JP5013004B2 - Scanner device, reading system, and computer program - Google Patents

Description

  The present invention relates to a scanner device connected to an external device via a network.

There is a technique of supplying image data obtained by a scanner device reading paper to an external device via a network.
A conventional scanner device normally reads a plurality of sheets, generates a file representing all of a plurality of images recorded on the plurality of sheets, and supplies the file to an external device.

  However, when the number of sheets is large, it is difficult to generate a file from a plurality of image data corresponding to a plurality of sheets, and as a result, the file may not be supplied to an external device. This is because the storage capacity of the scanner device is relatively small, so that all of the plurality of image data cannot be stored when the number of sheets is large.

  In Patent Document 1, a facsimile apparatus transmits image data to a terminal apparatus (PC) via a connection cable, and the terminal apparatus transmits a file generated using the image data to an arbitrary transmission destination. Is disclosed.

JP-A-11-161568 JP 2000-19750 A

Incidentally, there has been a demand for another technique for supplying a file to an external device even when the number of sheets is large as described above.
The present invention has been made to solve such a problem. Even when the number of sheets is large, in other words, even when the storage capacity for storing image data is not sufficient, a file is stored in an external device. Providing other technology to supply.

  An apparatus for solving the above-described problem is a scanner device connected to an external device via a network, and a reading unit that reads an image recorded on a sheet and generates image data, and a plurality of the reading units When a plurality of images recorded on a sheet are read, each time one or more sheets that are a part of the plurality of sheets are read, one or more image data corresponding to the one or more sheets is included. An image data group supply unit that sequentially supplies image data groups to the external device; and a combined information generation unit that generates combined information used to combine two or more image data groups corresponding to the plurality of sheets; A combination information supply unit that supplies the combination information to the external device.

In this scanner device, every time one or more sheets, which are a part of a plurality of sheets, are read, an image data group is sequentially supplied to an external device, and two or more image data groups corresponding to the plurality of sheets are supplied. The combination information used for combining is generated, and the combination information is supplied to the external device. For this reason, a combined file can be generated by using two or more image data groups and combined information in an external device. That is, if this scanner device is used, even when the number of sheets is large, in other words, even when the storage capacity for storing image data is not sufficient, a file can be supplied to the external device as a result. It becomes possible.

  In the above apparatus, the combined information preferably includes information for specifying the two or more image data groups. With this configuration, the external device can easily specify two or more image data groups to be combined based on the combination information.

  In the above apparatus, it is preferable that the combination information includes an algorithm for combining the two or more image data groups to generate a combined file. With this configuration, the external device can combine two or more image data groups according to the algorithm included in the combination information.

  In the above apparatus, it is preferable that the image data group supply unit prepares the image data group so that the data amount of the image data group does not exceed a predetermined amount. With this configuration, each image data group having a data amount equal to or less than a predetermined amount can be sequentially supplied to the external device.

  The apparatus further includes a number determining unit that determines the number of the image data to be included in the image data group, and the image data group supply unit is recorded on the number of sheets determined by the number determining unit. The image data group may be supplied to the external device every time an image is read. By adopting this configuration, it is possible to prepare an image data group including one or more image data so that the data amount of the image data group does not exceed a predetermined amount.

  In the above apparatus, the number determination unit may determine the number of image data to be included in the image data group based on a data amount of the image data. By adopting this configuration, the number of image data included in one image data group can be changed according to the data amount of one image data.

  The “data amount of image data” may be an actual data amount of image data actually read and generated, or may be an expected data amount of image data. The amount of image data depends on, for example, the paper size, the number of color data constituting the image data, and the resolution (number of pixels per unit area).

  In the above apparatus, the number determining unit may determine the number of the image data to be included in the image data group based on the number of color data included in the image data. By adopting this configuration, for example, the number of image data included in the image data group can be changed depending on whether the reading method is color or monochrome.

  In the above apparatus, when a plurality of images recorded on a plurality of sheets are read by the image reading unit, the plurality of image data corresponding to the plurality of sheets are read after the plurality of sheets are read. A combined file generation unit configured to combine and generate a combined file; and a combined file supply unit configured to supply the combined file to the external device, wherein the scanner device includes a first operation mode, a second operation mode, and a second operation mode. When the first operation mode is selected, the image data group supply unit, the combined information generation unit, and the combined information supply unit execute processing when the first operation mode is selected. When the second operation mode is selected, the combined file generation unit and the combined file supply unit may execute processing. With this configuration, the supply of the image data group and the combination information and the supply of the combined file can be selectively performed according to the selected operation mode.

