JPH0765492A - Medium recording and reproducing device - Google Patents

Abstract

PURPOSE:To enhance the operability and to shorten the housing time by housing disks loaded on a carrier means into plural disk housing parts layered in a stocker in turn in the housing parts from the uppermost part in the direction of a player part. CONSTITUTION:The stocker 5 has the housing parts 50a-50d for housing the disks and their stock completion sensors 51a-51d, and the disk to be inserted from a disk inserting hole 2 is carried by a carrier means 3. Then, the player part 4 for reproducing and recording the disk and the means 3 are controlled by a CPU of the device 1 in accordance with information of the sensors 51a-51d and a housing command by a stock key. By this control, according to the housing command, the disk loaded on the means 3 is housed in a vacant housing part detected from the nearest housing part 50a to the inserting hole 2 to the housing part 50d in turn. Thus, as an auto-changer device, the operability is enhanced and the disk housing operation is quickend.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a medium recording / reproducing apparatus for recording / reproducing a recording medium carrying information.

[0002]

2. Description of the Related Art A compact disc (hereinafter simply referred to as a CD) is widely known as a recording medium for recording information. Recently, a CD autochanger device has become popular in which a plurality of CDs are stored in a storage unit called a magazine, a player equipped with the magazines is stored in a trunk of an automobile, and a main unit called a head unit is arranged near a driver's seat. I'm doing it.

On the other hand, in recent years, a mini-disk cartridge (hereinafter referred to as MD) of a magneto-optical recording system has been proposed as a recording medium in which an information recording disk is housed in a protective cartridge case. This MD is capable of not only reproducing recorded information but also newly recording and rewriting already recorded information.

[0004]

As a medium recording / reproducing apparatus for recording / reproducing on such an MD, various product plans are being made at present.

The object of the present invention is to improve the easiness in handling MDs and the like, especially to improve the operability when accommodating a plurality of MDs as an autochanger device and to speed up the time required for the accommodating operation. It is to provide a medium recording / reproducing apparatus capable of performing the above.

[0006]

In order to achieve the above object, the invention according to claim 1 is a medium accommodating means for accumulating a plurality of accommodating areas in a certain direction and accommodating a recording medium in each accommodating area. , At a position close to a specific storage area in the plurality of storage areas, and an insertion port for inserting a recording medium, and reproducing information recorded on the recording medium or recording new information on the recording medium A medium driving unit, a conveying unit that is movable in the fixed direction and is close to the medium driving unit, and that stores a recording medium that is being mounted in the medium storing unit according to a storage drive signal; An operation unit for inputting a storage command and a recording medium currently mounted on the transporting unit in response to the storage command are sequentially transferred from a specific storage region on the insertion opening side to a storage region in a direction close to the medium driving unit. To be stored in And having a control means for sending a pay drive signal.

According to a seventh aspect of the present invention, medium storage means for stacking a plurality of storage areas in a certain direction and storing a recording medium in each storage area, and a specific storage area in the plurality of storage areas. An insertion opening for inserting a recording medium, a medium driving means for reproducing information recorded on the recording medium or recording new information on the recording medium, at a position close to And a storage means that is provided so as to be proximate to the medium driving means and that stores a recording medium that is being mounted in the medium storage means, and a storage medium detection means that detects an empty storage area in which the recording medium is not stored in the storage area. And when a vacant storage area is generated in a storage order array in which the storage areas are sequentially stored from a specific storage area on the side of the insertion slot to a storage area in a direction close to the medium driving means in accordance with a predetermined signal, the empty storage area is generated. Next to the area The recording medium is accommodated, and having a newly control means for storing in said storage order with respect to the conveying means.

[0008]

According to the first aspect of the present invention, when the recording medium is directly inserted and stored in the medium recording / reproducing apparatus, it is possible to perform the operation without designating the storage area each time the recording medium is inserted. Since the inserted recording mediums are sequentially stored from a specific storage area on the insertion port side, that is, a storage area from the insertion slot to the storage area, which has the shortest transportation time, the operation in the medium recording / reproducing apparatus is performed. If the number of recording media in each storage area is small, the time required for the storage operation of the recording media can be shortened.

According to the seventh aspect of the invention, in the case where a vacant storage area which impairs the arrangement in the storage order, that is, a missing tooth occurs, the recording medium stored in the storage area next to the vacant storage area is set. , A specific storage area on the side of the insertion opening,
That is, since the storage areas are sequentially packed from the insertion opening to the storage area from the storage area with the shortest transfer time to eliminate missing teeth, the operability of the medium recording / reproducing apparatus can be improved. In addition, when the number of recording media in each storage area is small, the time required for the storage operation of the recording media can be shortened.

[0010]

BEST MODE FOR CARRYING OUT THE INVENTION A vehicle-mounted MD autochanger device (hereinafter
An example of a "MD device") will be described.

The MD device inserts an MD and records and / or reproduces the information recorded in the MD.

First, a general M used in the MD device.
D will be described. FIG. 2 is a plan view showing the configuration of a general MD.

In FIG. 2, reference numeral 60 is a cartridge case, 202 is a disk body for information recording which is an optical disk or a magneto-optical disk having a diameter of about 6 cm accommodated in the cartridge case 60, and 203 is provided in the cartridge case 60. An access hole for accessing the disk body 202, and a slide shutter 204 for opening and closing the access hole 203 (hereinafter, simply referred to as a shutter). Since the shutter 204 is closed except when it is used, the disk body 202 is protected from the external environment and is excellent in practicality and durability.

The MD type is a read-only pre-mastered (PRE-type) in which fixed information is recorded in advance.
M) type and writable recordable (RECORD)
There is an ABLE type. The pre-mastered type shutter 204 is provided only on one surface of the cartridge case 60, and can irradiate the disc surface of the disc body 202 with a light beam from a pickup described later.
The recordable type shutters 204 are provided on both sides of the cartridge case 60, and
At the time of recording on 2, the magnetic head for applying a magnetic field is in contact with the disk surface on the side opposite to the disk surface irradiated with the light beam.

Unless otherwise specified, the cartridge case 60 and the disk body 20 will be described below for convenience of explanation.
The MD, which is the recording medium including 2 is generically called a disc.

Next, the MD device in this embodiment for reproducing and / or recording the disc will be described. It should be noted that arrows X1 and X2 in the drawings indicate the front-back direction of the MD device, and arrows Y1 and Y2 indicate the vertical direction of the MD device. Therefore, the arrow X1 side is the front side, the arrow X2 side is the back side, the arrow Y1 side is the down side, and the arrow Y is
The 2 side is the upper side.

FIG. 1 is a sectional view showing the outline of the internal structure of an MD device when a disc is inserted.

In FIG. 1, the MD device is composed of a rectangular parallelepiped device case 1 and a main part, which will be described later, provided inside the device case 1.

A disc insertion opening 2 which is an insertion opening for inserting a disc is formed at an upper edge portion of the front surface of the equipment case 1, and the disc insertion opening 2 prevents foreign matter from entering the MD device. An insertion prevention shutter 36 described later is attached so as to be openable and closable.

An escutcheon 28 is attached to the front of the equipment case 1.
An insertion port 29 described later is formed in the. The insertion port 29 faces the disc insertion port 2, and a dustproof door 30 for preventing foreign matter from entering the MD device is attached to the insertion prevention shutter 36 so as to be openable and closable.

The main parts provided in the equipment case 1 are a carrier 3 which is a conveying means for conveying and holding the inserted disc, and a medium driving means for rotationally driving the inserted disc. It is composed of a player section 4 and a stocker 5 which is a medium storing means for storing the inserted disc.

The carrier 3 has the disk insertion opening 2
It is arranged so that it can be moved up and down on the back side of the carrier, and the inserted disc is mounted on the upper part of the carrier 3 (loading).
A transport roller 215, which will be described later, for rotatably loading or loading the loaded disc in the stocker 5 or ejecting it from the disc insertion slot 2 is rotatably provided.

Further, the carrier 3 is provided with various sensors for detecting the insertion, mounting, ejection, etc. of the disk. The disk insertion sensor 216a for detecting the insertion of the disk and the completion of the disk mounting are detected. Loading completion sensor 216b and eject sensor 2
16c, a disk removal sensor 216d for detecting whether or not a disk has been removed, and the like.

The loading completion sensor 216b
Is for detecting that the end portion of the disk loaded by the transport roller 215 reaches the position W in FIG. 1 and is completely mounted. The eject sensor 216c detects that the disc has been ejected from the disc insertion slot 2 to a position where it can be taken out (reload position). The disc ejection sensor 216d is provided in the vicinity of the disc insertion slot 2 and indicates whether or not a disc ejected from the carrier 3 to the disc insertion slot 2 (moved to a reload position, that is, a state in which a part thereof is projected) is ejected. It is to detect that.

Further, the carrier 3 is provided with a carrier position sensor (not shown) for accurately detecting the ascending / descending position of the carrier 3, and the position of the carrier 3 and the disc insertion position are detected by the carrier position sensor. By making the mouth 2 and the position of each storage section of the stocker 5 described later face each other, the horizontal movement of the disk in the front-rear direction can be smoothly performed.

