the data for generating “tanuki” as audio information (by a data code reader described later) is included. include. In the following, in the present invention, in the case of "generating voice information", it is a data code reader described later that generates the voice information, and the printed matter with the data code of the present invention is generated in such a manner. That is, the data code printing part has data that can be obtained.

As described above, the data relating to the connection relationship is included in the element data code itself, so that the same operation is performed in reading other element data codes. For example, when the element data codes are read in this order, the element data code 2b "" and the element data code 2c "" generate voice information "Taka". The element data code 2f "" and the element data code 2g "" generate voice information "fox" when the element data codes are read in this order. Also, the element data code 2h “” and the element data code 2
i "" means that when the element data codes are read in this order, the voice information "Nemu" and the voice information "Onomatopoeia (fanfare, etc.)" meaning that the goal 1k has been reached.
Generate When the element data code 2a "" is read, audio information "onomatopoeia (fanfare, etc.)" is generated, which means that the element data code 2a "" is started alone. Otherwise, the audio information "fox" is generated. To avoid generating.

[0013] In addition, when the words have no meaning, that is, when the data relating to the connection relationship is incorrect,
For example, if the element data code 2e "" and the element data code 2f "" are read in this order, the voice information "Nukitsu" is a meaningless word when the element data codes are read in this order. Is generated. Similarly, if the element data code 2g "" and the element data code 2h "" are read in this order, the voice information "pinch" is a meaningless word. Generates speech information "onomatopoeia (boo etc.)" which means an error.
The same applies to other meaningless words.

Next, an embodiment of the present invention will be described based on another example. FIG. 2 is a diagram showing a "word learning game corresponding to a picture" in which words of three words are connected as an example (part 2) of a printed matter with a data code of the present invention. The printed matter with a data code shown in FIG. 2 has a character / image printed portion which is at least one of a character and a pattern, and an optically readable data code printed portion including at least audio information. The text and pattern printing parts are “sa”, “to”, “ra”, “ki”,
The part where one hiragana character such as "ku", "ro", ... is printed, the part where the pattern such as "cherry blossoms", "tanuki", ... are printed, and the frame figure surrounding them And parts. The data code print portion is a portion indicated by a plurality of dots surrounded by a rectangle.

The character pattern printing portion is composed of a plurality of element characters and element patterns. In FIG. 2, 3a, 3b, 3
c, 3d, 3e, 3f, 3g, 3h, 3i, 3j, 3
k, 31, 3m, 3n, 3o, 3p, 3q, 3r are element characters, and 4a, 4b, 4c are element patterns. Further, the data code printing portion is composed of a plurality of element data codes, and in FIG. 2, 5a, 5b, 5c, 5d,
5e, 5f, 5g, 5h, 5i, 5j, 5k, 51, 5
m, 5n, 5o, 5p, 5q, and 5r are element data codes.

The element characters and the element data codes are printed in an arrangement in which the correspondence can be visually recognized. For example, the element data code 5a is located immediately below the element character 3a "sa", the element data code 5b is located immediately below the element character 3b "to", and the element data code 5c is located immediately below the element character 3c "ra". Have been. Similarly, the element data code 5d is located immediately below the element character 3d "ki", the element data code 5e is located immediately below the element character 3e "ku", and the element data code 5f is located immediately below the element character 3f "ro". The element data code 5g is located immediately below the element character 3g "ta", the element data code 5h is located immediately below the element character 3h "me",
Immediately below the element character 3i "sa", the element data code 5i,
The element data code 5j is located immediately below the element character 3j "ni".
However, immediately below the element character 3k “nu”, the element data code 5
k is the element data code 51 immediately below the element character 3l "i", the element data code 5m immediately below the element character 3m "ri", the element data code 5n immediately below the element character 3n "e", The element data code 5o immediately below the element character 3o "go", the element data code 5p immediately below the element character 3p "i", the element data code 5q immediately below the element character 3q "n", and the element character 3r The element data code 5r is arranged immediately below “this”. As described above, the correspondence between the element character and the element data code is uniquely determined, and there is no other correspondence that may be ambiguous.

The element data codes have a connection relationship. For example, the element data code 5d, the element data code 5e, and the element data code 5c generate the voice information "Sakura" when the element data code is read in this order, and otherwise generate the voice information "Sakura". Cherry Blossoms"
To avoid generating.

