WO2015105142A1

WO2015105142A1 - Speech generation device, speech generation method, and program

Info

Publication number: WO2015105142A1
Application number: PCT/JP2015/050364
Authority: WO
Inventors: 宮浦清
Original assignee: 佐藤勇二
Priority date: 2014-01-09
Filing date: 2015-01-08
Publication date: 2015-07-16
Also published as: JP6081382B2; JP2014224976A

Abstract

The purpose of this invention is to provide a speech generation device, a speech generation method, and a program whereby, from text data in Japanese, a musical phrase that carries the linguistic meaning of said Japanese is generated. This speech generation device is characterized by having the following: a sequence-code extraction means that extracts, from a sequence-code table that stores sequence codes corresponding to inputted text data, the sequence code corresponding to given inputted text data; a musical-note-code extraction means that extracts, from a musical-note-code table that stores musical-note codes corresponding to sequence codes, the musical-note codes corresponding to the aforementioned extracted sequence code; and a speech-data generation means that generates speech data from the extracted musical-note codes.

Description

VOICE GENERATION DEVICE, VOICE GENERATION METHOD, AND PROGRAM

The present invention relates to a sound generation device, a sound generation method, and a program. In particular, the present invention relates to a voice generation device, a voice generation method, and a program that generate unique voice information having the meaning of the character information from character information input from a user.

In today's information and communication society, a voice conversion method that outputs input character information in a predetermined language system, a unique expression generation method that can identify specific information as specific information, etc. Various proposals have been made.

International Publication No. WO2003 / 081572

According to Patent Document 1, specific information such as music and images overflowing with originality corresponding to specific information such as a telephone number can be generated.

Here, the music corresponding to the telephone number is for identifying who is calling from a mobile phone, and the music phrase constituting the music has a specific meaning. is not.

Therefore, in addition to the above, it is desired to propose an expression generation method having the linguistic meaning of input character information by a method different from the conventional speech conversion method of outputting input character information in a predetermined language system. .

Therefore, an object of the present invention is to provide a voice generation device, a voice generation method, and a program for generating a music phrase having Japanese linguistic meaning from character data in Japanese.

In Japanese, the five vowels “a, i, u, e, o” represented by the “Aiueo 50 syllabary” and “k, s, t, n, h, m, y, r, w” Is a language created from a combination of 9 consonants, and no other language in the world has been created by clearly structuring vowels and consonants.

The Jomon period word arrangement that is thought to be the basis of this “Aiueo 50-song table” and the concept of the word spirit (the Japanese cultural meaning and spirit of each sound of words) are described in the ancient document “Hotsumatsutae”. There is "Waite 48 sound" (Fig. 1b)) according to "Uta no Uta" (Fig. 1 (a)).

The idea of the ancient document “Hotsumatsutae” that gave birth to this “Woshite 48 sound” is that each vowel and consonant has a natural and spiritual concept applied to it. Has a meaning resulting from the combination of the concepts.

The inventor divides a Japanese character into a vowel and a consonant based on the concept of “Woite 48 sound” by “Awa no Uta” and generates a predetermined pitch based on the vowel and the consonant. Thus, the present inventors have obtained the knowledge that a new music language having a concrete Japanese linguistic meaning can be constructed by a music phrase based on the pitch.

That is, in order to solve the above problems, the following invention is proposed.

The invention of claim 1
An array code extracting means for extracting the array code corresponding to the input character data from the array code table storing the array code corresponding to the input character data;
Note code extraction means for extracting the note code corresponding to the extracted arrangement code from the note code table storing the note code corresponding to the arrangement code;
Voice data generating means for generating voice data from the extracted note code;
Is a voice generation device characterized by comprising:

The invention of claim 2
The speech generation apparatus according to claim 1, wherein the array code is at least a two-digit number.

The invention of claim 3
2. The speech generation apparatus according to claim 1, wherein the array code is a combination of a vowel, a consonant, and a number.

The invention of claim 4
The character data is acquired from one terminal device through a communication network, and the generated voice data is transmitted to the other terminal device through the communication network together with the character data. It is an audio | voice production | generation apparatus of one term.