Further, the player section 4 is arranged below the carrier 3 so as to face the carrier 3, and a damper and an anti-vibration spring (not shown) in the player section 4 allow the player section 4 to move freely in the equipment case 1. It is installed.
Therefore, when the disc is driven to rotate, the damper and the vibration-proof spring prevent the vibration of the device case 1 from the outside from being transmitted to the player unit 4 due to the floating state. The player unit 4 is fixed to the equipment case 1 when the disc is not driven to rotate. Also, when the disc is being driven to rotate, the carrier 3 having the disc mounted thereon and the player unit 4 are in a connected state.

In the player section 4, 219 is a spindle motor for rotating the disk, and 220 is a turntable on which the disk (disk body 202) is mounted. A pickup unit (PU) 221 irradiates a disc with a light beam to read information, and has a structure of sliding in the radial direction of the disc mounted on the turntable 220. Further, the turntable 22 is attached to the player unit 4 by the contact of the cartridge case 60.
A disk mounting completion sensor 216e for detecting that a disk is mounted on the disk 0 is provided.

The stocker 5 is a rectangular parallelepiped case in which four storage areas 50a to 50d, which are disks, are stacked in the vertical direction, and seen from the disk insertion port 2 from the carrier 3. Is arranged so that it can be raised and lowered further to the back. The storage parts 50a to 50d
Are identified by identification numbers # 1 to # 4, and the storage section 50a is #
1, the storage unit 50b is # 2, the storage unit 50c is # 3, and the storage unit 50d is # 4. The identification numbers # 1 to # 4 correspond to the sorting order in the disk sorting process, which will be described later, and the storage order in the stock mode. The order from # 1 is # 2, # 3, and # 4. There is.

Each of the storage portions 50a to 50d is formed with an opening into which a disc can be inserted on the front side, and a space for horizontally storing the disc is provided on the back side of each of these openings. Each of the storage units 50a to 50d has a stock completion sensor (51a to 51) for detecting completion of storage of the disc.
d) and a disc ejection / suction mechanism (not shown) for ejecting or sucking the disc by the urging force of the spring.

Then, next, the carrier 3 and the stocker 5 are used.
The elevating mechanism 6 for moving up and down will be described. FIG. 3 is a plan view showing the relationship between the left and right elevator plates, the carrier, and the stocker as seen from the direction A in FIG.
3 is a view from the direction B in FIG. 3, and FIG. 5 is a view from the direction C in FIG.

This elevating mechanism 6 is inward in the front and rear direction (front side X1) on the left and right side surfaces 1L, 1R of the device case 1.
To the rear side X2 and the rear side X2 to the front side X1), the left and right elevator plates 7L and 7R are provided movably, and the left elevator plate 7L includes the front side as shown in FIG. A holder cam 8 and a stocker cam 9 each having a stepped hole for lowering X1 are formed, and each step portion from the uppermost step to the fourth step of the holder cam 8 is # 1a to. # 4a and the lowest part is #P. A hole 10 is formed in the elevator plate 7L so as to be continuous with the lowermost step #P of the holder cam 8. The stocker cam 9 is a crank-shaped hole having an upper step #U and a lower step #D.

A holding hole 11 which is long in the vertical direction, a guide hole 12 which is long in the vertical direction, and a hole portion 13 which is continuous with the lower end portion of the guide hole 12 are formed in the left side surface portion 1L of the device case 1. The holding hole 11 intersects the stocker cam 9, and the hole 13 overlaps the hole 10. Further, on the front side of the left elevator plate 7L, a shutter side cam operating pin 34 and an opening / closing member side cam operating pin 35 are provided vertically.

Further, the right elevator plate 7R has
As shown in FIG. 5, holder cams 13 and 14 are formed of stepped holes that are located on the front side X1 and the back side X2 and that lower the back side X2.
# 1a to # for each step from the top of the 3rd and 14th steps to the 4th step
4a and the lowermost part is #P. Then, holes 15 and 16 are formed in the elevator plate 7R so as to be continuous with the lowermost step #P of the holder cams 13 and 14. A stocker cam 17 is formed on the right elevator plate 7R so as to be located on the back side X2, and this stocker cam 17 is a crank-shaped hole having an upper step #U and a lower step #D.

Further, in the right side surface portion 1R of the device case 1, a vertically long holding hole 18, vertically long guide holes 19 and 20, and hole portions connected to the lower end portions of these guide holes 19 and 20. 21 and 22 are formed, the holding hole 18 intersects the stocker cam 17, and the hole portions 19 and 20 overlap the hole portions 15 and 16.

The left and right elevator plates 7L and 7R are moved in opposite directions by a drive mechanism (not shown). That is, the left elevator plate 7
When L moves to the front side X1, the right elevator plate 7R moves to the back side X2, and when the left elevator plate 7L moves to the back side X2, the right elevator plate 7R moves to the front side X1. To do.

Holder pins 23, 24, 25 are attached to the left and right sides of the carrier 3, and stocker pins 26, 27 are attached to the left and right sides of the stocker 5.

The left holder pin 23 is connected to the holder cam 8 of the left elevator plate 7L and the guide hole 1.
2 is inserted into the holder pin 24 on the right front side X1.
Is inserted into the holder cam 13 and the guide hole 19 of the right elevator plate 7R, and the holder pin 25 on the right back side X2 is inserted into the holder cam 14 and the guide hole 20 of the right elevator plate 7R. is there.

The left stocker pin 26 of the stocker 5 is connected to the stocker cam 9 of the left elevator plate 7L.
And the stocker pin 27 on the right side is inserted into the holding hole 11 and the stocker cam 1 of the right elevator plate 7R.
7 and the holding hole 18 are inserted.

In the above structure, when the carrier 3 is lowered, the left elevator plate 7L is moved to the rear side X2 (reverse) by the drive of the drive mechanism.
The right elevator plate 7R moves to the front side X1 (forward). Since the front side X1 of the holder cam 8 is low, the holder pin 23 inserted into the holder cam 8 is guided by the guide hole 12 and descends when the left elevator plate 7L is retracted. Since the holder cams 13 and 14 are low on the rear side X2, the holder cam 1 is moved by the forward movement of the right elevator plate 7R.
The holder pins 24 and 25 inserted into the holes 3 and 14 are guided by the guide holes 19 and 20 and descend. Therefore, the carrier 3 descends vertically, and the holder pins 23, 24,
25 is each step # 1a to # of the holder cams 8, 13, 14
4a, the disk held by the carrier 3 is lowered to a position facing the openings of the storage parts 50a to 50d.

The carrier 3 is lifted up by driving the drive mechanism in the opposite direction to the left elevator plate 7
By moving L to the front side X1 (forward) and moving the right elevator plate 7R to the back side X2 (backward), the reverse operation of the above-described descending operation is performed.

The storage section 5 of the fourth stage of the stocker 5
When the disk is stored in 0d, when the holder pins 23, 24, 25 of the carrier 3 are lowered to the step # 4a of the holder cams 8, 13, 14, the stocker pins 26, 27 are moved to the lower step # of the stocker cams 9, 17. Move from D to upper part #U. Therefore, the stocker 5 has a holding hole 11,
Ascends along 18 and the disc held by the carrier 3 faces the storage portion 50d.

Next, an opening / closing mechanism for opening / closing the disc insertion opening 2 of the device case 1 and the insertion opening 29 of the escutcheon 28 will be described. 6 is a plan view of the opening / closing mechanism, FIG. 7 is a front view of the opening / closing mechanism, FIG. 8 is an explanatory view of a left elevator plate on a side surface of the opening / closing mechanism, FIG. 9 is a side view of a dustproof door opening / closing member, and FIG. [Fig. 4] is a side view of the insertion prevention shutter.

At the insertion opening 29 of the escutcheon 28, the dustproof door 30 described above is rotatably supported by the support portion 32 provided on the escutcheon 28 on the left and right support shaft portions 31, and a spring not shown (a closing spring). ) So that the insertion port 29 is closed. A projection 33 is provided on the left end of the dustproof door 30.

Left and right surface portions 1L, 1R of the device case 1
The insertion prevention shutter 36 is provided on the front side X1 of the support shaft 3
It is attached by 7 so that it can swing in the vertical direction. That is, the insertion prevention shutter 36 has arm portions 40 and 41 on the left and right of the front shutter body 39, and these arm portions 40 and 41 are attached to the left and right surface portions 1L and 1R of the device case 1 by the support shaft 37. The shutter main body 39 is pivotally attached to the front side X1 of the disk so that the disk insertion opening 2 can be opened and closed. The left arm 40 has a cam portion 42 and an engaging portion 43 formed on the lower portion on the front side, and a spring locking portion 44 on the upper portion on the front side.

A dustproof door opening / closing member 45 is swingably provided coaxially with the insertion preventing shutter 36 on the front side X1 of the left surface portion of the equipment case 1. That is, the dustproof door opening / closing member 45 has a member main body 45a having a U-shaped cross section as shown in FIG. 9, the member main body 45a is provided with a shaft hole 46, and the inside surface of the member main body 45a is provided. The lever portion 47 by projecting to the front side X1,
Spring locking portions 48 are formed so as to be located on the back side X2. The outer side surface of the member main body 45a has a back side X
An arm portion 49 is provided so as to project to 2, and a cam portion 50 and an engaging portion 51 are formed on the arm portion 49.

In the dustproof door opening / closing member 45, the front side X1 of the left side portion L1 of the device case 1 in the state where the support shaft 37 penetrates the shaft hole 46 of the member main body 45a.
The spring locking part 48 of the dustproof door opening / closing member 45
A spring 52 is bridged between the spring locking portion 44 of the insertion prevention shutter 36 and the spring.