Data relating to such a connection relationship is included in the element data code itself. For example, it is assumed that the element data code 5a includes voice information “sa” (other voice information may be included). Further, it is assumed that the element data code 5e includes voice information “ku” (other voice information may be included). Also,
It is assumed that the element data code 5c includes audio information of "ku" (other audio information may be included). The element data code 5a and the element data code 5e include the element data code 5
If the element data code 5e is read following the reading of a, the data that properly reads it is included,
The element data code 5e and the element data code 5c include, as data relating to the connection relationship, data which, when the element data code 5c is read subsequent to the reading of the element data code 5e, is read properly. And

When the element data code 5a, the element data code 5e, and the element data code 5c are read in that order, they are read properly, and
“Sakura” is generated as audio information to be reproduced from “ku” and “ra”. It should be noted that the data relating to the connection relationship need not be included in all of the plurality (three in this example) of element data codes to be read, but may be included in any of them. For example, it may be included in any of the element data code 5a, the element data code 5e, and the element data code 5c.

As described above, the data relating to the connection relationship is included in the element data code itself, and accordingly, the same operation is performed in reading other element data codes. For example, the element data code 5g, the element data code 5k, and the element data code 51 generate the voice information "tanuki" when the element data codes are read in this order. The element data code 5m, the element data code 5q, and the element data code 5o generate voice information "apple" when the element data codes are read in this order.

When the meaningless words are connected, that is, when the data relating to the connection relationship is incorrect, for example, the element data code 5a, the element data code 5e, and the element data code 5f When the element data codes are read in order, the voice information “sakuro” is a meaningless word, and in that case, voice information “mimic (boo) etc.” meaning an error is generated. Similarly, if the element data code 5g, the element data code 5h, and the element data code 51 are read in this order, the voice information "flicker" is a meaningless word. Generates voice information "onomatopoeia (boo) etc." which means an error. The same is true for other meaningless words.

Next, an embodiment of the present invention will be described based on another example. FIG. 3 is a diagram showing a "number learning game" in which a data code next to a character is continuously traced as an example (part 3) of a printed matter with a data code according to the present invention. FIG.
The printed matter with a data code shown in (1) has a character / pattern printed portion which is at least one of a character and a picture, and an optically readable data code printed portion including at least audio information. The text and pattern printing part is "1", "2", "3",
A part where characters such as “4”, “5”,.
And a frame figure surrounding them. The data code print portion is a portion indicated by a plurality of dots surrounded by a rectangle.

The character picture print portion is composed of a plurality of element characters and element pictures.
“2”, “3”, “4”, “5”, and a plurality (5) of each of “”, “”, “”, “”, “”
Is an element character. In addition, the data code printing portion is composed of a plurality of element data codes. In FIG. 3, there are a plurality (five) of each of "", "", "", "",
A portion indicated by a dot surrounded by a rectangle on the right side of "" is an element data code. As is clear from FIG. 3, these element characters and their element data codes are printed in an arrangement in which the correspondence can be visually recognized.

The element data codes have a connection relationship. For example, in FIG. 3, once tracing a dot surrounded by a rectangle on the right side of “Ping Pong 1”
Or "Ping-pong, one apple." In addition, if you trace twice the dot surrounded by the rectangle on the right side of FIG.
The voice information is generated as "2 is a ping-pong. 2 apples." In addition, if you trace the dot surrounded by a rectangle on the right side of the figure three times in FIG. Or, it generates audio information as “Ping-pong, three oranges.” In addition, tracing the dot surrounded by a rectangle four times to the right of “Ping-pong—4” or “Ping-pong”・ Sound information is generated as “4 pears.” Also, in FIG. 3, when the dot surrounded by a rectangle on the right side of is traced five times, “Ping pong 5” or “Ping pong 5 pieces” It's a watermelon. "

If no continuous tracing is performed, or if tracing is performed excessively, voice information is generated as "wrong / again". Data relating to such a connection relationship is included in the element data code itself. Address information is included in each element data code together with audio information. When the address information is aligned, the audio information is generated, and when the address information is not aligned, the audio information is "wrong / again".

