KR19980072969A - Optical disc recording medium for video song accompaniment, its playback method and playback device - Google Patents

Abstract

An optical disc recording medium and a reproduction method and apparatus of the present invention record thousands of song lyrics, accompaniment, and moving picture signals and control programs to be displayed as a wallpaper on a single optical disc, and reproduce the optical disc recording medium. will be.

The present invention provides a system area for storing system information on an optical disc recording medium, an OSD data area for storing OSD data, and a program code for storing a control program of an optical disc recording medium in a program area of an optical disc recording medium for accompaniment of video songs. Area, the song index table area that specifies where the song data is stored, the song data area that stores the song data, and the image data area that stores the video. When data is played back on an optical disc recording medium, stored and outputted, and a movie corresponding to the selected song is played on the optical disc recording medium and output as a movie, and when the data of the selected song is reproduced and stored on the optical disc recording medium Save the current video and stop Output to phase

Description

Optical disc accompaniment for video song accompaniment, playback method thereof, and apparatus

The present invention provides an optical disc recording medium for accompaniment of video songs capable of simultaneously recording lyrics, accompaniment of a song, a video signal and a control program to be displayed as a background, and a reproduction for reproducing the optical disc recording medium. It relates to a method and a playback apparatus.

The video song accompaniment device (also known as a karaoke device) outputs the lyrics and the wallpaper of the song along with the accompaniment of the song to a video display device such as a television set or a monitor, and the user displays the wallpaper on the video display device. It is a device that allows you to sing along with the accompaniment of the song output to the speaker while viewing the lyrics of the song displayed with.

The video song accompaniment apparatus is widely used not only in karaoke shops but also in each home, and its spread continues to expand.

The video song accompaniment apparatus includes an LD computer video song accompaniment apparatus using LD (Laser Disc), a CDG computer video song accompaniment apparatus using CDG (Compact Disc Graphic), and a computer video song accompaniment apparatus using semiconductor memory.

The LD video song accompaniment apparatus plays back the accompaniment of the song pre-recorded in the LD and the lyrics and the background of the song, and outputs the accompaniment of the played song, that is, the audio signal to the speaker through the audio device, The background screen is output to the video display device and displayed on the screen.

The LD video song accompaniment device not only can enjoy high quality sound and high definition, but also has an advantage of providing a video background suitable for the mood of the song and the meaning of the song lyrics.

However, LD is not only large, about 30cm in diameter, but also a lot of information is recorded along with audio signal, so the number of songs that can be stored in one LD is limited to about 30 songs.

Therefore, it is necessary to have about 70 LDs in order to have more than 2000 songs, which put a lot of economic burden on users.

In addition, as the user selects a song to sing, it is necessary to replace it with an LD in which the data of the song is recorded.Therefore, there is an economic burden of hiring a separate LD changer or installing an expensive LD changer in a karaoke store. Of course, the large size of the LD changer requires a considerable installation space, there was a problem that the installation speed is slow.

The CDG video song accompaniment apparatus simultaneously outputs a video, lyrics and accompaniment by reproducing a CDG in which a still picture and text data are recorded in a graphic sub-coding channel of a compact disc (CD).

The CDG is about 12 cm in diameter, smaller in size than LD, and is inexpensive, so it is widely used for home use.

However, since the CDG cannot implement a video, the quality of still images displayed is poor, and only about 15 songs can be recorded on a single CDG, so a large amount of CDG must be purchased to select a song. There was a problem that each time you need to replace and play with the CDG recording the data of the song.

The computer video song accompaniment apparatus stores song accompaniment data and lyrics data in the form of MIDI (Musical Instrument Digital Interface) data in a memory device, and stores the MIDI data of the song in the memory device as a user selects a predetermined song. After reading, the text data is output to the video display device and displayed on the screen, and the song accompaniment data is processed through the MIDI signal processor and then output to the speaker as an audio signal.

Since the computer video song accompaniment device stores song accompaniment data and lyrics data as MIDI data, about 10001500 pieces of data can be stored in one memory device, and when a song is selected, no troublesome work such as replacing a disk is performed. Instead, the central processing unit may directly output the song by performing a search operation.