The invention of claim 5
An array code extracting means for extracting the array code corresponding to the input character data from an array code table storing an array code consisting of numbers corresponding to the input character data;
First irrational number calculating means for calculating a first irrational number based on the number relating to the extracted sequence code;
A second irrational number calculating means for inputting a second irrational number based on a number related to the input number data;
A reference number calculating means for calculating a reference number serving as a reference for calculating a circulating number based on the two calculated irrational numbers;
A circulation number generating means for calculating the circulating number based on the calculated reference number;
Separating means for separating the calculated circulating number into a predetermined number of phrases and a discrimination number for discriminating a scale corresponding to the phrase;
A scale extracting means for extracting a scale corresponding to the phrase from a scale table in which the scale corresponding to the discrimination number is stored based on the discrimination number;
Note code extraction means for extracting the note code corresponding to each number from the note code table storing the note code corresponding to each number included in the extracted scale and the phrase;
Voice data generating means for generating voice data from the extracted note code;
Is a voice generation device characterized by comprising:

The invention of claim 6
Obtaining input character data; and
Extracting the array code corresponding to the input character data from an array code table storing an array code corresponding to the input character data;
Extracting a note code corresponding to the extracted sequence code from a note code table storing a note code corresponding to the sequence code;
Generating voice data from the extracted note code;
Is a speech generation method characterized by including:

The invention of claim 7
The voice generation method according to claim 6, wherein the array code is at least a two-digit number.

The invention of claim 8
7. The speech generation method according to claim 6, wherein the array code is a combination of a vowel, a consonant, and a number.

The invention of claim 9
The step of acquiring the character data from one terminal device through a communication network, and further transmitting the generated voice data together with the character data to another terminal device through the communication network. The speech generation method according to any one of claims 1 to 8.

The invention of claim 10
Obtaining input character data; and
Extracting the array code corresponding to the input character data from an array code table storing an array code consisting of numbers corresponding to the input character data;
Calculating a first irrational number based on the number related to the extracted sequence code;
Numerical data related to the character data is input, and calculating a second irrational number based on the number related to the input numerical data;
Calculating a reference number as a reference for calculating a circulating number based on the two calculated irrational numbers;
Generating the circulating number based on the calculated reference number;
Separating the calculated circulating number into a predetermined number of phrases and a discrimination number for discriminating a scale corresponding to the phrase;
Extracting a scale corresponding to the phrase from a scale table in which the scale corresponding to the discrimination number is stored based on the discrimination number;
Extracting the note code corresponding to each number from the note code table storing the note code corresponding to each number included in the extracted scale and the phrase;
Generating voice data from the extracted note code;
Is a speech generation method characterized by including:

The invention of claim 11
A program for causing a computer to execute the speech generation method according to claim 6.

According to the present invention, it is possible to provide a voice generation device, a voice generation method, and a program for generating a music phrase having Japanese linguistic meaning from character data in Japanese.

(A) It is the figure showing the "Awa no Uta" used as the foundation of this invention. (B) It is the figure showing "Woshite 48 sound" used as the foundation of this invention. It is a figure showing an example of the system containing the audio | voice production | generation apparatus of this invention (1st embodiment). It is a figure showing the flowchart of the audio | voice production | generation method by the system shown in FIG. It is a figure showing the other example of the system containing the audio | voice production | generation apparatus of this invention (2nd embodiment). It is a figure showing the flowchart of the audio | voice production | generation method by the system shown in FIG. It is a figure showing an example of the arrangement | sequence code | cord | chord and note code corresponding to the Japanese character in this invention. It is a figure showing the other sequence code corresponding to the Japanese character in 3rd embodiment of this invention. It is a figure showing 4th embodiment of this invention. (A) A figure showing an example of a scale in a 4th embodiment, (b) A figure showing an example of a note code similarly. It is a figure showing the flowchart of the audio | voice production | generation method by 4th embodiment.

Hereinafter, embodiments of the present invention will be described with reference to the accompanying drawings.

1. First Embodiment FIGS. 2 and 3 are views showing a first embodiment of the present invention. In this embodiment, the speech generation apparatus 10 according to the present invention that generates speech data from input character data and the receiving-side output device 30 that outputs the speech data mutually communicate with each other by a communication unit 50 that can transmit and receive data. A communicable voice generation system is configured.

The audio generation device 10 is not particularly limited as long as it is hardware capable of handling MIDI data, such as a music sequencer, MIDI controller, synthesizer, music workstation, or the like.

The receiving-side output device 30 is not particularly limited as long as it is hardware that can handle MIDI data, such as a synthesizer, a music workstation, and a sound source module, in the same manner as the sound generation device 10.