In the above apparatus, the image data generated when each of the plurality of sheets is sequentially read by the reading unit is sequentially stored, and a total data amount of the one or more pieces of the image data sequentially stored is determined. When the total data amount exceeds a predetermined amount and the determination unit for determining whether or not the amount exceeds a predetermined amount, the first operation mode is selected, and when the total data amount does not exceed the predetermined amount And a selection unit that selects the second operation mode. With this configuration, the first operation mode and the second operation mode can be selected depending on whether or not the total data amount of the one or more pieces of image data sequentially stored exceeds a predetermined amount.

  In addition, a reading system for solving the above problem includes any one of the scanner devices described above and the external device. The external device includes a combining unit that combines the two or more image data groups supplied from the scanner device using the combining information supplied from the scanner device.

  The present invention can be implemented in various modes such as a scanner device control method, a scanner device control method, a computer program for controlling the scanner device, and a recording medium for recording the computer program.

Block diagram showing the overall configuration of the reading system Flow chart showing first scan processing Diagram showing data structure of data table Sequence diagram showing data flow in first scan processing Flow chart showing second scan processing Sequence diagram showing data flow in second scan processing

Embodiments of the present invention will be described below with reference to the drawings.
(1) Overall Configuration As shown in FIG. 1, the reading system 1 is configured such that the multifunction device 2 and each of one or more servers 3 can communicate with each other.

  The multifunction device 2 includes a microcomputer 21, a memory 23, a communication interface (communication I / F) 25, a print engine 27, a scan engine 29, and a user interface (user I / F) 41. When the multifunction device 2 receives a scan job command from a client (not shown) connected via the network 100 or a scan job start operation via the user I / F 41, the scan engine 29 Thus, an image recorded on a sheet (including a sheet-like recording medium made of a material other than paper) is read to generate image data, and the generated image data is supplied to the server 3.

The server 3 includes a microcomputer 31, a memory 33, a hard disk drive (HDD) 35, and a communication interface (communication I / F) 37, and functions as a file server that stores image data from the multifunction device 2 in the hard disk drive 35. The image data stored in the server 3 is managed, for example, via a management computer (not shown) connected to the server 3 via the network 100 so as to be communicable.
(2) First Scan Processing by the Multifunction Device 2 A processing procedure of first scan processing executed by the microcomputer 21 of the multifunction device 2 in accordance with a program stored in the memory 23 will be described with reference to FIG. The first scan processing is performed by receiving a scan job command from the client or a scan job start operation via the user I / F 41 when the first scan processing program is set as the scan function program. And start.

In the present embodiment, identification information of a user who intends to use the scan function of the multifunction device 2 is added to the scan job command from the client. User I
The operation of starting a scan job via / F41 includes an operation of inputting identification information of a user who intends to use the scan function of the multifunction device 2. That is, in the first scan process, user identification information (hereinafter referred to as “user information”) is acquired prior to the start thereof.

  When the first scan process is started, the upper limit number of image data to be included in the image data group (hereinafter referred to as “upper limit page number”) is determined based on the data parameter (s110). .

  The “data parameter” is set as a parameter for reading an image by the scan engine 29. For example, the paper size (original size) (for example, A4, B4, etc.), color data at the time of reading is set. Number (for example, “3” for color (ie, R, G, B data), “1” for monochrome (ie, Y data)) and resolution (eg, 600 dpi × 600 dpi, 1200 dpi × 1200 dpi, etc.) Yes.

  In s110, the number of image data stored in the memory 23 is specified based on the data amount (assumed data amount) of the image data to be generated when the image is read based on the set data parameter. The specified number is determined as the “upper limit page number”. More specifically, the smaller the upper limit page number is determined as the paper size, the number of color data, and the resolution value are larger.