However, the computer video song accompaniment device cannot implement a wallpaper suitable for the lyrics of the song, and when adding a song, the memory element needs to be expanded, which imposes an economic burden on the user and is not compatible with other media devices. But there was an uncomfortable problem that can not move the song data to another device.

In addition, the video song accompaniment apparatus stores a control program in a separate memory, and is operated by a control unit having a microcomputer and a central processing unit according to the control program stored in the memory. There was a problem that the memory capacity should be large.

Accordingly, an object of the present invention is to provide an optical disc recording medium for accompaniment of video songs capable of simultaneously recording thousands of song lyrics, accompaniment, and moving picture signals and control programs to be displayed as a background screen on one optical disc.

Another object of the present invention is to provide a reproducing method and apparatus for reproducing a video song accompaniment optical disc for reproducing the video song accompaniment optical disc recording medium.

The optical disc recording medium for accompaniment of video songs according to the present invention for achieving the above object is divided into a lead-in area, a program area and a lead-out area, wherein the program area includes a system area for storing system information about the optical disc recording medium; OSD data area in which OSD data is stored, program code area in which control programs of an optical disc recording medium are stored, song index table area in which song data is stored, song data area in which song data is stored, and images in which video is stored Save data by dividing into data area.

The system area includes optical disc MPEG version information for distinguishing the type of optical disc, a version number, an MS_PICTURE flag, a start address and an end address of the first OSD data, a start address and an end address of the second OSD data, The start address and end address of the program code, the start address and end address of the song index table, the start address and end address of the image index table, and the reservation and check sum values are sequentially stored.

The OSD data area is divided into a first OSD data area and a second OSD data area. The first OSD data area includes a control data area, an alphabetic / numeric actual font data area, an object bitmap data area, and the first OSD data area. Data is divided into one checksum area, and the second OSD data area is divided into a fanfare MIDI data area, a message string code area, an actual font data area used for the message string, and a second checksum area. Save it.

The song index table area stores minutes, seconds, and frames of the location where the song data is stored. The song index table area stores minutes and seconds in a group according to the type of the song. The image index table area stores minutes and seconds of the location where the image data is stored. And a frame and classify and store the group according to the type of image.

The song data area of the program area stores headers representing information related to song data, MIDI data of songs, index tables of images corresponding to songs, lyrics of songs, font data, end of song data, and check sums.

The header indicates the beginning of the song data, the storage location of the MIDI data, the image index data corresponding to the song, the storage location of the song lyrics, the storage location of the font data, the location of the end of the song data, The width and height of the font are stored, and the MIDI data of the song is stored in SMF format.

The song data area of the program area stores data for distinguishing the melody of the stored song data on and off, MIDI data, and color information of the song lyrics font.

According to the reproduction method and apparatus of the present invention, the TOC of the optical disc recording medium is reproduced under the control of a microcomputer to determine whether it is a music CD, and when the information is not a music CD, system information about the optical disc recording medium is obtained. After dumping from the optical disc recording medium, it is determined whether the optical disc recording medium is for accompaniment of video songs. Control is transferred to the DSP unit.

The DSP unit judges whether the data of the font and song index table is reproduced and stored in the optical disc recording medium in accordance with the transfer of the control right, and the selection and display of the selected music is performed.In the case of selection, the DSP reproduces the data of the selected song on the optical disc recording medium. After saving and playing, the video corresponding to the selected song is played back on the optical disc recording medium and output as a movie.When the data of the selected song is played back on the optical disc recording medium and saved, it stops after saving the currently output video. Output to video.

1 shows an area of an optical disc recording medium according to the present invention;

Fig. 2 is a diagram showing data stored in a program area of the optical disc recording medium of the present invention.

3 is a diagram showing data stored in the system area of FIG.

4 is a diagram showing data stored in an OSD data area of FIG. 2;

FIG. 5 is a diagram showing data stored in the song index table area of FIG. 2; FIG.

FIG. 6 is a table showing data stored in the image index table area of FIG. 2; FIG.

