JP2020112991A - Discoid medium payout device, coin handling device, and discoid medium payout method - Google Patents

Abstract

To provide a discoid medium payout device in which the occurrence of seizure in a guide can be prevented.SOLUTION: A coin payout device 40 which is a discoid medium payout device comprises: payout means 43 which pays out a coin C; and a guide 60 which is provided opposite to the payout means 43 in a payout direction f1 of the coin C paid out from the payout means 43. The guide 60 has a rotating body 65 which is provided rotatably in the payout direction f1.SELECTED DRAWING: Figure 3

Description

The present invention relates to a disc-shaped medium feeding device and a disc-shaped medium feeding method for feeding a disc-shaped medium, and a coin processing device for processing coins.

Conventionally, for example, there is a feeding device that feeds coins as a disc-shaped medium. In this feeding device, coins are fed by the first feeding means using a rotating disk, and the coins fed from the feeding means are further fed by the feeding cam, which is the second feeding means, on the conveying path at a predetermined timing. ing. Then, the coins fed out on the transport path are guided by guides provided so as to face each other in the coin feeding direction.

The guide has a plate-shaped guide member fixed on the conveyance path, and the side surface of the coin fed from the feeding means contacts the guide member, and guides the coin by the guide member.

Japanese Patent No. 5992269

However, in order to improve the processing capability of the feeding device, when a plurality of coins are continuously fed from the feeding means at a high speed, the coins are scraped by the friction when the coins come into contact with the guide and the scraped metal powder is guided to the guide. The phenomenon of seizure is likely to occur. If metal powder is seized on the guide, the coins will be caught, and the coins will be stagnant from being fed out.

An object of the present invention is to provide a disc-shaped medium feeding device, a coin processing device, and a disc-shaped medium feeding method that can prevent the occurrence of image sticking on a guide.

The disc-shaped medium feeding device of the present invention comprises a feeding means for feeding the disc-shaped medium, and a guide provided in the feeding direction of the disc-shaped medium fed from the feeding means so as to face the feeding means. The guide has a rotating body rotatably provided in the feeding direction.

Further, the guide has a shaft that supports the rotating body, and the rotating body rotates about the shaft when the side surface of the disk-shaped medium contacts.

Further, a transport path is provided from the feeding means along the guide, and the guide has a shaft that is fixed to the transport path and rotatably supports the rotating body.

Furthermore, the depositing part which deposits the said disc-shaped medium is provided, and the said delivery means is one which dispenses the said disc-shaped medium one by one from the said depositing part.

Furthermore, it has a conveying path provided along the guide from the feeding means, a moving member that moves on the conveying path, and a protruding portion protruding from the moving member, and the protruding portion moves on the conveying path. And a transporting unit that transports the disk-shaped medium by contacting the disk-shaped medium.

Further, the coin processing device of the present invention is a depositing part for depositing coins, a feeding means for feeding out the coins from the depositing part, and a guide provided opposite to the feeding direction of the coins fed out from the feeding means, A conveyance path provided along the guide, an identification unit that identifies the coin in the conveyance path, and a storage unit that stores the coin identified by the identification unit, and the guide is in the feeding direction. It has a rotating body rotatably provided.

Further, the disc-shaped medium feeding method of the present invention, a step of feeding the disc-shaped medium by a feeding means, and is provided facing the feeding means in the feeding direction of the disc-shaped medium fed from the feeding means, A step of guiding the disc-shaped medium fed from the feeding means by a guide having a rotating body rotatably provided in the feeding direction.

According to the present invention, it is possible to prevent the seizure on the guide.

It is a perspective view of the money handling machine which shows one embodiment of the present invention. It is a top view of a coin processing device with which the same coin processing machine is equipped. It is a top view of a coin feeding device with which the same coin processing device is provided.

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

FIG. 1 shows a perspective view of the money handling machine 10. The money handling machine 10 performs a depositing process and a counting process on coins, bills and the like. The money handling machine 10 is installed in, for example, a delivery room in a commercial facility such as a supermarket or a shopping mall, or a sales office of a maintenance company for a vending machine. Deposit the sales money collected from the vending machine.

The currency handling machine 10 includes a substantially rectangular parallelepiped casing 11, a coin processing device 12 provided in a left region when the casing 11 is viewed from the front side for performing a depositing process and a counting process of coins, and the casing 11 on the front side. It is provided with a banknote processing device 13 and the like that is provided in the right side region when viewed from the side and that performs banknote deposit processing and counting processing.

