JP6492342B2 - Booklet binding mount for page turning reader - Google Patents

Description

  The present invention relates to a booklet binding mount used in a page turning reading device for turning a plurality of booklet pages and acquiring image data of each page.

2. Description of the Related Art Conventionally, there is a page turning reading device that acquires image data while turning a page of a booklet such as a book or a document using a page turning mechanism (see, for example, Patent Document 1). Such a page turning reading apparatus can efficiently process a contract or the like as electronic data in a company or digitize a book. However, when there are a large number of booklets that need to be digitized, it is necessary to manually remove the booklet from the device and set another booklet after the processing of one booklet is completed. There was a problem that continuous processing could not be performed.
Conventionally, there is an apparatus that separates and feeds a plurality of stacked booklets one by one from the bottom (see, for example, Patent Document 1).

  In Patent Document 2, the double feed restricting member is configured to move up and down in accordance with the change in the elastic deformation amount of the elastic body by the spring deformation amount adjusting mechanism. It describes that the size of the gap between the feed restricting member and the drive rotor is changed.

Further, in Patent Document 3, when the booklet is thicker than a certain level, a pawl is attached to the endless chain and forcedly pushed out and conveyed by the pawl to feed out the form one by one. When the thickness of the kind is thin, it is described that the nail is removed from the endless belt and fed by a belt by feeding it with a belt.
However, in Patent Documents 2 and 3, it is necessary to appropriately adjust the spring deformation amount adjusting mechanism and the claw depending on the thickness of the booklet, and it is impossible to feed a booklet of any thickness one by one without adjustment.

  Further, even if the booklet feed mechanism described in Patent Documents 2 and 3 is combined with the page turning reader described in Patent Document 1, the booklet should be placed at an appropriate location of the page turning reader unless it is manual. There was a problem that could not.

  In order to solve these problems, Patent Document 4 discloses a page turning reading apparatus that enables each page of a plurality of booklets to be continuously acquired as image data. This page reading apparatus can continuously acquire each page of the plurality of booklets as image data even if the thicknesses of the plurality of stacked booklets are different.

JP 2010-228351 A JP 2010-208756 A Japanese Patent Laid-Open No. 8-24001 International Publication No. 2013/054546

  However, in addition to the booklet mentioned above, there are other documents that should be digitized, such as application forms, receipts such as utility bills, bills such as invoices, and documents related to personal information (such as a copy of a driver's license). To do. These include not only fixed-size documents of a certain size but also small documents smaller than that. In particular, the above-mentioned standard documents are often formed of thin pressure-sensitive paper or the like, and the tensile strength is small.

  Therefore, for the purpose of causing the above-described page turning reader to read, a page made of pressure-sensitive paper is simply bound to form a booklet, and the booklet is transported by means for transporting the booklet. However, since the tensile strength is small as described above, the top page may be damaged. In addition, a small document is smaller than a standard document, and the binding operation becomes complicated.

  Therefore, the present invention pays attention to the above-mentioned problem, and forms a standard document such as an application form and a slip, and a small document smaller than the standard document, and also breaks the original standard document by the page turning reader. An object of the present invention is to provide a booklet binding mount for use in a page turning reading apparatus that can easily manage original fixed form documents and small documents after digitization.

  In order to achieve at least one of the above objects, a booklet binding mount used in a page turning reading apparatus according to the present invention transports a plurality of stacked booklets one by one from the bottom, and the conveyed booklet Used in a page turning reading device that reads each page while turning a page of a booklet, and is a mount for binding a bundle of pages constituting the booklet, the mount being a page at one end of the booklet A board body that is bundled together with the page bundle and turned by the page turning reading device, and extends from the end of the board body in the transport direction side and is folded into the page bundle side, and the end of the page bundle A folding part that covers from the part to the end side of the bundle of pages on the page that is the other terminal page of the booklet, and the mount body and the folding part are: The pages are bound together with the bundle of pages at a position overlapping with the bundle of pages, and the mount body is formed of a transparent sheet and has a pocket for accommodating a small document smaller than the page. .

  With the above configuration, the means for conveying the booklet applies a force that separates the uppermost page in the page bundle from the page under it, but the folding part receives the force and the folding part instead By being pulled, application of the above-described pulling force can be prevented, and page breakage can be prevented.

  In addition, since the mount body and the folding portion are bound together with the page bundle at a position overlapping with the page bundle, it is easy to make a booklet. Also, since the mount body is formed of paper in the same way as the page, It is possible to turn all the pages of the booklet including the mount body.

  And since a transparent pocket is attached to the mount body, a small document can be accommodated in the pocket. Therefore, it is possible to read a small document housed in the pocket together with the mount body, and after reading, the bound booklet can be managed as it is.

Further, the pocket is characterized in that the pocket main body is attached unevenly to the folding portion side.
With the above configuration, it is possible to prevent malfunction of a sensor that detects multiple page turning in the page turning reading device.

The folded portion extends from the long side of the mount body, and the folded portion and the mount body are bound together with the bundle of pages at a position overlapping the end portion on the long side of the bundle of pages. It is characterized by.
With the above configuration, a booklet can be constructed in the same form as a book or the like.

  According to the present invention, a standard document such as an application form and a slip and a small document smaller than the standard document are collectively made into a booklet, and the original document is prevented from being damaged by the page turning reader and is digitized. It becomes possible to easily manage the original standard document and the small document later.

