JP5332889B2 - Coin processing equipment - Google Patents

Description

  The present invention relates to a coin processing apparatus that performs deposit / withdrawal processing of coins.

  Conventionally, POS registers are used in retail stores such as supermarkets, mass merchandisers, shopping centers, and the like, and there are coin processing devices that perform deposit / withdrawal processing of coins. As for this kind of coin processing apparatus, the conveyance process of the structure shown in FIG. 7 is known. FIG. 7 is an explanatory view of a deposit conveyance path of a conventional coin processing apparatus. As shown in the figure, the coin processing device is fed from a coin feeding unit 50 that separates the coins C inserted into a coin deposit port (not shown) one by one and feeds them into the coin processing device, and the coin feeding unit 50. In addition, a coin transfer path 55 for transferring the coins C to the denomination hole 56 for each denomination one by one. The coin feeding unit 50 is provided with a feeding port (not shown), and further provided with a feeding roller 51 for delivering the coin C fed from the feeding port to the deposit conveyance path 55.

  Further, in the deposit conveyance path 55, the conveyance belt 58 that receives and conveys the coin C from the feeding roller 51, and the true or false of determining whether or not it is a regular coin by detecting the material and shape of the coin C. A recognition unit 59 that performs a denomination determination and a denomination determination and a reject hole 69 that rejects a coin C that is determined not to be a regular coin by the authenticity determination are arranged. Furthermore, a plurality of denomination sorting holes 56 for dropping the coins C that have normally passed through the recognition unit 59 to a denomination storage unit (not shown) are arranged in the deposit conveyance path 55 in the order of denominations with the smallest diameter. Yes. The denomination sorting hole 56 drops the coin C by using the difference in the outer diameter of the coin C that is different for each denomination. Here, the conveying belt 58 rotates at a higher speed than the feeding roller 51. Thereby, the interval of the plurality of coins C conveyed through the deposit conveyance path 55 is secured at a predetermined distance, the authenticity determination and denomination determination operation by the recognition unit 59, the rejection operation by the rejection hole 69 and the denomination selection hole. The sorting operation according to 56 is performed accurately.

  A plurality of conveyance monitoring sensors 54 for monitoring the conveyance of the coins C are arranged in the vicinity of each denomination sorting hole 56, and the conveyance of the coins C is guided in a predetermined conveyance direction by the width adjusting guide 57. It has become. The transport monitoring sensor 54 is a sensor for detecting the arrival of the transported coin C. The transport monitoring sensor 54 measures the time for switching from OFF to ON to determine whether the transport between the transport monitoring sensors 54 is normally performed. Monitor.

  The coin C fed out from the coin feeding unit 50 with the above configuration is guided by the width adjusting guide 57, performs the authenticity determination and denomination determination operation in the recognition unit 59, and if it is not a regular coin, the reject hole 69 More fallen. On the other hand, the coin C determined as a regular coin falls from the denomination hole 56 according to the size of each denomination of the coin C while being monitored by the transfer monitoring sensor 54, and stores the denomination not shown. It is stored in the storage.

  Here, in the above-described conventional coin processing apparatus, if dirt is attached to the transport belt 58, the dirt is reflected in the A / D converted scanning data used for authenticity determination of the recognition unit 59, and the determination is adversely affected. There is a problem that the determination accuracy is lowered and the rejection rate is increased. Further, the contamination of the conveyance belt 58 may reduce the gripping force of the conveyance belt 58, change the conveyance speed, and may cause a conveyance error due to the output of the conveyance monitoring sensor 54.

  In order to prevent these problems, Japanese Patent Application Laid-Open No. 2008-65598 (Patent Document 1) discloses that a coin processing apparatus that recognizes and processes coins that are transported in contact with a transport belt performs the transport when the recognition operation is not performed. A technique is disclosed in which a dirt detecting means for detecting dirt on the belt and a cleaning means for cleaning the conveying belt are provided, and the cleaning means is operated when the dirt is detected by the dirt detecting means. . As a result, the maintenance by the maintenance staff is minimized, and the frequency of deposit rejection due to contamination of the conveyor belt and the frequency of conveyance errors can be reduced, thereby contributing to the improvement of determination accuracy.

JP 2008-65598 A

  However, the coin processing apparatus according to Patent Document 1 is provided with a dirt detecting means for detecting dirt on the conveyor belt and a cleaning means for cleaning the conveyor belt, so that the conveyor belt is prevented from being dirty. Or it did not minimize the contamination. That is, in the conventional coin processing apparatus, the conveyor belt may be worn by a slip load when receiving the coin due to the difference in the conveyance speed with the feeding roller. In addition, a conveyor belt fold generated due to wear of the conveyor belt is erroneously detected by the recognition unit, causing a determination error and rejecting normal coins. Further, the conveyance performance of the conveyance belt is deteriorated due to wear of the conveyance belt, and the conveyance failure is generated by the monitoring of the conveyance monitoring sensor. As described above, since the life of the conveyor belt is short, there is a problem that the conveyor belt needs to be frequently replaced. On the other hand, if wear resistance is required for the conveyor belt in order to reduce the exchange of the conveyor belt, the flexibility of the conveyor belt is lowered, and in order to cope with this, the number of pressure rollers for pressing coins increases. As a result, there has been a problem that the whole becomes an expensive coin processing apparatus.