In the left side area of the housing 11 where the coin processing device 12 is provided, on the upper surface of the housing 11, there are a coin insertion portion 15 that is an insertion portion for inserting coins from the outside, and a shutter 16 that opens and closes the coin insertion portion 15. Provided on the front surface of the housing 11, a coin reject unit 17 for returning rejected coins of the inserted coins, and a coin return unit 18 for returning coins inserted by canceling the deposit. ing. The coin return unit 18 is a box for storing returned coins, and can be pulled out from the front surface of the housing 11 to take out the returned coins.

In the right region of the housing 11 where the banknote processing device 13 is provided, the upper surface of the housing 11 is provided with a banknote inserting section 19 for inserting a banknote from the outside, and a shutter 20 for opening and closing the banknote inserting section 19, and On the front surface of the housing 11, there are provided a banknote reject unit 21 for returning rejected banknotes among the banknotes that have been inserted, and a banknote return unit 22 for returning the banknotes that have been inserted by canceling the deposit. The banknote return unit 22 is also a temporary holding unit that temporarily holds the inserted banknotes after it has been identified, and allows the returned banknotes to be taken out from the front surface of the housing 11.

An upper cover 23 that can be opened and closed to access the coin processing device 12 and the banknote processing device 13 is provided on the top of the housing 11. In addition, a door 24 that can be opened by a person having a predetermined authority, such as a guard of a security company, to recover deposited coins and bills is provided at the lower front portion of the housing 11. Inside the door 24 of the housing 11, a coin cassette 25 as a storage unit for storing deposited coins and a banknote cassette 26 for storing deposited banknotes are detachably arranged.

On the upper part of the housing 11, at a fixed position on the front side of the upper cover 23, there is an operation display unit 27 including a touch panel for displaying and operating the identification result of the money to be deposited, and an operation key 28 for operating the payment confirmation and the like. It is provided. Further, on the rear side of the upper cover 23, there are provided a printing unit 29 for printing out transaction contents on a receipt, a card reader 30 for reading an ID card held by an operator, and a shutter 20 of the bill insertion unit 19. Is provided.

Then, in the coin processing device 12, the coins inserted into the coin insertion unit 15 are separated one by one, identified, temporarily held in the temporary holding unit, and the coins in the temporary holding unit are stored in the coin cassette 25 at the time of payment approval. When returning, the coins in the temporary holding section are returned to the coin returning section 18. Further, in the banknote processing device 13, the banknotes inserted into the banknote insertion unit 19 are identified one by one and temporarily stored in a temporary storage unit (shared with the banknote return unit 22), and the banknotes in the temporary storage unit are banknotes at the time of payment approval. The banknote return unit (22) can be pulled out from the housing (11) when it is returned to the cassette (26) and stored. Further, the door 24 is opened and a coin cassette 25 and a bill cassette 26 are taken out and collected from the inside of the housing 11 by a person having a predetermined authority such as a guard of a security company. After the collection, the empty coin cassette 25 and the bill cassette 26 are loaded into the housing 11, and the door 24 is closed.

Next, FIG. 2 shows a plan view of the coin processing device 12, and FIG. 3 shows a plan view of a coin feeding device 40 which is a disc-shaped medium feeding device included in the coin processing device 12.

The coin processing device 12 includes a base 41 installed in the housing 11, a storage unit 42 that receives and stores the coin C that is a disk-shaped medium that has been inserted into the coin insertion unit 15, and one coin C from this storage unit 42. The feeding means 43 for feeding one by one, the conveying path 44 for receiving the coins C fed by the feeding means 43, the conveying means 45 for conveying the coins C in the conveying path 44, and the coins fed by the feeding means 43 to the conveying means 45. It is provided with a delivery means 46 for delivering the Cs one by one, an identification section 47 for identifying the coins C conveyed through the conveyance path 44, a plurality of branch sections 48 for branching the identified coins C by type. The coin feeding device 40 is composed of the coin insertion portion 15, the storage portion 42, the feeding means 43, a part of the transport path 44, and the like.

The storage unit 42 has a hopper 50 that stores the coins C. At the lower center of the hopper 50, a supply port 51 for supplying the stored coins C to the feeding means 43 is provided. The hopper 50 is supported on the base 41 so as to be arranged above the feeding means 43.

