JPH104518A - Image reading device and storage medium for storing control procedure for image reading device - Google Patents

Abstract

(57) [Summary] The present invention reduces the number of components by causing an image reading unit to perform perforation detection and bar code reading, thereby enabling downsizing and cost reduction of the apparatus. It is an object to provide an image reading device and a storage medium for storing a control procedure for the image reading device. SOLUTION: Illuminating means 9 arranged so as to be able to illuminate both an image storage area and a perforation of a film, and an image which outputs an image signal of an image storage area of a film and outputs a perforation detection signal indicating the presence of perforation. Reading means 11, moving means 12 for relatively moving at least one of the film and the image reading means in a sub-scanning direction intersecting with the main scanning direction, and a head for reading the image storage area of the film based on the perforation detection signal. Control means 1 for controlling the moving means so that the position is located at the reading position of the image reading means.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

[0001] 1. Field of the Invention [0002] The present invention relates to an image reading apparatus for reading a film image taken by a camera and a storage medium for storing a control procedure for the image reading apparatus.

[0002]

2. Description of the Related Art FIG. 11 is an explanatory diagram of a conventional image reading system. The film used in cameras is often a roll film stored in a cartridge.
The roll film 110 shown in FIG. 11 shows a state in the middle of being unwound from the cartridge. A plurality of image storage areas 111 are provided on the roll film 110 at predetermined intervals. 2 is added to one end of each image storage area 111 in the short direction.
Two perforations 112 and 113 are provided.
A barcode 114 is provided at the other end of each image storage area 111 in the short direction.

[0005] As shown in the figure, a predetermined area 115 indicated by hatching in an image storage area 111 is a reading range in one main scan illuminated by an optical system. The transmitted light in the reading range 115 in one main scan is guided to an image reading unit (hereinafter, referred to as a “line sensor”) not shown. The reading range 115 in one main scan is set to the roll film 11.
Moving in the longitudinal direction of 0 is called sub-scanning. Thus, the image transferred to the image storage area 111 is read.

[0004] Two perforations 112, 113
Are provided near the corresponding ends in order to define the position of each end of the image storage area 111 in the longitudinal direction of the roll film 110. These two perforations 112 and 113 are optically detected by a document position detection sensor such as a photo interrupter. Based on the output of the document position detection sensor, the reading range 115 in one main scan is set to the reading start position (one end in the longitudinal direction) of the image storage area 111, and from there, toward the reading end position (the other end in the longitudinal direction). The movement of the roll film 110 is controlled such that the roll film 110 is moved.

The bar code 114 indicates film information of the film by a density difference.
The film information includes the type and type of the film, the frame number, the total number of frames, and the like. The type of the film indicates whether the film is a color film, a monochrome film, a positive film, a negative film, or the like.

The film information of the bar code 114 is
It is read using a dedicated optical information reading sensor and encoder.

[0007]

In a conventional image reading apparatus, reading of a film image, detection of perforation, and reading of a bar code are performed by independent systems. Therefore, the number of parts increases, and it is difficult to reduce the size and cost of the device.

[0008] An image reading apparatus has been proposed in which a line sensor can read out of an image storage area and a line sensor performs perforation detection and bar code reading (for example, Japanese Patent Application Laid-Open No. 7-212535). . However, the exposure amount is determined so as to be optimal for the image in the image storage area. Accordingly, saturation occurs in a transparent portion of perforation, and blooming occurs. In the above publication, there are various problems to be solved, such as how to solve this problem is not clear.

SUMMARY OF THE INVENTION The present invention has been made to solve such a problem, and reduces the number of parts by causing an image reading means to detect a perforation and read a bar code. It is an object of the present invention to provide an image reading apparatus capable of reducing the cost and cost, and a storage medium for storing a control procedure for the image reading apparatus.

[0010]

According to a first aspect of the present invention, there is provided an image reading apparatus comprising: an illuminating means arranged to illuminate both an image storage area of a film and a perforation; Converting and scanning in the main scanning direction to output an image signal or a perforation detection signal indicating the presence of perforation, and sub-scanning in which at least one of the film and the image reading means crosses the main scanning direction. Moving means for relatively moving in the direction, and control means for controlling the moving means based on the perforation detection signal such that the reading start position of the image storage area of the film is located at the reading position of the image reading means. It is characterized by having.

According to a second aspect of the present invention, there is provided the image reading apparatus according to the first aspect, further comprising a designation means for outputting a frame designation signal and designating a frame to be read from an image storage area of the film. The control means controls the moving direction of the film by the moving means based on the frame designation signal and the perforation detection signal. Claim 3
The image reading device according to claim 1, wherein the image reading device according to claim 1, within a predetermined time after outputting the frame designation signal,
The control means stops the moving means based on the fact that the image reading means does not output the perforation detection signal.

According to a fourth aspect of the present invention, there is provided the image reading apparatus according to the first aspect, wherein the image in the image storage area is separated into a plurality of color elements using the illumination light of the illumination means. Wherein the image reading means detects the perforation with the color element of the color separation means which does not pass through the film substrate most. The image reading device according to claim 5 is the image reading device according to claim 4,
The color separation unit is a light emitting unit of the illumination unit that sequentially illuminates a plurality of colors.

According to a sixth aspect of the present invention, there is provided an image reading apparatus, comprising: an illuminating means for illuminating an image storage area of a film, a bar code including frame number information; and a light input through the film. By photoelectrically converting and scanning in the main scanning direction, an image reading unit that outputs an image signal or a barcode signal indicating barcode information, and at least one of the film and the image reading unit in a direction intersecting with the main scanning direction. Moving means for relatively moving in a certain sub-scanning direction, specifying means for outputting a frame specifying signal and specifying a frame to be read from the image storage area of the film, and moving means based on the frame specifying signal and the bar code signal And control means for controlling the direction of movement of the film.

According to a seventh aspect of the present invention, in the image reading apparatus according to the sixth aspect, the image reading means transmits a bar code signal corresponding to the frame designation signal within a predetermined time after outputting the frame designation signal. The control means stops the moving means based on no output. The image reading device according to claim 8, wherein the illumination unit is arranged so as to be able to illuminate both the image storage area of the film, the perforation, and the bar code including the frame number information, and the light input through the film. By photoelectrically converting and scanning in the main scanning direction, an image reading unit that outputs an image signal or a perforation detection signal indicating presence of perforation or a barcode signal indicating barcode information,
Moving means for relatively moving at least one of the film and the image reading means in the sub-scanning direction which is a direction intersecting with the main scanning direction, and designation of outputting a frame designation signal and designating a frame to be read from the image storage area of the film; Means, a counter for counting the frame number of the image storage area based on the perforation detection signal, and control means for matching the frame number counted by the counter with the frame number of the bar code signal.

According to a ninth aspect of the present invention, there is provided an image reading apparatus, comprising: an illuminating means arranged to illuminate an image storage area of a film and a final perforation indicating a rear end of the film; Image reading means for outputting an image signal by converting and scanning in the main scanning direction, and movement for relatively moving at least one of the film and the image reading means in the sub-scanning direction which is a direction intersecting with the main scanning direction. Means, and final perforation detecting means for detecting final perforation and outputting a final perforation detection signal.