FIG. 7 is a diagram illustrating the image of FIG. 6 divided into groups. FIG.

FIG. 8 is a diagram showing data stored in the song data area of FIG. 2; FIG.

9 is a diagram showing data stored in a header of FIG. 8; FIG.

10 is a diagram showing the MIDI data of FIG.

FIG. 11 is a diagram showing the image index data of FIG. 8. FIG.

12 is a circuit diagram showing a configuration of a playback apparatus of the present invention.

13A and 13B are signal flow diagrams showing a reproduction method of the present invention;

Explanation of symbols for main parts of the drawings

100: microcomputer

110: CD part for CD

120: deck

130: servo control unit

140: DSP unit

150: memory

160: image signal processing unit

170: MIDI module

180: microphone

190: voice signal processing unit

200: amplifier

210: speaker

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, an optical disc accommodating optical disc recording medium, a reproduction method thereof, and a reproduction apparatus of the present invention will be described in detail with reference to the accompanying drawings.

1 is a view showing a region of an optical disc recording medium according to the present invention. As shown therein, the optical disc recording medium of the present invention has a lead in area, a program area and a lead out area from the inside.

As illustrated in FIG. 2, the program area is divided into eight sub areas AH by setting addresses in minutes, seconds, and frames, and each frame may store 2K bytes of data.

The first sub area A allocated to the address (00: 00: 00 00: 02: 20) in the program area is not used.

The second sub area B allocated to the address 00:02:21 is used as the system area.

The third and eighth sub-areas H are sequentially partitioned into an OSD data area, a program code area, a song index table area, an image index table area, a song data area, and an image data area. According to the amount of data to be stored, sequentially allocated from the address (00:02:21) is used.

The system area, which is the sub area B assigned to the address 00:02:21, stores system information on the optical disk recording medium as shown in FIG. 3, and the pointer (000012) indicates the type of the optical disk. The optical disc MPEG version information to be distinguished is stored, and a version number is stored in the pointer 013015.

The MS_PICTURE flag is stored in the pointer 016, and the start address and end address of the first OSD data and the start address and end address of the second OSD data are respectively stored in the pointers 017019 (01A01C) and the pointers 01D01F (020022). Stored.

The start address and the end address of the program code are respectively stored in the pointer 023025 (026028), and the start address and the end address of the song index table are respectively stored in the pointer (02901B) (02C02E), and the pointer (02F031) (032034) The start address and the end address of the image index table are respectively stored, the reservation is stored in the pointer 0357FD, and a chuck sum value is stored in the pointer 7FE7FF.

The first OSD data and the second OSD data are sequentially stored in the OSD data area, which is the third sub area C allocated from the addresses 00:02:22.

As shown in Fig. 4, a control data area, an alphanumeric actual font data area, an object bitmap data area, the first checksum area, a fanfare MIDI data area, and a message string code The area, the actual font data area used for the message string, and the second check sum area are sequentially set.

The control data area stores start addresses of the first to fifth fanfares, start addresses of the first to 45th strings, and various data related to fonts and OSDs.

The actual font data area of the alphabet / number is to store the data of the actual font, and the width and height of the font are respectively designated and stored.

Information related to an object, which is graphic data to be displayed in each OSD used in the object bit map data area, is all stored in the control data area.

The first checksum area stores checksum values of the control data area, an alphanumeric actual font data area, and an object bitmap data area.

In the fanfare MIDI data area, for example, MIDI data for five fanfares are stored, and one fanfare MIDI data is determined and output according to a score of a song sung by a user.

The message string code area stores predetermined phrases to be displayed on the screen, and a location where each phrase is stored is designated in the control data area.

In order to reduce the memory capacity, fonts not used in the text are not stored in the actual font data area.

Therefore, a new code is composed only of the font used in all stored texts, and the code is used to express a predetermined text. The code is designated sequentially, and the alphanumeric characters are used as they are.

The new code is represented, for example, in 16 bits, and the letters and numbers are represented in 8 bits.

The ASCII code and the new code are distinguished by using the most significant bit of each byte, for example, a new code when the most significant bit is '1' and an ASCII code when the '0'.