Therefore, the insertion prevention shutter 36 is rotated counterclockwise in FIG. 8 by the urging force of the spring 52, and the shutter body 39 of the insertion prevention shutter 36 closes the disc insertion opening 2 and Spring 5
The dustproof door opening / closing member 45 is rotated clockwise by the urging force of 2, and the lever portion 47 of the dustproof door opening / closing member 45 is rotated in the clockwise direction.
Is located below the protrusion 33.

Next, the operation of the opening / closing mechanism of the dustproof door 30 and the insertion preventing shutter 36 configured as described above will be described. Holder pin 2 of the carrier 3
3, 24, and 25 are step portions # of the holder cams 8, 13, and 14
At the position 2a (the position where the carrier 3 faces the storage portion 50b, that is, the standby position of the carrier 3 as described later), the carrier 3 receives the disc (the position that faces the disc insertion slot 2 of the device case 1). ), The dustproof door 30 is pushed by the tip of the disc when the disc is inserted into the insertion port 29 of the escutcheon 28, and the left and right spindles are resisted against the elastic force of the closing spring. The insertion opening 29 is opened by rotating clockwise around the portion 31 as shown in FIG. 13, but the disc insertion opening 2 of the device case 1 is closed by the shutter body 39 of the insertion prevention shutter 36. Therefore, the disc is not inserted into the main body of the apparatus (see FIGS. 12 and 13).

As described above, when the carrier 3 is raised, the left elevator plate 7L is moved to the front side X1 (forward) and the right elevator plate 7R is moved to the rear side X2 by the drive in the reverse direction of the drive mechanism. By moving to (reverse), the operation is performed in the reverse operation to the above-described case of descending. By this operation, the carrier 3 rises from the standby position to the receiving position.

Front side X1 of the left elevator plate 7L
When the shutter side cam actuation pin 34 comes into contact with the cam portion 42 of the insertion prevention shutter 36 by the movement to (forward), the insertion prevention shutter 36 is rotated in the clockwise direction, and the opening / closing member side cam actuation pin is also moved. 35 contacts the cam portion 50 of the dustproof door opening / closing member 45 to rotate the dustproof door opening / closing member 45 counterclockwise. Therefore, the spring 52 is extended, the shutter body 39 of the insertion prevention shutter 36 opens the disc insertion opening 2 of the device case 1, and the dustproof door opening / closing member 45 is opened.
Lever portion 47 lifts the protrusion 33 of the dustproof door 30 from below, and rotates the dustproof door 30 to open the insertion port 29 of the escutcheon 28 (see FIGS. 14 to 18). Then, the shutter side cam operating pin 3
4 holds the state in which the disc insertion opening 2 of the device case 1 is opened by engaging with the engagement portion 43 of the insertion prevention shutter 36, and the opening / closing member side cam operating pin 35 is attached to the dustproof door opening / closing member 45. The state in which the insertion port 29 of the escutcheon 28 is opened by engaging with the engaging portion 49 of the escutcheon 28 is held (see FIG. 19).

As described above, in the process of the carrier 3 from the standby position to the receiving position, the shutter body 39 of the insertion prevention shutter 36 opens the disc insertion opening 2 of the equipment case 1 and the dustproof door opening / closing member. The lever portion 47 of 45 lifts the protrusion 33 of the dustproof door 30 from below and rotates the dustproof door 30 to open the insertion port 29 of the escutcheon 28, so that the carrier 3 is at the receiving position. When reaching, the disc insertion opening 2 of the device case 1 and the insertion opening 29 of the escutcheon 28
Is completely open. For this purpose, the disc is inserted into the carrier 3 unimpeded.

The insertion preventive shutter 36, which is openably and closably provided in the disc insertion opening 2, is unlocked when the carrier 3 is in a position facing the disc insertion opening 2, and the carrier 3 is stored in the storage portion. It is in the locked state when it is located at a position other than the position facing the opening of 50a. Therefore, when the carrier 3 is in the standby state, the carrier 3 is at a position facing the opening of the storage portion 50b, and the insertion prevention shutter 36 is locked.
Foreign matter is prevented from entering the MD device when the carrier is on standby.

As shown in FIG. 19, when the dustproof door 30 and the insertion prevention shutter 36 are fully opened, the shutter side cam actuating pin 34 and the end faces of the engaging portions 43 and 51 that come into contact with the shutter-side cam actuating pin 34 are the shutters. Side cam operating pin 34
Also, since the opening / closing member side cam actuation pin 35 is parallel to the moving direction of the elevator plate 7L to which it is fixed, there is a positional deviation at the stop position of the elevator plate 7L (stop position when the carrier 3 is at the uppermost position). Even if it occurs, the dustproof door 30 and the insertion prevention shutter 36 are not over-rotated, and the failure of the device is prevented.

On the front surface of the escutcheon 28, there is provided a front panel having an operation means for inputting an operation or an information display function. FIG. 20 is a plan view showing the front panel.

In FIG. 20, reference numeral 102 is a stock key for inputting a storage command for storing the inserted disk in the stocker 5 in the apparatus. 103 to 106 are storage units (5
0a-50d) four discs, or
An MD designation key (hereinafter, simply referred to as a No. key) that is a storage medium designation for specifying each of the storage units (50a to 50d), and 107 designates a fifth disc that is a preliminary recording medium. Spare M, which is a spare medium designation for
The D designation key α (hereinafter simply referred to as α key). 1
Reference numerals 03a to 107a denote LED indicators (hereinafter, simply referred to as No. lamps) provided on each key.
Incidentally, No. A key 103 is used to specify a disk related to the storage section 50a, No. The key 104 is used to specify a disk related to the storage section 50b, No. The key 105 is used to specify a disk related to the storage section 50c, No. The key 106 is a key for designating a disc related to the storage section 50d.

Reference numeral 108 denotes a play / pause key for inputting a performance command for playing a disc. If the key is pressed while not playing, the play mode is set.
If this key is pressed while playing a disc, the pause mode or stop mode is entered. Reference numerals 109 to 111 are input keys for setting a special play mode, and an RPT key 109 is used to set a repeat play mode for repeatedly playing an RD.
The M key 110 is a random performance mode in which each disk and / or each track (song) is randomly played,
The CN key 111 sets a scan (search) performance mode in which only the first part of each track is played one after another.

Reference numeral 112 is a key for inputting a command to play the next track, and 113 is a key for inputting a command to play the next track. Reference numerals 114 and 115 denote a fast-forward key and a fast-reverse key, which are so-called cue / review search performances when these keys are pressed during the play mode. Reference numeral 116 denotes an eject key for inputting an eject command for ejecting the disc, that is, ejecting the disc.
An LCD display 117 displays the operating state of the device. The display 117 has, for example, a maximum of 15 characters, symbols,
Numbers can be displayed.

Further, the carrier 3 described above will be described in more detail with reference to FIG. FIG. 21 is a plan view showing the structure of the carrier 3, showing a state in which a disc is mounted. In FIG. 21, reference numeral 321 is a chassis forming the skeleton of a carrier, 322 is a guide for smoothly loading or ejecting a disc, and 215 is the transport roller described in FIG. 324 is the transport roller 2
A roller shaft 325 for rotating the roller shaft 325, a support arm rotatably supporting the end portion of the roller shaft 324, a spring 326 for pulling the support arm 325 to press the cartridge case 60, and a reference numeral 327 for rotatably supporting the support arm 326. It is a fulcrum shaft that engages with the chassis 321.

With this structure, the conveying roller 215 is biased by the spring 326 and is pressed against the disk case 60. Therefore, when the transport roller 215 is rotated by the roller driving mechanism (not shown), the disc is guided by the guide 32.
Slide along X2 in the X1-X2 direction (front-back direction). As is apparent from FIG. 21, the transport roller 215 is biased to a position where it does not contact the shutter 204. Therefore, it is possible to avoid the problem that the shutter 204 is opened by the transport roller 215 during transport and the disc surface is damaged. In addition, the transport roller 215
It is possible to prevent the shutter 204 from being deformed due to the pressure contact of (2) and disturbing the opening and closing.

The MD device constructed in this manner is disclosed in Japanese Patent Application Nos. 4-329694 and 4-28 by the present applicant.
It has been filed as 0052 and Japanese Utility Model Application No. 4-2016.

Next, a control unit for controlling the MD device,
The signal processing unit will be described. FIG. 22 is a block diagram showing the configurations of the control unit and the signal processing unit. The spindle motor 219, the turntable 220, the pickup 221, the disk body 202 and the display 117 have already been described, and the description thereof will be omitted.

In FIG. 22, reference numeral 222 is an RF amplifier for amplifying the high frequency signal output from the pickup 221, and 223 is a signal processing unit for converting the signal obtained from the RF amplifier 222 into a digital signal and performing a predetermined process. Is. Reference numeral 224 is a memory controller for writing and reading data from the signal processing unit 223 to the memory 225. A voice compression / decompression unit 224A decompresses the compressed data read from the memory 225. Although not shown, when a magnetic head is provided in the MD device to enable recording, the audio compression / decompression unit 224A compresses the audio signal and sends the compressed audio signal to the magnetic head. To do. Reference numeral 226 is a digital filter that applies various acoustic corrections to audio data, 227 is a D / A converter that converts audio data that is a digital signal into an analog signal, and sends the analog audio signal, and 228 amplifies the analog audio signal. Audio amplifier, 22
Reference numeral 9 is a speaker for outputting the amplified analog audio signal by voice.

