JP2012174047A - Paper money processor - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a paper money processor for, even when various sizes of paper moneys are input in a skew state or one-sided state, appropriately delivering the paper money.SOLUTION: A paper money processor 11 according to the embodiments of the present invention includes: a money reception part 110 for inputting paper money; a storage part 150 for storing paper money; a conveyance part 130 for conveying paper money from the money reception part to the storage part; and a position correction part 115 for correcting the position of paper money so that the both sides of paper money input to the money reception part can be aligned to the conveying direction of the conveyance part.

Description

  The present invention relates to a banknote handling apparatus that deposits banknotes and stores the banknotes.

  2. Description of the Related Art Conventionally, a cash processing apparatus that counts and stores input cash and throws out the stored cash has been used in stores and financial institutions. A cash processing apparatus is generally composed of a banknote processing apparatus and a coin processing apparatus. As such cash processing apparatuses become widespread worldwide, the banknotes handled by the cash processing apparatuses include not only Japanese yen banknotes but also foreign banknotes, and the types thereof have been diversified. When the types of banknotes increase, the banknote processing apparatus constituting the cash processing apparatus is required to smoothly deposit, withdraw and store banknotes of different sizes.

Japanese Patent No. 4292232 Japanese Patent Laid-Open No. 58-22240 JP-A-4-41335

  As for the banknote processed in a banknote processing apparatus, it is desirable for each edge to be in a state of being perpendicular or parallel to the transport direction.

  However, the width of the tray of the depositing part or the dispensing part needs to be set so as to be compatible with the maximum size bill. When such a tray is used, small-sized banknotes may be arranged obliquely with respect to the direction in which they are drawn from the tray, or may be arranged biased toward the end of the tray. If a banknote is arrange | positioned diagonally, a banknote will be paid out in the state diagonally with respect to a conveyance direction at the time of delivery of a banknote (skew feeding). In addition, when the banknote is arranged at the end of the tray, the feeding unit does not pull the central part of the banknote but pulls the banknote by pulling the position biased to one side of the banknote. Become. Such skew feeding causes banknote jamming (banknote jam) in the middle of the transport path, or makes it difficult to identify banknotes.

  On the other hand, when the banknotes are transported in a skewed state when the banknotes in the storage unit are thrown out to the withdrawal unit, when a plurality of banknotes are dispensed in the withdrawal part, both sides of the plurality of banknotes are not aligned. Therefore, the problem that it is difficult for a user to take out a banknote from a withdrawal part also arises.

  Therefore, an object of the present invention is to allow banknotes to be fed out in an appropriate state with respect to the transport direction even when banknotes of various sizes are inserted in a skewed state or a side-by-side state. It is providing the banknote processing apparatus which suppresses clogging and makes identification of a banknote easy.

  In order to solve the above-described problems, a cash processing apparatus according to an embodiment of the present invention conveys a banknote from a depositing unit that inserts banknotes, a storage unit that stores banknotes, and the depositing unit to the storage unit. A transport unit, and a position correction unit that corrects the position of the bill so that the direction of both sides in the length direction with respect to the transport direction of the bill inserted into the deposit unit is brought closer to the transport direction of the transport unit. .

  The cash processing apparatus further includes a banknote mounting unit that mounts the banknotes inserted into the depositing unit, and the position correction unit has the center of both sides of the banknotes inserted into the depositing unit at the center of the banknote mounting unit. You may correct | amend the position of a banknote so that it may approach.

  The position correcting unit aligns the plurality of banknotes so that both sides of the plurality of banknotes inserted into the depositing unit substantially coincide when the banknotes inserted into the depositing unit are viewed from above the surface of the banknotes. May be.

  The position correction unit includes at least one guide that is movable in a substantially vertical direction with respect to the transport direction of the transport unit in a substantially horizontal plane with respect to the surface of the bill inserted into the deposit unit, and the guide is A drive source that moves the guide so as to elastically press the side edge and a transmission mechanism that transmits the drive force of the drive source to the guide via an elastic body may be included.

  The depositing unit may include a sensor that detects a bill inserted or thrown out, and the position correction unit may operate to correct the position of the bill when the sensor detects the bill.

  The cash processing apparatus further includes a withdrawal unit for dispensing banknotes, the transport unit transports banknotes from the storage unit to the withdrawal unit, and the cash processing apparatus dispenses to the withdrawal unit. The dispensing unit may be provided with a position correcting unit that corrects the position of the banknote so that the direction of both sides in the length direction with respect to the transported direction of the banknote is close to the transporting direction of the transporting unit.