According to a tenth aspect of the present invention, in the image reading apparatus of the ninth aspect, the image reading means also serves as the final perforation detecting means. An image reading device according to an eleventh aspect is the image reading device according to the ninth aspect, wherein the image reading device outputs a frame designation signal,
The camera further comprises a designating means for designating a frame to be read from the image storage area of the film, and the moving means is stopped based on the fact that the final perforation detecting means does not output the final perforation detecting signal within a predetermined time after outputting the frame designating signal. It is characterized by further comprising a control means for causing the control unit to perform the control.

According to a twelfth aspect of the present invention, in the image reading apparatus of the first aspect, an ND filter is disposed between the illumination means and the image reading means. It is characterized by having a mark.

According to a thirteenth aspect of the present invention, in the image reading apparatus according to the first aspect, the control means perforates an output exceeding a threshold value of the perforation detection means. It is characterized in that it is determined as a detection signal. A storage medium for storing a control procedure for the image reading apparatus according to claim 14, wherein the storage means is arranged so as to be able to illuminate both the image storage area of the film and the perforation, and photoelectrically converts light input through the film. An image reading unit that outputs an image signal or a perforation detection signal indicating that there is perforation by scanning in the main scanning direction; and a sub-scanning direction in which at least one of the film and the image reading unit intersects with the main scanning direction. And a moving means for moving the image reading device relative to the image reading device, wherein a reading start position of an image storage area of the film is set to a reading position of the image reading device based on a perforation detection signal. A control procedure for controlling the moving means so as to be located at

According to a fifteenth aspect of the present invention, there is provided a storage medium for storing a control procedure for the image reading apparatus, wherein the image reading apparatus outputs a frame designation signal and outputs a frame designation signal to the image storage area of the film. The recording medium further includes a designating means for designating a frame to be read, and the storage medium further stores a control procedure for controlling a moving direction of the film by the moving means based on the frame designating signal and the perforation detection signal. The storage medium for storing the control procedure for the image reading apparatus according to claim 16 is the storage medium according to claim 14, wherein the image reading means outputs the perforation detection signal within a predetermined time from the output of the frame designation signal. It is characterized in that a control procedure for stopping the moving means is further stored based on no output.

The storage medium for storing the control procedure for the image reading device according to the seventeenth aspect is the storage medium according to the fourteenth aspect, wherein the image reading device uses the illumination light of the illumination means to store the image in the image storage area. The image processing apparatus further includes a color separation unit that separates the image into a plurality of color components, and the storage medium further stores a detection procedure in which the image reading unit detects perforation with the color component of the color separation unit that does not pass most through the film base. Features.

A storage medium for storing a control procedure for the image reading apparatus according to claim 18, wherein the storage means is arranged to illuminate both an image storage area of the film, a bar code including frame number information, and a film. By photoelectrically converting the light input through the device, and scanning in the main scanning direction, an image reading unit that outputs an image signal or barcode information to a barcode signal, and at least one of a film and an image reading unit. Control procedure for an image reading apparatus having moving means for relatively moving in a sub-scanning direction which is a direction intersecting with the main scanning direction, and specifying means for outputting a frame specifying signal and specifying a frame to be read from an image storage area of the film. A control procedure for controlling the moving direction of the film by the moving means based on the frame designation signal and the bar code signal. Characterized in that it 憶.

According to a nineteenth aspect of the present invention, in the storage medium for storing a control procedure for the image reading apparatus according to the eighteenth aspect of the present invention, the image reading means transmits the frame designation signal within a predetermined time after outputting the frame designation signal. And a control procedure for stopping the moving means based on not outputting the barcode signal corresponding to. Claim 2
0, a storage medium for storing a control procedure for the image reading apparatus described in No. 0, an image storage area of the film, a perforation, a illuminating unit arranged so as to be able to illuminate both a bar code including frame number information, and a film. By photoelectrically converting the input light and scanning in the main scanning direction,
An image reading means for outputting a bar code signal of an image signal or a perforation detection signal indicating the presence of perforation or bar code information, and at least one of the film and the image reading means in a sub scanning direction which is a direction intersecting with the main scanning direction. Moving means for temporarily moving the frame, a designating means for outputting a frame designation signal and designating a frame to be read from the image storage area of the film, and a counter for counting the frame number of the image storage area based on the perforation detection signal. A storage medium for storing a control procedure for an image reading apparatus, wherein a control procedure for matching a frame number counted by a counter with a frame number of a barcode signal is stored.

According to a twenty-first aspect of the present invention, a storage medium for storing a control procedure for the image reading apparatus includes: an illuminating means arranged to illuminate an image storage area of the film and a final perforation indicating a rear end of the film; Image reading means for outputting an image signal by photoelectrically converting light input through the main scanning direction and scanning in the main scanning direction, and sub-scanning in which at least one of the film and the image reading means crosses the main scanning direction. Moving means for relatively moving in the direction, final perforation detecting means for detecting the final perforation, outputting a final perforation detection signal, and specifying means for outputting a frame specifying signal, and specifying a frame to be read from the image storage area of the film; A storage medium for storing a control procedure for an image reading apparatus having
A control procedure for stopping the moving means based on the fact that the final perforation detecting means does not output the final perforation detecting signal within a predetermined time from the output of the frame designation signal is stored.

A storage medium for storing a control procedure for the image reading apparatus according to claim 22 is a storage medium storing the control procedure.
2. The storage medium according to claim 1, further comprising a determination step of determining an output exceeding a threshold value of the perforation detection means as a perforation detection signal.

(Operation) In the image reading apparatus according to the first aspect, the illumination means illuminates both the image storage area of the film and the perforation. The image reading unit photoelectrically converts the light input through the film and scans the light in the main scanning direction, thereby outputting an image signal and outputting a perforation detection signal indicating the presence of perforation. The moving means relatively moves at least one of the film and the image reading means in a sub-scanning direction which is a direction intersecting with the main scanning direction.

Then, the control means controls the moving means based on the perforation detection signal such that the reading start position of the image storage area of the film is located at the reading position of the image reading means.

That is, the image reading means can detect the perforation. Therefore, the reading start position of each image storage area of the film can be positioned at the reading position of the image reading means without providing any special means for detecting perforation. In the image reading apparatus according to the second aspect, in the image reading apparatus according to the first aspect, the designation unit outputs a frame designation signal, designates a frame to be read from the image storage area of the film, and transmits the frame designation signal and the par. The control means controls the moving direction of the film by the moving means based on the fork detection signal.

That is, it is possible to easily access the designated frame. In the image reading device according to the third aspect, in the image reading device according to the first aspect, when the image reading unit does not output the perforation detection signal within a predetermined time from the output of the frame designation signal, the control unit may include: Stop moving means. That is, when the film is not smoothly transported, it can be detected.

According to a fourth aspect of the present invention, in the image reading apparatus of the first aspect, the image reading means detects perforation by using a color element of the color separating means which does not pass through the film base most. That is, the perforation can be reliably detected based on the light transmitted through the film and the light passing through the perforation.

In the image reading apparatus according to the fifth aspect, in the image reading apparatus according to the fourth aspect, the color separation unit is a light emitting unit of an illumination unit that sequentially illuminates a plurality of colors. That is,
The color separation means does not need to be newly provided, and existing equipment can be effectively used. In the image reading device according to claim 6,
Illuminating means illuminates both the image storage area of the film and the bar code including frame number information. The image reading means is
By photoelectrically converting the light input via the film and scanning in the main scanning direction, the image in the image storage area is converted into an image signal, and the barcode information is converted into a barcode signal. The moving means relatively moves the film and the image reading means in a sub-scanning direction intersecting with the main scanning direction.