Reference numeral 230 is a servo processing unit which receives a read synchronizing signal component from the RF amplifier 222 and other signals and generates a drive control signal. 231 receives the drive control signal from the servo processing unit 230,
A driver 232 for generating a drive signal for driving the light beam irradiating means 21, a tracking actuator, and a focus actuator (neither is shown in the figure) 232 is responsive to the drive control signal from the servo processing unit 230 to drive the spindle motor 219. It is a driver that generates a drive signal for driving a mechanical drive mechanism such as.

Reference numeral 233 is a CPU as a control means for controlling this device and communicating with a head unit (not shown). Reference numeral 234 is a key input interface that receives an input from a key provided on the front panel of the escutcheon 28 shown in FIG. 20 and supplies the input data to the CPU 233. A disk loading mechanism 235 is controlled by the CPU 233, and is configured by the various sensors (216a to 216e) and actuators described above, and controls the operation of the carrier 3. 236
Is a disk stock mechanism controlled by the CPU 233, and is composed of stock completion sensors (51a to 51d) and actuators, and controls the operation of the stocker 5. A display driver 237 drives the display 117 based on display data output from the CPU 233. Although this example is intended for reproduction only, if a magnetic head is provided, recording / recording will be performed.
It goes without saying that it constitutes the playback system.

Next, the operation of the CPU 233 in the MD device will be described with reference to the flowcharts of FIGS. 23 to 36. Incidentally, in the stock mode which is the gist of the present invention, it corresponds to the flowcharts of FIGS. 33 and 34. Figure 2
3 is a flow chart of a main routine showing main processing operations in the CPU 233 of the MD device.

In FIG. 23, the power supply to the MD device is turned on.
Then, the storage sections (50a to 50) of the stocker 5 are
d) and the disk data relating to the disks in the carrier 3 are stored in the memory 225 at the backup power source of the vehicle.
It is determined whether or not it is held in (step S1).

If the disk data is not held,
The storage section (50a to 50d) and the carrier 3 are controlled by the respective sensors such as the disk insertion sensor 216a, the loading completion sensor 216b, the eject sensor 216c, the disk ejection sensor 216d, the disk loading completion sensor 216e, and the stock completion sensor (51a to 51d). The disc inside is detected to create disc data, and the disc data (data indicating in which storage portion of the stocker 5 the disc is stored) is stored in the memory 225 (step S2).

Next, it is determined whether or not the stock key 102 has been pressed (step S3). If the stock key 102 has not been pressed, it is determined whether the eject key 116 has been pressed (step S4). Unless the eject key 116 is pressed, the play key 10
It is determined whether 8 has been pressed (step S5). If the play key 108 has not been pressed, step S
Move to 3.

If the disc data is held in step S1, the process proceeds to step S3.

In step S3, the stock key 10
If No. 2 is pressed, load the disc into the stocker 5
After shifting to the stock mode for storing in
6) and shifts to step S4.

In step S4, the eject key 1
If 16 is pressed, the process moves to the eject mode for ejecting the disc from the MD device (step S7), and then to step S5.

Further, in step S5, the play key 108
If is pressed, the mode is changed to the play mode in which the disc is reproduced (step S8), and then step S
Move to 3.

Next, the processing operation of the CPU 233 in each of the eject mode, stock mode and play mode will be described.

The processing operation of the CPU 233 in the eject mode of the first embodiment will be described with reference to FIGS. 24 to 26.

In FIG. 24, it is determined whether or not the α flag is "1" (step S11).

Next, the α flag will be described. When the stock key 102 is input as shown in FIG. 23, the mode is changed to the stock mode, and as will be described later, the No. for designating the storage sections (50a to 50d) of the stocker 5 is selected. The keys (103 to 106) are in a state of waiting for input, but when the α key 107 (FIG. 20) is input at this time, the disc inserted from the disc insertion slot 2 is temporarily stored in the storage part (5
0a to 50d), even if any of them is empty, they are not stored in these storages and are directly mounted on the player unit 4. Then, the α flag becomes "1", and the disc is not stored in these storage units until it is ejected from the MD device.

Therefore, when the α flag is "1", even if a disk is stored in each storage section (50a-50d),
Access to these discs is prohibited, and recording and / or reproduction is limited to discs mounted directly on the player unit 4 by the α key 107.

When the eject key 116 is input while the α flag is "1", the α-designated disc (that is, the disc mounted on the player section 4) is immediately ejected from the inside of the MD device, and α The flag becomes "0". When the α flag becomes "0", the discs stored in the storage units (50a to 50d) can be pulled out and the discs can be accessed again.

As described above, when the α flag is "1", even if the MD device is a so-called autochanger device capable of accommodating a plurality of discs, one disc designated by the input of the α key 107 is used. Will function as a single player that houses the disc.

As will be described later, when the disk is inserted into the MD device after the stock mode has been set and the storage parts (50a to 50d) of the stocker 5 are full, the stocker 5 is automatically loaded. The α flag becomes "1".

Returning to FIG. 24, taking into account the α flag explained above.

If the α flag is "1" at step S11, "EJECT MODE" for notifying the user that the eject mode has been entered is displayed (step S12), and the disc in the carrier 3 is playing. It is determined whether there is any (step S13).

If the disc is being played, the play operation is stopped (step S14), the disc is ejected, and the disc is placed in the reload position (step S).
15). Next, "EJECT END" for notifying the user that the eject process is completed is displayed (step S16), a timer (not shown) in the CPU 233 is started (step S17), and the process proceeds to E1 shown in FIG. In addition, the timer is a predetermined time, for example, 10
Suppose you are monitoring for a second.

At E1 shown in FIG. 25, it is determined whether or not the disk currently at the reload position has been pulled out (step S22). If the disc at the reload position has not been pulled out, it is determined whether the disc at the reload position has been pushed in (step S23). If the disc has been pushed in, "STOCK LOAD" for notifying the user that loading is ready is displayed (step S24), the disc is loaded and stored in the carrier 3 (step S25), and the α flag is set. Is determined to be "1" (step S2
6). If the α flag is “1”, the process proceeds to P1 shown in FIG. 35 described later.

If the disc is pulled out in step S22, the process proceeds to E2 shown in FIG. 26, which will be described later.

If the disc is not pushed in in step S23, it is determined whether the timer started in step S17 has passed 10 seconds (step S27). If 10 seconds has not elapsed, the process proceeds to step S22, and if 10 seconds has elapsed,
Display "STOCK LOAD" (step S2
8) Then, the disc is loaded and stored in the carrier 3 (step S29), and it is determined whether or not the α flag is "1" (step S30).

If the α flag is "1", the carrier 3
The disk accommodated in the player is mounted on the player unit 4 (step S31), and the "STOCK LOA" currently displayed is displayed.
D "is turned off (step S32), and the process proceeds to the main routine. If the α flag is" 1 "in step S30, the disc is mounted in the player unit 4 in step S31. The disc may be arranged at a position other than the player unit 4.

If the α flag is not "1" at the step S30, the disk accommodated in the carrier 3 is stored in the original storage unit (previously, based on the disk data stored in the memory 225). The disc is stored in the storage portion) (step S33), and the position of the carrier 3 is moved to the standby position, for example, the position facing the storage portion 50b (the position immediately before the lock of the insertion prevention shutter 36 is released). (Step S34), "EJEC
"T MODE" is displayed (step S35), and FIG.
The process moves to E3 shown in. Incidentally, omitting step S34,
After returning the disc to the original storage section in step S33,
The carrier 3 may be made to stand by in that position. If the α flag is not "1" in step S26, the process proceeds to step S33. Incidentally, step S2
If the α flag is "1" in 6, the process proceeds to P1 shown in FIG. 35, but the process may proceed to step S31.

At E3 shown in FIG. 26, it is determined whether or not the eject key 116 is pressed (step S3).
6). If the eject key 116 has not been pressed, it is determined whether the play key 108 has been pressed (step S37). If the play key 108 has not been pressed, it is determined whether the stock key 102 has been pressed (step S38).

If the play key 108 has been pressed in step S37, the process shifts to the play mode (step S8) in FIG. If the stock key 102 is pressed in step S38, the mode is shifted to the stock mode (step S6) in FIG.

If the stock key 102 has not been pressed in step S38, the α key 107 or No. It is determined whether or not the keys (103 to 106) have been pressed (step S41). No. Key (103-106) or α
If the key 107 has not been pressed, step S36.
Move to. In step S41, No. Key (1
03-106) or the α key 107 is pressed, the pressed No. It is determined whether or not there is a disk in the storage section (50a to 50d) corresponding to the key (103 to 106) or an α disk corresponding to the pressed α key 107 (step S42).

No. Discs in storage parts (50a-50d) corresponding to keys (103-106), or α key 10
If there is no α disk corresponding to No. 7, "NO DISC" for notifying the user that there is no corresponding disk is displayed (step S43), and the process proceeds to step S36.

Further, in step S42, No. Key (1
03-106), if there is a disk in the storage section (50a-50d) or an α disk corresponding to the α key 107, it is determined whether or not there is a disk in the carrier 3 at present (step S44). .

If there is a disk in the carrier 3, the pressed No. It is determined whether or not the disc in the storage portion (50a to 50d) corresponding to the key (103 to 106) or the α disc corresponding to the depressed α key 107 and the disc in the carrier 3 are the same. (Step S45).