Further, the feeding means 43 has a rotating disk 54 rotatably provided with respect to the base 41, and a peripheral wall portion 55 arranged around the rotating disk 54. The rotating disk 54 is arranged below the supply port 51 of the hopper 50, and is arranged at a predetermined interval between the lower end of the hopper 50 and the coin C to pass therethrough. The rotating disk 54 is rotated in a direction in which the coin C is fed by a drive mechanism including a motor and the like. A cutout portion that communicates with the transport path 44 is provided in a part of the peripheral wall portion 55. The notch of the peripheral wall portion 55 is provided with a thickness regulating member 56 which is arranged in the upper region of the rotary disc 54 and allows only one coin C to pass in the thickness direction between the rotary disc 54 and the upper surface of the rotary disc 54. ing. Then, in the feeding means 43, the coins C on the rotating disk 54 move along the peripheral wall portion 55 by the centrifugal force due to the rotation of the rotating disk 54, and at the same time, pass through the lower side of the thickness regulating member 56 one by one and the conveying path. It goes to 44.

The transport path 44 includes an upstream-side transport path portion 44a that receives the coins C that are dispensed in the dispensing direction f1 from the dispensing means 43, and a downstream side that transports the coins C in the transport direction f2 downstream from the upstream-side transport path portion 44a. It has a side transport path portion 44b. The transport path 44 has a transport path surface 59 formed on the same surface as the upper surface of the rotating disk 54, and guides 60 and 61 arranged on both sides of the transport path surface 59 in the width direction.

The guide 60 on one side faces the feeding direction f1 of the coin C from the feeding means 43. The guide 60 on one side is an upstream guide member 62 arranged on the upstream side in the feeding direction f1, and is separated from the upstream guide member 62 with a gap 63 between the upstream guide member 62 and the upstream guide member 62. A downstream guide member 64, which is a guide member arranged on the downstream side in the feeding direction f1 of the guide member 62, and a rotating body 65 arranged in a gap 63 between the upstream guide member 62 and the downstream guide member 64. Have

The upstream guide member 62 is formed in a plate shape, the downstream end portion side is fixed on the base 41, and the upstream end portion side is arranged in the upper region of the rotating disk 54. On the side surface of the upstream guide member 62, a guide surface 62a that faces the inside of the transport path 44 and guides the side surface of the coin C is provided. The guide surface 62a is formed into a curved surface so that the moving direction of the coin C can be smoothly changed from the feeding direction f1 to the conveying direction f2.

The downstream guide member 64 is formed in a plate shape and is fixed on the base 41. The downstream guide member 64 is provided with a guide surface 64a which is a conveyance reference surface facing the inside of the conveyance path 44 and guiding the side surface of the coin C.

The gap 63 between the upstream guide member 62 and the downstream guide member 64 has a transport gap portion 66 between the upstream guide member 62 and the rotating body 65.

The rotator 65 is rotatably provided at a position facing the feeding direction f1 of the coin C from the feeding means 43. The rotating body 65 is rotatably provided on the upstream side in the feeding direction f1 with respect to the downstream guide member 64, and is rotatable in the gap 63 between the upstream guide member 62 and the downstream guide member 64. It is provided. Further, the rotating body 65 is rotatably provided by the shaft 67 of the guide 60 on one side. The shaft 67 is vertically fixed to the transport path surface 59 of the transport path 44. The rotating body 65 is rotatably provided around the shaft 67, and is rotated about the shaft 67 when the side surface of the coin C fed by the feeding means 43 contacts. It should be noted that the rotating body 65 may be formed of a cylindrical body and rotatably arranged around the shaft 67, or may be provided with a bearing so as to be rotatable around the shaft 67. The rotating body 65 may be made of any material such as a metal material and a resin material.

The guide 61 on the other side faces the guide 60 on the one side, and is arranged at a position where it can receive and convey the coin C fed from the feeding means 43 between the guide 60 on the one side. The guide 61 on the other side includes an upstream guide member 68 arranged on the upstream side in the feeding direction f1, a downstream guide member 69 provided on the downstream side of the upstream guide member 68, and an upstream guide member 68 and a downstream side. It has a width-shifting guide member 70 provided between the side guide member 69 and the side guide member 69. The width-shifting guide member 70 is rotatable about a support shaft 71 as a fulcrum, and is biased by a biasing member such as a spring in a direction in which the coin C is fed from the feeding means 43. To the guide 60 on one side, that is, so as to be along the guide surface 64a of the downstream guide member 64.