Next, an embodiment of the present invention will be described based on another example. FIG. 4 is a view showing a "combination game" as an example (part 4) of a printed matter with a data code according to the present invention. The printed matter with the data code shown in FIG. 4 has a character / pattern printed portion which is at least one of a character and a picture, and an optically readable data code printed portion including at least audio information. Character pattern printing part is "△", "○", "□"
And a frame graphic part. The data code print portion is a portion indicated by a plurality of dots surrounded by a rectangle.

The character pattern print portion is composed of a plurality of element characters and element patterns.
c, 6d, 6e, and 6f are element pictures. Further, the data code printing portion is composed of a plurality of element data codes, and in FIG. 1, 7a, 7b, 7c, 7d, 7e, 7
f is an element data code.

The element patterns and their element data codes are printed in an arrangement in which the correspondence can be visually recognized. For example, the element data code 7a is disposed immediately below the element picture 6a. An element data code 7b is disposed immediately below the element picture 6b. An element data code 7c is arranged immediately below the element picture 6c. Also,
The element data code 7d is arranged right above the element picture 6d. The element data code 7 is located directly above the element picture 6e.
e is arranged. An element data code 7f is arranged right above the element picture 6f. As described above, the correspondence between the element character and the element data code is uniquely determined, and there is no other correspondence that may be ambiguous.

The element data codes have a connection relationship. For example, in the combination problem shown in FIG. 4, the element data code 7a and the element data code 7e, the element data code 7b and the element data code 7d, and the element data code 7
When c and the element data code 7f are selected and read, each selection is correct, and generates "maru", "triangle", "square" and audio information. Data relating to such a connection relationship is included in the element data code itself. The address information is included in each element data code together with the voice information. If the address information matches, the voice information is generated. If the address information does not match, the voice information is generated as "wrong / again".

Here, the data code of the data code printing portion shown in FIGS. 1 to 4 will be described. A two-dimensional dot code in which dots are two-dimensionally arranged can be printed on the data code printing portion. As the two-dimensional data code that can be used in the present invention, for example, a dot code described in Japanese Patent Application Laid-Open No. 6-231466 can be used.

FIG. 5 is a diagram showing an example of the configuration of a two-dimensional data code that can be used in the present invention. In FIG. 5, 41 is a dot code, 42 is a block, 43 is a marker, 44 is a block address, 45 is error correction data, and 46 is a data area. In one example of the two-dimensional data code, the data format of the dot code 41 is such that one block 42 is composed of a marker 43, a block address 44, an address error detection and error correction data 45, and actually data such as voice and image. And an input data area 46. As the marker 43, a pattern which does not normally come out by recording modulation is used. The block address data 44 is data representing the position of the block, and includes error detection and error correction data 4.
Numeral 5 is used for error determination of the address. The recording data in such a format is printed such that "1" and "0" have black dots and "0" has no black dots, for example, like a bar code, for example.

FIG. 6 is a diagram for explaining details of a two-dimensional data code that can be used in the present invention. Block 42
Are two-dimensionally arranged as shown in FIG.
Each block address 44 is added. The block address 44 is provided with each address. For example, the data code of each data code print portion shown in FIGS. 1 to 4 is composed of ten blocks, and in the data code print portion, as shown in FIG. Address (1, 0). On the other hand, the block on the right is the block address (1, 1), and so on.
2), (1, 3), (1, 4), and then to the lower stage, (1, 5), (1, 6), (1, 7), (1,
8), (1, 9) all address blocks 42
Is assigned a block address. Of course, the number of blocks 42 can be freely changed depending on the amount of data to be recorded.

Here, the lowermost marker and the rightmost marker are dummy markers 48. That is, the block 42 for a certain marker 43 is the data at the lower right of the area surrounded by four markers 43 including the same,
The lowermost and rightmost markers are auxiliary markers, that is, dummy markers 48 arranged to define a block for the second lowermost marker and the second rightmost marker.
It is.

Next, the block 42 will be described. As shown in FIG. 6B, a block address 4 is provided between the marker 43 of the block 42 and the lower marker.
4 and its block address error detection and correction data 4
5 is given. Further, between the marker 43 and the right marker, a similar block address 44 and its error detection,
Correction data 45 is provided. In FIG. 5, the marker is located at the upper left of the block, and the block address is located at the lower right. However, in FIG. 6, the block address 44 is located at the left and upper sides, and the marker 43 is located at the upper left corner. And Although the block address 44 is shown as an example where it is recorded at two locations in one block, it may be at one location. However, by recording in two places,
Even if an error occurs due to noise on one block address, it can be detected by the other address, and higher reliability is obtained. The position of the data of the block with respect to a certain marker, the position of the block address, the position of the dummy marker on the code determined by the position, and the like are merely examples, and the present invention is not limited to this.