The voice generation device 10 includes an information transmitting / receiving unit 11 that performs data communication with the receiving-side output device 30, an array code table 17a that stores array codes corresponding to individual characters included in the input character data, A note code table 17b in which a note code corresponding to the arrangement code is stored, an arrangement code extraction unit 14 for extracting the arrangement code from the arrangement code table 17a, and a note corresponding to the arrangement code extracted from the note code table 17b A note code extracting unit 15 for extracting a chord, a sound data generating unit 16 for generating sound data from the extracted note code, an output unit 18 for outputting the sound data and the character data, and various data including the sound data. The memory | storage part 13 to preserve | save and the control part 12 which controls these are provided (FIG. 2).

The receiving-side output device 30 includes an information transmitting / receiving unit 31 that performs data communication with the voice generation device 10, a display unit 34 that displays image data associated with the voice data and the character data, the voice data, and the character data. An output unit 35 for outputting, a storage unit 33 for storing various data including the audio data, and a control unit 32 for controlling them are provided (FIG. 2).

The voice generation device 10 and the receiving side output device 30 are connected to each other by a communication means 50 capable of transmitting and receiving data, such as a wired connection with a MIDI cable or the like, or other wireless connection.

FIG. 6 is a diagram showing an example of code data indicating an arrangement code and a note code corresponding to Japanese or numbers in the present embodiment. This code data is created according to the logic shown in FIGS. 1 (a) and 1 (b).

The array code of this code data includes a vowel string “a, i, u, e, o, a ′, i ′, u ′, e ′, o ′ (“ ′ ”means a sound one octave above). ”And a consonant string“ 0 (zero), k, h, n, m, t, r, s, y, w ”are set, and each of Japanese and numbers from 0 to 9 is the vowel string. And each sequence code described in the consonant string.

Next, in the vowel string, the five sounds “a, i, u, e, o” are divided into “pentatonic”, which divides one octave into five sounds, and “de, les, mi, so, la, de, ', Les', mi ', seo', la '("'" means the sound one octave above) "Each note code is set to correspond to each arrangement code of the vowel string Has been.

Also, the consonant string includes 10 notes corresponding to a piano white key starting from "do, les, mi, fa, so, la, shi, de ', les", mi' ("'" is a sound one octave above. Each note code is set so as to correspond to each arrangement code of the consonant string.

Then, by assigning the corresponding note code to each arrangement code of the vowel string and consonant string, a unique arrangement code and note code are assigned to Japanese and the numbers 0 to 9, respectively.

The sequence of the array codes can be in the order of vowels, consonants, or consonants, and vowels. In this embodiment, the sequence of vowels and consonants is used.

Also, the order of assignment of the note codes follows the order of the arrangement of the arrangement codes.

According to the character conversion logic based on the arrangement code and the note code in FIG. 6, for example, “a0 (zero), i0 (zero), u0 (zero), e0 (zero), and o0” A ten-note note code is assigned in accordance with the order of the arrangement code of “dodo, redo, mid, sodo, rad” and the arrangement code composed of the order of “zero” vowels and consonants.

Thus, all of Japanese and the numbers 0 to 9 can be represented by two sounds (tuplet of one vowel and one consonant) according to the character conversion logic by the arrangement code and the note code. In other words, a unique note code is assigned according to the input Japanese and the numbers 0-9.

A flow chart of voice generation according to the present embodiment using the character conversion logic based on the arrangement code and the note code will be described with reference to FIG.

A specific Japanese or number (for example, “Ganbare”) is input by input means (a keyboard, a mouse, etc., not shown) provided in the voice generation device 10 (s101).

When the character data is received, the sequence code extraction unit 14 accesses the sequence code table 17a and performs a process of extracting the sequence code corresponding to the input character data in accordance with the character conversion logic based on the sequence code shown in FIG. (S102). Therefore, an array code of “a′k, uw, a′h, er (“ ′ ”means a sound one octave above)” is assigned to the input “Gambare”, and the array code extraction unit 14 The sequence code “a′k, uw, a′h, er (“ ′ ”means a sound one octave above)” is extracted from the sequence code data table 17a.

When the arrangement code extraction unit 14 completes the extraction process, the note code extraction unit 15 accesses the note code table 17b, and the note code corresponding to the extracted arrangement code is determined by the note code shown in FIG. Extraction processing is performed according to the character conversion logic (s103). Therefore, in the extracted sequence code of “a′k, uw, a′h, er”, “do're, mimi ', do'mi, soshi (“' ”means a sound one octave above. ) "Is assigned to the note code table 17b by the note code extraction unit 15, and the note codes" Do're, Mimi ', Do'mi, Soshi ("'" means a sound one octave above). Is extracted.