Further, the transporting means 45 includes a belt 74 that is a moving member, and a plurality of pulleys 75 that stretch the belt 74 so as to be rotatable. The moving member is not limited to the belt 74, but may be a chain or the like.

The belt 74 is an endless belt and uses a toothed belt (timing belt) having teeth on the inner peripheral side. On the lower surface of the belt 74 opposed to the transport path surface 59, a plurality of protrusions 76 are provided at regular intervals in the belt longitudinal direction.

As the pulley 75, a toothed pulley (timing pulley) with which the teeth of the belt 74 mesh is used. The pulley 75 includes a pulley 75a arranged at the start end side position of the conveyance path 44, a pulley 75b arranged at the end side position of the conveyance path 44, and a position near the end side and the start end side outside the conveyance path 44. It has pulleys 75c and 75d arranged respectively. A belt 74 is stretched by these pulleys 75 and is arranged on the transport path 44 between the pulley 75a at the start end side of the transport path 44 and the pulley 75b at the end side of the transport path 44 to transport the coin C. The part is formed.

The pulley 75 is rotatable about a shaft 77 provided perpendicularly to the base 41. By rotating any one of the pulleys 75 by a motor or the like, the belt 74 is rotated in correspondence with the transport direction f2.

The belt 74 stretched around the pulley 75 has a gap formed between the belt 74 and the conveying road surface 59 so that one coin C can be inserted in the thickness direction. That is, the distance between the lower surface of the belt 74 and the transport path surface 59 is larger than the thickness of one coin C and smaller than the thickness of two coins C. Furthermore, the distance between the protrusion 76 of the belt 74 and the conveyance road surface 59 is smaller than the thickness of one coin C.

The shaft 77 of the pulley 75a arranged at the starting end side position of the transport path 44 is arranged in the gap 63 between the upstream guide member 62 and the downstream guide member 64. More specifically, it is arranged between the rotating body 65 and the upstream end of the downstream guide member 64. A rotating portion 78 is rotatably arranged around the shaft 77.

Then, the belt 74 enters the start end side of the transfer path 44 from the outer side of the transfer path 44 by the pulley 75a arranged at the start end side position of the transfer path 44, and moves in the transfer path 44 toward the end side. .. At this time, the protruding portion 76 protruding from the lower surface of the belt 74 passes through the gap 63 between the upstream guide member 62 and the downstream guide member 64 and enters the starting end side of the transport path 44. That is, the protrusion 76 passes through the conveyance gap 66 between the upstream guide member 62 and the rotating body 65 and enters the start end side of the conveyance path 44.

Further, the delivery means 46 is arranged on the other side guide 61 side so as to face the upstream side guide member 62 of the one side guide 60, the rotary body 65 and the upstream side end portions of the downstream side guide member 64. The delivery means 46 has a disk-shaped cam 82 that rotates around a shaft 81 provided perpendicularly to the base 41. The cam 82 is arranged between the cam 82 and the conveyance road surface 59 with a space therebetween so that one coin C enters in the thickness direction. On the peripheral portion of the lower surface of the cam 82, a plurality of contact portions 83 that contact the side surface of the coin C are provided at equal intervals in the circumferential direction. The cam 82 rotates in synchronization with the rotation of the belt 74, receives the coins C fed by the feeding means 43 one by one between the contact portions 83 and the contact portion 83, and receives the coins C received one by one. It is fed between the protrusions 76 of the belt 74.

Further, the identification unit 47 uses a material sensor, an image sensor, or the like, and identifies the denomination, authenticity, or damage of the coin C conveyed by the belt 74 in the conveyance path 44.

Further, the branching section 48 includes seven branching sections 48 in the present embodiment. For example, a branching unit 48 for six denominations of six denominations and a rejecting branching unit 48 for branching a coin C, which is identified as a false coin or cannot be identified by the identifying unit 47, as a reject coin are provided. The reject branching portion 48 is provided on either the upstream side or the downstream side in the transport direction f2.

The branch portion 48 has a branch hole 86 provided on the conveyance road surface 59, and a branch member (not shown) that opens and closes the branch hole 86. A sensor 87 for detecting the coin C being conveyed is provided on the upstream side of each branch hole 86 in the conveying direction f2. Then, based on the identification result of the identification unit 47 and the detection of the sensor 87, each branching unit 48 moves the branching member to open when the coin C to be branched is conveyed, and branches the coin C to be branched. When the coin C which is not branched is conveyed to the branch 86, the branch member maintains the closed state and the coin C which is not branched is passed to the downstream side.