  In the present embodiment, the data set by referring to the data table (FIG. 3) in which the combination of data parameters and the upper limit number of pages to be included in the image data group (transmission unit number) are registered in association with each other. The upper limit page number corresponding to the parameter is determined. The data table of FIG. 3 illustrates “monochrome” with the number of color data “1” and “color” with “3”. The resolution in the data table represents the number of pixels per unit area (dpi × dpi). In FIG. 3, the number of pixels per unit area is abbreviated as the number of pixels per inch (dpi).

  Next, among the one or more sheets stacked in the document storage section of the multifunction machine 2, the uppermost sheet is read (s120). When the paper is read, image data representing an image recorded on the paper is generated in a bitmap format or a RAW format. Note that the sheet to be read is discharged through a predetermined discharge path, and the next sheet is positioned at the top.

  Next, the image data generated in s120 is stored in the memory 23, and the value of the accumulated page number stored in the memory 23 is updated (s130). The cumulative number of pages is set to an initial value “0” at the start of the first scan process, and is incremented by 1 each time s130 is performed.

Next, it is checked whether or not the cumulative page number stored in the memory 23 has reached the upper limit page number (s140).
When it is determined in s140 that the cumulative number of pages of the image data has not reached the upper limit page number (s140: NO), it is checked whether or not all sheets have been read (s150).

  If it is determined in s150 that reading of all sheets has not been completed (s150: NO), the process returns to s120, and the processes after s120 are repeated for the next sheet.

  Thereafter, if it is determined in s150 that reading of all sheets has not been completed (s150 “NO”), the image data is stored in the memory 23 until image data for the upper limit number of pages is generated (s140). As it is accumulated, the value of the accumulated page number is updated (s130).

  Thereafter, in the process of repeating s120 to s150, when it is determined in s140 that the cumulative number of pages of image data has reached the upper limit number of pages (s140: YES), or all sheets are read in s150. Is determined to be completed (s150: YES), image information relating to the image data group stored in the memory 23 is generated and stored in the memory 23 (s160).

  The image information includes information indicating the data group name that identifies the image data group and the data amount of the image data group. In this embodiment, as will be described later in s170 and s190, an image data group including one or more image data is handled as one file. Therefore, one data group name (one file name) is used as information for specifying one image data group. However, instead of this, when one or more pieces of image data included in the image data group are individually handled, a data name for specifying each image data may be used instead of the data group name.

  Next, the image data group stored in the memory 23 is supplied to the server 3 (s170). Here, the image data group and the user information are transferred to the server 3 that is permitted to be used by the user who is currently using the multifunction device 2, that is, the user identified by the user information acquired prior to the start of the scanning process. Sent. Then, the transmitted image data group is deleted from the memory 23. In s170, the cumulative page number is reset and the value of the cumulative page number is set to “0”.

  As can be seen from the above description, the “cumulative page number” is a parameter for determining whether or not the number of image data constituting one image data group has reached the upper limit page number.

  The server 3 stores the image data group received from the MFP 2 in the storage area for the user specified by the user information transmitted together with the image data in the hard disk drive 35.

Next, it is checked whether or not all the sheets have been read (s180).
If it is determined in s180 that reading of all the sheets has not been completed (s180: NO), the process returns to s120, and the processes after s120 are repeated for the remaining sheets.

  Thereafter, every time image data equal to the upper limit page number is generated (s140 “YES”) until reading of all sheets is completed, an image data group including the same number of image data as the upper limit page number Are sequentially supplied to the server (s170) (see “Send_Data” in FIG. 4A).

  Thereafter, in the process in which s120 to s180 are repeated, if it is determined in s180 that the reading of all sheets has been completed (s180: YES), the combination information used to combine a plurality of image data groups supplied to the server 3 Is generated and the combined information is supplied to the server 3 (s190).

The combination information includes a combination algorithm for combining a plurality of image data groups to generate a single file, a plurality of pieces of image information corresponding to the plurality of image data groups transmitted to the server 3, and a single unit after combination. File name to be attached to one file. Then, similarly to s170, the combined information is transmitted to the server 3 having a storage area for the user who uses the multifunction device 2 (see “transmitted combined information” in FIG. 4A).

  The combination algorithm included in the combination information is an algorithm necessary for converting image data in a bitmap format or RAW format into a single file (for example, a PDF file) having a data format that can be used by a predetermined application. . Further, as a file name to be given to the combined single file, for example, a file name specified by the user, a file name generated by the MFP 2 in accordance with a predetermined rule (for example, the start date and time of the first scan process is used) File name) can be adopted.