Then, the designating means outputs a frame designating signal and designates a frame to be read from the image storage area of the film. The control means controls the moving direction of the film by the moving means based on the frame designation signal and the bar code signal. That is, it is possible to easily access the designated frame. According to a seventh aspect of the present invention, in the image reading apparatus of the sixth aspect, the image reading unit does not output a barcode signal corresponding to the frame designation signal within a predetermined time after outputting the frame designation signal. On the basis of,
The control means stops the moving means.

That is, when the film is not transported smoothly, it can be detected. In the image reading apparatus according to the eighth aspect, the illuminating means is arranged so as to be able to illuminate both the image storage area of the film, the perforations, and the barcode including the frame number information. The image reading means is
Scan the light input through the film in the main scanning direction,
An image in the image storage area is converted into an image signal, and a perforation detection signal indicating the presence of perforation is output, and barcode information is converted into a barcode signal. The moving means relatively moves the film and the image reading means in a sub-scanning direction intersecting with the main scanning direction.

The designating means outputs a frame designating signal to designate a frame to be read from the image storage area of the film. The counter counts the frame number of the image storage area based on the perforation detection signal. The control means matches the frame number counted by the counter with the frame number of the bar code signal. That is, even if a perforation is erroneously detected, it can be corrected on the way.

According to a ninth aspect of the present invention, the illuminating means illuminates the image storage area of the film and the final perforation indicating the rear end of the film. The image reading means photoelectrically converts the light input through the film, and outputs an image signal by scanning in the main scanning direction. The moving means relatively moves at least one of the film and the image reading means in a sub-scanning direction which is a direction intersecting with the main scanning direction.

Then, the final perforation detecting means detects the final perforation and outputs a final perforation detection signal. That is, when the perforation is erroneously detected, it is determined that the image storage area still continues, and the moving unit is driven. The occurrence of such a situation can be detected in advance.

According to a tenth aspect of the present invention, in the image reading apparatus of the ninth aspect, the image reading means has a function of a final perforation detecting means.
That is, the existing equipment can be effectively used without specially providing the final perforation detecting means. Claim 11
In the image reading device according to the present invention, in the image reading device according to the ninth aspect, the designation unit outputs a frame designation signal to designate a frame to be read from the image storage area of the film. The control means stops the moving means based on the fact that the final perforation detection means does not output the final perforation detection signal within a predetermined time from the output of the frame designation signal.

That is, when the film is not transported smoothly, it can be detected. An image reading apparatus according to a twelfth aspect is the image reading apparatus according to any one of the first, eighth, and ninth aspects, wherein an ND filter is disposed between the illumination unit and the image reading unit. That is, blooming can be prevented from occurring.

According to a thirteenth aspect of the present invention, in the image reading device according to the first aspect, the control means perforates an output exceeding a threshold value of the perforation detection means. Judge as a detection signal.

That is, perforations can be reliably detected. According to the fourteenth to twenty-second aspects of the present invention, it is possible to provide a storage medium for storing a control procedure for the image reading device according to the first to thirteenth aspects.

[0040]

Embodiments of the present invention will be described below with reference to the drawings.

FIG. 1 is a configuration diagram of an image reading apparatus according to an embodiment of the present invention. As shown in FIG. 1, the image reading apparatus includes a central processing unit (hereinafter, referred to as “CPU”) 1, a memory 2, an interface circuit (hereinafter, referred to as “IF circuit”).
3, motor drive circuit 4, line sensor drive circuit 5, signal processing circuit 6, A / D converter 7, light source drive circuit 8, light source 9
A loading chamber for loading the lens 10, the line sensor 11, the motor 12, etc.
And a transport path for the roll film 14 fed out of the apparatus. The IF circuit 3 is connected to the host computer 15.

Although not shown, the host computer 15 includes a central processing unit, a program memory and a working memory, an input device such as a keyboard and a mouse, a display device as an output device, and a storage medium 15a such as a CD-ROM. Is provided. When the cartridge 13 is loaded in the loading chamber, the spool is connected to the shaft of the motor 12. For example, when the lid of the loading chamber is closed, power is supplied to each circuit of the present apparatus, and each circuit is activated.

The motor drive circuit 4 controls the rotation speed, rotation direction, stop, etc. of the motor 12 in accordance with an instruction from the CPU 1. When the motor 12 is driven to rotate forward, the roll film 14 is fed from the cartridge 13 to the transport path. When the motor 12 is driven in the reverse direction, the roll film 14 is wound into the cartridge 13 from the transport path.

The roll film 14 has been schematically described with reference to FIG. Specifically, for example, it is as shown in FIG. FIG. 2 is an external view of the roll film 14. The roll film 14 shown in FIG. As shown in FIG. 2, a predetermined area at the leading end (pull-out end) of the loam film 14 is called a leader section, and a predetermined area at the base end (winding end) is called a trailer section.

A plurality of image storage areas 14a are provided at predetermined intervals between the leader section and the trailer section. As described above, two perforations 14 are provided at one end in the short direction outside each image storage area 14a.
b, 14b are provided, and a bar code 1 is provided at the other end in the short direction.
4c is provided. In the leader section, the barcode 14d is provided in the same row as the barcode 14c, and the perforation 14e is provided in the same row as the perforation 14b.

In the trailer section, a final perforation 14f is provided on the opposite side of the perforation 14b, and a bar code 14h is provided in the same row as the bar code 14c. Since the contents of the perforations and the barcode have been described above, the description will be omitted. FIG.
And the light source 9 includes, for example, R (red), G (green), B
(Blue) light-emitting diodes (hereinafter, referred to as “LEDs”). In the present invention, the roll film 14 is arranged so as to illuminate the entire width in the short direction of the roll film 14 fed to the transport path. The light source drive circuit 8 controls switching on / off of the three color LEDs of the light source 9 in accordance with an instruction from the CPU 1.

The lens 10 is arranged so as to guide the light of the light source 9 transmitted through the roll film 14 to an area corresponding to the entire width of the roll film 14 in the width direction of the light receiving surface of the line sensor 11.

The line sensor 11 includes an image storage unit, which is a plurality of photoelectric conversion units, arranged in a horizontal row, and a transfer unit that transfers electric charges stored in each image storage unit. The line sensors 11 are generally arranged such that the light receiving surfaces of a plurality of image storage units arranged in a horizontal row are orthogonal to the moving direction of the roll film 14. In the light receiving surface of the line sensor 11, a region corresponding to the entire width of the roll film 14 in the width direction is an effective light receiving region.

FIG. 3 is a diagram showing the principle of the image reading system according to the present invention. As shown in FIG. 3, a predetermined area 20 indicated by oblique lines over the entire width of the roll film 14 in the lateral direction is a reading range in one main scan illuminated by the light source 9. The reading range 20 in one main scan corresponds to the image storage area 1
The perforations 14b, 14e (FIG. 2) and 14f (FIG. 2) and the barcodes 14c, 14d (FIG. 2) and 14h (FIG. 2) are located outside the area 4a.