When the note code extraction unit 15 completes the extraction process, the voice data generation unit 16 performs a process of generating voice data such as MIDI data from the extracted note code (s104). Therefore, MIDI data related to the note code is generated by the voice data generation unit 16 from the extracted “do're, mimi ', do'mi, soshi ("' "means a sound one octave above)". Is done.

The generated voice data is transmitted together with the input character data by the information transmitting / receiving unit 11 to the receiving side output device 30 via the communication means 50 (s105).

In the receiving side output device 30, the generated voice data and input character data are received by the information transmitting / receiving unit 31, the voice data is output by the output unit 35, and the character data and these data are displayed by the display unit 34. The image data attached to is displayed (s106).

Note that the voice data may be output by the output unit 18 of the voice generation device 10, and the character data and image data associated with these data may be displayed by a display unit (not shown) (s107).

The “gambare” speech data output from the output unit 35 or the output unit 18 is converted into a unique speech phrase “Dore, Mimi” converted according to the character conversion logic based on the arrangement code and note code shown in FIG. , Do'mi, Soshi ". The speech phrase “Do're, Mimi ', Do'mi, Soshi” is an original and new music language having a specific Japanese linguistic meaning of “Gambare”.

As described above, it is possible to provide a voice generation device, a voice generation method, and a program for generating a music phrase of a new music language having a Japanese linguistic meaning from character data in Japanese.

2. Second Embodiment FIGS. 4 and 5 are views showing a second embodiment of the present invention.

In this embodiment, the transmitting side terminal device 20 for inputting Japanese or numbers, the voice generating device 40 according to the present invention for generating voice data from the inputted character data, and the receiving side output for outputting the voice data The device 30 constitutes an audio generation system that can communicate with each other by the communication means 51 that can transmit and receive data.

In addition, the same code | symbol is attached | subjected about the structure same as 1st embodiment mentioned above, and the description is abbreviate | omitted.

The transmission-side terminal device 20 is not particularly limited as long as it can handle MIDI data such as a personal computer, a smartphone, a tablet terminal, a mobile phone, and a game machine.

The sound generation device 40 is preferably a server device that can handle MIDI data.

The transmission-side terminal device 20 includes an information transmission / reception unit 21 that performs data communication with the voice generation device 40 or the reception-side output device 30, an input unit 25 such as a keyboard for inputting Japanese or numbers, an input screen, and the like. A display unit 24 for displaying, a storage unit 23 for storing various data including the input data, and a control unit 22 for controlling them are provided (FIG. 4).

The voice generation device 40 stores an information transmission / reception unit 41 that performs data communication with the transmission-side terminal device 20 or the reception-side output device 30, and an array code corresponding to each character included in the input character data. The arrangement code table 47a, the note code table 47b storing the note codes corresponding to the arrangement code, the arrangement code extraction unit 44 for extracting the arrangement code from the arrangement code table 47a, and the extraction from the note code table 47b. A note code extraction unit 45 that extracts a note code corresponding to the arranged code, a voice data generation unit 46 that generates voice data from the extracted note code, a storage unit 43 that stores various data including the voice data, and The control part 42 which controls these is provided (FIG. 4).

The voice generation device 40, the transmission-side terminal device 20, and the reception-side output device 30 are connected to each other by a communication means 51 that can transmit and receive data, such as the Internet.

Referring to FIG. 5, a flowchart of voice generation according to the present embodiment will be described using the character conversion logic based on the arrangement code and the note code shown in FIG.

The transmitting terminal device 20 accesses the voice generation device (server) 40 via the communication means 51 and gives an instruction to download application software related to voice generation.

When accessed from the transmission-side terminal device 20, the voice generation device 40 transmits application software related to the voice generation to the transmission-side terminal device 20 via the communication unit 51.

The transmitting terminal device 20 performs a predetermined authentication procedure and the like, and the application relating to voice generation becomes available.

Also, the receiving-side output device 30 accesses the voice generation device (server) 40 via the communication unit 51 and gives an instruction to download application software related to voice generation.

When the voice generation device 40 is accessed from the reception-side output device 30, the voice generation device 40 transmits the application software related to the voice generation to the reception-side output device 30 via the communication unit 51.

The receiving-side output device 30 performs a predetermined authentication procedure and the like, and an application relating to voice generation becomes available.

Next, the transmission side terminal device 20 executes the application and transmits an instruction to acquire an input screen for generating voice to the voice generation device 40 via the communication unit 51 (s201).

When receiving the instruction from the transmission side terminal device 20, the voice generation device 40 transmits information on the input screen to the transmission side terminal device 20 via the communication unit 51 (s202).