  When the server 3 receives the combination information from the multifunction device 2, the server 3 uses a plurality of pieces of image data included in the combination information from among a large number of image data groups stored in the hard disk drive 35. A group is specified, and a plurality of specified image data groups (a plurality of files) are combined into a single file in accordance with an algorithm included in the combination information (see “file combination” in FIG. 4A). The combined file is given a file name based on the file name included in the combined information.

  In FIG. 4A, the server 3 combines image data groups immediately after receiving the combination information based on the combination information. However, instead of this, as shown in FIG. 4B, the server 3 stores the combined information in the hard disk drive 35 of the server 3 and notifies the client that commanded the scan job (FIG. 4 ( b) Refer to “completion notification”), and the image data group may be combined at the timing of receiving the combination instruction from the client (see “combination instruction” in FIG. 4B). The combined file can be browsed or read from the client (see “browsing and reading” in the figure). Further, the image data group may be combined by another terminal device that has read the image data group and the combination information from the server 3.

After s190 is performed in this way, the first scan process ends.
(3) Second Scan Processing by the Multifunction Device 2 A processing procedure of second scan processing executed by the microcomputer 21 of the multifunction device 2 in accordance with a program stored in the memory 23 will be described with reference to FIG. The second scan process is started in response to a scan job command or a scan job start operation when the second scan process program is set as the scan function program.

  Note that the second scan process differs from the first scan process only in part of the process. For this reason, the same step number is assigned to the same process as the first scan process, and the description thereof is omitted.

When the second scan process is started, first, the operation mode flag is cleared (0 is set in the flag) (s100).
This operation mode flag indicates whether the first operation mode or the second operation mode is selected. When the operation mode flag is set to “0”, the second operation mode is selected and set to “1”. In this case, the first operation mode is selected. That is, in s100, the second operation mode is selected as the operation mode.

The “first operation mode” is an operation mode in which image data groups are sequentially supplied to the server 3 every time a part of a plurality of sheets is read, as in the first scan process. On the other hand, the “second operation mode” is an operation mode in which all image data obtained by reading all sheets are supplied to the server 3 in a batch, more specifically, all images obtained by reading all sheets. This is an operation mode in which a combined file combined with data is supplied to the server 3.

Next, the paper is read (s120), and the image data and the accumulated page number are stored in the memory 23 (s130).
Next, it is checked whether or not there is a remaining capacity sufficient to store image data as a storage area of the memory 23 (s240). As described above, “sufficient remaining capacity” means a capacity that exceeds the assumed data amount.

If it is determined in s240 that there is a sufficient remaining capacity (s240: YES), it is checked whether reading of all sheets has been completed (s310).
If it is determined in s310 that reading of all the sheets has not been completed (s310: NO), the process returns to s120, and the processing after s120 is repeated for the next sheet.

  On the other hand, when it is determined in s310 that reading of all sheets has been completed (s310: YES), it is checked whether or not the first operation mode is selected as the operation mode (s320). In s320, when the operation mode flag is set in s250 described later (that is, the flag is set to “1”), it is determined that the first operation mode is selected, and the above-described s110 is performed. If the operation mode flag is cleared (that is, the flag is set to “0”), it is determined that the second operation mode is selected.

  If it is determined in s320 that the first operation mode has not been selected, that is, the second operation mode has been selected (s320: NO), the image data stored in the memory 23 in the process of repetition up to this point. The group is converted into a single file by the multi-function device 2 (s330), and the single file is supplied to the server 3 (s340), and then the second scan process ends.

  On the other hand, if it is determined in s320 that the first operation mode is selected (s320: YES), the same processing as in s160 and s170 in the first scan processing is performed and stored in the memory 23 in the process up to this point. After image information relating to the image data group is generated and stored in the memory 23 (s360), the image data group currently stored in the memory 23 is supplied to the server 3 (s370).

  Then, after combining information used to combine a plurality of image data groups supplied to the server 3 so far is generated and supplied to the server 3 (s190), the second scanning process is ended.

  If it is determined in s240 that there is not sufficient remaining capacity in the memory 23 (s240: NO), the operation mode flag is set (1 is set in the flag) (s250). By setting the operation mode flag, the first operation mode is selected as the operation mode.