The transmitted light in the reading range 20 in one main scan is guided to the line sensor 11 by the lens 10.
Then, the motor 12 performs sub-scanning that moves the reading range 20 in one main scan in the longitudinal direction of the roll film 14. That is, the line sensor 11 reads the image imprinted on the image storage area 14a and performs the perforation 1
4b, 14e, 14f and bar codes 14c, 1c
4d and 14h are read.

FIG. 4 is an explanatory diagram of an image reading system according to the present invention. As described with reference to FIG. 3, the reading range 20 in one main scan corresponds to the light receiving surface of the line sensor 11. In the present invention, as shown in FIG.
Of the light receiving surface of the image storage area 1 of the roll film 14
4a, a neutral density filter (hereinafter, referred to as “ND”)
11a) is provided.

The ND filter 11a is arranged at a position where light from the perforations 14b, 14e and 14f does not directly enter the line sensor 11. The placement position is
As long as this condition is satisfied, it may be anywhere between the light source 9 and the line sensor 11. Next, returning to FIG. 1, the line sensor drive circuit 5 mainly performs the following two operations in accordance with an instruction from the CPU 1. One is control of the accumulation operation and accumulation time of the line sensor 11. The other is control of main scanning for sweeping out the accumulated charges (image signal / electrical signal) to the signal processing circuit 6.

The signal processing circuit 6 amplifies the signal from the line sensor 11 according to an instruction from the CPU 1, separates the signal into an image signal and an electric signal, and supplies the image signal and the electric signal to the A / D converter 7.
The A / D converter 7 converts the image signal and the electric signal sent from the signal processing circuit 6 into a digital signal having a predetermined number of bits, and outputs the digital signal to the CPU 1. The CPU 1 mainly performs the following control operation according to the program set in the memory 2. The CPU 1 controls the motor drive circuit 4, the line sensor drive circuit 5, and the light source drive circuit 8 to read the roll film 14. The CPU 1 controls the signal processing circuit 6 and the A / D converter 7 to take in the read film data.

Then, the CPU 1 performs shading correction, average correction,
Processing such as output adjustment is performed and stored in the memory 2. Also,
The CPU 1 detects the position of perforation by detecting a level difference and decodes the contents of a bar code for the received electric signal data. Further, the CPU 1 counts the number of frames based on perforation position detection and bar code decoding contents. IF circuit 3 of the present embodiment
Is a SCSI (Small Computer System Interface). The IF circuit 3 reads the read R stored in the memory 2
The line data of three colors (red), G (green), and B (blue) is output to the host computer 15. Also, IF circuit 3
Sends various commands such as frame designation sent from the host computer 15 to the CPU 1.

In the above configuration, the correspondence with the claims is as follows. The image storage area corresponds to the image storage area 14a. Perforations 14b and 14e correspond to perforations. The final perforation corresponds to the final perforation 14f. The barcode includes barcodes 14c and 14
d and 14h correspond.

The light source drive circuit 8 and the entire light source 9 correspond to the illumination means. The image reading means includes a line sensor 11
Corresponds. The motor driving circuit 4 and the entire motor 12 correspond to the moving means. The ND filter 11a corresponds to the ND filter. The light source 9 corresponds to the color separation means. The control unit corresponds to the CPU 1. The host computer 15 corresponds to the specifying means. The recording medium corresponds to a storage medium 15c such as a CD-ROM.

Hereinafter, a control operation procedure of the CPU 1 according to the embodiment of the present invention will be described with reference to FIGS. In the present invention, as shown in FIG. 3, the reading range 20 in one main scan extends over the entire width of the roll film 14 beyond the image storage area 14a. Therefore, the detection of the perforations 14b, 14e and 14f,
The bar codes 14c, 14d, and 14h can be read by the line sensor 11.

As a result, it is possible to omit a position detection sensor, a decoder, and the like, which are conventionally required. Also, downsizing of the device,
The cost can be reduced. At this time, the line sensor 11
Is set to an optimal value for the image in the image storage area 14a. Therefore, when light passing through the perforations directly enters the line sensor 11, the pixels of the line sensor 11 may be saturated. When the pixels of the line sensor 11 are saturated, a blooming phenomenon occurs around the saturated pixels, which has a great adverse effect on image quality.

On the other hand, the perforations 14b and 14
e and the end perforation 14f are at different positions from each other. Therefore, in the present embodiment, as shown in FIG. 4, a proper light passing through the perforations 14 b and 14 e and the end perforation 14 f is applied to an optical path incident on both ends of the line sensor 11.
1a are provided. Thus, the line sensor 11 can be prevented from being saturated in the perforation portion.

Next, an initial operation, a perforation detection operation, a document jam detection operation, a designated frame access operation, a last frame detection operation, and the like according to the present embodiment will be described with reference to FIGS. FIG. 5 is a flowchart of an initial operation, a perforation detection operation, a document jam detection operation, and the like according to the present embodiment. FIG. 6 is an explanatory diagram of the access operation of the designated frame. 7 to 10 are flowcharts of a document jam detection operation, a designated frame access operation, a last frame detection operation, and the like.

First, an initial operation, a perforation detection operation, a document jam detection operation, and the like according to the present embodiment will be described with reference to FIG. The entire roll film 14 is housed in the cartridge 13. Such a cartridge 13 is loaded into the loading chamber, and the lid is closed. Then, power is supplied to each circuit. The CPU 1 starts the control operation.

In S1, the CPU 1 sets the motor drive circuit 4
Sends a command to rotate the motor 12 forward. As a result, the leader of the roll film 14 is fed out from the cartridge 13, and the thrust operation is started. In S2, the CPU 1 sends an operation command to the light source drive circuit 8 and the line sensor drive circuit 5 in parallel with the operation in S1. As a result, the light source 9 is driven to switch between RGB colors, and the line sensor 11 starts reading.

In S3, the CPU 1 sets the roll film 1
It is determined whether the head of No. 4 has been detected. If the result of determination in S3 is that no detection has been made, the determination is negative (NO), and the CPU 1 determines in S4 whether a specified time has elapsed.

If the determination in S4 is negative (NO), the CPU 1 performs the determination operation in S3 again. Until the leading end of the roll film 14 reaches the reading position of the line sensor 11, the illumination light of the light source 9 directly enters the light receiving surface of the line sensor 11 without passing through. Roll film 1
When the head of 4 passes the reading position of the line sensor 11, the transmitted light of the roll film 14 enters the light receiving surface of the line sensor 11.

That is, the CPU 1 monitors the output of the line sensor 11 within the specified time (S4) in the repetition of the determination process of S3 → S4 → S3, and based on such a change in the amount of light, starts the leading edge of the roll film 14. Detection is performed (S3). The CPU 1 causes the memory 2 to store the read data of each color of RGB of the line sensor 11 in a transparent portion until the leading end of the roll film 14 reaches the reading position of the line sensor 11.

When the determination of S3 is negative (NO) and the determination of S4 is affirmative (YES) in the repetition of the determination process of S3 → S4 → S3, the CPU 1 determines whether S5, S5
6 is performed. In S5, the CPU 1 determines that the thrust has failed (document jam). If the head of the roll film 14 is not detected within the specified time, the roll film 1
This is because the leading end of No. 4 was not taken up. In this case, the CPU 1 determines in step S6 that the motor 12
Is stopped, and this procedure ends.