  The banknote handling apparatus according to the present invention can feed out banknotes with appropriate orientations of banknotes with respect to the transport direction even when banknotes of various sizes are inserted in a skewed state or a side-by-side state.

The external view of the banknote change machine 11 according to 1st Embodiment which concerns on this invention. The block diagram which shows the structural example of the banknote change machine 11. FIG. Sectional drawing which shows an example of an internal structure of the banknote change machine 11. FIG. The block diagram which shows an example of the position correction | amendment part 115 by this embodiment. The conceptual diagram which shows an example of the position correction | amendment operation | movement of a banknote. The side view which looked at the position correction | amendment part 115 from the horizontal direction (any direction of D1). The flowchart which shows the payment operation | movement of the banknote change machine 11 by this embodiment.

  Embodiments according to the present invention will be described below with reference to the drawings. This embodiment does not limit the present invention.

(First embodiment)
FIG. 1 is an external view of a bill change machine 11 which is a bill processing apparatus according to the first embodiment of the present invention. The bill change machine 11 is provided, for example, in a checkout area in a store, and is connected to a POS register operated by a store clerk or a self-checkout register operated by a customer so as to be received from the customer as a price. Bills and bills to be paid to customers as change are processed and stored. Specifically, when dispensing the difference between the product price calculated in the register and the amount deposited in the cash processing device as change, the banknote change machine counts and stores the received banknotes, Withdraw banknotes. The bill change machine 11 may be configured integrally with a POS register or a self-checkout register. Moreover, the banknote change machine 11 may be communicably connected to a cash management device (not shown) installed in the back office to constitute a cash processing system.

  The bill change machine 11 includes a housing 100, a depositing unit 110, and a dispensing unit 120. The depositing unit 110 is provided in order to insert loose banknotes. The withdrawal unit 120 is provided for throwing out loose banknotes.

  FIG. 2 is a block diagram illustrating a configuration example of the banknote change machine 11. In addition to the deposit unit 110 and the withdrawal unit 120, the bill change machine 11 includes a position correction unit 115, a transport unit 130, an identification unit 140, a storage unit 150, a bill detection sensor 160, a memory 170, and a communication unit. 180 and a control unit 190 are further provided.

  The position correcting unit 115 is provided in the depositing unit 110 and is provided for correcting the position of the bill inserted into the depositing unit 110. The configuration and operation of the position correction unit 115 will be described later.

  The transport unit 130 transports the cash inserted into the depositing unit 110 to the storage unit 150 or transports the cash thrown out from the withdrawal unit 120 from the storage unit 150.

  The identification unit 140 is configured to detect the denomination, authenticity (and true / false indefinite), correctness, new and old, quantity, etc., of the cash being conveyed by the conveying unit 130. For example, the identification unit 140 includes a sensor such as an image sensor or a magnetic sensor. Specifically, the identification unit 140 compares the sensor information with the information stored in the memory 170 to determine the denomination, authenticity (and true / false indefinite), correctness, new / old, quantity, etc. And classified into genuine, counterfeit, and uncertain. If the denomination cannot be determined, it is determined as a reject ticket. At the same time, the identification unit 140 detects folds, tears, dirt, and the like of banknotes, and classifies good ones as genuine and bad ones as bad ones. Further, the identification unit 140 counts the quantity of cash by denomination and fitness.

  The storage unit 150 is configured to store the cash identified by the identification unit 140 for each denomination. The storage unit 150 may be a stack type storage unit that stacks and stores each banknote for each denomination, or a plurality of windings that wind the tape together with the banknote in a state where each banknote is sandwiched between a plurality of tapes for each denomination. It may be a tape reel type storage unit.

  The banknote detection sensor 160 is provided in the deposit part 110, the withdrawal part 120, the conveyance part 130, etc., and detects the presence or absence of a banknote and the passage of the banknote to be conveyed.

  The memory 170 includes a ROM (Read Only Memory) or HDD (Hard Disk Drive) that stores various programs and data for controlling the bill change machine 11, and a RAM (Random) that serves as a program load area and a work area when the program is executed. Access Memory). The memory 170 also stores information (denomination, quantity, etc.) of cash stored in the storage unit 150. Furthermore, the memory 170 may store the amount of cash identified by the identifying unit 140 for each denomination.