The transmitting terminal device 20 inputs specific Japanese or numbers (for example, “Ganbare”) by the input means 25 on the input screen related to the acquired input screen information. After the input, the character data is transmitted to the voice generation device 40 via the communication means 51 (s203).

In the voice generation device 40, when the character data is received, the array code extraction unit 44 accesses the array code table 47a, and converts the array code corresponding to the input character data into the character according to the array code shown in FIG. Extraction processing is performed according to the conversion logic (s204). Therefore, an array code of “a′k, uw, a′h, er (“ ′ ”means a sound one octave above)” is assigned to the inputted “Ganbare”, and the array code extraction unit 44 The sequence code “a′k, uw, a′h, er (“ ′ ”means a sound one octave higher)” is extracted from the sequence code table 47a.

When the arrangement code extraction unit 44 completes the extraction process, the note code extraction unit 45 accesses the note code table 47b, and uses the note code shown in FIG. 6 as the note code corresponding to the extracted arrangement code. Extraction processing is performed according to the character conversion logic (s205). Therefore, in the extracted sequence code of “a′k, uw, a′h, er”, “do're, mimi ', do'mi, soshi (“' ”means a sound one octave above. ) "Is assigned, and the note code extraction unit 45 extracts the note code from the note code table 47b.

When the note code extraction unit 45 completes the extraction process, the voice data generation unit 46 performs a process of generating voice data such as MIDI data from the extracted note code (s206). Therefore, MIDI data related to the note code is generated by the voice data generation unit 46 from the extracted “do're, mimi ', do'mi, soshi ("' "means a sound one octave above)". Is done.

The generated voice data is transmitted together with the inputted character data by the information transmitting / receiving unit 41 to the receiving side output device 30 via the communication means 51 (s207).

In the receiving side output device 30, the generated voice data and input character data are received by the information transmitting / receiving unit 31, the voice data is output by the output unit 35, and the character data and these data are displayed by the display unit 34. Is displayed (s208).

The voice data of “Ganbare” output from the output unit 35 is converted into a unique voice phrase “Do're, Mimi ', Do'Mimi converted according to the character conversion logic based on the arrangement code and note code shown in FIG. , Soshi ". The speech phrase “Do're, Mimi ', Do'mi, Soshi” is an original and new music language having a specific Japanese linguistic meaning of “Gambare”.

3. Third Embodiment In the first and second embodiments described above, using the character conversion logic based on the arrangement code and the note code shown in FIG. Although the generation mode has been described, the sequence code may be the sequence code shown in FIG.

The code data shown in FIG. 7 is also created according to the logic shown in FIGS. 1 (a) and 1 (b).

In the array code of this code data, numbers from 0 to 9 are set for both the row and the column, and the numbers of Japanese and 0 to 9 are determined by the codes described in the row and column, respectively. It is done.

According to the character conversion logic based on the arrangement code shown in FIG. 7, for example, the Japanese character “Aiueo” has “10, 20, 30, 40, which is composed of the vowels and consonants in the order described in the first embodiment. A sequence code of “50” is assigned.

The order of the arrangement of the arrangement codes can be any of a row number, a column number, a column number, and a row number. In this embodiment, the sequence code has been described in the first embodiment. According to the order of vowels and consonants, the numbers in the horizontal row and the numbers in the vertical column are used. Also, the number of digits in each column may be a plurality of digits instead of one.

Then, using the character conversion logic based on the note code shown in FIG. 6, the rows include “do, les, mi, so, la, de ', les', mi', so ', la' (" " "" Means a sound one octave above) "" Each note code is set to correspond to each array code in the row, and in the column, "do, les, mi, fa, so, "La", "si", "do", "re", and "mi" ("" means a sound one octave above) "can be set so that each note code corresponds to each array code in the column (non- (Illustrated).

4). Fourth Embodiment FIGS. 8 to 10 are views showing a fourth embodiment of the present invention. The voice generation device 60 of this embodiment is a voice generation device that generates voice data from input character data by using a character conversion logic different from those of the first to third embodiments described above.

The voice generation device 60 includes an information transmission / reception unit 60 that performs data communication with a transmission-side terminal device 20 (not shown) or a reception-side output device 30 (not shown).

The voice generation device 60 includes an array code table 67a in which array codes composed of numbers corresponding to input character data are stored.

The speech generation device 60 includes an array code extraction unit 64 that extracts the array code corresponding to the input character data from the array code table 67a.