On the other hand, in the repetition of the determination process of S3 → S4 → S3, the CPU 1 makes a positive determination in S4 (YE
If the determination in S3 is affirmative (YES) before S),
Steps S7, S8, and S9 are performed. At S7, the CPU 1
When the head of the roll film 14 can be detected before the lapse of the specified time, the read data of the RGB color transmitted light of the line sensor 11 at the head of the roll film 14 is stored in the memory 2.

In S8, the CPU 1 retrieves the read data of the transparent part and the head part from the memory 2, finds the difference between them, and finds the color with the largest difference. this is,
This is an operation of specifying the color light used for detecting perforation. This is because the perforation portion is transparent, and the larger the output difference of the line sensor 11, the more reliable and easy the perforation detection is.

Normally, in a negative film, B (blue) light has the largest output difference. For negative films, B (blue) light is appropriate. However, in a positive film or a gray-based monochrome film, there is almost no difference between colors. In a positive film or a gray-based monochrome film, any color may be used. If the level difference is known, it may be set in advance from the outside and used.

Next, in S9, the CPU 1 determines whether or not the bar code 14d of the reader section has been detected.
If the result of determination in S9 is that no detection has been made, the determination is negative (NO), and the CPU 1 determines in S10 whether a specified time has elapsed. Then, the CPU 1
If the determination in S10 is negative (NO), the determination operation in S9 is performed again.

That is, the CPU 1 monitors the output of the line sensor 11 within the specified time (S10) and detects the bar code 14d of the reader section in the repetition of the determination processing of S9 → S10 → S9 (S9). . CPU1
When the determination in S9 is negative (NO) and the determination in S10 is affirmative (YES), the processes in S11 and S12 are performed.

At S11, the CPU 1 determines that the thrust has failed (document jam). If the bar code 14d of the leader portion is not detected within the specified time, it means that the leading end of the roll film 14 has not been wound. In this case, the CPU 1 stops driving the motor 12 in the next S12, and ends this procedure. On the other hand, CP
In the repetition of the determination process of S9 → S10 → S9, U1 determines S13, S14, S1 if the determination of S9 is affirmative (YES) before the determination of S10 is affirmative (YES).
5 are performed.

At S13, the CPU 1 sets the bar code 14
Read the film information from d. The CPU 1 determines a film type (color, monochrome, positive, negative), a film type, a total number of frames, and the like from the read film information, and automatically sets necessary items such as an optimal gamma characteristic.
In S14, the CPU 1 starts detecting the leading perforation 14e in parallel with the processing in S13.

Then, in the next S15, the CPU 1 determines whether or not the perforation 14e has been detected. If the determination result is negative (NO), the CPU 1
Determines in S16 whether a specified time has elapsed. When the determination in S16 is negative (NO), the CPU 1 performs the determination operation in S15 again.

That is, the CPU 1 executes S15 → S16 → S15
Within the specified time (S16)
, The output of the line sensor 11 is monitored, and the detection operation of the perforation 14e is performed based on the change in the amount of light at which the output difference becomes maximum (S15). The CPU 1 determines that the determination in S15 is negative (NO) and the determination in S16 is affirmative (YE
In the case of S), the processing of S17 and S18 is performed.

At S17, the CPU 1 determines that the thrust has failed (document jam). If the perforation 14e is not detected within the specified time, the roll film 1
This is because the winding of No. 4 was not performed.

In S18, the CPU 1 stops driving the motor 12, and ends the procedure. On the other hand, the CPU 1
In the repetition of the determination processing of 15 → S16 → S15,
If the determination in S15 becomes affirmative (YES) before the determination in S16 becomes affirmative (YES), the process of S19 is performed. S1
At 9, the CPU 1 stops driving the motor 12, and ends the procedure. The CPU 1 has detected the leading perforation 14e within the specified time (S16), and places the device in a standby state in order to wait for a command from the host computer 15.

Next, referring to FIGS. 6 to 10, a description will be given of the designated frame access operation, the last frame detection operation, and the document jam detection operation performed in the process performed by the CPU 1 of the present embodiment. As shown in FIG. 6, the direction indicated by the leftward arrow in the figure is the direction in which the roll film 14 is fed out of the cartridge 13 (FIG. 2) by the forward rotation of the motor 12. The direction indicated by the rightward arrow in the drawing is the direction in which the roll film 14 is wound into the cartridge 13 by the reverse rotation of the motor 12.

The first image storage area 14a (FIG. 2)
From the first frame to the fifth image storage area 14a
The top frame, the third frame, the fourth frame, and the fifth frame are set. The first perforation 14e (FIG. 2) is address # 1, the two perforations 14e of the first frame are address # 2 and address # 3, and the two perforations 14e of the second frame are address # 4 and address # 5. .

Similarly, the two perforations 14e of the third frame are set to addresses # 6 and # 7, and the two perforations 14e of the fourth frame are set to addresses # 8 and # 9.
The second perforation 14e in the fifth frame is the address # 1
0 and address # 11. 7 to 10, when the reading position 30 of the line sensor 11 is between the two perforations (address # 4 and address # 5) of the second frame, the designated frame which designates the fourth frame from the host computer 15 The operation when an access command is input has been described.

FIG. 7 shows a procedure when the CPU 1 accesses a designated frame based on perforation. In the first step S25, the CPU 1 performs a process of receiving a designated frame access command input from the host computer 15. Then, in the next S26, the CPU 1 determines whether or not the designated frame is behind the current frame from the address of the current perforation. The current frame is
Judgment is made from the detection address of the perforation performed so far.

If the designated frame is behind the current frame, the CPU 1 makes the determination in S26 affirmative (YES). Then, the CPU 1 drives the motor 12 to rotate forward in S27 to feed out the roll film 14. The CPU 1 simultaneously starts detection of perforation in S29. On the other hand, in S26, if the designated frame is ahead of the current frame, the CPU 1 makes the determination in S26 negative (NO). Then, the CPU 1 drives the motor 12 in the reverse direction to rewind the roll film 14 in S28. CPU1
Starts the detection of perforation at the same time in S29.

In the example of FIG. 6, the current frame is the second frame. Assuming that the designated frame is the fourth frame, the designated frame (the fourth frame) is located behind the current frame (the second frame) (FIG. 6).
(Middle right). Therefore, the CPU 1 makes the determination in S26 affirmative (YES). Then, the CPU 1
2 is rotated forward (S27), and the roll film 14 is fed out.

Next, when the perforation detecting operation is started in S29, the CPU 1 executes S30 → S
In the loop of 32 → S35 → S30, S35 and S3
0 and S32 are determined.

At S32, the CPU 1 determines whether or not the perforation has been detected within the specified time. If the perforation cannot be detected within the specified time, the CPU 1 makes the determination in S35 affirmative (YES). Then, the CPU 1 determines in S36 that the document is jammed. It is considered that the feeding of the roll film 14 could not be performed smoothly.

Therefore, the CPU 1 stops driving the motor 12 in S37 and ends the procedure. On the other hand, the CPU 1
If perforation is detected within the specified time,
The determination processing of S30 and S32 is performed. In S30, the CPU
1 determines whether the detected perforation is not the final perforation 14f. If the last perforation 14f is detected, the CPU 1
Makes the determination in S30 negative (NO), performs the processing in S31, and ends the procedure.

On the other hand, if the detected perforation is not the final perforation 14f, the CPU 1
The determination at S30 is made affirmative (YES), and the process at S32 is performed. In S32, the CPU 1 determines whether or not the detected perforation is a perforation at the rear end of the frame immediately before the designated frame. In this way, the detection processing of S30 is performed on the detected perforation in addition to the determination processing of S32. This is because the number of current frames may be incorrect due to misdetection of perforations or misreading of a barcode.