  The communication unit 180 connects the banknote change machine 11 with other devices (register, cash accounting device, cash management device, POS management device, etc.) constituting the cash processing system in the store so as to communicate with each other.

  The control unit 190 is an arithmetic processing unit configured to control the entire bill change machine 11 by executing a program in the memory 170.

  FIG. 3 is a cross-sectional view showing an example of the internal configuration of the bill change machine 11. The bill change machine 11 includes a depositing unit cover 111. There is a gap at the bottom of the deposit cover 111, and even when the cover 111 is closed, a small number of bills can be inserted. When inserting a large amount of banknotes, the store clerk opens the depositing unit cover 111 and deposits the banknotes into the depositing unit 110 when depositing. The depositing unit 110 is configured to feed the inserted bills one by one to the transport unit 130. The transport unit 130 is configured to transport the fed banknotes to any one of the storage unit 150, the withdrawal unit 120, or the collection cassette 180 after passing the bill through the identification unit 140. The identification unit 140 identifies the denomination, authenticity (and authenticity uncertain), correctness, old and new, quantity, and the like of the banknote being conveyed. The transport unit 130 stores banknotes in the storage unit 150 for each denomination based on the identification result by the identification unit 140. When the storage unit 150 is full of banknotes, the banknotes are stored in the collection cassette 180.

  In addition, the conveyance part 130 throws it out to the payment part 120, when a rejection ticket, a fake ticket, and a genuine / indefinite ticket are identified in the identification part 140. FIG. When a fake ticket or a genuine / indeterminate ticket is included, a state in which a later-described dispensing unit shutter 121 is closed and the arrival of an attendant is awaited.

  On the other hand, in order to withdraw banknotes, the storage unit 150 is configured to feed banknotes one by one to the transport unit 130. The transport unit 130 transports the fed banknotes to the dispensing unit 120. The bill change machine 11 includes a withdrawal unit shutter 121. After the withdrawal bills are collected, the withdrawal unit shutter 121 is opened to allow the withdrawal of the bills.

  Thus, the banknote change machine 11 stores the banknotes inserted into the depositing unit 110 in the storage unit 150, and conversely, can throw out the banknotes stored in the storage unit 150 to the dispensing unit 120. That is, the banknote change machine 11 is configured so that the deposited banknote can be reused for withdrawal.

  4A and 4B are configuration diagrams illustrating an example of the position correction unit 115 according to the present embodiment. The position correction unit 115 includes first and second guides 200a and 200b, first and second racks 210a and 210b as transmission mechanisms, first and second springs (elastic bodies) 220a and 220b, First and second pullback springs 230a and 230b, a pinion 240, a pinion rotating unit 250, and a solenoid 260 as a drive source are provided.

  Thereby, the position correction | amendment part 115 aligns both sides of the banknote mounted on the tray 112 as a banknote mounting part provided in the money_receiving | payment part 110 with the conveyance direction (henceforth feeding direction) D2 of the conveyance part 130. Correct the bill position.

  The first and second guides 200a and 200b operate in the width direction D1 of the banknotes mounted on the tray 112 and tap (push) both sides of the banknotes. At this time, the side surfaces of the guides 200a and 200b for pushing the banknotes are provided so as to be substantially parallel to the banknote feeding direction D2 so that both sides of the banknotes are made parallel to the feeding direction D2.

  Hereinafter, the structure of the first guide 200a, the first rack 210a, the first spring 200a, and the first retracting spring 230a will be described.

  The first guide 200a has a connecting portion 205a extending in the D1 direction. The connecting portion 205a has an opening 206a, and the first rack 210a has an opening 216a. A fastener 215a connects the connecting portion 205a of the first bill aligning guide 200a and the first rack 210a through the openings 206a and 216a so as to operate in the D1 direction. As a result, the first guide 200a can move relative to the first rack 210a in the direction D1.

  Further, a first spring (first elastic body) 220a is connected between the connecting portion 205a of the first guide 200a and the first rack 210a, and the first spring 220a is connected to the first guide 220a. 200a is elastically pulled in the direction of the second guide 200b. In this mechanism, the first guide 200a and the first rack 210a operate integrally, and a force equal to or greater than the elastic force (for example, tensile force or compressive force) of the first spring 220a is exerted in a direction in which the first guide 200a and the first rack 210a are separated from each other. It is an escape mechanism configured to be separated from each other when applied. Similarly, the second guide 200b and the second rack 210b operate integrally, and when a force equal to or greater than the tensile force of the second spring (second elastic body) 220b is applied in a direction in which the second guide 200b and the second rack 210b are separated from each other. Is configured to have a relief mechanism configured to separate.