The sequence code shown in FIG. 7 described in the third embodiment is used as the sequence code. That is, the input character is assigned a numerical arrangement code composed of the order of vowels and consonants described in the first embodiment.

The voice generation device 60 includes a circulation number management means 68 for managing a circulation number described later. The circulation number management means 68 has the following configuration.

The circulation number management means 68 includes a first irrational number calculation unit 68a that calculates an irrational number based on the number related to the extracted sequence code. Specifically, the first irrational number is calculated by dividing the number related to the extracted array code by the golden number φ (φ = 1.61803...).

The circulation number management means 68 includes a second irrational number calculation unit 68b that receives numerical data related to the character data and calculates an irrational number based on the number related to the input numerical data. Specifically, the second irrational number is calculated by dividing the number related to the number data by the golden number φ.

The numeric data related to the character data can be numeric data related to the person such as the birthday of the person, for example, when the character data is the name of the person.

In this embodiment, the golden number φ is used to calculate an irrational number. However, a number other than the golden number φ can be used as long as a circulating number described later can be calculated.

The circulation number management means 68 includes a reference number calculation unit 68c that calculates a reference number serving as a reference for calculating the number to circulate based on the two calculated irrational numbers. Specifically, the reference number is calculated by multiplying the first irrational number calculated by the first irrational number calculation unit 68a and the second irrational number calculated by the second irrational number calculation unit 68b. .

The circulation number management means 68 includes a circulation number generation unit 68d that generates a circulation number based on the calculated reference number. Specifically, the number to circulate is calculated by dividing the reference number by the number of generated circulation numbers having a predetermined number of digits.

In the present embodiment, the circulation number generation number is an 18-digit number “360360360360360360”. In addition, various circulation number generation numbers can be used.

When the reference number is multiplied by the circulation number generation number, a decimal number is calculated, and a decimal number consisting of a predetermined number of digits is included after the decimal point. Therefore, in the present embodiment, the circulating number is the circulating node of the circulating decimal number.

The circulation number management means 68 includes a separation unit 68e that separates the calculated circulating number into a predetermined number of phrases and a discrimination number for discriminating a scale corresponding to the phrase (hereinafter referred to as “scale”). I have.

For example, when the circulating number is a circular node of “0123456”, the discriminant number is set to “0” with one digit at the head, and the remaining “123456” is set to three of “12”, “34”, and “56”. Separated into phrases.

The voice generation device 60 includes a scale table 67c in which the scale corresponding to the discrimination number is stored based on the discrimination number.

An example of the scale stored in the scale table 67c is shown in FIG. In the above example, scale 1, scale 3, and scale 1 are assigned to the three phrases “12”, “34”, and “56”, respectively, where the number of discrimination is “0”. Note that the combinations of

scales

1, 2, and 3 shown in the figure are combinations based on “Tonic”, “Subdominant”, and “Dominant” of harmony.

The voice generation device 60 includes a scale extraction unit 69 that extracts the scale corresponding to the phrase from the scale table 67c.

The voice generation device 60 includes a note code table 67b in which note codes corresponding to each number included in the extracted scale and the phrase are stored.

An example of the note code stored is shown in FIG. In the above example, the three phrases “12”, “34”, and “56” correspond to the note code of scale 1, the note code of scale 3, and the note code of scale 1, respectively.

The voice generation device 60 includes a note code extraction unit 65 that extracts the note code of the scale corresponding to the phrase from the note code table 67b.

In the above example, the phrase code “12” is assigned the note code “scale 2, do 3 (numbers indicate the pitch)”.

A note code of “Mi 3, Fa 3 (number indicates the pitch)” of scale 3 is assigned to the phrase “34”.

The note code “So3, Ra3 (numbers indicate the pitch)” of scale 1 is assigned to the phrase “56”.

The voice generation device 60 includes a voice data generation unit 66 that generates voice data from the extracted note code.

The voice generation device 60 includes a storage unit 63 that stores various data including the voice data, and a control unit 62 that controls information processing by each unit described above.

FIG. 10 is a flowchart of voice generation according to the present embodiment, using the character conversion logic based on the arrangement code shown in FIG. 7 and the scale and note code shown in FIG.

A specific Japanese or number (for example, a person name “Miyaura Kiyoshi”) is input by input means (a keyboard, a mouse, etc., not shown) provided in the voice generation device 10 (s301).

When character data is input, the array code extraction unit 64 accesses the array code table 67a and extracts an array code corresponding to the input character data according to the character conversion logic based on the array code shown in FIG. Therefore, an array code of “24183016215827” is assigned to the inputted “Miyaura Yoshiyoshi”, and the array code extraction unit 64 extracts the array code from the array code table 67a.