  Next, image information relating to the image data group currently stored in the memory 23 is generated and stored in the memory 23 (s160). After the image data group is supplied to the server 3 (s170), all sheets are read. It is checked whether or not it is completed (s180).

  If it is determined in s180 that reading of all the sheets has not been completed (s180: NO), the process returns to s120, and the processes after s120 are repeated for the remaining sheets.

On the other hand, if it is determined in s180 that all the sheets have been read (s180: YES)
), The process shifts to s190, and the combined information used to combine the image data groups supplied to the server 3 so far is generated and supplied to the server 3 (s190), and then the second scan. The process ends.

In the second scan processing with such a configuration, first, the operation mode flag is cleared in s100, so that the operation mode becomes the second operation mode.
Then, the sheet reading (s120) and the storage of the image data and the accumulated number of pages (s130) are performed while the memory 23 has a sufficient remaining capacity (s240 “YES”), or all the sheets are stored. It is repeated until the reading is completed (s310 “NO”). The image data is sequentially stored in the memory 23 by s130 in this repetition.

  Thereafter, when reading of all sheets is completed in a state where there is a sufficient remaining capacity in the memory 23 (s240 “YES” → s310 “YES”), it is determined whether or not the first operation mode is selected. It is checked (s320).

  However, in the processing so far, after the operation mode flag is cleared ("0" is set) in s100 and the second operation mode is selected, there is a sufficient remaining capacity in the memory 23, that is, s240. In the state where it is determined as “YES” in FIG. Therefore, s250 to which the process proceeds after the determination of “NO” in s240 is not performed, and the operation mode flag is set (set to “1”), that is, the first operation mode is not selected in s250.

  Then, in s320, the result of determining that the first operation mode is not selected, in other words, the second operation node is selected (s320 “NO”), conversion of the image data group into a single file ( s330) and the supply of a single file to the server 3 (s340), the second scan process is completed.

  As described above, if there is a sufficient remaining capacity in the memory 23 until the reading of all the sheets is completed (s240 “YES”), the image data group including all the image data stored in the memory 23. Is converted into a single file and then supplied to the server 3 (see FIG. 6B). Thus, the operation mode through the processing procedures of s120, s130, s240, s310 to s340 is the second operation mode described above.

  Unlike the description so far, if there is not enough remaining capacity in the memory 23 before the reading of all the sheets is completed, “NO” is determined in s240 in the process in which s120, s130, s240, and s310 are repeated. Is done.

If “NO” is determined in s240, the operation mode flag is set (1 is set in the flag) (s250), and the first operation mode is selected as the operation mode.
Thereafter, image information relating to the image data group is stored in the memory 23 (s160), and after the image data group is supplied to the server 3 (s170), it is checked whether or not the reading of all sheets has been completed (s180). ).

  If it is determined that reading of all the sheets has not been completed (s180 “NO”), the process returns to s120, and the processes after s120 are repeated for the remaining sheets. As described above, when there is no sufficient remaining capacity before the reading of all sheets is completed (s240 “NO”), the image data group is supplied and deleted from the memory 23 in s170, and this is deleted. Thus, the process returns to s120 with the remaining capacity of the memory 23 secured.

Therefore, in s240 that is performed in the process in which the processes after s120 are repeated, the memory 2
3 is determined to have sufficient remaining capacity (s240 “YES”). Thereafter, while there is a sufficient remaining capacity in the memory 23, image data obtained by reading the images recorded on the sheets is sequentially stored in the memory 23 until reading of all the sheets is completed (s310 “NO”). (S130).

  Thus, after there is no sufficient remaining capacity in the memory 23, image data groups are generated by repeating s120, s130, s240, and s310, and then there is no sufficient remaining capacity in the memory 23. Each time (s240 “NO”), the image data group is sequentially supplied to the server (s170) (see “Send_Data” in FIG. 6A).

  As described above, once there is no sufficient remaining capacity in the memory 23 (s240 “NO”), the s250 supplies the image data group to the server 3 sequentially each time a part of a plurality of sheets is read. One operation mode is set. After the first operation mode is selected, the operation mode flag remains set, and the second operation mode is not selected.