  Thereby, the 1st guide 200a pushes the side of a bill elastically. The second guide 200b also elastically pushes the side of the bill. With such a configuration, when a force equal to or greater than the elastic force of the first spring (elastic body) 220a is applied between the first guide 200a and the banknote, the first guide further Do not move toward. In addition, when a force greater than the elastic force of the second spring (elastic body) 220b is applied between the second guide 200b and the bill, the second guide 200b also moves toward the bill. do not do. As a result, the first spring 220a and the second spring 220b have a first guide 200a and a second guide 200b that operate in conjunction with the first and second racks 210a and 210b, respectively. The driving force transmitted from the first and second racks 210a and 210b is missed so that the banknote is not deformed or pushed away when the banknote is pressed.

  The elastic coefficient of the first spring 220a is set based on the hardness or flexibility of the bill. In this embodiment, springs are used as the first and second elastic bodies 220a and 220b. However, elastic bodies (for example, rubber) having a certain elastic coefficient may be used instead of the springs.

  Further, the first rack 210a is coupled to one end of the first pulling spring 230a. The other end of the first pull-back spring 230 a is fixed to an arbitrary portion of the bill change machine 11 that is stationary with respect to the solenoid 260. The first pulling spring 230a is provided to pull the first guide 200a back to the original position (initial position) together with the first rack 210a after the first guide 200a arranges the banknotes.

  The configuration of the second guide 200b, the second rack 210b, the second spring 200b, the second pullback spring 230b, the connecting portion 205b, the openings 206b and 216b, and the fastener 215b is the same as that of the first guide 200a and the first guide 215b. The configuration of the rack 210a, the first spring 200a, the first pulling spring 230a, the connecting portion 205a, the openings 206a, 216a and the fastener 215a is mirror-symmetrical and can be easily understood from the above description. The description is omitted.

  The first rack 210a and the second rack 210b are connected to each other by a pinion 240, and can reciprocate in the direction D1 and opposite to each other by the rotation of the pinion 240.

  The shaft of the pinion 240 is connected to a pinion rotating unit 250 including a plurality of links shown in the figure, and the pinion rotating unit 250 is connected to a solenoid 260. When the solenoid 260 is turned on, the renoid 260 retracts the plunger 261 and rotates the pinion 240 to the right via the pinion rotating unit 250. Thereby, the 1st and 2nd guide 200a, 200b moves to the direction which mutually approaches (refer FIG.4 (B)). When the solenoid 260 is turned off, the first and second guides 200a and 200b, the pinion 240, the pinion rotating unit 250, and the plunger 261 are returned to the original state by the action of the retracting springs 230a and 230b (FIG. 4A). )). In this embodiment, the solenoid 260 is used as a drive source. However, for example, a motor such as a stepping motor may be used.

  With such a configuration, the first and second guides 200a and 200b are substantially in a horizontal plane with respect to the surface of the banknotes mounted on the tray 112 in the D1 direction (almost with respect to the transport direction D2 of the transport unit 130). It can reciprocate in the vertical direction) and lightly tap both sides of the bill from the direction D1. As a result, the bill direction and position are corrected, and the width direction positions of the plurality of bills are aligned in the transport direction D2. Or the position of the width direction of a plurality of bills approaches conveyance direction D2.

  Referring to FIG. 4A, the first guide 200a and the second guide 200b are separated so that the user can easily put banknotes into the tray 112. At this time, the interval between the first guide 200a and the second guide 200b is W2. This is a state (initial state) where the solenoid 260 is not driven. Note that the width of the tray 112 is W1. W1 may be the same as or close to W2.

  Referring to FIG. 4B, the first guide 200a and the second guide 200b are close to each other so as to hit both sides of the bill. At this time, the interval between the first guide 200a and the second guide 200b is W3. This is a state (operation state) in which the solenoid 260 is driven and the first guide 200a and the second guide 200b are in contact with both sides of the bill.

  The initial state shown in FIG. 4A and the operation state shown in FIG. 4B are repeated once or a plurality of times. Thereby, the operation | movement which taps both sides of a banknote with the 1st guide 200a and the 2nd guide 200b is implement | achieved.