1 is an overall configuration diagram of a page turning reading apparatus according to an embodiment of the present invention. FIG. 2 is a functional configuration diagram of a page turning reading device according to the embodiment. It is a typical side view of a turning part. It is a flowchart which shows the flow of the page turning of the booklet by a turning part, and the acquisition of the image data of each page. It is a typical side view of a turning part for demonstrating operation | movement of a turning part (just before a grip nail grasps a booklet). It is a typical side view of a turning part for explaining operation of a turning part (just after a grasping claw grasps a booklet). FIG. 5 is a schematic side view of the turning part for explaining the operation of the turning part (rotating 90 degrees with the gripping claw holding the booklet). FIG. 6 is a schematic side view of the turning part for explaining the operation of the turning part (captured with the booklet pushed up against the glass plate). It is a typical side view (down a booklet) of a turning part for explaining operation of a turning part. FIG. 5 is a schematic side view of the turning part for explaining the operation of the turning part (with the air suction pad disposed above the booklet). FIG. 5 is a schematic side view of the turning part for explaining the operation of the turning part (push up the booklet and suck the booklet page on the air suction pad). FIG. 5 is a schematic side view of a turning portion for explaining the operation of the turning portion (the booklet is lowered with the air suction pad sucking the page and the turning page is separated from other pages). FIG. 6 is a schematic side view of the turning part for explaining the operation of the turning part (inserting the first turning bar between a page adsorbing and another page). It is a typical side view of a turning part for explaining operation of a turning part (a page is turned by moving a first turning bar). FIG. 6 is a schematic side view of the turning part for explaining the operation of the turning part (with the first turning bar retracted). FIG. 6 is a schematic side view of the turning part for explaining the operation of the turning part (a state where all pages have been turned). It is a typical side view (release a grip nail and convey a booklet) of a turning part for explaining operation of a turning part. It is a typical side view (a booklet is pushed up with a booklet push-up stick) for explaining operation when abnormality is detected in acquired image data. It is a typical side view (moving a 2nd turning bar under a booklet) of a turning part for explaining operation when abnormality is detected in acquired image data. FIG. 6 is a schematic side view of a turning part for explaining an operation when an abnormality is detected in acquired image data (returning the booklet to a state before turning the booklet by moving the second turning bar). FIG. 5 is a schematic side view of a turning part for explaining an operation when an abnormality is detected in acquired image data (the gripping claw is released and a booklet is conveyed to a defective stack part). It is a typical side view of the inferior goods stack part for demonstrating operation | movement when abnormality is detected in the acquired image data. It is a typical side view of the turning part at the time of pressing a booklet with the edge pressing member which concerns on a modification. It is a typical top view of a turning part at the time of pressing a booklet with an edge pressing member concerning a modification. It is a typical side view of a feeder part. It is a typical cross-sectional view of a separation roller. It is a typical cross-sectional view of a rubber roller. It is a typical side view of a feeder part for explaining operation of a feeder part (state which piled up a booklet on a rest part). It is a typical side view (timing chart t1 of FIG. 34) of the feeder part for demonstrating operation | movement of a feeder part. FIG. 3 is a schematic side view of the feeder unit for explaining the operation of the feeder unit (a state in which the superimposed booklet is first pulled out). It is a typical side view of a feeder part for demonstrating operation | movement of a feeder part (a superimposition booklet is isolate | separated into one by a 2nd retard means). It is a typical side view (timing chart t3 of FIG. 34) of the feeder part for demonstrating operation | movement of a feeder part. It is a typical side view (discharge a booklet to a turning part) of a feeder part for explaining operation of a feeder part. It is a timing chart which shows the relationship between time and ON-OFF of each part. It is a figure for demonstrating the relationship between the peeling force F3 and the own weight F2 which are going to peel one booklet of the lowest part among the several booklets stacked. It is a figure for demonstrating the relationship between the peeling force F5 which is going to peel one booklet of the lowest part among the booklets fed double, and the own weight F4. It is a typical side view of the feeder part for demonstrating the detection of the booklet reversely inserted by the swelling detection sensor. It is a typical side view (the 1) of a turning part for explaining raising operation of the 1st conveyance belt part and the 2nd conveyance belt part in a turning part. FIG. 10 is a schematic side view (No. 2) of the turning portion for explaining the ascending operation of the first conveying belt portion and the second conveying belt portion in the turning portion. It is a typical side view of the turning part for demonstrating the method for preventing the turning of two pages of a page. It is a typical side view of the turning part for demonstrating the detection of the rising of a folding page. It is a typical side view of the turning part for demonstrating the technique for detecting this, when page turning fails. It is a figure which shows an example at the time of providing a guide between a paper feed part and the 1st retarding means. It is a top view of the booklet using the mount of this embodiment. It is AA sectional view taken on the line of FIG.

Next, a page turning reading apparatus according to an embodiment of the present invention will be described in detail with reference to the drawings.
FIG. 1 is an overall configuration diagram of the page turning reading apparatus 1. As shown in the figure, the page turning reader 1 includes a loader conveyor unit 101, a feeder unit 102, a page turning unit 103, a defective product stack unit 104, a non-defective product stack conveyor unit 105, an imaging camera 106, an LED An illumination 107, a control unit 108, and a booklet presence / absence sensor 109 are provided.

  The loader conveyor unit 101 is a belt conveyor that is stacked until it is moved to the feeder unit 102 when there are a large number of booklets 10 to be read. Here, the “booklet” refers to a book in which one end of a plurality of overlapped pages is bound, and includes arbitrary documents such as documents such as contracts, books, magazines, and brochures.

  The feeder unit 102 conveys a plurality of stacked booklets one by one from the lower part. The turning unit 103 turns the pages of the booklet 10 conveyed from the feeder unit 102 one page at a time.

  The imaging camera 106 is a digital camera, for example, and photographs the booklet 10 arranged in the turning unit 103. The means for acquiring the image data of the booklet 10 is not limited to a digital camera. For example, it takes time to image the entire booklet 10, but it may be of a type in which an image sensor is scanned.

The LED illumination 107 illuminates the booklet 10 when the booklet 10 is imaged.
The defective product stacking unit 104 is a container in which the booklet is stacked when an abnormality is detected when the image data of the booklet 10 is acquired. The non-defective stack conveyor unit 105 is a belt conveyor that stacks booklets that have been successfully read.

  The booklet presence sensor 109 is a sensor that detects whether or not the booklet 10 is present in the feeder unit 102. As the booklet presence sensor 109 and various sensors for detecting the presence or absence of the booklet 10 described below, any known sensor can be used. For example, a sensor that detects the presence or absence of the booklet 10 based on an attenuation amount of ultrasonic waves, an attenuation amount of light, a change in resistance value of a photoresistor, or the like can be used.

  The control unit 108 includes a CPU (Central Processing Unit) (not shown), a memory, and an input / output interface for transmitting and receiving signals to and from each unit of the page turning reading device 1, and the CPU is stored in the memory. By executing processing according to various programs, it functions as means for controlling the operation of each unit. The control unit 108 will be described in detail later. For example, as a characteristic function, as shown in FIG. 2, the control unit 108 controls the imaging camera 106 to acquire image data of the booklet 10, and the feeder unit 102. , A rotation control means 12 for controlling the rotation of a roller for conveying the booklet 10, a conveyance position detection means 13 for detecting the conveyance position of the booklet 10 in the feeder section 102, an abnormality detection means 14 for detecting an abnormality in the acquired image data, and an image Anomaly processing means 15 that performs processing when data abnormality is detected, a feeder booklet detection means 16 that receives a signal from the booklet presence / absence sensor 109 and detects whether or not the booklet 10 exists in the feeder section 102, a loader conveyor section 101 includes a booklet supply control unit 17 that supplies the booklet 10 from the feeder 101 to the feeder unit 102. Further, the control unit 108 controls the operation of each unit by transmitting a control signal to each unit in response to signals from various sensors provided in each unit of the page turning reading apparatus 1.

(Structure of turning part)
FIG. 3 is a schematic side view of the turning portion 103. A grip part 203 is provided at the center of the turning part 103 so as to sandwich and fix the binding part, which is the bound end of the booklet 10 conveyed from the feeder part 102.

  The gripping part 203 detects whether the booklet 10 has reached the gripping claws 212, a gripping claws 212 for gripping the booklet 10, a support member 217 that supports the gripping claws 212, a gripping claw rotation shaft 213 that rotates the gripping claws 212, and the like. The sensor 211 which performs is provided.

The gripping claw is provided with a slide mechanism that can slide in the thickness direction of the booklet with the support member as a reference. The slide mechanism is operated by an actuator such as a motor (not shown).
A first conveyance belt portion 201 and a second conveyance belt portion 202 on which the booklet 10 can be placed and conveyed are provided on the upstream side and the downstream side of the grip portion 203, respectively.

  A support bar 216 and a slide guide 209 for guiding the vertical movement of the support bar 216 are provided below the first transport belt unit 201, the second transport belt unit 202, and the grip unit 203. The first conveyance belt unit 201, the second conveyance belt unit 202, and the grip unit 203 are driven by an actuator (not shown) or the like, so that they can be independently moved up and down.