If the phrase is composed only of English, no new code system is needed, so no actual font data for the phrase is needed.

The phrases vary slightly from country to country, and Korea uses approximately 45 types of the phrases.

The bitmap data of the font used as the message string is stored in the actual font data area used for the message string, and the size of the stored font is designated as the font width and font height of the control data.

The second checksum area stores checksum values of the fanfare MIDI data area, the message string code area, and the actual font data area used for the message string.

In the program code area allocated to the sub area D, a digital signal processor (DSP) micro code for performing a function of CD-OK is stored.

The position and size of the sub area D may be obtained by using a program code start address and a program code end address of a system area allocated to the sub area B.

The song index table area allocated to the sub area E is a table designating an address at which respective song data is stored, and the position and size of the data of the song stored in the optical disc recording medium are different from the song index table start address of the system area. Can be obtained from the song index table end address.

Song data stored in the song index table area is divided into minutes, seconds, frames, and groups having a size of 1 byte, and each song stored as a BCD code as shown in FIG. 5. do.

The start positions of the address where the song data is stored are minutes, seconds, and frames, and the size of the song is obtained using the start address of the next song.

An index exists from the first song to the last song, but the actual song data may not be present.

For example, if the most significant bit of the minute is '0', the song's data is stored at the position corresponding to the song's index. If the most significant bit of the minute is '1', the song's data is stored. It is not done.

The group of the song index table area is for classifying all kinds of songs, and stores a classification code of songs in the group field.

The classification code stored in the group field is used by referring to a menu function.

The image index table area allocated to the sub area F is a table specifying an address where still images are stored, and the position and size of the still image data stored on the optical disc recording medium are the image index table of the system area. Can be obtained from the start address and the end address of the image index table.

As shown in FIG. 6, the image data stored in the image index table area is divided into minutes, seconds, frames, and groups having a size of 1 byte, and stored in a BCD code as each image has an index size of 4 bytes. do.

The start position of the address where the image data of the song is stored is minutes, seconds, and frames, and the size of the image data of the song is obtained using the start address of the next image data.

The group of image index table areas is used to classify into a plurality according to all kinds of images.

Images of the same kind are stored successively, and the group field values of the first image of each group can be distinguished as 0 X 80, for example, as shown in FIG.

In FIG. 7, images of 0001, 0002 and 0003 are group 1, 0004, 0005, 0006 and 0007 are group 2, 0008, 0009, 0010 and 0011 are group 3, and 0012 is group 4.

The value of the image index included in the song data is the first index of each group, for example, 0001, 0004, 0008 and 0012 in FIG. 7, and the pictures included in each group are randomized using the value of this index. Output

The format of the song data stored in the song data area, which is the sub area G, is shown in FIG. 8 as follows: header, MIDI data, image index table, song lyrics, first font data, second font data, song data. Saves the end and check islands.

In the header, a pointer of each data, which consists of 32 bytes, is designated.

For example, as shown in FIG. 9, 'CD-K' indicating the start of song data is stored in the 0th to 3rd bytes, and a pointer of MIDI data is stored in the 4th to 7th bytes. The pointer of the image index data is stored in the eighth to eleventh bytes, the pointer of the song lyrics is stored in the twelfth to fifteenth bytes, and the pointer of the first font data is stored in the sixteenth to nineteenth bytes. The pointer of the second font data is stored in the 20th to 23rd bytes, the pointer of the end of song data is stored in the 24th to 27th bytes, and the width of the font is stored in the 28th byte. The height of the font is stored in the 29th byte, and the 30th and 31st bytes are not used.

Each of the pointers is stored as a value obtained by calculating the head of song data as' 0 ', and when there is no still picture, the pointer of the image index data is '00 00 00 00'.

When only English letters and numbers are used as the font of the song lyrics, that is, when there are no fonts in the song lyrics, the pointers of the first and second font data are '00 00 00 00 '.

The MIDI data of the song data area is stored in the SMF (Standard MIDI File) format. The starting position can be obtained by using a pointer of MIDI data in a header, and the size can be obtained from a pointer of image index data to a pointer of MIDI data. have.