If the disks in the carrier 3 are not the same, the disk in the carrier 3 is stored in the original storage section (step S46), and the pressed No. Key (10
3 to 106) corresponding to the disks of the storage portions (50a to 50d) or the α corresponding to the pressed α key 107.
The disc is housed in the carrier 3 (step S4
7) and then to E4 shown in FIG.

If there is no disk in the carrier 3 in step S44, the process proceeds to step S47. If the disks in the carrier 3 are not the same in step S45, the process proceeds to E4 shown in FIG.

If the α flag is not "1" in step S11 in FIG. 24, it is determined whether or not there is a disc in the MD device (step S18). If there are discs, "EJECT MODE" is displayed (step S19), and it is determined whether or not there are a plurality of discs in the MD device (step S20). If there are a plurality of discs, the process proceeds to E3 shown in FIG. If the number of the discs is not plural in step S20, step S
Move to 13.

If there is no disc in the MD device in step S18, "NO DISC" for notifying the user that there is no disc is displayed (step S2).
1), shift to the main routine.

In addition, step S in FIG. 25 described above.
If the disc is pulled out at 22, the process proceeds to E2 shown in FIG. 26. At E2 shown in FIG. 26, the carrier 3 is moved to the standby position (the position facing the storage section 50b) ( Step S48), Step S22
It is determined whether or not the disc that has been pulled out in step S is an α disc (step S49). If it is an α disc, the current α flag is set to “0” (step S50) and the No. corresponding to the ejected disc is set. Lamps (103a-1)
07a) is turned off (step S51), and it is determined whether or not there is a disc in the MD device (step S52).

If there is a disc in the MD device, the process proceeds to step S36. If there is no disc in the MD device, the "EJECT MODE" being displayed is turned off (step S53) and the process proceeds to the main routine. If the eject key 116 is pressed in step S36, the process proceeds to step S53.

However, according to the eject mode of the first embodiment, when the discs housed in the storage units (50a to 50d) are ejected, the storage units (50a to 50d) are ejected.
An empty storage portion, which is an empty storage area, is generated during d).

Therefore, each of the storage parts (50a to 5a)
In order to prevent the empty storage portion during 0d), that is, the missing tooth, the following eject mode of the second embodiment can be considered.

Next, the processing operation of the CPU 233 in the eject mode of the second embodiment will be described with reference to FIGS. 27 and 28.
It will be described based on. The same processing operations as those in the first embodiment are designated by the same reference numerals and the description thereof will be omitted.

C in the eject mode of the second embodiment
The processing operation of the PU 233 is the same as the processing operation of the first embodiment except that the disks in the stocker 5 are sequentially aligned and the disk alignment processing for preventing empty storage sections between the storage sections (50a to 50d) is added. is there.

If the eject key 116 is pressed in step S36 in FIG. 27, disk alignment processing is performed (step S54). Although not shown, even if a positive determination is made in step S37 and step S38, after performing this disk alignment processing, the play mode of FIG. 23 (step S
8) or the stock mode (step S6) may be performed.

As shown in FIG. 28, the disc alignment process determines whether or not there is a disc in the # 1 (storage portion 50a) (step S61). If there is a disc in # 1, it is determined whether or not there is a disc in # 2 (the storage section 50b) (step S62). If there is a disk in # 2, it is determined whether or not there is a disk in # 3 (the storage section 50c) (step S63). If there is a disk in # 3, the process proceeds to the main routine.

If there is no disk in # 1 in step S61, it is determined whether or not there is a disk in # 2 (the storage section 50b) (step S64). If there is a disk in # 2, the disk is stored in # 1 to correct the disk data (step S65), and # 3 (storage unit 5
0c) determines whether or not there is a disk (step S66).

If there is a disk in # 3, the disk is stored in # 2 to correct the disk data (step S67), and it is determined whether or not there is a disk in # 4 (storage section 50d). Yes (step S68). If there is a disk in # 4, the disk is stored in # 3 and the disk data is corrected (step S69).

If there is no disk in # 2 in step S64, it is determined whether or not there is a disk in # 3 (storage section 50c) (step S70). If there is a disk in # 3, the disk is stored in # 1 to correct the disk data (step S71), and # 4 (storage unit 5
It is determined whether or not there is a disc in 0d) (step S72). If there is a disk in # 4, #
The disc data is stored in the disc 2 and the disc data is corrected (step S73).

Further, it is determined whether or not there is a disk in # 4 (storage section 50d) (step S74). If there is a disk in # 4, the disk is stored in # 1 and the disk data is corrected (step S75).

If there is no disk in # 2 in step S62, the process proceeds to step S66 and step S6.
If there is no disk in # 3 at 6, the process proceeds to step S72. If there is no disk in # 4 at step S72, the process proceeds to the main routine. In addition, step S74
If there is no disk in # 4, the procedure similarly goes to the main routine. If there is no disk in # 3 in step S63, the process proceeds to step S68 and step S68.
At 68, if there is no disk in # 4, the process proceeds to the main routine.

Therefore, according to the eject mode of the second embodiment, even if the disk is removed from the storage sections (50a to 50d) between # 1 to # 4 by the disk alignment processing, the disk is removed. Since the disks are sequentially packed into the empty storage sections from # 1 (storage section 50a), it is possible to overcome the situation that empty storage sections, that is, missing teeth, occur between the storage sections (50a to 50d).

The disc alignment process was performed when the discs were ejected from the storage section. However, an operation key for prompting the disc alignment process is provided on the front panel.
Even in normal times, the disk alignment processing may be performed in response to a predetermined signal input by the operation key. Also,
The predetermined signal may be a signal when the power is turned on, not by the operation key input.

The disk aligning process is performed in the storage section 50a.
The storage section 50a is # 1, the storage section 50b is # 2, the storage section 50c is # 3, and the storage section 50d is # 4. However, the storage section 50a is # 4, the storage section 50b is # 3, and the storage section 50c is # 2. The section 50d may be # 1, and in this arrangement order, by storing a small number of disks, such as one or two disks, in the storage section 50c and the storage section 50d, Since the storage portions 50c and 50d are closer to the player portion 4, the discs stored in the storage portions 50c and 50d can be quickly mounted on the player portion 4 during disc reproduction. Further, it goes without saying that various effects can be obtained even with other disc alignment orders.

Next, the processing operation of the CPU 233 in the stock mode of the first embodiment will be described with reference to FIGS. 29 and 30.

In FIG. 29, it is determined whether the α flag is "1" (step S81). α flag is "1"
If not, it is determined whether or not the disk is full in the MD device, that is, in the carrier 3 and the storage units (50a to 50d) of the stocker 5 (step S82). If the disk is not full in the MD device, the user is notified that the stock mode has been entered.
"MODE" is displayed (step S83), and the carrier 3 is displayed.
It is determined whether or not there is a disc inside (step S8).
4).

If there is a disc in the carrier 3, a "WAIT" prompting the user to wait is displayed (step S8).
5) It is determined whether or not the game is currently being played (step S86). If playing is in progress, the play operation is stopped (step S87), and the disc is stored in the original storage portion (the storage portion that was stored before the disc was taken out) (step S88).

Next, the carrier 3 is moved to the standby position (step S89), "STOCK STANDBY" for notifying the user that stock preparation is completed is displayed (step S90), and the process proceeds to M1 shown in FIG.

In M1 of FIG. 30, the stock key 10
It is determined whether 2 has been pressed (step S10).
1). Unless the stock key 102 has been pressed,
It is determined whether or not the play key 108 has been pressed (step S102). If the play key 108 has not been pressed, it is determined whether the eject key 116 has been pressed (step S103). If the eject key 116 has not been pressed, the α key 107 or No. It is determined whether or not any of the keys (103 to 106) has been pressed (step S104).

No. If the key (103 to 106) or the α key 107 is not pressed, the process proceeds to step S101, and in step S104, No. Key (10
3 to 106) or if the α key 107 is pressed, the pressed No. It is determined whether there is a disk in the storage section (50a to 50d) corresponding to the key (103 to 106) or an α disk corresponding to the pressed α key 107 (step S105). The pressed No. Storage parts (50a-50) corresponding to the keys (103-106)
If there is a disc of d) or an α disc corresponding to the depressed α key 107, the pressed No. Key (10
3 to 106), "DISC" indicating that there is a disk stored in the storage section (50a to 50d) is displayed (step S106), and the process proceeds to step S101. In addition, the pressed No. Key (103-10
Disks of the storage parts (50a to 50d) corresponding to 6),
Or, if there is no α disc, the pressed No. Storage parts (50a-50) corresponding to the keys (103-106)
d) is a vacant storage part, and notifies the user that the disc can be stored in the vacant storage part "STOCK L
"OAD" is displayed (step S107), and the carrier 3 is displayed.
Is moved to the insertion port position facing the disc insertion port 2 (step S108), and it is determined whether or not the disc is inserted from the disc insertion port 2 (step S109).
If the disc is inserted, the process proceeds to M2 shown in FIG.

If the stock key 102 is pressed in step S101, "STOCK" being displayed is displayed.
Turn off STANDBY ”(step S110),
Move to the main routine. If the play key 108 has been pressed in step S102, the mode shifts to the play mode (step S8) in FIG. If the eject key 116 is pressed in step S103, the eject mode of FIG. 23 (step S7)
Move to.