  If it is determined in s180 that all the sheets have been read (s180 “YES”), the process proceeds to s190, and the combined information is supplied to the server 3 (s190). The scanning process ends. The combination information in this case is for combining the image data groups supplied to the server 3 in s170.

  In the process of repeating s120, s130, s240, and s310, when reading of all the sheets is completed (s310: YES), the process proceeds to s320, and it is checked whether or not the first operation mode is selected. (S320).

  In the processing so far, after the operation mode flag is cleared in s100 and the second operation mode is selected, the reading of all the sheets is completed after a sufficient remaining capacity does not exist in the memory 23 once. . As a result, “YES” is determined in s240, the process proceeds to s250, and the operation mode flag set (set to “1”), that is, the first operation mode is selected.

Then, in s320, the result of determining that the first operation mode is selected (s320: YES), storage of the image information in the memory 23 (s360), and supply of the image data group to the server 3 (s370) ), The process shifts to s190, and the combined information is supplied to the server 3 (s190), and then the second scan process ends. The combination information in this case is for combining the image data groups supplied to the server 3 at s170 and s370.
(4) Operation and Effect The multifunction device 2 of the above-described data supply system 1 sequentially supplies each of image data groups including one or more image data corresponding to one or more sheets (from s120 in FIG. 2 and FIG. 5). s180) The combination information for combining two or more image data groups is supplied (s190 in the figure).

  Therefore, even if the memory 23 of the multifunction device 2 does not have a sufficient storage capacity, the image data group having the data amount corresponding to the actual storage capacity is sequentially supplied to the server 3, and then the two or more image data groups are combined. As a result, a single file can be supplied to the server 3 even when the number of sheets is large.

In the above embodiment, since the image data group can be specified based on the image information included in the combination information, it is possible to easily specify the image data group to be combined and generate the combined file.

  In the above embodiment, since two or more image data groups supplied to the server 3 can be combined according to the algorithm included in the combination information, processing according to this algorithm can be communicated with the server 3 (the server 3 can communicate with the server 3). 2), it is possible to automatically combine two or more image data groups into a file.

  Further, in the above embodiment, every time the data amount of the image data group reaches a predetermined amount (in this embodiment, the data amount corresponding to the upper limit number of pages) (s140 “YES” in FIG. 2), it is generated in the meantime. The group of image data can be supplied to the server 3 (s190 in the figure).

  In the above-described embodiment, the number of image data included in the image data group is determined (s110 in FIG. 2), and the image data group can be supplied every time the determined number of images is read (the same figure). s140 → s170).

  In the above embodiment, the number of image data included in the image data group supplied to the server 3 is determined based on the amount of data expected from parameters such as the paper size, the number of color data, and the resolution when reading an image. Can be determined (s110 in FIG. 3).

Further, in the above-described embodiment, in the second scan process, the first scan mode can be selectively operated in any one of the first operation mode and the second operation mode, and the image data group can be selected according to the selected operation mode. Supply (s170 and s370 in FIG. 5) or file supply (s340 in FIG. 5) can be performed.
(5) Modifications Embodiments of the present invention have been described above, but the present invention is not limited to the above-described embodiments, and can take various forms as long as they belong to the technical scope of the present invention. Needless to say.

  For example, in the above-described embodiment, the upper limit number of pages is determined based on the assumed data amount in s110 of the first scan process (FIG. 2). However, when determining the upper limit page number, the upper limit page number may be determined based on the data amount of image data actually generated by reading by the scan engine 29 instead of the assumed data amount. .

As can be seen from the above description, the multifunction device 2 corresponds to a scanner device in the present invention, and the server 3 corresponds to an external device.
The scan engine 29 of the multifunction device 2 corresponds to a reading unit, and the microcomputer 21 that performs scanning processing includes an image data group supply unit, a combination information generation unit, a combination information supply unit, a number determination unit, a combined file generation unit, and a combination This corresponds to a completed file supply unit, a determination unit, and a selection unit.

Further, s120 of the scan process corresponds to a process executed by the reading unit. Further, s170 of the scan process corresponds to a process executed by the image data group supply unit.
Further, s190 of the scanning process corresponds to a process executed by the combined information generation unit and the combined information supply unit. s110 corresponds to the processing executed by the number determining unit. s330 corresponds to the process executed by the combined file generation unit, and s340 corresponds to the process executed by the combined file supply unit. s240 corresponds to processing executed by the determination unit, and s100 and s250 correspond to processing executed by the selection unit.