MIDI is composed of 16 tracks. As shown in FIG. 10, track 0 stores tracks for distinguishing melody on and off, tracks 1 to 14 are general use tracks, and track 15 is used. Is the track for the color of the font.

The song data area has no image index data when there is no still picture on the optical disc recording medium.

For example, as shown in FIG. 11, the image index data is a sequence of numbers of images to be used in the song. The first index is used when the title of the lyrics to be sung is output. Used when the next line of text is printed.

The lyrics of the song of the song data area are sequentially stored and outputted by dividing the lyrics of the song selected by the user into respective lines.

The first font data and the second font data of the song data area are designated as start pointers of the font data of the header, and there is no font data when the start pointer value of the font data is '00 00 00 00 '.

The size of the font data is determined by the width and height of the font of the header. Each font data has the fonts of all the characters shown in the text data, but excludes alphabetic and numeric fonts in the program area.

For example, when the song is a pop song, the start pointer of the font data of the header is '00 00 00 00 'and there is no font data.

The end of the song data of the song data area is 'ENDK' to indicate the end of the song data, and the check sum of the song data area stores the check sum value.

In the image data area of the sub area H, image data is coded and stored as a video signal of MPEG-1.

The image data is classified into a still image and a moving image, and the still image is made of one image of MPEG-1.

The image data is output and displayed both when the optical disc recording medium is played back and when not, and when a moving picture is output as a still image. For example, when reading a control program or the like stored in the optical disc recording medium. The movie is output as a still image.

12 is a circuit diagram showing the configuration of the playback apparatus of the present invention. As shown therein, the microcomputer 100 reproduces the optical disc recording medium to control the operation of the video song accompaniment, and the optical disc DSP for controlling the reproduction of the optical disc under the control of the microcomputer 100. And a servo control unit 130 for outputting a reproduction signal while rotating the optical disk recording medium seated on the signal processor unit 110 and the deck unit 120 under the control of the optical disc DSP unit 110, and The DSP unit 140 controls the optical disc to control the optical disk, and stores the control program output through the servo controller 130 in the memory 150 and controls the video song accompaniment operation according to the stored control program; In addition, the deck unit 120 controls the optical disk to process the image signal output through the servo control unit 130 and the DSP unit 140 and outputs to the image output device 160 and the deck Part (1 20 is a MIDI module 170 for controlling the optical disk to process the MIDI signal output through the servo control unit 130 and the DSP unit 140, and the MIDI module 170 to the DSP unit 140 A voice signal processor 190 for processing and outputting a voice signal output through the voice signal and the microphone 180, and an amplifier 200 for amplifying and outputting the output signal of the voice signal processor 190 to the speaker 210; It consists of.

In the control apparatus of the present invention configured as described above, as shown in FIG. 13A, the microcomputer 100 performs the initialization operation in step S100, and performs the reproduction operation of the optical disc recording medium in step S110.

That is, the microcomputer 100 controls the servo control unit 12 through the CD unit 110 for the CD to rotate the optical disc recording medium seated on the turntable (not shown) of the deck unit 120. Move the optical pickup unit (not shown) to reproduce predetermined data pre-recorded on the optical disk recording medium, and the predetermined data reproduced by the optical pickup unit is controlled by the microcontroller 130 through the It is entered as (100).

In this state, the microcomputer 100 inputs Table Of Contents (TOC) reproduced in the lead-in area of the optical disc recording medium in step S120, and determines whether it is a music CD in step S130.

That is, the CD-ROM, CDI, VCD, and the optical disc recording medium of the present invention, in which a music CD and a predetermined digital signal are stored, have different data stored in the TOC, and the microcomputer 100 uses the TOC of the reproduced CD. Determine if it is a CD.

If it is not a music CD in step S130, the predetermined data stored in the system area of the optical disc recording medium to be reproduced in the next step S140 is dumped.