  Further, as a page turning means for turning the pages of the booklet 10 one page at a time while the booklet 10 is fixed to the grip portion 203, the air suction pad 206 for sucking the page and the air sucked by the air suction pad 206 to the page An air blowing nozzle 207 that blows air, a support member 214 that supports the air suction pad 206 and the air blowing nozzle 207, a rotation shaft 215 that rotates the air suction pad 206, and a first page that turns the page that is sucked by the air suction pad 206. A turning bar 204 and a second turning bar 205 for turning a page on the second conveying belt unit 202 side to the first conveying belt unit 201 side are provided.

  In addition, a flat plate of a transparent glass plate 208 is provided above the turning portion 103. This glass plate 208 is for pressing the booklet 10 for imaging. The flat plate for pressing the booklet 10 to capture an image is not limited to the glass plate 208, but may be a flat plate-like member that is transparent and does not deform even when pressed, and may be, for example, plastic or crystal.

The first transport belt unit 201 is provided with a sensor 210 for determining whether or not the booklet 10 is present.
A booklet push-up bar 218 for pushing up the booklet 10 is provided on the downstream side of the second transport belt unit 202 (the left side of the second transport belt unit 202 in FIG. 3). The booklet push-up bar 218 is used to return the booklet 10 to a state before turning the page when an abnormality occurs in image data acquisition of the booklet 10.

(Operation of turning part)
Next, referring to the flowchart shown in FIG. 4 and the schematic side view of the turning unit 103 shown in FIGS. 5 to 17, the turning unit 103 turns the pages of the booklet 10 and acquires image data of each page. Will be described. Here, the operation when image data is acquired also for the front cover and back cover of the booklet 10 will be described.

  First, the operator stacks a plurality of booklets 10 on the paper feeding unit of the feeder unit 102 with the binding portion of the booklet facing downstream (the turning unit 103 side), and performs an operation start operation. As a result, the control unit 108 outputs a start signal to each unit of the page turning reader 1, and the operation of each unit starts. The control unit 108 causes each unit to perform an operation by outputting various control signals to each unit in response to reception of a signal from each sensor.

First, the feeder unit 102 operates to feed one booklet 10 from the feeder unit 102 to the turning unit 103 (step S1 in FIG. 4).
The booklet 10 is conveyed to the first conveying belt unit 201 of the turning unit 103 and reaches the position of the gripping claw 212 of the gripping unit 203 (see FIG. 5). As a result, the sensor 211 is turned on.

  When the sensor 211 is turned on, the control unit 108 detects that the booklet 10 has reached the grip unit 203 (step S2), moves the grip claw 212 downward, and stops the first transport belt unit 201 (step S2). S3). Thereby, the binding portion of the booklet 10 is sandwiched and fixed by the gripping claws 212. The booklet sandwiching control by the gripping claws may be performed by sensor control such as a pressure sensor, but in this case, the driving motor is controlled by PWM (Pulse Width Modulation) control. By performing the PWM control, the driving voltage for the motor is continuously applied while instantaneously turning on and off. For this reason, the gap can be reduced stepwise until the booklet is sandwiched, and after the booklet is sandwiched, a state in which an appropriate sandwiching pressure is applied to the booklet can be maintained. In addition, since the state in which the drive voltage is continuously applied to the motor is not maintained, a so-called overload state can be avoided and the burden on the motor can be reduced. Furthermore, since the control according to the embodiment can be realized simply by selecting a motor capable of generating an appropriate torque and setting the pulse width to be applied, the control is less expensive and simpler than the sensor control. Can be realized. (See FIG. 6).

Next, the support member 217 of the gripping claw 212 is rotated by 90 ° around the gripping claw rotation shaft 213 so that the vicinity of the binding portion of the booklet 10 faces the vertical direction. That is, if the booklet is set up vertically, the other end that is not bound is arranged on the image data acquisition unit 11 side (see step S4, FIG. 7).
Next, the 1st conveyance belt part 201, the 2nd conveyance belt part 202, and the grip part 203 are raised, and the booklet 10 is pressed against the glass plate 208 (step S5, refer FIG. 8).

At this timing, the image data acquisition unit 11 controls the imaging camera 106, images the cover of the booklet 10 with the imaging camera 106, and acquires the image data of the cover (step S6).
Next, the first conveyance belt portion 201, the second conveyance belt portion 202, and the grip portion 203 are lowered (see step S7, FIG. 9).

  Based on the signal from the sensor 210, the control unit 108 determines whether or not the currently captured page is the last page. If it is determined that the page is not the last page (No in step S8), the support member 214 of the air suction pad 206 and the air blowing nozzle 207 is moved to the page suction position of the booklet 10 (see step S9, FIG. 10).

  Next, the first conveyor belt unit 201 is raised to the position of the air suction pad 206. Then, the air suction pad 206 is turned on, and the air suction pad 206 sucks the booklet 10 (see step S10, FIG. 11).

  Next, the first conveyor belt unit 201 is moved downward. Then, the support member 214 is swung several times forward and backward (upstream and downstream directions) to facilitate separation of a plurality of pages adsorbed on the air adsorption pad 206. Further, the air suction pad 206 is swung several times around the rotation shaft 215 of the air suction pad 206, and at the same time, air is blown from the air blowing nozzle 207, and a plurality of pages adsorbed on the air suction pad 206 are displayed. One sheet is used (see step S11, FIG. 12). Here, the air blowing nozzle 207 can be further improved in page separation performance by reducing its diameter as much as possible and providing it as close to the booklet 10 as possible.

Next, after the first turning bar 204 is moved below the air suction pad 206 (see FIG. 13), the air suction pad 206 is turned off to stop the suction of the page.
The first turning bar 204 is further moved to the second conveying belt unit 202 side, and the page is turned (see step S12, FIG. 14).

Next, the first turning bar 204, the air suction pad 206, and the support member 214 of the air blowing nozzle 207 are retracted to the positions before the movement (step S13).
Next, the 1st conveyance belt part 201, the 2nd conveyance belt part 202, and the grip part 203 are raised, and the booklet 10 is pressed against the glass plate 208 for pressing (refer FIG. 8, step S5). At this timing, the image data acquisition unit 11 controls the imaging camera 106, images the booklet 10 with the imaging camera 106, and acquires the image data of the spread page (step S6).

  The 1st conveyance belt part 201, the 2nd conveyance belt part 202, and the holding part 203 are lowered | hung (step S7). Then, the processes of steps S9 to 13 and S5 to 8 are repeated until the last page is reached (Yes in step S8).

  In step S8, when the booklet 10 is no longer detected by the sensor 210 in the state shown in FIG. 16, the imaging has been completed up to the last page. Therefore, Yes is determined in step S8.

  Then, the gripping claws 212 are released, and the booklet 10 is separated from the gripping claws 212 (step S14). Next, the second conveyor belt unit 202 is driven, and the booklet 10 is discharged downstream (see step S15 and FIG. 17). The booklet 10 passes through the defective product stack unit 104 and is discharged to the good product stack conveyor unit 105.

Then, it returns to step S1 and repeats the process of the booklet 10 fed from the feeder part 102 next.
In this way, each page of the booklet 10 sequentially fed from the feeder unit 102 can be acquired continuously as image data, which is efficient.