Next, the operation of the coin processing device 12 will be described.

First, the overall operation of the coin processing device 12 will be described. When the operator operates the depositing of the coin C to deposit the coin C into the coin depositing section 15, the depositing operation is started.

The coins C that have been inserted into the coin insertion unit 15 are received by the hopper 50 of the storage unit 42 and supplied onto the rotating disk 54.

When the deposit operation is started, the belt 74 and the cam 82 are rotated, and the rotary disk 54 is rotated. By the rotation of the rotary disk 54, the coins C on the rotary disk 54 are delivered one by one to the transport path 44. By the rotation of the cam 82, the coins C fed from the rotary disk 54 are separated one by one and fed into the protrusions 76 of the belt 74. The coin C is conveyed in the conveying direction f2 while being pushed by the protrusion 76 of the belt 74. The coin C conveyed by the belt 74 is discriminated by the discriminating unit 47 and branched by the corresponding branching unit 48 according to the discrimination result.

The reject coin is branched at the branching unit 48 and returned to the coin rejecting unit 17. The normal coin C is branched at the branching unit 48 and held in the temporary holding unit.

After all the inserted coins C have been identified, if the deposit is approved, the coins C in the temporary holding section are sent to the coin cassette 25 for storage. When the deposit is canceled, the coin C in the temporary holding unit is sent to the coin returning unit 18 and the coin returning unit 18 is pulled out from the housing 11 so that the coin C can be taken out.

Next, the operation of the coin feeding device 40 will be described with reference to FIG.

When the rotary disc 54 rotates, the coins C on the rotary disc 54 move along the peripheral wall portion 55 by the centrifugal force due to the rotation, and pass through the lower side of the thickness regulating member 56 one by one to be fed out to the transport path 44. ..

The coin C delivered to the transport path 44 moves in the delivery direction f1 through between the upstream side guide member 62 on one side and the upstream side guide member 68 on the other side.

The coin C moving in the feeding direction f1 enters between the adjacent contact portions 83 of the cam 82. Since the cam 82 rotates in the feeding direction of the coin C, the contact portion 83 of the cam 82 comes into contact with the rear side of the coin C and pushes the coin C in the feeding direction f1.

The coin C pushed in the feeding direction f1 by the contact portion 83 of the cam 82 has a side surface of the coin C rotatably provided in a gap 63 between the upstream guide member 62 and the downstream guide member 64. It moves while being in contact with the rotating body 65, and is fed between the protrusions 76 adjacent to each other in the moving direction of the belt 74. As a result, the protrusion 76 of the belt 74 contacts the rear side of the coin C and conveys the coin C in the conveying direction f2. The coin C pushed by the protrusion 76 of the belt 74 is moved to the downstream guide member 64 of the guide 60 on one side by the width guide member 70 of the guide 61 on the other side.

The subsequent coin C fed from the rotary disc 54 enters between the contact portion 83 that pushes the preceding coin C and the contact portion 83 of the cam 82 on the upstream side in the rotation direction. Therefore, the coins C fed from the rotary disk 54 by the cam 82 are separated one by one and fed between the protrusions 76 adjacent to each other in the longitudinal direction of the belt 74.

The guide 60 on one side is provided with a gap 63 for allowing the protrusion 76 of the belt 74 to enter the transport path 44. That is, the gap 63 is provided between the upstream guide member 62 and the downstream guide member 64.

In the present embodiment, the rotating body 65 is provided in the gap 63, but if the rotating body 65 is not provided, the upstream end of the downstream guide member 64 is provided up to the position of the rotating body 65. It will be. In this case, the side surface of the coin C moving along the upstream guide member 62 collides with the upstream end portion of the downstream guide member 64 separated by the gap 63, and strong friction is generated. The friction causes the coin C to be scraped, and the scraped metal powder of the coin C is likely to be seized on the downstream guide member 64 or the like. When the metal powder is seized on the downstream guide member 64, the coin C is easily caught or the coin C is easily fed out, and the coin C is disturbed.

In the present embodiment, the rotating body 65 is provided on the upstream side of the downstream guide member 64 in the feeding direction f1 and in the gap 63 between the upstream guide member 62 and the downstream guide member 64. In this case, the side surface of the coin C that moves along the upstream guide member 62 comes into contact with the rotating body 65 that is separated via the gap 63 (conveyance gap portion 66). The rotation of 65 reduces the friction of the coin C, reduces the generation of metal powder by scraping the coin C, and prevents the guide 60 from being burned.