That is, the microcomputer 100 causes the optical pickup unit provided in the deck unit 120 to reproduce predetermined data recorded in the system area of the optical disk recording medium, and the reproduced predetermined data is stored in the servo control unit 130. After input through and stores in the memory 150 through the DSP unit 140.

When the dump operation of the data is completed in step S140, it is determined in step S150 whether the optical song recording medium is a video song accompaniment.

In other words, the optical disc recording medium of the video song accompaniment according to the present invention stores optical disc MPEG version information for distinguishing the type of the optical disc in the pointers (000-012) of the system area. It is judged whether or not the optical song recording medium for the video song accompaniment of the present invention.

In the step S150, in the case of the video song accompaniment optical disc recording medium of the present invention, the control program recorded in the program area of the optical disc recording medium currently reproduced in step S160 is reproduced, and the reproduced control program is reproduced. The dump, that is, the reproduced control program, is stored in the memory 150 through the DSP unit 140.

When the dump operation of the control program is completed, the microcomputer 100 transfers the control right to the DSP unit 140 in step S170 to perform the control operation of the image accompaniment with the DSP unit 140.

After performing the initialization operation in step S200 as shown in FIG. 13B, the DSP unit 140 controls the reproduction of the optical disc recording medium through the microcomputer 100 to input the font data in step S210. And store it in memory 150, and in step S220, the song index table is reproduced and stored in the input and memory 150.

When the storing of the font data and the song index table is completed, the DSP unit 140 outputs and displays the video signal indicating the music selection to the video display device through the video signal processor 160 in the next step S230.

In the next step S240, the microcomputer 100 causes the optical disc recording medium to be played back, and outputs a moving picture corresponding to the selection display to the video display device through the playback and image signal processing unit 160. It is determined whether the selection key signal is input through the computer 100.

When the selection key signal is input in the step S250, the data of the video currently output in the next step S260 is stored in the memory 150 and output as a still image, and in step S270, the optical disc recording medium. Play to store the data of the song selected by the user in the memory 150.

When the storage of the song data selected by the user is completed, the microcomputer 100 outputs the song data stored in operation S280.

That is, the song data reproduced from the optical disc recording medium is MIDI data, which is converted into a voice signal by the MIDI module 170, and the converted voice signal is output to the voice signal processor 190 and input through the microphone 180. After processing with the audio signal, the amplifier 200 amplifies and outputs the speaker 210.

In the next step S290, the user plays the optical disc recording medium to play the video corresponding to the currently output song, and outputs the played video along with the lyrics of the song to the video display device through the image signal processor 160. Make it visible.

As such, the DSP unit 140 determines whether a key signal is input through the microcomputer 100 in step S300 in the state of outputting the voice signal of the song selected by the user and the lyrics of the video and the song. In step S310 it is determined whether the end of the song selected by the user.

When the key signal is input in the step S300, the DSP unit 140 performs an operation according to the input key signal, and repeats the operation from the step S230 when the song ends in step S310.

As described above, the present invention stores the OSD data to be displayed on the screen of the video display device and a predetermined control program, song data, and moving picture to control the optical disk recording medium together in one optical disk recording medium. There is no need to store a separate control program for controlling the optical disc recording medium in a reproducing apparatus for reproducing the data, and the capacity of the memory is minimal, and data stored in the optical disc recording medium can be arbitrarily converted and stored.

In addition, by storing the song data as MIDI data, many songs can be stored on a single optical disc recording medium, and a video corresponding to each song can be designated and outputted so that a video suitable for the mood of the song selected by the user can be output. .

Claims (15)