  Further, the booklet 10 is thick because the grip portion 203, the first conveyance belt portion 201, and the second conveyance belt portion 202 are moved upward and the image data is acquired while the booklet 10 is pressed against the glass plate 208. Even in this case, the image data of the center portion of the spread page can be clearly obtained.

  In the above-described embodiment, the case where the image data of the cover of the booklet 10 is acquired has been described. However, when the image data of the cover is not acquired, the process of steps S5 to 8 is not performed in the first process. The process of step 9 may be performed after the process of step S4.

  In the above-described embodiment, the first conveyance belt unit 201, the second conveyance belt unit 202, and the grip unit 203 are raised to press the booklet 10 against the pressing glass plate 208 when acquiring image data. Although described, the present invention is not limited to this, and the glass plate 208 may be lowered.

(Processing when image reading is abnormal)
Next, a schematic side view of the turning unit 103 shown in FIGS. 18 to 22 will be described for processing when the abnormality detection unit 14 of the control unit 108 detects an abnormality in the image data acquired by the image data acquisition unit 11. The description will be given with reference.

  The anomaly detection means 14 (see FIG. 2) analyzes the acquired image data, for example, whether the page is tilted, part of the page or a corner is bent, or the entire page is not imaged. Determine whether or not. Then, when the degree of inclination, the ratio of the area of the part that has not been imaged to the entire page, and the like exceed a predetermined threshold, it is determined as abnormal.

  When an abnormality is detected in the image data by the abnormality detection unit 14, the abnormality processing unit 15 (see FIG. 2) uses the defective product stacking unit 104 (see FIG. 1) as a basis for acquiring the image data. The following processing is controlled in order to discharge to

First, as shown in FIG. 18, the booklet push-up bar 218 is moved upward to lift the booklet 10.
Next, as shown in FIG. 19, the second turning bar 205 is moved below the booklet 10.

Next, as shown in FIG. 20, the second turning bar 205 is moved to the first conveying belt unit 201 side, and the booklet 10 is returned to the state before turning the page.
Next, as shown in FIG. 21, the gripping claws 212 are opened, and the booklet 10 is released from the gripping claws 212. Then, the first conveyor belt unit 201 and the second conveyor belt unit 202 are driven to move the booklet 10 from the turning unit 103 to the defective product stack unit 104 side. The second turning bar 205 is moved to the original position.

  Then, as shown in FIG. 22, the gate 140 provided near the center inside the defective product stack unit 104 is opened, and the booklet 10 is dropped below the gate 140. Thereafter, the process is not interrupted by performing the process from step S1 in FIG. 4 on another booklet 10 fed from the feeder unit 102.

  In addition to the process of moving the booklet 10 to the defective product stack unit 104 side as described above, the warning information is output, the analysis result of the abnormality is output, etc. You may stop or acquire (retry) the image of the page that is the basis of the abnormality detection again. Further, the present invention is not limited to the abnormal image data, and the case where two or more pages are turned by the turning unit 103 or the case where a paper jam occurs may be abnormally included.

  Further, the abnormality detection unit 14 and the abnormality processing unit 15 may be provided in an information processing apparatus such as a personal computer electrically connected to the page turning reading device 1 without being provided in the control unit 108 of the page turning reading device 1. Good.

  As processing of the acquired image data, booklet ID recognition, RFID recognition, barcode recognition, OCR recognition, and the like may be performed, and the image data may be sorted and classified based on the recognized information.

(Modification of glass plate)
In the embodiment described above, the booklet 10 is pressed against the glass plate 208 so that the binding portion at the center of the spread page can be clearly imaged. However, instead of the glass plate 208, the center of the spread page of the booklet 10 is used. You may use the member which presses the both ends (edge part) of the binding part of a part.

FIG. 23 is a schematic side view of the turning portion 103A in a state where the booklet 10 is pressed by the edge holding member 208a, and FIG. 24 is a schematic front view of the turning portion 103A.
When this edge holding member 208a is used, in step S5 shown in FIG. 4, instead of pressing the booklet 10 against the glass plate 208, the two edge holding members 208a are controlled by an actuator or the like so that the binding portion of the booklet 10 is bound. The two edge pressing members 208a may be used to hold both ends of the binding portion.

(Composition of feeder part)
Next, the configuration of the feeder unit 102 will be described. FIG. 25 is a schematic side view of the feeder unit 102.

  As shown in the figure, the feeder unit 102 includes a cover 328 having a cubic shape and a space inside, and a paper feeding unit 302 disposed on the upper surface of the cover 328. The paper feed unit 302 is for stacking and setting a plurality of booklets 10.

  Rubber rollers 310, 311, 312, 313, 314, 315, 316, and 317 are provided on the cover 328 in order from the upstream side. These rubber rollers 310, 311, 312, 313, 314, 315, 316, and 317 are partially exposed on the upper surface of the cover 328, and sequentially pull out the plurality of booklets 10 stacked on the paper feeding unit 302 from the lower part. Thus, it functions as a transport means for transporting to the turning portion 103 on the downstream side.

  Further, in the cover 328, a clutch roller 323 that transmits the rotational force to the rubber rollers 310, 311, 312 via the belt 318, a clutch roller 324 that transmits the rotational force to the rubber roller 313 via the belt 319, and the rubber roller 314 315 and 316 are provided with a clutch roller 325 that transmits a rotational force via a belt 320. These clutch rollers 323, 324, and 325 are rollers equipped with electromagnetic clutches, and the transmission of rotational force from the motor 326 to the rubber rollers 310 to 316 and the separation (stop of rotation) are controlled by ON / OFF control of the electromagnetic clutch. It becomes possible to control.

  In addition, a first retard means 306 is provided above the rubber roller 312 to separate the plurality of booklets 10 when the plurality of booklets 10 are pulled out from the paper supply unit 302 in an overlapping manner. Above the rubber roller 313, a pressing roller 308 for pressing the booklet 10 from above is provided.

On the downstream side of the rubber roller 313 (left side of the rubber roller 313 in FIG. 25), a sensor 303 is provided for detecting whether or not the booklet 10 is present at that position.
Above the rubber roller 316, a second retard means 307 is provided for separating a plurality of booklets 10 that cannot be separated even after passing through the first retard means 306 and have been multi-fed. The first retard means 306 and the second retard means 307 are arranged so that the distance between them is longer than the length of the booklet 10. By having such an arrangement interval, a frictional force is simultaneously applied to the same booklet at a plurality of locations along the transport direction, and there is no possibility of causing twitching or the like.

A pressing roller 309 is provided above the rubber roller 317. In this embodiment, the pressing rollers 308 and 309 are provided with drive transmission means (not shown). Therefore, the pressing rollers 308 and 309 are given a rotational force that follows the direction in which the booklet 10 is conveyed.
The first retarding means 306 and the second retarding means 307, the pressing roller 308, the rubber roller 314, the pressing roller 309, and the rubber roller 317 function as a separating means that separates the overlapped booklets 10. Here, in the present embodiment, as the retard means, the first retard means 306 and the second retard means 307 are arranged along the transport path of the booklet 10, but a plurality of retard means are further arranged. You may make it aim at the division | segmentation of isolation | separation. In this case, it is preferable to increase the pressing force on the booklet 10 from the retard means arranged on the upstream side to the retard means arranged on the downstream side.