If the disc is inserted in step S109, the disc is loaded and accommodated in the carrier 3, and the process proceeds to M2 shown in FIG. 29. In M2 shown in FIG. Then, it is determined whether or not the inserted disc is an α disc (step S93). If it is an α disk, set the α flag to “1”
Is set (step S94), and N corresponding to the α key 107 is set.
o. The lamp 107a is turned on (step S95), and the process proceeds to P1 shown in FIG. 35 described later.

If the inserted disc is not the α disc in step S93, the No. Key (103
To 106), the discs are stored in the storage units (50a to 50d) (step S96), and the storage units (5
0a to 50d) corresponding to No. Key (103-10
No. 6 corresponding to 6). The lamps (103a to 106a) are turned on (step S97), and it is determined whether or not the current position of the carrier 3 is the standby position (step S9).
8).

If the position of the carrier 3 is the standby position, the process proceeds to step S90. If the position of the carrier 3 is not the standby position, "WAIT" for prompting the user to wait is displayed (step S99), and the process proceeds to step S89.

If there is no disc in the carrier 3 in step S84, the process proceeds to step S98.

If the α flag is "1" in step S81, the α-DISC indicating that the disc is not stored in the stocker 5 but directly mounted on the player unit 4 (α disc) is set. Display (step S9
1) If the disk is full in the MD device in step S82, that is, if the disk is stored in all the storage sections (50a to 50d) and the carrier 3 also stores the disk, "FULL DIS" that notifies the user that the disk is full in the MD device
C "is displayed (step S92), and the process proceeds to the main routine.

However, according to the stock mode of the first embodiment, when the .alpha. Disc is loaded, the music is immediately reproduced from the beginning, so that the user cannot select the music, which causes a problem in usability.

Therefore, in order to overcome such a situation, the stock mode of the second embodiment can be considered.

Next, the processing operation of the CPU 233 in the stock mode of the second embodiment will be described with reference to FIGS. 30 and 31. The same parts as those in the stock mode of the first embodiment are designated by the same reference numerals and the description thereof will be omitted.

In addition to the processing operation in the stock mode of the first embodiment, the processing operation in the stock mode of the second embodiment stores the TOC information, which is the identification information of the α disk, in the memory 225 in advance, and then sets the pause state. It is to keep. The TOC information is the table of C
It is an abbreviation for ontents, and is disc-specific identification information such as an album name, artist name, performance time for each song, total performance time, serial number, and the like.

After performing the processing operations of steps S81 to S92 in FIG. 31, the process proceeds to M1 shown in FIG. 30, the processing operations of steps S101 to S110 are performed in M1 of FIG. 30, and the disk operation is performed in step S109. If is inserted into the disc insertion slot 2, the process proceeds to M3 shown in FIG.

In M3 shown in FIG. 31, it is determined whether the inserted disc is an α disc (step S121). If the inserted disc is an α disc, the α flag is set to “1” (step S122), and α
No. corresponding to the key 107. The lamp 107a is turned on (step S123), and the α disc is mounted on the player unit 4 (step S124).

Next, the TOC information of the α disc loaded in the player unit 4 is read, and the TOC information is stored in the memory 22.
5 (step S125), and pauses at the address of the beginning of the track on the disc (step S12).
6), start the timer (step S127),
"Please cancel the pause" that prompts the cancellation of the pause is displayed (step S128).

Next, the timer determines whether or not a predetermined time has elapsed (step S129). If the predetermined time has elapsed, the routine goes to P1 shown in FIG. 35 described later.
If the predetermined time has not elapsed, the play key 1
It is determined whether 08 is pressed (step S13).
0). If the play key 108 has not been pressed, it is determined whether the stop key 117 has been pressed (step S131). If the stop key 117 is pressed, the pause operation is canceled, that is, stopped (step S132), and the process proceeds to the main routine. If the predetermined time has elapsed in step S129, the process proceeds to P1 shown in FIG. 35, which will be described later, but it may be stopped.

Also, in step S130, the play key 1
If 08 is pressed, P shown in FIG.
1, and the stop key 117 is pressed in step S131.
If is not pressed, the process proceeds to step S129.

If the disc inserted in step S121 is not an α disc, the N specified in steps S104 and S105 in FIG.
o. The storage section (50a) corresponding to the keys (103 to 106)
Up to 50d) to store the disc (step S13
3), No. corresponding to the storage section (50a to 50d).
No. corresponding to the keys (103 to 106). Lamp (10
3a to 106a) are turned on (step S134), and it is determined whether or not the current position of the carrier 3 is the standby position (step S135).

If the position of the carrier 3 is the standby position, the process proceeds to step S90. If the position of the carrier 3 is not the standby position, "WAIT" is displayed (step S13).
6) and shifts to step S89.

If there is no disk in the carrier 3 in step S84, the process proceeds to step S135.

Therefore, according to the stock mode of the second embodiment, the TOC information of the α disc is read when the α disk player unit 4 is mounted, and the TOC information is stored in the memory 2.
Since it is stored in 25 and then paused, it is possible to perform a music selection operation before executing play, which is convenient.

Further, according to the stock mode of the first embodiment, the TOC information is read in each disc stored in each storage section (50a to 50d) by reading the TOC information when reproducing each disc. Therefore, the TOC reading time is required for the first reproduction, at least after the storage, which causes a situation in which it takes time.

Therefore, in order to overcome such a situation, the stock mode of the third embodiment is considered.

Next, the processing operation of the CPU 233 in the stock mode of the third embodiment will be described with reference to FIGS. 30 and 32. The same parts as those in the stock mode of the first embodiment are designated by the same reference numerals and the description thereof will be omitted.

In the processing operation in the stock mode of the third embodiment, in addition to the processing operation in the stock mode of the first embodiment, TOC information of each disk to be stored in each storage section (50a to 50d) is stored in the memory 225 in advance. Remember.

After performing the processing operations of steps S81 to S92 in FIG. 32, the process proceeds to M1 shown in FIG. 30, the processing operations of steps S101 to S110 are performed in M1 of FIG. 30, and the disk operation is performed in step S109. If is inserted into the disc insertion slot 2, the process proceeds to M7 shown in FIG.

In M7 shown in FIG. 32, step S1
It is determined whether or not the inserted disc is an α disc at step 09 (step S141). If it is an α disk, the α flag is set to “1” (step S142), and the α
No. corresponding to the key 107. The lamp 107a is turned on (step S143), and the process proceeds to P1 shown in FIG. 35 described later.

If the disc is not the α disc in step S141, the disc is loaded into the player unit 4 (step S144), and the TOC information in the disc and the disc is the PRE-M type or the RECORD.
The disk information for identifying whether it is the ABLE type is read and stored in the memory 225 (step S14).
5) The contents of the stored and held TOC information, for example, the album name recorded on the disc and the total playing time thereof are displayed (step S146).

Next, the N designated in step S104
o. Storage part (50a) corresponding to the keys (103 to 106)
Up to 50d) to store the disc (step S14
7), the designated No. No. corresponding to the keys (103 to 106). The lamps (103a to 106a) are turned on (step S148), and it is determined whether the current position of the carrier 3 is the standby position (step S149).

If the position of the carrier 3 is not the standby position,
"WAIT" is displayed (step S150), and the process proceeds to step S89. If the position of the carrier 3 is the standby position, the process proceeds to step S90. Also, step S8
If there is no disc in the carrier 3 in step 4, step S
149. Of course, also in the third embodiment, the TOC information may be read after inserting the .alpha.

Therefore, according to the stock mode of the third embodiment, when the discs are stored in the respective storage parts (50a to 50d), the discs to be stored are first mounted on the player part 4 and the respective discs are stored. The TOC information is read, the TOC information is stored in the memory 225, and then each storage unit (5
0a to 50d) so that when playing each disc stored in the storage section (50a to 50d), the music selection using the TOC information is performed based on the TOC information stored in the memory 225. It is possible to promptly perform functional operations and the like.

By the way, according to the stock mode of the first embodiment, when the disks are stored in the respective storage sections (50a to 50d), the No. A situation occurs in which the desired storage units (50a to 50d) must be specified with the keys (103 to 106).

Therefore, in order to overcome such a situation, the stock mode of the fourth embodiment, which is the gist of the present invention, can be considered.

Next, the processing operation of the CPU 233 in the stock mode of the fourth embodiment will be described with reference to FIGS. 33 and 34. The same parts as those in the stock mode of the first embodiment are designated by the same reference numerals and the description thereof will be omitted.

In the processing operation in the stock mode of the fourth embodiment, in addition to the processing operation in the stock mode of the first embodiment, the disks are sequentially stored in the respective storage sections (50a-50d) in a predetermined storage order. It was done like this.

After performing the processing operations of steps S81 to S88 in FIG. 33, the position of the carrier 3 is moved to the position of the disc insertion slot 2 (step S16).
1), "STOCK LOAD" is displayed (step S162), and the process proceeds to M4 shown in FIG.

In M4 shown in FIG. 34, it is determined whether or not the stock key 102 is pressed (step S17).
1). Unless the stock key 102 has been pressed,
It is determined whether or not the play key 108 has been pressed (step S172). If the play key 108 has not been pressed, it is determined whether the eject key 116 has been pressed (step S173). If the eject key 116 has not been pressed, it is determined whether a disc has been inserted into the disc insertion slot 2 (step S17).
4).