The optical disc recording medium is divided into a lead-in area, a program area, and a lead-out area, wherein the program area includes a system area for storing system information about the optical disc recording medium, an OSD data area for storing OSD data, and an optical disc recording medium. Characterized in that the data is divided into a program code area in which a control program is stored, a song index table area specifying a location where song data is stored, a song data area in which song data is stored, and an image data area in which a video is stored. Optical song recording media for video song accompaniment. The system area of claim 1, wherein the system area includes an optical disc MPEG version information for distinguishing the type of an optical disc, a version number, an MS_PICTURE flag, a start address and an end address of the first OSD data, and a start address of the second OSD data. And the end address, the start address and end address of the program code, the start address and end address of the song index table, the start address and end address of the image index table, and the reservation and checksum values are sequentially stored. Video song accompaniment optical disc recording medium. The method of claim 1, wherein the OSD data area is divided into a first OSD data area and a second OSD data area, The first OSD data area stores data divided into a control data area, an alphanumeric actual font data area, an object bitmap data area, and the first check sum area, The second OSD data area stores data divided into a fanfare MIDI data area, a message string code area, an actual font data area used for the message string, and a second checksum area. Optical disc recording media. The optical disc recording medium according to claim 1, wherein the song index table area stores minutes, seconds, and frames of positions at which song data is stored, and stores groups according to types of songs. The optical disc recording medium according to claim 1, wherein the image index table area stores minutes, seconds, and frames of positions at which the image data is stored, and stores groups according to types of images. The song data area of claim 1, wherein a header indicating information related to song data, a MIDI data of a song, an index table of an image corresponding to a song, lyrics of a song, font data, an end of song data, and a checksum are stored. And an optical disc recording medium for accommodating a video song. 7. The header according to claim 6, wherein the header indicates the beginning of the song data, the storage position of the MIDI data, the image index data corresponding to the song, the storage position of the song lyrics, the storage position of the font data, and the end of the song data. And a width of the font and a height of the font are stored. The optical disc recording medium according to claim 6, wherein the MIDI data of the song is stored in an SMF format. The optical disc recording for video song accompaniment according to claim 1, wherein the song data stored in the song data area stores data for distinguishing a melody on and off, MIDI data, and color information of a song lyrics font. media. A first step of determining whether the CD is a music CD by reproducing the TOC of the optical disc recording medium, and dumping the system information on the optical disc recording medium from the optical disc recording medium when the music CD is not a music CD in the first step; A second step of determining whether the optical disc recording medium is a video song accompaniment, and a control program of the optical song recording medium for the video song accompaniment in the case of the optical song recording medium in the second step; A third process of dumping and transferring control, and a fourth process of determining whether to play, store, select, display and select data of the font and song index table in the optical disc recording medium according to the transfer of control in the third process; In the case of selecting the music in the fourth process, data and video corresponding to the selected song are reproduced on the optical disc recording medium. And an optical disc recording medium for accommodating a video song, characterized by being controlled by a fifth process. The reproduction method of an optical disc recording medium for accompaniment according to claim 10, wherein the fourth step reproduces and outputs a predetermined moving picture on the optical disc recording medium in the case of selecting and displaying the music. 11. The method of claim 10, wherein the fifth process is characterized in that the data of the selected song is reproduced and stored on the optical disk recording medium, and then output. A method of reproducing an optical disc recording medium for accommodating a video song. 15. The optical disc recording medium for accommodating a video song accompaniment according to claim 11 or 12, wherein the moving image is divided and stored for each group, and the moving picture display and the moving picture of the group according to the song data are reproduced and output. Way. The method of claim 12, wherein when the selected song data is reproduced and stored on an optical disc recording medium, the currently output moving image is stored and output as a still image. A microcomputer for reproducing an optical disc recording medium to control the operation of the video song accompaniment, an optical disc DSP unit for controlling the reproduction of the optical disc under the control of the microcomputer, and an optical disc recording medium seated on the deck portion. A servo control unit for outputting a reproduction signal while rotating according to the control of the DSP unit for the optical disc, and a control program for controlling the optical disc and outputting the servo disc through the servo control unit in a memory and storing the image song according to the stored control program. A DSP unit for controlling the accompaniment operation, an image signal processor for controlling the optical disc and outputting the image signal output through the servo control unit and the DSP unit to an image output device, and the deck unit controlling the optical disc. MIDI module for processing the MIDI signal output through the servo control unit and the DSP unit And a voice signal processor for processing and outputting a voice signal output from the MIDI module and the voice signal of the microphone, and an amplifier for amplifying the output signal of the voice signal processor and outputting the same to a speaker. An apparatus for reproducing an optical disc recording medium for accommodating a video song.