  On the upstream side of the rubber roller 316 (on the right side of the rubber roller 316 in FIG. 25), a sensor 304 is provided for detecting whether or not the booklet 10 is present at that position. A sensor 305 is provided on the downstream side of the rubber roller 317 (on the left side of the rubber roller 317 in the drawing) to detect whether or not the booklet 10 is present at that position.

  At the lower end of the cover 328, air near the rubber rollers 314 and 315 is sucked from the gap between the cover 328 and the rubber rollers 314 and 315, and the booklet 10 near the rubber rollers 314 and 315 is attracted to the rubber rollers 314 and 315 and conveyed. A suction fan 327 is provided to facilitate the operation.

  In addition, in the cover 328, there are provided clutch motors 326 for applying a rotational force to the clutch rollers 323, 324, and 325 and the roller 329. Further, at the most downstream side of the feeder unit 102, a constantly rotating rubber roller 317 to which the rotational force of the drive motor 326 is transmitted via a roller 329 that does not include an electromagnetic clutch is provided. The rotational force from the drive motor is transmitted to the clutch rollers 323, 324, 325 and the roller 329 via the belt 322, and the rotational force of the roller 329 is transmitted to the rubber roller 317 via the belt 321.

  26 shows a schematic cross-sectional view of the first retard means 306 and the second retard means 307 (in FIG. 26, the first retard means 306 is shown). As shown in the figure, the first retard means 306 (second retard means 307) is provided on a fixed shaft 402 serving as a rotation shaft and an outer periphery of the fixed shaft 402, and a torque limiter 404 for adjusting a braking force. And a rubber member 406 that is provided on the outer periphery of the torque limiter 404 and separates the overlapping booklet 10, and a presser spring 408 that presses the fixed shaft 402 from above. That is, the first retard means 306 and the second retard means are rubber rollers with a built-in torque limiter.

  In the present embodiment, the first retard means 306 is restricted from rotating and functions as a fixed roller. For this reason, the first retard means 306 may be configured as a squeegee or a simple bar as long as it is a material that can generate an appropriate braking force on the booklet surface. Well, there is no particular question about its form.

  The first retard means 306 is set so that the pressing force by the pressing spring 408 is extremely weaker than that of the second retard means 307. For this reason, even if the booklet 10 does not exist underneath and is in contact with the lower rubber roller 312, there is no risk of excessive addition to the rubber roller 312. Further, even when there is only one booklet between the rubber roller 312 and the first retarding means 306, there is no possibility that an excessive frictional force is applied to the surface of the booklet 10 and the booklet 10 is damaged.

  However, when there are a plurality of booklets between the rubber roller 312 and the first retarding means 306, the frictional force between the rubber roller 312 and the booklet 10 rather than the frictional force between the superimposed booklets 10, The frictional force between the first retard means 306 and the booklet 10 becomes stronger. For this reason, the lower booklet 10 gripped and conveyed by the rubber roller 312 and the upper booklet 10 to which the braking force is applied by the first retard means 306 are peeled (coarsely).

  In the second retard means 307, the pressing force of the pressing spring 408 is set to be stronger than that of the first retard means 306. For this reason, the torque limiter 404 is provided so that an excessive load is not applied to the rubber roller 316 even when there is no booklet between the rubber roller 316 and the rubber roller 316. Thus, when the second retard means 307 and the rubber roller 316 are in contact with each other, the rubber roller 316 is driven to rotate while being braked by the torque limiter 404.

  As described above, the first retard means 306 is a means for roughing the superimposed booklet 10. For this reason, there are cases where the booklet 10 conveyed to the second retard means 307 is one and cases where a plurality of two or more magazines are superimposed. When one booklet 10 exists between the rubber roller 316 and the second retarding means 307, the booklet 10 is rotated by the movement of the booklet 10 as described above. On the other hand, when there are a plurality of superimposed booklets 10, the lower booklet 10 moves while gripping the rubber roller 312, but the braking force by the torque limiter 404 is greater than the frictional force between the superimposed booklets 10. The second retard means 307 does not rotate, and the upper booklet 10 is gripped by the second retard means 307 and peeled off by the braking force of the torque limiter 404.

  FIG. 27 shows a schematic cross-sectional view of the rubber roller 310. As shown in the figure, the rubber roller 310 includes a drive shaft 410 driven by the rotation of the belt 318, a one-way clutch 412 that is provided on the outer periphery of the drive shaft 410, and that is driven and rotated by the booklet 10 in contact therewith. A rubber member 414 that is provided on the outer periphery and conveys the booklet 10 is provided.

  The configuration of the rubber rollers 311 and 312 is the same as that of the rubber roller 310. With such a configuration, even when the booklet 10 is pulled out by the rotational force of the rubber roller 313 and the pressing roller 308, the rubber rollers 310, 311, 312, the belt 318, and the booklet 10 itself are A load can be avoided.

(Operation of feeder section)
Next, the operation of the feeder unit 102 will be described with reference to the schematic side view of the feeder unit 102 shown in FIGS. 28 to 33 and the timing chart showing the relationship between time and ON-OFF of each unit shown in FIG. .

First, as illustrated in FIG. 28, the booklet 10 is stacked on the paper feeding unit 302. In this case, each booklet 10 may have a different thickness.
When the operator operates an operation start button (not shown), as shown in the timing chart of FIG. 34, a start signal is output from the control unit 108, the drive motor 326, the electromagnetic clutches in the clutch rollers 323, 324, and 325, The suction fan 327 is turned on. The belt 322 is rotated by driving of the drive motor 326, and the rotation is transmitted to the belt 318, the belt 319, and the belt 320 via the clutch roller 323, the clutch roller 324, and the clutch roller 325, respectively. The rotation of the belt 318 is transmitted to rotate the rubber roller 310, the rubber roller 311, and the rubber roller 312. The rotation of the belt 319 is transmitted to rotate the rubber roller 313. The rotation of the belt 320 is transmitted to the rubber roller 314, the rubber roller 315, and the rubber roller. 316 rotates. Further, the rotation of the motor 326 is transmitted from the belts 322 and 321 via the roller 329, and the rubber roller 317 rotates.

  By rotation of the rubber rollers 310, 311, 312, the plurality of booklets 10 are pulled out from the lower part of the paper feed unit 302, and the plurality of booklets 10 pulled out are separated into one to several books by the first retard means 306. In the following, a description will be given of the double feed state in which the first retard means 306 separates the two books and transports them.

  Here, in order to eliminate the double feed of the booklet 10 by the first retard means 306, the first retard means 306 needs a strong spring force and a strong torque. More specifically, as shown in FIG. 35, the peeling force F3 for peeling off the lowermost one of the stacked booklets 10 is F3 = when the weight of the upper booklet is F2. μ × F2 (μ is a friction coefficient). That is, as the booklet is stacked, a stronger peeling force is required.

  In order to obtain a strong peeling force by the first retarding means 306, a strong spring force by the presser spring 408 for generating a strong pressing force for pressing the booklet 10 against the rubber roller 312 and the overlapped booklet 10 are moved. Of the booklet 10 to which a strong braking force and a strong spring force by the torque limiter 404 for suppression are applied, a strong conveying force is required to pull out the booklet while gripping the lowermost booklet. However, if the force required for peeling is increased with a strong spring force and a strong torque, the booklet to which a strong conveying force is applied may be damaged and the booklet may be broken. For the above reasons, the separation roller 306 is set to have a weak spring force and a weak brake force. In the figure, F1 is a conveying force applied by the rubber rollers 310, 311, and 312.