If the disc is not inserted, the process proceeds to step S171. If the disc is inserted, the process proceeds to M6 in the figure. Incidentally, step S17
1, step S172, step S173, step S
In the loop consisting of 174, if there is no input within a predetermined time and no disc is inserted, the stock mode may be automatically terminated and the mode may be changed to another mode.

In M6, it is determined whether the disc inserted in step S174 is an α disc (step S175). If it is an α disk, the α flag is set to “1” (step S176), and the No. corresponding to the α key 107 is selected. The lamp 107a is turned on (step S
177), and the processing shifts to P1 shown in FIG. 35 described later.

Further, in step S175, the disc is a
If it is not a disc, it is determined whether or not there is a disc in the # 1 (storage unit 50a) (step S178). # 1
If there is no disc inside, the inserted disc is stored in # 1 (step S179), and the No. corresponding to the storage unit (storage units 50a to 50d) in which the disc is stored is stored.
The lamps (103a to 106a) are turned on (step S180).

Next, it is determined whether all the storage sections (50a-50d) are full (step S181). If all the storage sections (50a to 50d) are full, "STOCK LOAD" being displayed is turned off (step S18).
2) Then, it is determined whether or not the current position of the carrier 3 is the standby position (step S183). If the current position of the carrier 3 is not the standby position, the position of the carrier 3 is moved to the standby position (step S184), and the process proceeds to the main routine. If the current position of the carrier 3 is the standby position in step S183, the process proceeds to the main routine.

In step S171, the stock key 102
If is pressed, the process proceeds to step S182.

In step S172, the play key 1
If 08 is pressed, the mode shifts to the play mode of FIG. 23 (step S8), and if the eject key 116 is pressed in step S173, then FIG.
The process proceeds to the eject mode 3 (step S7).

If there is a disk in # 1 in step S178, it is determined whether or not there is a disk in # 2 (the storage section 50b) (step S185). If there is no disc in # 2, the inserted disc is stored in # 2 (step S186), and the process proceeds to step S180. If there is a disc in # 2 in step S185, it is determined whether or not there is a disc in # 3 (the storage unit 50c) (step S187). If there is no disc in # 3, the inserted disc is stored in # 3 (step S188), and the process proceeds to step S180. If there is a disk in # 3 in step S187, the inserted disk is stored in # 4 (storage section 50d) (step S189), and step S180
Move to.

If the stocker 5 is not full in step S181, the process proceeds to M5 shown in FIG.

In M5 shown in FIG. 33, it is determined whether or not the current position of the carrier 3 is the insertion opening position facing the disk insertion opening 2 (step S163). If it is the insertion opening position, the process proceeds to step S162, and if it is not the insertion opening position, "WAIT" is displayed (step S16).
4) and the process proceeds to step S161. Also, step S
If there is no disc in the carrier 3 at 84, the process proceeds to step S163.

Therefore, according to the stock mode of the fourth embodiment, No. The disks can be quickly stored in the respective storage sections (50a to 50d) in a predetermined storage order without the need to select the keys by the keys (103 to 106).

In the stock mode of the fourth embodiment,
As the predetermined storage order, the first storage section 50a from the top of the stocker 5 is # 1, the second storage section 50b is # 2, the third storage section 50c is # 3, and the fourth storage section 50d is # 4. is there.

Therefore, according to the stock mode of the fourth embodiment, when a small number of discs are to be stored, the discs are sequentially stored from the storage portion 50a adjacent to the disc insertion slot 2, so that the discs can be sequentially stored. The effect is that the time required for storage is short.

Incidentally, the disc insertion port 2 and the insertion port 29
When the carrier 3 is located at a position facing the storage portion 50a, that is, a position corresponding to the disc insertion port 2, the opening / closing mechanism of the disc insertion port 2 is rotated according to the rotation of the insertion prevention shutter 36. Also, the insertion port 29 is open. When the disc stored in the storage portion 50a is to be played back, the carrier 3 moves from the standby position to the insertion port position to open the disc insertion port 2 and then from the opened disc insertion port 2 It is also possible that a foreign matter enters the MD device.

Therefore, in order to overcome such a situation, a favorable effect can be obtained even if the predetermined storage order in the stock mode of the fourth embodiment is set as follows.

First, the storage portion 50a is # 4, and the storage portion 5 is
0b is # 1, storage section 50c is # 2, storage section 50d is # 3.
In the case of the storage order as described above, since the disc is stored in the storage unit 50a at the end, there is an opportunity that the disc insertion opening 2 is opened and foreign matter enters from the disc insertion opening 2. It is possible to quickly store the disc in each storage unit while reducing the number as much as possible.

Further, the storage portion 50a is # 4, and the storage portion 5 is
0b is # 3, storage section 50c is # 2, storage section 50d is # 1.
When the storage order is set to, the small number of disks such as one or two disks are stored in the storage section 50c and the storage section 50d, so that the storage section 50c and the storage section 50 are stored.
Since d is closer to the player unit 4, the discs housed in the storage unit 50c and the storage unit 50d can be quickly mounted in the player unit 4 when the disc is reproduced.

Further, the storage portion 50a is # 4, and the storage portion 5 is
0b is # 3, storage section 50c is # 1, storage section 50d is # 2.
The same effect can be obtained even when the storage order is set to.

Next, the CPU 2 in the play mode
The processing operation of 33 will be described with reference to FIGS. 35 and 36. It should be noted that if the play key 108 is pressed during the reproduction of the disc, the stop or pause is started, and if the play key is further pressed, the reproduction is performed again. When another mode key is pressed during stop or pause, the mode is entered.

In FIG. 35, it is determined whether the α flag is "1" (step S201). If the α flag is "1", "PLAY MODE" for notifying the user that the play mode has been entered is displayed (step S202), and it is determined whether or not there is a disc on the player unit 4 (step S203). ). If there is no disc on the player unit 4, the disc is mounted on the player unit 4 (step S204), the play operation is started (step S205), the "PLAY MODE" being displayed is turned off (step S206), and the main Go to routine.

Also, in step S203, the player section 4
If there is a disc above, the process proceeds to step S205.

If the α flag is not "1" in step S201, it is determined whether or not there is a disk in the MD device (step S207). If there is no disc in the MD device, "NO DISC" is displayed (step S208) and the process proceeds to the main routine.

If there are discs in the MD device in step S207, "PLAY MODE" is displayed (step S209) and it is determined whether or not there are a plurality of discs (step S210). If there are not a plurality of discs, it is determined whether there are discs in the carrier 3 (step S211). If there is a disc in the carrier 3, the process proceeds to step S203. If there is no disc in the carrier 3, the disc is accommodated in the carrier 3 (step S212), and the process proceeds to step S204.

If there are a plurality of discs in step S210, the process goes to P2 shown in FIG.

At P2 shown in FIG. 36, the play key 1
It is determined whether 08 is pressed (step S22).
1). If the play key 108 has not been pressed, it is determined whether the stock key 102 has been pressed (step S222). If the stock key 102 has not been pressed, it is determined whether the eject key 116 has been pressed (step S223). Eject key 116
If is not pressed, No. Key (103-10
6) or it is determined whether or not the α key 107 has been pressed (step S224). No. Keys (103 to 106)
Or, if the α key 107 is pressed, the No. Storage parts (50a-50) corresponding to the keys (103-106)
It is determined whether or not there is a corresponding disk in d) or an α disk corresponding to the α key 107 (step S225).
If there is a corresponding disc or an α disc, it is determined whether or not there is a disc currently in the carrier 3 (step S
226). If there is no disc in the carrier 3, the corresponding disc in the storage units (50a to 50d) designated in steps S224 and S225 or the α disc is stored in the carrier 3 (step S227), and the disc is played in the player unit. 4 (step S22
8), shift to the play operation (step S229),
The process moves to step S221.

Further, in step S221, the play key 1
If 08 is pressed, the process proceeds to P3 shown in FIG. In step S222, the stock key 102
If is pressed, the process shifts to the stock mode (step S6) in FIG. 23. If the eject key 116 is pressed in step S223, the process shifts to the eject mode (step S7) in FIG. .

Further, in step S224, No. If the key (103 to 106) or the α key 107 is not pressed, the process proceeds to step S221. If there is no corresponding disc in step S225, "NO DISC" indicating that there is no corresponding disc is displayed (step S232), and the process proceeds to step S221.

If there is a disk in the carrier 3 in step S226, the disk in the carrier 3 and the storage section (50a-50d) designated in step S224.
It is determined whether or not the corresponding disc is the same (step S233). If they are the same, the process proceeds to step S228. If they are not the same, the disk in the carrier 3 is stored in the original storage portion (step S234), and the process proceeds to step S227.

In the play mode, it is determined that the predetermined time has elapsed since the process of P2 in FIG. 36 was performed, and it is determined whether or not the predetermined time has elapsed immediately before step S221. In this case (that is, when there is no various key input or when no key input is accepted), the discs stored in the storage units such as the storage unit 50a and the storage unit 50d are automatically played in a predetermined order. May be.

In the above embodiment, the carrier 3 and the player section 4 are independent of each other. However, as another embodiment, the player section 4 is incorporated in the carrier 3 to have an integrated structure. With such a configuration, the player unit 4 is set to Y in FIG.
Since it is displaced in the 1 and Y2 directions, the disk mounted on the carrier 3 can be rapidly rotated.