Since the shaft 77 of the pulley 75 is arranged between the rotating body 65 and the downstream guide member 64, the downstream guide member 64 cannot be arranged. Since the rotating portion 78 is rotatably provided on the shaft 77 of the pulley 75, when the side surface of the coin C comes into contact with the rotating portion 78, the rotating portion 78 rotates to cause friction on the coin C. It is prevented from occurring. Therefore, the seizure of the guide 60 can be prevented even at the position of the shaft 77 of the pulley 75.

As described above, in the coin feeding device 40 of the present embodiment, since the guide 60 has the rotating body 65 rotatably provided in the feeding direction F1, it is possible to prevent the image sticking on the guide 60. Furthermore, since the rotary body 65 is provided in the gap 63 between the upstream guide member 62 and the downstream guide member 64 on the upstream side in the feeding direction f1 with respect to the downstream guide member 64, The occurrence of image sticking can be prevented.

Therefore, even if a plurality of coins C are continuously fed out at a high speed from the feeding means 43, it is possible to prevent the seizure from occurring in the guide 60, so that the processing ability of the coin feeding device 40 can be improved.

Further, the gap 63 must be provided in the guide 60 in order for the protrusion portion 76 of the belt 74 to move onto the transport path 44, but by providing the rotating body 65, it is possible to prevent the occurrence of seizure in the guide 60.

Further, since the rotating body 65 rotates about the shaft 67 when the side surface of the coin C comes into contact with the rotating body 65, it is possible to reduce the abrasion of the coin C.

Then, the coin processing device 12 including the coin feeding device 40 can improve the processing capability as the processing capability of the coin feeding device 40 improves.

The disc-shaped medium is not limited to the coin C, and may be a game medium used in a game facility.

Further, the feeding means 43 is not limited to the one in which the coins C are fed one by one by the rotating disk 54, and is arranged on the bottom surface of the storage part 42 and rotating in the feeding direction, and is arranged above the belt in the feeding direction. The reverse rotation roller may be configured to feed the coins C one by one.

12 coin handling equipment
15 coin depositing unit, which is the depositing unit
25 Coin cassette that is a storage unit
40 Disc-shaped medium feeding device, coin feeding device
43 Delivery means
44 Conveyor path
45 means of transport
47 Identification section
60 Guide
65 rotating body
67 axes
74 Belt as a moving member
76 Projection C Coin that is a disk-shaped medium
f1 feeding direction

Claims (7)

Feeding means for feeding the disk-shaped medium,
A guide provided so as to face the feeding means in a feeding direction of the disc-shaped medium fed from the feeding means,
The disc-shaped medium feeding device, wherein the guide has a rotating body that is rotatably provided in the feeding direction. The guide has a shaft that supports the rotating body,
The disk-shaped medium feeding device according to claim 1, wherein the rotating body rotates around the shaft when a side surface of the disk-shaped medium contacts. A conveying path provided along the guide from the feeding means,
The disc-shaped medium feeding device according to claim 1, wherein the guide has a shaft that is fixed to the transport path and rotatably supports the rotating body. A deposit part for depositing the disc-shaped medium,
4. The disc-shaped medium feeding device according to claim 1, wherein the feeding means feeds the disc-shaped medium one by one from the depositing portion. A transport path provided along the guide from the feeding means,
It has a moving member that moves on the transport path, and a protrusion that is provided so as to project from this moving member. The disc-shaped medium feeding device according to any one of claims 1, 2 and 4, further comprising: a conveying unit that conveys the medium. A depositing unit for depositing coins,
Feeding means for feeding the coins from the depositing part,
Guides provided so as to face each other in the payout direction of the coins paid out from the payout means,
A transport path provided along the guide,
An identification unit for identifying the coin in the transport path,
A storage unit for storing the coin identified by the identification unit,
The coin processing device, wherein the guide includes a rotating body rotatably provided in the feeding direction. A step of feeding the disk-shaped medium by a feeding means,
The disc that is fed from the feeding means by a guide that has a rotating body that is provided so as to face the feeding means in the feeding direction of the disc-shaped medium that is fed from the feeding means and that is rotatably provided in the feeding direction. And a step of guiding the strip-shaped medium.

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