  As shown in FIG. 29, when the superposed booklet 10A thus fed reaches the sensor 303, the sensor 303 detects the arrival of the superposed booklet 10A, and the clutch 323 is controlled by the control of the transport position detecting means 13 and the rotation control means 12. Is OFF (see t1 in the timing chart shown in FIG. 34).

  When the clutch 323 is turned off, the rotation of the belt 318 is stopped, and the driving force of the rubber roller 310, the rubber roller 311 and the rubber roller 312 is lost. As a result, the booklet 10 in the paper feed unit 302 is not conveyed.

The overlapped booklet 10 </ b> A that has been double fed is pulled out by the rubber roller 313 and the pressing roller 308. Here, since the one-way clutch 412 is built in the rubber roller 310, the rubber roller 311, and the rubber roller 312, only the rubber roller in contact with the superimposed booklet 10A being fed is rotated.
Thus, since the rubber roller is not rotated, the booklet 10 in the paper feed unit 302 is not conveyed.

  When the overlapping booklet 10A is pulled out by the rubber roller 313 and the pressing roller 308, as shown in FIG. 30, there is no presser such as a roller on the overlapping booklet 10A. This is because when the overlapping booklet 10 </ b> A is separated again by the separation roller 307, it is necessary to have no roller or the like in the upper part.

  At this time, as shown in the timing chart of FIG. 34, the suction fan 327 is ON and operating. Therefore, since the suction fan 327 sucks the overlapped booklet 10A fed from the gap between the cover 328 and the rubber rollers 310 to 317, the overlapped booklet 10A is attracted to the rubber rollers 314 and 315, and the overlapped booklet 10A is conveyed. Is possible.

  When the superimposed booklet 10A reaches the position of the sensor 304, the sensor 304 detects the arrival of the superimposed booklet 10A, and the electromagnetic clutch in the clutch roller 324 is turned off by the control of the transport position detecting means 13 and the rotation control means 12 (FIG. 34 (see t2 in the timing chart). When the electromagnetic clutch of the clutch roller 324 is turned off, the rotation of the belt 319 is stopped and the rubber roller 313 is stopped.

The superimposed booklet 10A is conveyed to the position of the second retard means 307 by the rubber rollers 314 and 315, and is surely separated into one book by the second retard means 307 (see FIG. 31).
As shown in FIG. 36, the separation force F5 at this time requires a force of F5 = μ × F4 or more, and its own weight F4 is extremely small compared to F2 when a large number of booklets 10 are stacked. Therefore, F5 becomes extremely small. Therefore, even if the second retarding means 307 having a weak spring force (stronger than the first retarding means 306) and a weak braking force is used, an appropriate grip force can be applied between the rubber roller 316 and the booklet 10. The superimposed booklet 10A can be easily separated. Here, the lower booklet after the superposed booklet 10A is separated is referred to as a booklet 10B, and the upper booklet is referred to as a booklet 10C.

  The booklet 10B is conveyed by the rubber rollers 314, 315, 316, and 317, and reaches the position of the sensor 305 as shown in FIG. The sensor 305 detects the booklet 10B, and the electromagnetic clutch of the clutch roller 325 is turned off under the control of the transport position detection means 13 and the rotation control means 12 (see t3 in the timing chart of FIG. 34).

When the electromagnetic clutch of the clutch roller 325 is turned off, the belt 220 is stopped, the driving force of the rubber rollers 314, 315, and 316 is lost, and the booklet 10C is not conveyed.
The booklet 10B is pulled out by the rubber roller 317 and the pressing roller 309. Since the one-way clutch 412 is built in the rubber rollers 314, 315, 316, only the one in contact with the booklet 10B is driven to rotate. Thus, the booklet 10C is not conveyed because there is no rotation of the rubber roller.

Then, the booklet 10B can be conveyed to the rubber roller 317 and discharged to the downstream turning portion 103 side as shown in FIG.
Thus, by using the two retard means 306 and 307, the booklet 10 is not damaged by applying a strong peeling force to the booklet 10. Further, it is possible to supply the booklet 10 having an arbitrary thickness to the turning portion 103 side one by one without adjusting the setting one by one according to the thickness of each booklet 10. Further, by controlling the rotation of the rubber rollers 310, 311, 312, 313, 314, 315, and 316, it is possible to reliably separate and feed one by one.

When the sensor 305 is turned off, when the sensor 304 is on, that is, when the booklet 10 is detected, it means that the peeled booklet 10 remains on the conveyance path. Therefore, the electromagnetic clutch of the clutch roller 325 is turned on, the rubber rollers 314, 315, and 316 are driven, and the remaining booklet 10 is sent to the roller 317 side (see t4 in the timing chart of FIG. 34).
When the booklet 10 passes through the roller 317 and is detected by the sensor 305, the electromagnetic clutch of the clutch roller 325 is turned off again (see t5 in the timing chart of FIG. 34).

  When the detection of all the sensors is turned off and the booklet 10 can be conveyed to the turning portion 103, the electromagnetic clutches of all the clutch rollers 323, 324, and 325 are turned on again, and the conveyance of the booklet 10 is resumed (see FIG. 34 (see t6 in the timing chart).

(Loader conveyor)
Next, the loader conveyor unit 101 will be described. The loader conveyor unit 101 is used when a large amount of booklets 10 are processed. When the loader conveyor unit 101 is used, as shown in FIG. 1, the loader conveyor unit 101 is arranged on the upstream side of the feeder unit 102, and a large amount of booklets 10 to be processed are stacked on the loader conveyor unit 101. .

The feeder booklet detection unit 16 detects whether or not the booklet 10 exists in the feeder unit 102 based on a signal from the booklet presence / absence sensor 109.
The booklet supply control means 17 sends a signal for driving the loader conveyor section 101 when the feeder booklet detection means 16 determines that the booklet 10 does not exist in the feeder section 102, and the booklet stacked on the loader conveyor section 101 is sent. It is moved to the paper feed unit 302 of the feeder unit 102.

  In this way, by using the loader conveyor unit 101, it is possible to automatically acquire image data of all pages of the booklet 10 simply by stacking a large number of booklets 10 to be processed on the loader conveyor unit 101. It can be efficient.

  As described above, according to the page turning reading device 1, it is possible to continuously acquire each page of a plurality of booklets 10 with different thicknesses as image data, which saves labor and time for work. It becomes possible to reduce significantly.

  In the above-described embodiment, the case where a plurality of booklets 10 are processed has been described. However, even when one sheet of paper is mixed in the plurality of booklets 10, continuous processing is performed by the page turning reader 1. It can be carried out.

Next, application forms of each part in the page turning reading apparatus according to the embodiment will be described.
The form shown in FIG. 37 is an example in which a bulge detection sensor 330 is provided in the conveyance path in the feeder unit 102 and the sensor 305 is a height detection sensor. The swelling detection sensor 330 is a sensor provided between the pressing roller 308 and the second retard means 307. The swell detection sensor 330 may be, for example, an optical sensor. When there is an object separating the light emitted from the light emitting unit between the light emitting unit and the light receiving unit, the swell detection sensor 330 detects this as a bulge.