If the user does not notice that the current frame number is an incorrect frame number, the roll film 14 is fed out even after the last frame. The final perforation 14f indicates the maximum amount that can be unwound from the cartridge 13, and if tension is applied to the roll film 14 so as to be pulled out further, the connection end with the cartridge 13 may be damaged.

Therefore, when the perforation is detected during the feeding of the roll film 14, it is always determined whether or not the last perforation 14f is detected. Final perforation 14f
Is detected, even if the current frame number is different from the last frame, to prevent the above-mentioned problem from occurring,
The driving of the motor 12 is forcibly stopped (S36), and this procedure ends.

As shown in FIG. 2, the final perforation 14f is the same as the perforation 14b of each frame.
Since the arrangement position is not on the same line but on the barcode side,
Which perforation has been detected can be reliably determined. There are various kinds of film frames, such as 25 frames and 40 frames. The total number of frames is the bar code 14d of the leader section
The determination is made based on the read value of or the set value from the outside.

Next, in S32, since the designated frame is the fourth frame in the example of FIG. 6, the CPU 1 determines whether the detected perforation is the perforation of the address # 7 of the third frame. Determine whether or not. In S32, C
PU1 indicates that the detected perforation is one of the designated frames.
If the perforation is at the rear end of the previous frame,
The determination at 32 is affirmed (YES), and the process at S33 is performed.

In S33, the CPU 1 moves the head of the image storage area of the designated frame to the line sensor reading position 30. That is, the CPU 1 accesses the designated frame. Then, the CPU 1 stops driving the motor 12 in S34, and ends the procedure. Specifically, 1 of designated frame
Starting position of the image storage area of the next frame (the fourth frame in the example of FIG. 6) from the perforation at the rear end of the previous frame (the perforation of the address # 7 of the third frame in the example of FIG. 6) The distance to (the left end position in FIG. 6) is defined. Therefore, the CPU 1 drives the motor 12 without changing the rotation direction, and moves the specified distance. as a result,
The reading position 30 of the line sensor moves to the head position of the image storage area of the fourth frame.

FIG. 8 shows an example of a procedure for accessing a designated frame based on a perforation and a barcode. Note that parts having the same contents as those in the procedure of FIG. 7 are denoted by the same reference numerals. The different parts will be mainly described. In FIG. 8, in S41, the CPU 1 determines whether or not the perforation on the front side of the designated frame has been detected. In the example of FIG. 6, it is determined whether the perforation of the address # 8 of the fourth frame has been detected.

The CPU 1 makes an affirmative decision in S41 (YE).
In the case of S), the process of S42 is performed. In S42, the CP
U1 rotates the motor 12 forward to move the barcode position of the frame to the reading position 30 of the line sensor. Then, in the next S43, the CPU 1 reads the number of frames from the barcode of the frame. Next, in S44, the CPU 1 determines whether or not the number of read frames matches the designated frame.

The CPU 1 determines that the result of S44 is affirmative (Y
In the case of (ES), this procedure ends after the processing of S45 and S34. On the other hand, if the determination result in S44 is negative (NO), the CPU 1 returns to the processing in S26 via the processing in S46. In S45, the CPU 1 reverses the rotation of the motor 12 to rewind the roll film 14, and moves the reading position 30 of the line sensor to the head position of the image storage area of the designated frame. Thereafter, the motor 12 is stopped (S3
4), end this procedure.

On the other hand, in S46, the CPU 1 calculates the error and corrects the address deviation of the perforation. Thereafter, the process returns to S26, and the movement control of the roll film 14 is performed again. Next, FIG. 9 shows another example of a procedure for accessing a designated frame based on a perforation and a barcode. 7 and 8 are denoted by the same reference numerals. The different parts will be mainly described.

In S51, the CPU 1 determines whether or not the perforation on the front side immediately before the designated frame has been detected. In the example of FIG. 6, it is determined whether the perforation of the address # 6 of the third frame has been detected. CP
If U1 is affirmative (YES), U1 proceeds to S5.
The processing after 2 is performed. In S52, the CPU 1 rotates the motor 12 forward to move the barcode position of the frame immediately before the designated frame to the reading position 30 of the line sensor.

Then, in the next S53, the CPU 1 reads the number of frames from the bar code of the relevant frame. Next, in S54, the CPU 1 determines whether or not the number of read frames matches the frame immediately before the designated frame. In S54, C
If PU1 matches, the determination is affirmative (YES). Then, in the next S55, the CPU 1 rotates the motor 12 in the normal direction and unwinds the roll film 14, and moves the reading position 30 of the line sensor to the head position of the image storage area of the designated frame which is the next frame. After that, the CPU 1
The driving of the motor 12 is stopped (S34), and this procedure ends.

On the other hand, if the CPU 1 does not match in S54, the determination is negative (NO). Then, in the next S56, the CPU 1 calculates the error and corrects the address deviation of the perforation. Thereafter, the CPU 1 returns to the previous step S26 and controls the movement of the roll film 14 again. Next, FIG. 10 shows a procedure for accessing a designated frame based on a barcode. Note that parts having the same contents as those in the procedure of FIG. 7 are denoted by the same reference numerals. The different parts will be mainly described.

Upon receiving the input of the designated frame access command (S25), the CPU 1 reads the frame information from the barcode 14c of the current frame in the next S62. And
The CPU 1 compares the read frame number with the specified frame number and determines whether or not the specified frame is behind the current frame.

The CPU 1 determines, based on the determination result of S62,
The processing of S27 or S28 is performed. And CPU1
Determines in the next S63 and S35 whether or not the next barcode 14c has been detected within the specified time.
In the example of FIG. 6, the current frame is the second frame and the designated frame is 4
It is a frame. Therefore, the CPU 1 drives and rotates the motor 12 forward (S27) to detect and read the barcode 14c.

If the next bar code 14c is detected within the specified time, the CPU 1 affirms the determination in S63 (Y
ES), and perform the processing of S64 and S65. In S64, the CPU 1 reads information on the number of frames from the detected barcode 14c. In the next S65, the CPU 1 determines whether or not the number of read frames matches the specified frame.

If the CPU 1 does not match the designated frame in S65, the CPU 1 makes a negative determination (NO) and proceeds to S62.
Return to That is, the CPU 1 sets the bar code 1 for one frame.
4c is read, and the roll film 14 is moved while confirming that it matches the designated frame. As a result, C
PU1 can be confirmed to be the designated fourth frame from the number of frames of the read barcode 14c.
Next, the CPU 1 makes the determination of S65 affirmative (YES), and performs the process of S66.

In S66, the CPU 1 drives the motor 12 in the reverse direction to move the head position of the image storage area of the fourth frame, which is the designated frame, to the position of the line sensor reading position 30. Thereafter, the CPU 1 stops the movement of the roll film 14 (S34), and ends the procedure. As described above, based on the output of the line sensor 11 for the perforation and the barcode, the initial operation of detecting the head position of the first image storage area to perform standby, the operation of detecting the perforation by detecting the level difference, and the operation of accessing the designated frame , Document jam detection operation, last frame detection operation, etc.
Basic operations required for the image reading apparatus can be easily and reliably performed.