Next, an example of the pattern of the marker 43 will be described. As shown in FIG. 6C, in this example, the marker 4
3 is a circular black pattern 43 having a diameter of 7 dots.
A is used. The portion 43B around the black circle 43A is white, so that the black portion of the marker can be easily identified. Reference numeral 43C in the figure is an auxiliary line for explanation. The range of the white portion 43B is desired to be as small as possible to increase the recording density, but is required to be large in order to perform the marker detection processing easily and at high speed. Therefore, the black pattern 43A when the rotation is 45 degrees
Is set so that the range 43C for sufficiently discriminating is within the portion 43B.

The image magnification of the imaging optical system in the data code reader (to be described later) is determined by the size of the data dot 49 in the data area 46 as shown in FIG.
It is assumed that the image magnification is 1.5 pixels. The pixels here are
It means one pixel of the image sensor of the image pickup unit of the data code reader. That is, the data code printing portions 21a to 21e
One dot recorded above, for example, a dot of 30 to 40 μm, is imaged through an imaging lens on 1.5 pixels of an image sensor which is usually 7 μm or 10 μm in size. . In the sampling theorem, the pixel pitch may be smaller than the dot pitch. However, in order to improve the reliability of detection, the dot pitch is set to 1.5 in the example shown in FIG.
Detect by pixel.

By adopting the above-mentioned data code (two-dimensional block division method), the following advantages can be obtained. That is, the dot pitch for each dot is
If the resolution is equal to or less than the resolution of the image sensor, a code (a set of unit data blocks) can be read even if the data dot size is different. Reading is possible even if the imaging unit is inclined with respect to the code. Due to variations in scanning speed,
Reproduction is possible even if the interval between data dots varies. The unit block can be freely expanded two-dimensionally according to the total data amount, and as a result, the code size can be freely changed. Since each block address is added, even if reading is started in the middle of the code, the code can be reproduced. In block units, the shape of the code can be freely laid out. Predetermined start code and stop code as in barcode are unnecessary,
Also, no clock code is required.

Because of these features, the two-dimensional block division system can realize a manual scanning handy reader that can reproduce even if there is camera shake. In other words, the reader detects four adjacent markers and normalizes them by equally dividing the number of dots by the number of dots. Therefore, the reader is resistant to enlargement, reduction, deformation, and the like. There is an advantage that it is resistant to variations in intervals, camera shake during reproduction, and the like.

The dot 4 in the data area 46
For example, one dot has a size of several tens of μm. This can be achieved by appropriately setting the magnification of the data on the film at the time of printing depending on the application and use. Generally, 40 μm, 20 μm, or 8 μm
0 μm. The data area 46 is, for example, 64 ×
The size is 64 dots. These can be freely enlarged or reduced to a range in which the error due to the above-mentioned equal division can be absorbed. The marker 43 has a size that is not included in the modulated data. In the present embodiment, the marker 43 has a round shape and has a diameter of, for example, 7 dots or more or 7 × 7 dots with respect to the dots in the data area 46. It is a circular black marker 43A.

Next, the data code reader will be described. As a data code reader that can be used in the present invention, for example, a data code reader described in JP-A-6-231466 can be used. FIG. 7 is a diagram showing an example of the configuration of a pen-type data code that can be used in the present invention. In FIG. 7, 5
0 is an earphone, 51 is a pen-type data code reader, 52
Is a touch sensor. Further, inside the pen-type data code reader 51, 60 is a light source such as an LED, 61 is an imaging lens, 62 is a spatial filter, 63 is an imaging unit such as an image sensor, 64 is an amplifying unit, and 65 is image processing. Department,
66 is a data processing unit, 67 is a data output unit, 68 is a control unit, and 69 is a battery as an operation power supply.