  By providing such a sensor, as shown in FIG. 37, it is possible to detect the so-called reversely inserted booklet 10 in which the binding portion is arranged on the upstream side of the conveyance path. This is because when the reversely inserted booklet 10 is conveyed and the brake force (friction force) is applied to the booklet surface by the second retard means 307, the page corresponding to the cover of the booklet 10 is bent and turned up. It becomes a state. For this reason, the light emitting unit and the light receiving unit in the bulge detection sensor 330 are separated from each other, and bulge (reverse insertion) is detected.

  As described above, the height detection sensor may be the same as the sensor 305 that is disposed on the downstream side of the pressing roller 309 and detects the presence or absence of the booklet 10. Here, as a sensor for detecting the presence / absence of the booklet 10, any sensor having a function capable of simply detecting ON / OFF may be used. On the other hand, in order to have the function of detecting the height of the booklet 10, it is necessary to have a lateral distance. Therefore, a laser distance sensor or the like may be employed as the sensor 305.

  Also, a guide 312a as shown in FIG. 43 is preferably provided between the paper feed unit 302 and the first retard means 306. By providing such a guide 312a, when the thickness of the booklet 10 sent out from the paper supply unit 302 is thick or when the number of booklets 10 is large, the booklet 10 comes into contact with the guide 312a, so that the guide 312a The tip will be lifted upward. The tip of the guide 312 a is set so that a part thereof is disposed below the first retard means 306. For this reason, when the tip of the guide 312a is lifted, the first retarding means 306 is also lifted, and the booklet 10 collides with the side surface of the first retarding means 306 and disturbs the lifting of the first retarding means 306. Can be prevented.

  Next, an application mode related to the turning unit 103 will be described. In the above-described embodiment, it has been described that the rising of the first conveyor belt 201 and the second conveyor belt 202 at the time of imaging simply presses the booklet 10 against the glass plate 208. However, in detail, it is desirable to control the elevation of the first conveyance belt 201 and the second conveyance belt 202 in consideration of the thickness of the booklet 10 gripped by the grip portion 203.

  Specifically, as shown in FIG. 38, the distance from the conveyance path F to the glass plate 208 is A, the distance from the conveyance path F to the air suction pad 206 is B, and the thickness of the booklet 10 detected by the sensor 305 is a. In this case, the first rising distance α of the first conveying belt 201 is Aa in consideration of the thickness of the booklet 10. On the other hand, the first rising distance β of the second conveying belt 202 is A because the thickness of the booklet 10 is not taken into consideration.

  Further, as shown in FIG. 39, the first conveyor belt 201 raises the booklet 10 so as to press the air suction pad 206 when turning the page. When the rising distance of the first conveying belt 201 at this time is b, the rising distance α ′ of the first conveying belt 201 for the second and subsequent times can be A− (B−b). On the other hand, the rising distance β ′ of the first conveyance belt 202 after the second time is α ′ + [a− (B−b)].

  By performing such control, even the thick booklet 10 can be stably pressed against the glass plate 208, and the captured image can be made clear. A proximity detection sensor 214a that detects proximity to the air suction pad 206 is provided in the vicinity of the air suction pad 206, and the rising distance b is a distance to the output position of the detection signal from the proximity detection sensor 214a. Further, in the calculation, the distance control as described above causes an error of one page in the ascending distance. However, when considering a change in thickness due to an air layer between pages, it is necessary to consider the error. There is almost no.

  In the above embodiment, when turning a page, it is described that a plurality of pages are prevented from being turned by swinging the air suction pad 206 and blowing air from the air blowing nozzle 207. However, a plurality of page turning prevention sensors 230 may be provided in order to reliably prevent a plurality of pages from being turned (see FIG. 40).

  The plural turning prevention sensor 230 determines whether or not the page to be turned is one page by detecting the thickness and the number of pages sucked by the air suction pad 206. If it is determined that there are a plurality of pages, suction by the air suction pad 206 is performed again.

  As the plural turning prevention sensor 230, a sensor such as an ultrasonic sensor or a transmission type sensor can be used. Preferably, a plurality of these sensors are used in combination. For example, when the transmission type sensor is used alone, when the form of the booklet 10 adopts a bag binding type page, it is unknown whether or not it is one page depending on how the bag is opened. End up. On the other hand, when an ultrasonic sensor is used, it can be determined that there are two pages regardless of how the bag is opened (one page can be determined as a booklet page). If you have). For this reason, a combination of a plurality of sensors is used for detection, so that it is possible to reliably prevent a plurality of pages from being turned.

  In addition, when the page of the booklet 10 includes a fold having a different paper piece length, as shown in FIG. 41, only the fold page 10a may stand up. For this reason, the turning portion 103A can be provided with a folding detection sensor 231 that detects the rising of the folding page 10a. The folding detection sensor 231 may be an optical sensor having a light emitting part and a light receiving part as in the bulge prevention sensor 330.

  Further, a sensor may be provided in the advancing direction of the support member 214 to detect when a page turning failure or the like occurs (see FIG. 42). Specifically, the turned page 10b may cover the traveling direction side of the support member 214 due to the page turning failure. In such a case, the sensor 232 may be provided in the traveling direction of the support member 214. The sensor 232 may be a proximity sensor or the like. By providing such a sensor, it is possible to suppress the risk of overlapping imaging of the same page, page folding, and the like.

  Next, the board 502 for forming the booklet 500 that is read by the page turning reading apparatus 1 of the present embodiment will be described. 44 is a plan view of a booklet using the mount of the present embodiment, and FIG. 45 is a cross-sectional view taken along line AA of FIG. In FIG. 44, a bundle of pages 518 constituting the booklet 500 is omitted. FIG. 45 also shows a detailed view in which a portion surrounded by a rectangular broken line is enlarged.

  As mentioned above, in addition to the booklet 10, as documents to be digitized, application forms, slips such as receipts and bills for utilities, etc., or personal information (copy of driver's license) were written Documents exist. These include not only fixed-size documents (eg, A4 size) but also smaller documents 516 smaller than that. However, the standard document is often formed of thin pressure sensitive paper or the like, and its tensile strength is small. Then, considering the case where these are collectively made into a booklet and the page turning reading device 1 reads the standard document and the small document 516, the pressure-sensitive paper used for the standard document is thin as described above. There is a risk of damage. Further, the small document 516 is smaller than the standard document, and the binding operation becomes complicated. Therefore, by using the mount 502 of this embodiment and making it into a booklet 500, it is possible to easily read the original standard document and the small document 516 and manage them thereafter.

  The mount 502 according to this embodiment includes a mount body 504, a folding unit 506, and a pocket 508. The mount main body 504 is made of paper (such as high-quality paper) that is sufficiently thicker (higher tensile strength) than the pressure-sensitive paper described above. The mount body 504 has substantially the same dimensions as a standard document (page) formed of pressure-sensitive paper or the like. Further, a bundle of pages 518 made of thin paper such as pressure sensitive paper is disposed on the mount body 504. As a result, the mount body 504 forms one end (lowermost) page of the booklet 500.

  The folding unit 506 is integrated with the mount body 504, extends from the end of the booklet 500 of the mount body 504 on the conveyance direction side by the feeder unit 102, and is folded to the page bundle 518 side. In the page from the end to the other end (topmost part) of the booklet 500, the page is formed so as to cover the end side of the bundle of pages 518. Accordingly, the page bundle 518 is sandwiched between the mount main body 504 and the folding portion 506, and the mount main body 504 and the folding portion 506 are bound together with the page bundle 518 and the binding means such as the stapler 520. Will be bound.