In the above embodiment, the control program of the CPU 1 is stored in the memory 2 which is a storage medium of the image reading device. The central processing unit of the host computer 15 may be used instead of the CPU 1. Also,
A hard disk drive and a memory in the host computer 15 may be used instead of the memory 2. In that case, the flowchart of FIG.
The program shown in the flowchart of FIG. 9 may be stored. Then, by reading the program stored in the hard disk into the memory in the host computer 15, the central processing unit of the host computer 15 can execute the program.

The programs shown in the flowchart of FIG. 5 and the flowcharts of FIGS. 7 to 9 to be stored in the hard disk are stored in a storage medium 15c such as a CD-ROM in advance so that they can be set up in the host computer 15. But it is good.

[0107]

As described above, in the image reading apparatus according to the first aspect, the illuminating means illuminates both the image storage area of the film and the perforation, and the image reading means illuminates the image in the image storage area. Output image signal,
A perforation detection signal indicating the presence of perforation is output, and the control means controls the moving means based on the perforation detection signal so that the reading start position of the image storage area of the film is located at the reading position of the image reading means.

Accordingly, the read start position of each image storage area of the film can be easily set to the read position of the image reading means without providing any special means for detecting perforation. In the image reading device according to claim 2, in the image reading device according to claim 1,
The control means controls the moving direction of the film by the moving means on the basis of the frame specifying signal output from the specifying means and the perforation detection signal, thereby making it possible to easily access the specified frame.

According to a third aspect of the present invention, in the image reading apparatus of the first aspect, if the image reading means does not output the perforation detection signal within a predetermined time from the output of the frame designation signal, The control means can stop the moving means by judging that the film has not been transported smoothly. According to a fourth aspect of the present invention, in the image reading apparatus of the first aspect, the image reading unit detects the perforation based on the color element of the color separation unit that does not pass through the film base most. Perforations can be reliably detected.

In the image reading apparatus according to the fifth aspect, in the image reading apparatus according to the fourth aspect, the color separation unit is a light emitting unit of an illumination unit that sequentially illuminates a plurality of colors. Existing equipment can be used effectively. In the image reading device according to the sixth aspect, the illuminating means illuminates both the image storage area of the film and the bar code including the frame number information. The image reading means reads the image in the image storage area and the information of the barcode. Then, the control means controls the moving direction of the film by the moving means based on the frame specifying signal and the bar code signal output from the specifying means, so that the designated frame can be easily accessed.

According to a seventh aspect of the present invention, in the image reading apparatus of the sixth aspect, within a predetermined time after the output of the frame designation signal, the image reading means transmits a bar code signal corresponding to the frame designation signal. When the output is not performed, it can be determined that the film has not been smoothly transported, and the control unit can stop the moving unit. In the image reading apparatus according to the eighth aspect, the illuminating means illuminates both the image storage area of the film, the perforation, and the barcode including the frame number information, and the image reading means reads the image in the image storage area. And perforation detection,
The bar code is read, the counter counts the designated frame number in the image storage area based on the perforation detection signal, and the control means matches the frame number counted by the counter with the frame number of the bar code signal. Let it.

Therefore, even if a perforation is erroneously detected, it can be corrected halfway. 10. The image reading apparatus according to claim 9, wherein the illuminating means illuminates the image storage area of the film and the final perforation indicating the rear end of the film, and the image reading means reads the image in the image storage area, and detects the final perforation. The means detects the final perforation and outputs a final perforation detection signal.

Therefore, when the perforation is erroneously detected, it is determined that the image storage area still continues, and the moving means is driven. According to the present invention, occurrence of such a situation can be detected in advance. According to a tenth aspect of the present invention, in the image reading apparatus of the ninth aspect, the image reading unit also serves as the final perforation detecting unit. Existing equipment can be used effectively without special provision of final perforation detection means.

According to the image reading apparatus of the present invention, a frame specifying signal is output to specify the frame to be read from the image storage area of the film. If the control means does not output the final perforation detection signal within a predetermined time from the output of the frame specifying signal output by the specifying means, it can be determined that the film has not been transported smoothly, and The means can be stopped.

According to a twelfth aspect of the present invention, in the image reading apparatus of the first aspect, an ND filter is provided between the illumination means and the image reading means. It is. Blooming can be prevented beforehand,
Image quality can be maintained. According to a thirteenth aspect of the present invention, in the image reading device according to any one of the first, eighth, and ninth aspects, the control means outputs an output exceeding a threshold value of the perforation detection means as a perforation detection signal. to decide. Perforations can be reliably detected.

In short, according to the present invention, the position detection of the roll film and the reading of the film information can be performed by the image reading means. Therefore, the conventional position detecting sensor and film information reading sensor can be dispensed with, and the size and cost of the apparatus can be reduced. Claim 14-Claim 2
According to the second aspect of the invention, it is possible to provide a storage medium for storing a control procedure for the image reading apparatus according to the first to thirteenth aspects.

[Brief description of the drawings]

FIG. 1 is a configuration diagram of an image reading apparatus according to an embodiment of the present invention.

FIG. 2 is an external view of a roll film.

FIG. 3 is a principle diagram of an image reading and removing system according to the present invention.

FIG. 4 is an explanatory diagram of an image reading and removing system according to the present invention.

FIG. 5 is a flowchart of an initial operation, a perforation detection operation, a document jam detection operation, and the like according to the embodiment.

FIG. 6 is an explanatory diagram of an access operation of a designated frame.

FIG. 7 is a flowchart of a document jam detection operation, a designated frame access operation, a last frame detection operation, and the like.

FIG. 8 is a flowchart of a document jam detection operation, a specified frame access operation, a last frame detection operation, and the like.

FIG. 9 is a flowchart of a document jam detection operation, a designated frame access operation, a last frame detection operation, and the like.

FIG. 10 is a flowchart of a document jam detection operation, a designated frame access operation, and the like.

FIG. 11 is an explanatory diagram of a conventional image reading method.

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 1 Central processing unit (CPU) 2 Memory 3 Interface circuit (IF circuit) 4 Motor drive circuit 5 Line sensor drive circuit 6 Signal processing circuit 7 A / D converter 8 Light source drive circuit 9 Light source 10 Lens 11 Line sensor 12 Motor 13 Cartridge Reference Signs List 14 Roll film 14a Image storage area 14b, 14e Perforation 14c, 14d, 14h Barcode 14f End performance 15 Host computer 15c Storage medium 20 1 Reading range in main scanning 21 ND filter 30 Line sensor reading position

Claims (22)