On the display means (liquid crystal display, touch panel, etc., not shown) of the voice generation device 10, there is a screen that prompts input of numeric data related to the character data, in addition to the screen that prompts input of the character data. Is displayed. Numeric data such as birthdays can be entered on the input screen. Therefore, in this flowchart, “19530829” is input as the birthday.

When the array code “24183016215827” is extracted, the first irrational number calculation unit 68a performs a process of calculating the first irrational number based on the number related to the array code (s303).

Specifically, 14 digits of “24183016215827” are divided by the above-mentioned 14 digits of the head of the golden number φ “1.61803339874498”, and an irrational number “14959425971871.82” up to two decimal places is calculated.

When the numerical data “19530829” related to the character data is input, the second irrational number calculation unit 68b performs a process of calculating the second irrational number based on the number related to the input numerical data. Perform (s303).

Specifically, 8 digits of “19530829” are divided by the first 8 digits of the golden number φ “1.6180339” to calculate an irrational number “120707716.81” to 2 decimal places.

When the two irrational numbers are calculated, the reference number calculation unit 68c performs a process of calculating a reference number serving as a reference for calculating a circulating number based on the two calculated irrational numbers (s304). .

More specifically, the two irrational numbers “14959425971871.82” and “120707716.81” are multiplied to calculate the reference number “1800408039866887664839.2942”.

When the reference number is calculated, the circulation number generation unit 68d performs a process of generating a circulating number based on the calculated reference number (s305).

More specifically, the decimal number is calculated by dividing the reference number “18040408039866887664839.2942” by the circulation number generation number “360360360360360360360” consisting of 18 digits.

The calculated decimal number includes an 18-digit circular clause of “6383836322929373715” after the decimal point. This circular node is generated as a circulating number.

Since the number of digits of the reference number matches the number of digits of the circulation node, it is good to use the reference number having a predetermined number of digits corresponding to the number of cycles to be calculated.

When the circulating number is generated, the separation unit 68e performs a process of separating the circulating number into a predetermined number of phrases and a determination number for determining a scale corresponding to the phrase (s306). .

Specifically, the discriminant number is set to “6” with one digit at the head, and the remaining “38386322229673715” is separated into three phrases “38386”, “32229296”, and “73715”.

The scale extraction unit 69 performs a process of extracting a scale corresponding to the separated phrase from the scale table 67c based on the discrimination number “6” (s307).

Specifically, “Scale 1” is assigned to the phrase “38386” from the scale shown in FIG.

“Scale 3” is assigned to the phrase “3229296”.

“Scale 1” is assigned to the phrase “73715”.

When the scale is extracted, the note code extraction unit 65 performs a process of extracting the note code corresponding to each number of the phrase from the note code table 67b (s308).

Specifically, a note code of “Le3, De4, Les3, De4, La3 (numbers indicate the pitch)” of scale 1 is assigned to the phrase “38386”.

The phrase code “3229296” is assigned a note code of scale 3 “mi3, les3, les3, fa4, les3, fa4, la3 (numbers indicate pitch).

A note code of “SHI 3, LE 3, SHI 3, SOE 2, SOE 3 (number indicates the pitch)” of scale 1 is assigned to the phrase “73715”.

When the note code is extracted, the voice data generation unit 66 performs a process of generating voice data such as MIDI data from the extracted note code (s309). Therefore, “Le3, De4, Les3, De4, La3 (numbers indicate the pitch)” of the extracted scale 1 and “Mi3, Les3, Les3, 4, les 3, fa 4, la 3 (numbers indicate the pitch of the sound) ", scale 1" si 3, les 3, shi 3, seo 2, seo 3 (the numbers indicate the pitch of the sound) " , MIDI data related to the note code is generated by the voice data generation unit 66.

The generated voice data is output from the output unit 70 of the voice generation device 60. In this embodiment, the audio data is composed of 17 sounds of 5 sounds, 7 sounds, and 5 sounds. From the combination based on the above-mentioned harmony “tonic”, “subdominant”, and “dominant”, Japanese haiku and tanka It has become a unique phrase.

Therefore, the output audio data “Le 3, Do 4, Le 3, Do 4, La 3 (numbers indicate the pitch)”, “Mi 3, Le 3, Les 3, Fa 4, Fa 3, , Fa 4, La 3 (numbers indicate the pitch of the sound) "," Shi 3, Les 3, Shi 3, Seo 2, Seo 3 (the numbers indicate the pitch of the sound) " A music language with a new and unique rhythm with the linguistic meaning of a word (for example, the meaning of being a particular individual).