As shown in FIG. 7, the pen-type data code reader 51 includes a light source 60, a lens (imaging optical system) 61, a spatial filter 62, an imaging unit (image sensor) 63, an amplification unit 64, and an imaging control unit. Control section 6
8, the data code is detected. Further, the data obtained by the detection is subjected to scan conversion, binarization processing, demodulation, data error correction,
Data processing is performed by functions such as decompression processing, data interpolation, and address order detection. Then, the data is converted into an audio signal by the data output section 67 and reproduced from the earphone 50. Although only an audio information output device is shown in this figure, when a processing unit for images, characters, line drawings, and the like is incorporated, an output device according to the output device can be connected. A specific operation mechanism for reading a data code by the pen-type data code reader 51 having a configuration as shown in FIG. 7 is described in the above-mentioned Japanese Patent Application Laid-Open No. 6-231466, and the description is omitted here.

The pen-type data code reader 51
A touch sensor 52 is provided on a side surface of the touch panel. This is a switch for instructing the timing of taking in the data code and for repeatedly reproducing the read data code. As the touch sensor 52,
For example, a piezoelectric switch, a micro switch, a piezoelectric rubber, or the like can be used, and a switch having a small thickness of 0.6 mm or less is known. When the control unit 68 as the imaging unit control unit keeps pushing the touch sensor 52 with a finger, the reading of the data code is continued during that time. Then, when the finger is released from the touch sensor 52, the reading is stopped. Further, when the control unit 68 as a sound reproduction control unit double-clicks the touch sensor 52 with a finger, the control unit 68 reproduces the stored sound data.

[0043]

As described above, according to the present invention, a data code capable of generating voice information in various forms according to the score of a game, progress, losing, or achievement of learning, correctness, etc. An attached printed matter is provided. Further, according to the present invention, in which the connection relationship is a relationship in arrangement and / or combination and / or selection, it is possible to connect the element picture and the element data by those connection relationships. Further, according to the present invention in which a two-dimensional dot code in which dots are two-dimensionally arranged is printed in the data code printing portion, the amount of information per unit area is large, and long-time audio information can be recorded. In addition, repetitive reproduction can be performed.

[Brief description of the drawings]

FIG. 1 shows an example of a printed matter with a data code of the present invention (part 1).
FIG. 3 is a diagram showing a “slip-out game” that connects mazes with three words.

FIG. 2 shows an example of a printed matter with a data code of the present invention (part 2).
FIG. 3 is a diagram showing a “word learning game corresponding to a picture” in which words in three words are connected.

FIG. 3 shows an example of a printed matter with a data code of the present invention (part 3).
It is a figure which shows the "number learning game" which traces the data code beside a character continuously.

FIG. 4 shows an example of a printed matter with a data code of the present invention (part 4).
Is a diagram showing a “combination game”.

FIG. 5 is a diagram illustrating an example of a configuration of a two-dimensional data code.

FIG. 6 is a diagram illustrating details of the two-dimensional data code shown in FIG. 3;

FIG. 7 is a diagram illustrating an example of a configuration of a pen-type data code.

[Explanation of symbols]

1a, 1b, ..., 1k, 3a, 3b, ..., 3r
Element characters 2a, 1b, ..., 2m, 5a, 5b, ..., 5
, 7a, 7b, ..., 7f Element data code 4a, 4b, 4c, 6a, 6b, ..., 6f Element picture 7a, 7b, 7c, 7d, 7e, 7f Picture printed matter 41 Dot code 42 Block 43 Marker 44 Block address 45 Error correction data 46 Data area 48 Dummy marker 49 Data dot 50 Earphone 51 Pen-type data code reader 52 Touch sensor 60 Light source 61 Lens 62 Spatial filter 63 Imaging unit 64 Amplifying unit 65 Image processing unit 66 Data processing unit 67 Data output unit 68 Control unit 69 Battery

Claims (3)

[Claims] 1. A printed matter with a data code, comprising a character pattern printed portion on which at least one of a character and a pattern is printed, and an optically readable data code printed portion containing at least voice information, wherein the character and pattern portion is one. One or more element characters and /
Or having an element pattern, the data code printing portion is composed of one or more element data codes, and the element characters and / or element patterns and the element data codes are printed in an arrangement in which the correspondence relationship is visible, A printed matter with a data code, wherein the element data codes have a connection relationship, and data relating to the connection relationship are included in the element data codes. 2. The printed matter with a data code according to claim 1, wherein the connection relation is a relation in arrangement and / or combination and / or selection. 3. The printed matter with a data code according to claim 1, wherein a two-dimensional dot code in which dots are two-dimensionally arranged is printed on the data code printing portion.