  FIG. 5 is a conceptual diagram showing an example of the bill position correcting operation. For example, the size of a 500 euro banknote having the largest size among euro banknotes is 82 mm wide and 160 mm long. On the other hand, the size of the 5 euro banknote having the smallest size among euro banknotes is 62 mm in width and 120 mm in length.

  Therefore, in the initial state, the interval W2 between the first guide 200a and the second guide 200b must be greater than 82 millimeters. In FIG. 5, the interval W2 is set to 86 millimeters including a margin of 4 millimeters and 82 millimeters. In this case, when a 5 euro banknote is inserted, the maximum skew angle of the banknote is about 12.22 degrees. The skew angle is an angle formed by the side of the bill with respect to the feeding direction D2. Usually, when the skew angle exceeds 6 degrees, it becomes difficult for the identification unit 140 to identify the banknote.

  Therefore, the position correction unit 115 moves the first guide 200a and the second guide 200b by 20 millimeters (40 millimeters) in the operation state. Thereby, the interval W3 between the first guide 200a and the second guide 200b in the operating state becomes 66 millimeters. This is a value obtained by adding a margin of 4 millimeters to the width of a 5 euro bill (62 millimeters).

  As a result, the skew angle of the 5-euro banknote is corrected to about 4.34 degrees. As a result, the identification unit 140 can identify the banknote. Moreover, generation | occurrence | production of the banknote conveyance jam can be suppressed.

  Even when a bill having a width larger than W3 is inserted, such as a 500 euro bill, the first guide 200a and the second guide 200b are moved by the first spring 220a and the second spring 220b. Elastically hold the side of the banknote. Thereby, the first spring 220a and the second spring 220b can release the driving force transmitted from the solenoid 260 so as not to deform or flip the bill. Therefore, it does not matter even if the width of the inserted bill is larger than W3. W3 may be smaller than the width of a 5-euro banknote.

  FIG. 6 is a side view of the position correction unit 115 viewed from the horizontal direction (any direction of D1). In addition to the configuration described with reference to FIGS. 4A and 4B, the position correction unit 115 detects the banknotes inserted into the depositing unit 110 and the banknotes when the banknotes are fed. It further includes a bill presser 320 that presses down, a feeding belt 340 that feeds banknotes to the transport unit 130, and a reverse rotation roller 330 that pushes back excess banknotes and separates the banknotes one by one. As shown in FIG. 5, the reverse rotation roller 330 and the feeding belt 340 are located substantially at the center of the conveyance path.

  FIG. 7 is a flowchart showing the depositing operation of the banknote change machine 11 according to the present embodiment. First, the user inserts banknotes into the depositing unit 110. The banknote detection sensor 160 of the depositing unit 110 detects a banknote inserted into the depositing unit 110 (S10).

  The position correction unit 115 executes the operations of the first guide 200a and the second guide 200b so that the position of the banknote is corrected using the banknote detection sensor 160 detecting the banknote as a trigger (S20).

  And after the position correction | amendment part 115 correct | amends the position of a banknote, the bill holder 320 descend | falls and presses a banknote on the delivery belt 340 (S30).

  By rotating the reverse rotation roller 330 and the feeding belt 340, bills are fed one by one to the transport unit 130 (S40).

  Thereafter, the banknotes are transported by the transport unit 130 and stored in the storage unit 150 for each denomination based on the identification result of the identification unit 140 (S50).

  According to this embodiment, the position correction unit 115 makes the extending direction of both sides of the banknote substantially coincide with the feeding direction D2 by lightly tapping both sides of the banknote mounted on the tray 112 from the direction D1, or The bill direction is corrected so as to approach the feeding direction D2. Thereby, even if banknotes of various sizes are inserted in a skewed state or a side-by-side state, the banknote position and skew angle can be corrected in step S20 and the banknotes can be fed out appropriately.

  Further, the position correction unit 115 corrects the position of the banknote so that the center between both sides of the banknote substantially coincides with the center between the side edges of the tray 112 or close to the center between the side edges of the tray 112. be able to. Thereby, at the time of banknote feeding, the reverse rotation roller 330 and the feeding belt 340 can draw the banknote by pulling the substantially central portion of the banknote.

  Further, when a large number of banknotes are mounted on the tray 112, the first and second guides 200a and 200b are configured such that when the large number of banknotes are viewed from above the surface of the banknotes, Banknotes can be aligned to match.