The preferred embodiments of the present invention have been described above with reference to the accompanying drawings, but the present invention is not limited to such embodiments and can be variously modified within the technical scope grasped from the description of the claims. It is.

10, 40, 60

Voice generation device

11, 41, 61 Information transmitting / receiving

unit

12, 42, 62

Control unit

13, 43, 63

Storage unit

14, 44, 64 Sequence

code extraction unit

15, 45, 65 Note

code extraction unit

16, 46, 66 Audio

data generation unit

17a, 47a, 67a Arrangement code table 17b, 47b, 67b Note code table 18 Output unit 20 Transmission side terminal device 21 Information transmission / reception unit 22 Control unit 23 Storage unit 24 Display unit 25 Input unit 30 Reception side Output device 31 Information transmission / reception unit 32 Control unit 33 Storage unit 34 Display unit 35

Output unit

50, 51 Communication unit 67c Scale table 68 Circulation number management unit 68a First irrational number calculation unit 68b Second irrational number calculation unit 68c Reference number Calculation unit 68d Circulation number generation unit 68e Separation unit 69 Scale extraction unit 70 Output unit

Claims

An array code extracting means for extracting the array code corresponding to the input character data from the array code table storing the array code corresponding to the input character data;
Note code extraction means for extracting the note code corresponding to the extracted arrangement code from the note code table storing the note code corresponding to the arrangement code;
Voice data generating means for generating voice data from the extracted note code;
A voice generation device comprising:
The speech generation apparatus according to claim 1, wherein the array code is a number of at least two digits.
The speech generation apparatus according to claim 1, wherein the array code is a combination of a vowel, a consonant, and a number.
The character data is acquired from one terminal device through a communication network, and the generated voice data is transmitted to the other terminal device through the communication network together with the character data. The speech generation device according to one item.
An array code extracting means for extracting the array code corresponding to the input character data from an array code table storing an array code consisting of numbers corresponding to the input character data;
First irrational number calculating means for calculating a first irrational number based on the number relating to the extracted sequence code;
A second irrational number calculating means for inputting a second irrational number based on a number related to the input number data;
A reference number calculating means for calculating a reference number serving as a reference for calculating a circulating number based on the two calculated irrational numbers;
A circulation number generating means for calculating the circulating number based on the calculated reference number;
Separating means for separating the calculated circulating number into a predetermined number of phrases and a discrimination number for discriminating a scale corresponding to the phrase;
A scale extracting means for extracting a scale corresponding to the phrase from a scale table in which the scale corresponding to the discrimination number is stored based on the discrimination number;
Note code extraction means for extracting the note code corresponding to each number from the note code table storing the note code corresponding to each number included in the extracted scale and the phrase;
Voice data generating means for generating voice data from the extracted note code;
A voice generation device comprising:
Obtaining input character data; and
Extracting the array code corresponding to the input character data from an array code table storing an array code corresponding to the input character data;
Extracting a note code corresponding to the extracted sequence code from a note code table storing a note code corresponding to the sequence code;
Generating voice data from the extracted note code;
A speech generation method comprising:
The voice generation method according to claim 6, wherein the sequence code is at least a two-digit number.
The method according to claim 6, wherein the array code is a combination of a vowel, a consonant, and a number.
The step of acquiring the character data from one terminal device through a communication network, and further transmitting the generated voice data together with the character data to another terminal device through the communication network. The voice generation method according to any one of claims 8 to 8.
Obtaining input character data; and
Extracting the array code corresponding to the input character data from an array code table storing an array code consisting of numbers corresponding to the input character data;
Calculating a first irrational number based on the number related to the extracted sequence code;
Numerical data related to the character data is input, and calculating a second irrational number based on the number related to the input numerical data;
Calculating a reference number as a reference for calculating a circulating number based on the two calculated irrational numbers;
Generating the circulating number based on the calculated reference number;
Separating the calculated circulating number into a predetermined number of phrases and a discrimination number for discriminating a scale corresponding to the phrase;
Extracting a scale corresponding to the phrase from a scale table in which the scale corresponding to the discrimination number is stored based on the discrimination number;
Extracting the note code corresponding to each number from the note code table storing the note code corresponding to each number included in the extracted scale and the phrase;
Generating voice data from the extracted note code;
A speech generation method comprising:
A program for causing a computer to execute the voice generation method according to any one of claims 6 to 10.