[Claims] An illumination unit arranged to illuminate both an image storage area and a perforation of a film; and photoelectrically converting light input through the film, and scanning in a main scanning direction to generate an image signal. Or, an image reading unit that outputs a perforation detection signal indicating that there is perforation, and a moving unit that relatively moves at least one of the film and the image reading unit in a sub-scanning direction that is a direction intersecting with the main scanning direction, A control unit that controls the moving unit based on the perforation detection signal so that a reading start position of the image storage area of the film is located at a reading position of the image reading unit. Image reading device. 2. The image reading apparatus according to claim 1, further comprising a designation unit that outputs a frame designation signal and designates a frame to be read from an image storage area of the film. An image reading apparatus, wherein the control means controls a moving direction of the film by the moving means based on a detection signal. 3. The image reading device according to claim 1, wherein the control unit is configured to execute the control based on the fact that the image reading unit does not output the perforation detection signal within a predetermined time from the output of the frame designation signal. An image reading apparatus for stopping a moving unit. 4. The image reading apparatus according to claim 1, further comprising: a color separation unit that separates an image in the image storage area into a plurality of color elements using illumination light of the illumination unit. An image reading apparatus, wherein the image reading means detects the perforation with a color element of the color separating means which does not pass through a base most. 5. The image reading apparatus according to claim 4, wherein the color separation unit is a light emitting unit of the illumination unit that sequentially illuminates a plurality of colors. 6. An illuminating means arranged to illuminate both an image storage area of a film and a bar code including frame number information; and photoelectrically converting light input through the film, in a main scanning direction. An image reading unit that outputs an image signal or the barcode information to a barcode signal by scanning; and at least one of the film and the image reading unit is in a sub-scanning direction that is a direction intersecting with the main scanning direction. Moving means for relatively moving, outputting a frame specifying signal, specifying means for specifying a frame to be read from the image storage area of the film, and based on the frame specifying signal and the bar code signal,
Control means for controlling a moving direction of the film by the moving means. 7. The image reading device according to claim 6, wherein the image reading unit does not output the barcode signal corresponding to the frame designation signal within a predetermined time after outputting the frame designation signal. An image reading apparatus wherein the control means stops the moving means. 8. An illuminating means arranged to illuminate an image storage area of a film, a perforation, and a bar code including frame number information together; and photoelectrically converting light input through the film; An image reading unit that outputs a bar code signal of an image signal or a perforation detection signal indicating presence of perforation or information of the bar code by scanning in a scanning direction; and at least one of the film and the image reading unit outputs Moving means for relatively moving in the sub-scanning direction, which is a direction intersecting with the scanning direction, a frame specifying signal, and a specifying means for specifying a frame to be read from the image storage area of the film; and A counter for counting a frame number of the image storage area; and a count of the counter. Image reading apparatus characterized by a Rukoma numbers and control means for matching the frame number of the bar code signal. 9. An illuminating means arranged to illuminate an image storage area of the film and a final perforation indicating the rear end of the film, and photoelectrically convert light input through the film to scan in a main scanning direction. An image reading unit that outputs an image signal; a moving unit that relatively moves at least one of the film and the image reading unit in a sub-scanning direction that is a direction intersecting with the main scanning direction; An image reading apparatus comprising: a final perforation detecting unit that detects perforation and outputs a final perforation detection signal. 10. The image reading apparatus according to claim 9, wherein said image reading means also serves as said final perforation detecting means. 11. The image reading apparatus according to claim 9, further comprising a designating means for outputting a frame designating signal and designating a frame to be read from an image storage area of the film, wherein the frame designating signal is output from the frame designating signal. The image reading apparatus according to claim 1, further comprising control means for stopping the moving means based on the fact that the final perforation detection means does not output the final perforation detection signal within a time period. 12. The image reading apparatus according to claim 1, further comprising an ND filter disposed between said lighting means and said image reading means. Characteristic image reading device. 13. The image reading device according to claim 1, wherein the control unit determines that an output exceeding a threshold value of the perforation detection unit is a perforation detection signal. Characteristic image reading device. 14. An illuminating means arranged to illuminate both an image storage area and a perforation of a film; and photoelectrically converting light input through the film and scanning in a main scanning direction, thereby obtaining an image signal. Or an image reading unit that outputs a perforation detection signal indicating that there is perforation, and a moving unit that relatively moves at least one of the film and the image reading unit in a sub-scanning direction that is a direction intersecting with the main scanning direction. A storage medium for storing a control procedure for the image reading device, wherein the read start position of the image storage area of the film is located at the read position of the image reading means based on the perforation detection signal. A control procedure for controlling the moving means is stored. A storage medium for storing control procedures. 15. The storage medium according to claim 14, wherein the image reading device further includes a designation unit that outputs a frame designation signal and designates a frame to be read from an image storage area of the film. The storage medium further stores a control procedure for controlling a moving direction of the film by the moving means based on the frame designation signal and the perforation detection signal, and stores a control procedure for the image reading apparatus. Storage media. 16. The storage medium according to claim 14, wherein the moving means is stopped based on the fact that the image reading means does not output the perforation detection signal within a predetermined time from the output of the frame designation signal. A storage medium for storing a control procedure for an image reading device, further storing a control procedure. 17. The storage medium according to claim 14, wherein the image reading device further includes a color separation unit that separates an image in the image storage area into a plurality of color elements using illumination light of the illumination unit. A control procedure for the image reading apparatus, wherein the storage medium further stores a detection procedure in which the image reading means detects the perforation with a color element of the color separation means which does not pass through the film base most. Storage medium for storing. 18. An illuminating means arranged to illuminate both an image storage area of a film and a bar code including frame number information; and photoelectrically converting light input through the film, in a main scanning direction. An image reading unit that outputs an image signal or the barcode information to a barcode signal by scanning; and at least one of the film and the image reading unit is in a sub-scanning direction that is a direction intersecting with the main scanning direction. A storage medium for storing a control procedure for an image reading apparatus, comprising: moving means for relatively moving; and a designating means for outputting a frame designation signal and designating a frame to be read from an image storage area of the film. Based on the designation signal and the barcode signal,
A storage medium for storing a control procedure for an image reading apparatus, wherein the control procedure controls a moving direction of the film by the moving means. 19. The storage medium according to claim 18, wherein the image reading unit does not output the barcode signal corresponding to the frame designation signal within a predetermined time after outputting the frame designation signal. A storage medium for storing a control procedure for an image reading apparatus, further storing a control procedure for stopping the moving means. 20. Illumination means arranged so as to be able to illuminate an image storage area of a film, a perforation and a bar code including frame number information, and photoelectrically convert light input through the film. An image reading unit that outputs a bar code signal of an image signal or a perforation detection signal indicating presence of perforation or information of the bar code by scanning in a scanning direction; and at least one of the film and the image reading unit outputs Moving means for relatively moving in the sub-scanning direction, which is a direction intersecting with the scanning direction, a frame specifying signal, and a specifying means for specifying a frame to be read from the image storage area of the film; and An image reading device having a counter for counting the frame number of the image storage area. A storage medium for storing a control procedure for an image reading apparatus, wherein the control procedure stores a control procedure for matching a frame number counted by the counter with a frame number of the barcode signal. Medium. 21. Illumination means arranged so as to be able to illuminate an image storage area of a film and a final perforation indicating the rear end of the film; and photoelectrically converting light input through the film, and scanning in a main scanning direction. An image reading unit that outputs an image signal; a moving unit that relatively moves at least one of the film and the image reading unit in a sub-scanning direction that is a direction intersecting with the main scanning direction; A control procedure for an image reading apparatus having final perforation detection means for detecting perforation and outputting a final perforation detection signal and outputting a frame designation signal and designating a frame to be read from the image storage area of the film is stored. A storage medium, wherein the last parf Configuration detecting means on the basis that does not output the final perforation detection signal, a storage medium for storing a control procedure for the image reading apparatus and to store the control procedure for stopping the moving means. 22. The storage medium according to claim 14, further comprising a step of determining an output exceeding a threshold value of said perforation detection means as a perforation detection signal. A storage medium for storing a control procedure for a characteristic image reading apparatus.