  As a result, banknote jamming during conveyance can be suppressed and banknote identification can be facilitated.

(Modification 1)
The position correcting unit 115 may be provided not only in the depositing unit 110 but also in the dispensing unit 120. When the position correction unit 115 is provided in the dispensing unit 120, the position of the banknote is corrected so that both sides of the deposited banknote are aligned in the transport direction of the transport unit 130.

  Thereby, the user can easily take out the banknote from the withdrawal unit when the banknote is withdrawn.

(Modification 2)
In the said embodiment, both the 1st and 2nd guide 200a, 200b had the relief mechanism. However, the escape mechanism may be provided only in one of the first guide 200a and the second guide 200b. In this case, one of the first elastic body 220a and the second elastic body 220b is omitted. For example, when the second elastic body 220b is omitted, the second guide 200b and the second rack 210b operate as one unit. Even in this case, since the first guide 200a is provided with a relief mechanism, the first guide 200a does not deform the banknote when pressing the banknote between the first guide 200a and the second guide 200b. The driving force transmitted from the first rack 210a can be released so as not to be blown away.

(Modification 3)
Furthermore, in the said embodiment, the 1st and 2nd guide 200a, 200b of the both sides of the banknote mounted in the tray 112 operate | moves. However, only one of the guides 200a (or 200b) may be movable. In this case, the other guide 200b (or 200a) is fixed. For example, when the first guide 200a is movable and the second guide 200b is fixed, the first guide 200a elastically pushes one side of the bill toward the second guide 200b. Thereby, the 1st guide 200a can make the both sides of a banknote parallel with respect to feeding direction D2 between the 2nd guide 200b.

  DESCRIPTION OF SYMBOLS 11 ... Banknote change machine, 100 ... Housing | casing, 110 ... Depositing part, 112 ... Tray, 115 ... Position correction part, 120 ... Dispensing part, 130 ... Conveying part , 140 ... identification part, 150 ... storage part, 160 ... banknote detection sensor, 170 ... memory, 180 ... communication part, 190 ... control part, 200a, 200b ... 1st, 2nd guide, 210a, 210b ... 1st, 2nd rack, 220a, 220b ... 1st, 2nd spring, 230a, 230b ... 1st, 2nd return spring, 240 ... pinion, 250 ... pinion rotating part, 260 ... solenoid, 320 ... note holder, 330 ... reversing roller, 340 ... feeding belt

Claims (6)

A depositing part for inserting banknotes;
A storage unit for storing banknotes;
A transport unit for transporting banknotes from the deposit unit to the storage unit;
The cash processing apparatus provided with the position correction | amendment part which correct | amends the position of a banknote so that the direction of the both sides of a length direction may be closely approached to the conveyance direction of the said conveyance part with respect to the conveyance direction of the banknote thrown into the said deposit part. A banknote mounting section for mounting banknotes placed in the depositing section;
2. The cash processing apparatus according to claim 1, wherein the position correcting unit corrects the position of the banknote so that the center of both sides of the banknote inserted into the depositing unit approaches the center of the banknote mounting unit.   The position correcting unit aligns the plurality of banknotes so that both sides of the plurality of banknotes inserted into the depositing unit substantially coincide with each other when the banknotes inserted into the depositing unit are viewed from above the surface of the banknotes. The cash processing apparatus according to claim 1 or claim 2, wherein The position correction unit is
At least one guide that is movable in a substantially vertical direction with respect to the transport direction of the transport unit in a substantially horizontal plane with respect to the surface of the bills put into the deposit unit;
A drive source for moving the guide so that the guide elastically presses the side of the bill;
The cash processing apparatus in any one of Claims 1-3 provided with the transmission mechanism which transmits the driving force of the said drive source to the said guide via an elastic body. The depositing unit includes a sensor that detects a bill inserted or thrown out,
The cash processing apparatus according to any one of claims 1 to 4, wherein the position correcting unit operates to correct the position of the banknote when the sensor detects the banknote. It is further equipped with a withdrawal unit for dispensing banknotes,
The transport unit transports banknotes from the storage unit to the withdrawal unit,
The dispensing unit includes a position correcting unit that corrects the position of the banknote so that the direction of both sides in the length direction with respect to the conveying direction of the banknote thrown into the dispensing unit is closer to the conveying direction of the conveying unit. The cash processing apparatus according to claim 1.

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