  Further, the microcomputer 31 that performs file combination (FIG. 4A) in the server 3 corresponds to a combining unit in the present invention.

  DESCRIPTION OF SYMBOLS 1 ... Reading system, 2 ... MFP, 21 ... Microcomputer, 23 ... Memory, 25 ... Communication interface, 27 ... Print engine, 29 ... Scan engine, 3 ... Server, 31 ... Microcomputer, 33 ... Memory, 35 ... Hard disk drive, 100: Network.

Claims (13)

A scanner device connected to an external device via a network,
A reading unit that reads an image recorded on paper and generates image data;
When a plurality of images recorded on a plurality of sheets are read by the reading unit, each time one or more sheets that are a part of the plurality of sheets are read, 1 corresponding to the one or more sheets. An image data group supply unit for sequentially supplying an image data group including the above image data to the external device;
A binding information that is used to combine two or more of the group of image data corresponding to the plurality of sheets, the file name given to the file where the two or more image data group is obtained by being bonded A combined information generating unit that generates the combined information including :
A scanner device, comprising: a combined information supply unit configured to supply the combined information to the external device. The scanner device according to claim 1,
The scanner device, wherein the combination information includes information for specifying the two or more image data groups. The scanner device according to claim 1 or 2, wherein
The scanner information includes an algorithm for combining the two or more image data groups to generate a combined file. The scanner device according to any one of claims 1 to 3,
The image data group supply unit prepares the image data group so that the data amount of the image data group does not exceed a predetermined amount. The scanner device according to any one of claims 1 to 4,
A number determining unit for determining the number of the image data to be included in the image data group;
The image data group supply unit supplies the image data group to the external device every time images recorded on the number of sheets determined by the number determination unit are read. The scanner device according to claim 5,
The number determining unit determines the number of the image data to be included in the image data group based on the data amount of the image data. The scanner device according to claim 5 or 6, wherein
The number determination unit determines the number of the image data to be included in the image data group based on the number of color data included in the image data. The scanner device according to any one of claims 1 to 7,
When a plurality of images recorded on a plurality of sheets are read by the reading unit, after the plurality of sheets are read, the plurality of image data corresponding to the plurality of sheets are combined to form a combined file A combined file generator for generating
A combined file supply unit for supplying the combined file to the external device;
The scanner device is operable in a first operation mode and a second operation mode,
When the first operation mode is selected, the image data group supply unit, the combined information generation unit, and the combined information supply unit execute processing,
The scanner device, wherein when the second operation mode is selected, the combined file generation unit and the combined file supply unit execute processing. The scanner device according to claim 8, further comprising:
The image data generated when each of the plurality of sheets is sequentially read by the reading unit is sequentially accumulated, and whether or not the total data amount of the one or more pieces of the image data sequentially accumulated exceeds a predetermined amount A determination unit for determining whether or not
A selection unit that selects the first operation mode when the total data amount exceeds a predetermined amount, and selects the second operation mode when the total data amount does not exceed the predetermined amount;
A scanner device comprising:   A scanner device according to any one of claims 1 to 9,
  The scanner device, wherein the file name is a file name specified by a user.   A scanner device according to any one of claims 1 to 9,
  The scanner device, wherein the file name is a file name generated by the scanner device according to a predetermined rule. A scanner device according to any one of claims 1 to 11 ,
The external device,
The external device is
A reading system comprising: a combining unit that combines the two or more image data groups supplied from the scanner device using the combining information supplied from the scanner device. A computer program that includes a reading unit that reads an image recorded on a sheet and generates image data, and causes a scanner device connected to an external device via a network to execute processing,
When a plurality of images recorded on a plurality of sheets are read by the reading unit, each time one or more sheets that are a part of the plurality of sheets are read, 1 corresponding to the one or more sheets. An image data group supply procedure for sequentially supplying an image data group including the above image data to the external device;
A binding information that is used to combine two or more of the group of image data corresponding to the plurality of sheets, the file name given to the file where the two or more image data group is obtained by being bonded A combined information generation procedure for generating the combined information including :
A combined information supply procedure for supplying the combined information to the external device;
A computer program for causing the scanner device to execute.