  The pocket 508 is formed by a transparent sheet 510 attached (attached) to the mount body 504. The sheet 510 is in a state in which only the peripheral edge portion (the pasting area 512) is attached to the mount body 504, and a part of the peripheral portion is not attached to the mount body 504 and is opened between the sheet 510 and the mount body 504. A portion 514 is formed. A small document 516 can be accommodated from the opening 514 (the gap between the mount body 504 and the sheet 510).

  The shape of the sheet 510 is arbitrary, but a rectangular shape is optimal. In this case, the periphery of three sides of the rectangle may be attached to the mount body 504, and the opening 514 may be formed on the remaining one side. Although the position of the opening 514 is arbitrary, as shown in FIG. 44, the side of the sheet 510 facing the folded portion 506 and the side other than the side facing the side (side facing the long side of the mount body 504). It is desirable to form. When the opening 514 is formed on the side of the sheet 510 that faces the folding part 506, the storage of the small document 516 becomes somewhat complicated, and when the opening 514 is formed on the side of the sheet 510 that is opposed to the folding part 506, it is stored once. There is a risk that the small document 516 may come out of the opening 514.

  Further, the pocket 508 is attached unevenly on the folding portion 506 side in the mount body 504. As a result, the mount body 504 is exposed on the side opposite to the folding portion 506 of the mount body 504. By making this exposed portion the inspection position of the above-described plural turning prevention sensor 230 (FIG. 40), the plural turning prevention sensor 230 mistakes the portion where the sheet 510 and the mount body 504 overlap as double turning (multiple turning). Detection can be avoided.

  A case where the booklet 500 formed by the mount 502 of the present embodiment is conveyed from the feeder unit 102 will be described (see FIG. 28). In FIG. 28, a case is considered where a booklet 500 formed by a mount 502 is arranged at the bottom of the booklets 10 stacked on the paper feed unit 302 and is fed out from the paper feed unit 302 by the rotation of rubber rollers 310, 311, 312. . At this time, only the stress (separation force) that separates from the booklet 10 (the other booklet 500) on the booklet 500 at the lowermost stage due to the load of the other booklet 10 (the other booklet 500) stacked on the booklet 500 at the bottom. Instead, a stress (separation force) that shears the booklet 500 itself in the conveyance direction of the booklet 500 is applied.

  At this time, if the booklet 500 does not have the folding portion 506, a stress is applied to peel off the uppermost page of the booklet 500 and the page below it in the transport direction of the booklet 500. As described above, the booklet 500 is bound by binding means such as the stapler 520, but when the pages constituting the booklet 500 are formed of pressure-sensitive paper or the like, the tensile strength is small. There is a risk of breakage with the portion bound by the binding means as a base point.

  However, by providing the folding part 506 as in the present embodiment, the folding part 506 receives the stress to be peeled off. Since the folded portion 506 is formed of paper having a relatively high tensile strength such as high-quality paper, it is not damaged by the stress described above. This avoids the application of stress that causes the uppermost page of the booklet 500 and the page below it to be peeled off in the conveyance direction of the booklet 500, so that the other booklet 10 (the other booklet 500) is not damaged. It can be separated and transported.

  After that, the booklet 500 carried out from the feeder unit 102 to the turning unit 103 is gripped by the grip unit 203 at the folding unit 506 (see FIGS. 3 and 6). As with the booklet 10, it is possible to turn pages and generate image data for each page, and it is also possible to read a small document 516 accommodated in the pocket 508 of the mount body 504. After reading each page, the original standard document and the small document 516 can be managed as they are in the booklet 500.

  In FIGS. 44 and 45, the booklet 500 is bound on the short side of the page. However, the booklet 500 may be bound on the long side of the page. In other words, the folding portion 506 extends from the long side of the mount body 504, and the folding portion 506 and the mount body 504 are bound together with the page bundle 518 at a position overlapping the end of the long side of the page bundle 518. Can be configured. Thereby, the booklet 500 can be constructed in the same form as a book or the like. Further, although the pocket 508 is attached to the surface of the mount body 504 on the page bundle 518 side, it may be attached to the opposite surface. Further, the mount 502 according to the present embodiment has been described as being used for binding a page (standard document) formed of pressure-sensitive paper. However, the mount 502 can also be applied to a page (standard document) made of normal high-quality paper or the like.

DESCRIPTION OF SYMBOLS 1 ......... Page turning reading apparatus, 101 ......... Loader conveyor part, 102 ......... Feeder part, 103, 103A ......... Turning part, 104 ......... Defective product stack part, 105 ......... Good product stack conveyor part 106... Imaging camera 107... LED lighting 108... Control unit 109... Booklet presence sensor 11 image data acquisition unit 12 rotation control unit 13. ... conveying position detecting means, 14 ......... abnormality detecting means, 15 ......... abnormality processing means, 16 ......... feeder booklet detecting means, 17 ......... booklet supply control means, 201 ......... first conveying belt section, 202... Second conveyor belt section 203... Gripping section 204... First turning bar 205... Second turning bar 206 206 air suction pad 207 air spray nozzle , 208 …… Glass plate, 209... Slide guide, 210... Sensor, 211... Sensor, 212... Gripping claw, 213. Shaft, 216... Support rod, 217... Support member, 218... Booklet push-up rod, 302 .. Feeder, 303, 304, 305 .. Sensor, 306. 307... Second retarding means, 308, 309... Pressing roller, 310, 311, 312, 313, 314, 315, 316, 317 ...... Rubber roller, 318, 319, 320, 321, 322. 324, 325, clutch, 326, drive motor, 327, suction fan, 328, cover, 329, roller, 500, booklet, 502, mount, 5 4 ......... Mount body, 506 ......... Folded part, 508 ......... Pocket, 510 ......... Sheet 512 ......... Attachment area, 514 ......... Opening part, 516 ......... Small document, 518 ... … A bunch of pages, 520 ……… a stapler.

Claims (3)

Mount for binding a bundle of pages constituting the booklet, used in a page turning reading device that conveys a plurality of stacked booklets one by one from the bottom and reads each page while turning the pages of the conveyed booklet Because
The mount is
A mount body that is bundled together with the bundle of pages so as to be one end page of the booklet, and is turned by the page turning reader;
The end of the bundle of pages on the page that extends from the end portion on the transport direction side of the mount body and is folded to the bundle side of the page and becomes the other end page of the booklet from the end portion of the bundle of pages. A folding part that covers up to the part side,
The mount body and the folding part are:
Bound together with the bundle of pages at a position overlapping the bundle of pages,
In the mount body,
A booklet binding mount for use in a page turning reading device, which is formed of a transparent sheet and has a pocket for accommodating a small document smaller than the page.   The booklet binding mount used in the page turning reading apparatus according to claim 1, wherein the pocket is attached to the folding main body so as to be unevenly distributed on the folding portion side.   The folded portion extends from the long side of the mount body, and the folded portion and the mount body are bound together with the bundle of pages at a position overlapping the end portion on the long side of the bundle of pages. A booklet binding mount for use in the page turning reading device according to claim 1 or 2.

Images