In the above embodiment, the α key 10
Although the α flag is set to “1” according to the input of 7, the stocker 5 cannot be stored, for example, when all the storage units (50a to 50d) are full, or the stocker is stored for some reason. The CPU 233 may detect the failure of the stocker 5 and set the α flag to "1". A failure detecting means for detecting may be provided in the MD device, and the α flag may be set to "1" according to a detection signal from the failure detecting means.

Further, in the above embodiment, the standby position of the carrier 3 is set to the position facing the opening of the storage part 50b, but the position is not limited to the position facing the storage part 50b, but the disk insertion port 2 is set to face. Any position may be used as long as it is not a position, that is, a position where the disc insertion opening 2 is opened. For example, when the standby position is a position facing the storage section 50c, the storage order is changed from the storage section 50c to the storage section 50d, the storage section 50a, the storage section 50b, or from the storage section 50c to the storage section 50d. , Storage 50b, storage 50a
You may make it etc. Further, the standby position is not limited to the facing position of each of the storage parts (50a to 50d), but also the intermediate position between the storage parts 50a and 50b and the storage part 50b.
Intermediate position between the housing 50c and the housing 50c, housing 50c and housing 5
It may be at an intermediate position between 0d and the intermediate position between the storage section 50d and the player section 4 or the like.

Further, in the above embodiment, the opening / closing operation of the insertion prevention shutter 36 with respect to the disc insertion opening 2 is performed in conjunction with the raising / lowering operation of the carrier 3, but it is not limited to the raising / lowering operation of the carrier 3. Alternatively, the opening / closing operation of the insertion prevention shutter 36 may be performed according to a predetermined input, for example, an electric command.

Further, in the above-mentioned embodiment, the MD device for reproduction only is described, but the same effect can be obtained by making the MD device capable of recording also have the same structure. Further, the play / pause key 108 may be a play / stop key, or a stop key or a pause key may be provided separately from the play key.

Further, although a maximum of 5 discs can be stored in the above embodiment, it goes without saying that a larger number of discs can be stored by increasing the number of storage portions of the stocker 5. Yes.

In the above embodiment, the recording medium is the MD, so the description is applied to the MD device. However, the recording medium may be an optical recording medium such as a CD or a video disc, or a magnetic recording medium such as a floppy disc. It is needless to say that, by doing so, it can be similarly applied to an apparatus that handles these recording media.

[0191]

According to the invention of claim 1, when the recording medium is directly inserted and stored in the medium recording / reproducing apparatus,
The transport time required to transport the inserted recording medium to the specific storage area on the insertion opening side, that is, from the insertion opening to the storage area is the most without the operation of designating the storage area each time the recording medium is inserted. Since the storage areas are sequentially stored from the short storage area, the operability of the medium recording / reproducing apparatus can be improved, and when there are few recording media in each storage area, the time required for the storage operation of the recording medium is reduced. It can be shortened.

According to the seventh aspect of the invention, in the case where an empty storage area which impairs the arrangement in the storage order, that is, when a missing tooth occurs, the recording medium stored in the storage area next to the empty storage area is stored. , A specific storage area on the side of the insertion opening,
That is, since the storage areas are sequentially packed from the insertion opening to the storage area from the storage area with the shortest transfer time to eliminate missing teeth, the operability of the medium recording / reproducing apparatus can be improved. In addition, when the number of recording media in each storage area is small, the time required for the storage operation of the recording media can be shortened.

[Brief description of drawings]

FIG. 1 is a sectional view showing the outline of the internal structure of a vehicle-mounted MD autochanger device according to an embodiment of the present invention.

FIG. 2 is a plan view showing a configuration of a general MD.

FIG. 3 is a plan view showing the relationship between the left and right elevator plates, the carrier, and the stocker as seen from the direction of the arrow A in FIG.

FIG. 4 is a view from the direction B in FIG.

5 is a view from the direction C in FIG.

FIG. 6 is a plan view showing a disc insertion opening and an opening / closing mechanism of the insertion opening.

FIG. 7 is a front view showing the opening / closing mechanism.

FIG. 8 is an explanatory diagram showing a left elevator plate on a side surface of the opening / closing mechanism.

FIG. 9 is a side view showing a dustproof door opening / closing member.

FIG. 10 is a side view of the insertion prevention shutter.

FIG. 11 is an operation explanatory view showing the opening / closing mechanism.

FIG. 12 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 13 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 14 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 15 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 16 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 17 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 18 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 19 is an operation explanatory view showing the opening / closing mechanism when a disc is inserted.

FIG. 20 is a plan view showing a front panel.

FIG. 21 is a plan view showing the structure of a carrier.

FIG. 22 is a block diagram showing a configuration of the vehicle-mounted MD automatic changer device.

FIG. 23 is a flowchart showing a main routine of a CPU in the vehicle-mounted MD automatic changer device.

FIG. 24 is a CP in the eject mode according to the first embodiment.
It is a flowchart which shows the processing operation of U.

FIG. 25 is a CP in the eject mode according to the first embodiment.
It is a flowchart which shows the processing operation of U.

FIG. 26 is a CP in the eject mode of the first embodiment.
It is a flowchart which shows the processing operation of U.

FIG. 27 is a CP in the eject mode according to the second embodiment.
It is a flowchart which shows the processing operation of U.

FIG. 28 is a CP in the eject mode of the second embodiment.
It is a flowchart which shows the processing operation of U.

FIG. 29 is a CPU in the stock mode according to the first embodiment.
3 is a flowchart showing the processing operation of FIG.

FIG. 30 is a CPU in the stock mode according to the first embodiment.
3 is a flowchart showing the processing operation of FIG.

FIG. 31 is a CPU in the stock mode according to the second embodiment.
3 is a flowchart showing the processing operation of FIG.

FIG. 32 is a CPU in the stock mode according to the third embodiment.
3 is a flowchart showing the processing operation of FIG.

FIG. 33 is a flowchart showing the processing operation of the CPU in the stock mode of the fourth embodiment which is the subject of the present invention.

FIG. 34 is a flowchart showing the processing operation of the CPU in the stock mode of the fourth embodiment which is the subject of the present invention.

FIG. 35 is a flowchart showing the processing operation of the CPU in the play mode.

FIG. 36 is a flowchart showing the processing operation of the CPU in the play mode.

[Explanation of symbols]

2 Disc Insertion Port (Insertion Port) 3 Carrier (Conveying Means) 4 Player Section (Medium Driving Means) 5 Stocker (Medium Storage Means) 50a to 50d Storage Sections (Storage Areas) 51a to 51d Stock Completion Sensor (Storage Medium Detection Means) 102 stock key (operation means) 233 CPU (control means)

Claims (7)

[Claims] 1. A medium accommodating means for accommodating a plurality of accommodating areas in a predetermined direction and accommodating a recording medium in each accommodating area, and a position close to a specific accommodating area in the plurality of accommodating areas, An insertion port for inserting a recording medium, a medium driving unit for reproducing information recorded on the recording medium or recording new information on the recording medium, and a unit movable in the predetermined direction and close to the medium driving unit. If possible, a conveying means for accommodating the recording medium being mounted in the medium accommodating means in response to an accommodating drive signal, an operating means for inputting a storage command for the recording medium, and a mounting means for accommodating the conveying means in response to the accommodating command. And a control means for sending out the storage drive signal for sequentially storing the internal recording medium from a specific storage area on the side of the insertion slot to a storage area in a direction close to the medium driving means. Medium Recording and reproducing apparatus. 2. The medium recording / reproducing apparatus according to claim 1, wherein the insertion port is located on a side opposite to the medium driving unit with respect to a predetermined direction of the medium housing unit. 3. A storage medium detection unit for detecting an empty storage region in which a recording medium is not stored in the storage region, wherein the control unit changes from a specific storage region on the insertion opening side to the medium driving unit. When a recording medium that impairs the arrangement of the storage order for sequentially storing the storage areas in the approaching direction is ejected from the insertion slot, the recording medium is stored in a predetermined order at a predetermined timing with respect to the transporting means. The medium recording / reproducing apparatus according to claim 1. 4. The medium recording / reproducing apparatus according to claim 3, wherein the predetermined timing is a timing at which the discharging operation of the conveying unit that discharges the recording medium from the insertion port is completed. 5. The predetermined order is a storage order for sequentially storing from a specific storage area on the side of the insertion slot to a storage area in a direction close to the medium driving means. Or the medium recording / reproducing apparatus as described in 4. 6. The predetermined order is a storage order for sequentially storing from a storage area closest to the medium driving means to a storage area in a direction opposite to a direction of being close to the medium driving means. The medium recording / reproducing apparatus according to claim 3 or 4. 7. A medium accommodating means for accommodating a plurality of accommodating areas in a predetermined direction and accommodating a recording medium in each accommodating area, and a position close to a specific accommodating area in the plurality of accommodating areas, An insertion port for inserting a recording medium, a medium driving unit for reproducing information recorded on the recording medium or recording new information on the recording medium, and a unit movable in the predetermined direction and close to the medium driving unit. Conveying means for accommodating the recording medium currently mounted in the medium accommodating means, and accommodating medium detecting means for detecting an empty accommodating area in which the recording medium is not accommodated in the accommodating area; In the case where an empty storage area occurs in the array of the storage order for sequentially storing from the specific storage area on the insertion opening side to the storage area in the direction close to the medium driving means,
A medium recording / reproducing apparatus comprising: a control unit that stores the recording medium, which is stored next to the empty storage area, in the storage unit again in the storage unit.