  The problem to be solved by the present invention is to prevent contamination of the conveyor belt and minimize contamination in a coin processing apparatus. In other words, by preventing wear of the conveyor belt, it is possible to eliminate the determination error and normal coin rejection in the recognition unit, prevent deterioration of the conveyor belt conveyance performance, and extend the life of the conveyor belt. It is to provide a long-life coin processing device.

  In order to solve the above-described problems, the present invention includes a coin feeding means for sequentially feeding coins at a predetermined feeding speed, and a coin that is rotated at a higher speed than the feeding speed by the coin feeding means and is fed to the coins fed by the coin feeding means. In a coin processing apparatus having a conveyor belt that contacts and conveys, an intermediate roller that rotates at a higher speed than the feeding speed by the coin feeding means and receives the coins fed by the coin feeding means, the coin feeding means and the conveyor belt It is characterized by having been arranged between.

  According to the present invention, an intermediate roller that receives the coins fed by the feeding roller is disposed between the feeding roller and the conveyor belt, and the intermediate roller is rotated at a high speed in the same manner as the conveyor belt, so that the coins are fed out. Since the roller is conveyed to the conveying belt via the intermediate roller, the conveying belt is not worn by a slip load at the time of receiving a coin due to a difference in conveying speed with the feeding roller. In addition, there is no possibility that a conveyor belt fold caused by wear of the conveyor belt is erroneously detected by the recognition unit, causing a determination error or rejecting normal coins. Furthermore, due to wear of the conveyor belt, the conveyance performance of the conveyor belt is lowered, and there is no possibility of causing a conveyance failure. Furthermore, this makes it possible to provide an inexpensive and long-life coin processing device that does not require frequent replacement of the conveyor belt.

It is a perspective view of the money_receiving | payment conveyance path of the coin processing apparatus regarding embodiment. It is an external appearance perspective view of the POS register regarding embodiment. It is a conceptual diagram which shows the inside of the coin processing apparatus regarding embodiment. It is a front view of the coin delivery part of the money_receiving | payment conveyance path regarding embodiment. It is a top view of the coin delivery part of a money_receiving | payment conveyance path. It is a front view which shows the modification of the coin delivery part of a money_receiving | payment conveyance path. It is explanatory drawing of the deposit conveyance path of the conventional coin processing apparatus.

  Hereinafter, embodiments of the present invention will be described with reference to the drawings. FIG. 2 is an external perspective view of a POS register according to the embodiment. The POS register 3 is provided with a coin processing device 1 and a banknote processing device 2, and the coin processing device 1 pays out coins to be paid to the customer as a coin deposit port 4 into which coins received from the customer are inserted, and coins to be paid out to the customer. A coin mouth 37 and a coin reject unit 29 for storing coins determined to be unacceptable are provided.

  On the other hand, the banknote handling apparatus 2 collects and stores banknotes received and received from customers and banknote deposit / withdrawal ports 34 for paying out banknotes to be paid to customers and banknotes stored in the banknote handling apparatus 2. A collection cassette unit 39 is provided. Further, the POS register 3 is provided with an operation panel 30 provided with keys for inputting instructions for collecting and replenishing coins of the coin processing device 1 and banknotes in the banknote processing device 2, and a clerk inputs from the operation panel 30. Operation display units 31 and 32 for displaying the contents and the state of the POS register 3 are provided.

  FIG. 3 is a conceptual diagram showing the inside of the coin processing apparatus according to the embodiment. The coin processing apparatus 1 receives the coins received from the customer, the coin inlet 4, the coin feeding unit 10 that feeds the coins inserted into the coin inlet 4, and the coins fed from the coin feeding unit 10. A deposit conveyance path 5 that conveys the coins to the denomination selection hole 16 for each denomination, a plurality of denomination storages 6 that store the received coins in denominations and withdraw according to the withdrawal instruction, and denominations It has a withdrawal transport path 7 for transporting coins transported from the storage 6 for withdrawal, and a coin withdrawal port 37 for discharging the withdrawal coins.

  In the vicinity of the entrance of the deposit conveyance path 5, it is determined whether or not it is a genuine coin by detecting the material and shape of the coin (external shape, outer diameter, presence / absence of a hole, etc.) A recognition unit 9 that performs denomination determination is provided. And in the conveyance plate 25 mentioned later of the money_receiving | payment conveyance path 5, the rejection hole 19 which rejects the coin C determined not to be a regular coin by the authenticity determination of the recognition part 9, and the coin which passed the recognition part 9 normally A plurality of denomination sorting holes 16 for dropping C into the denomination storage 6 are formed. The coin or false money rejected by the reject hole 19 is dropped into the coin reject unit 29.

  On the other hand, as a result of the authenticity determination by the recognition unit 9, when it is determined that the coin is a regular coin and the denomination is normally performed, the coin is conveyed to each denomination sorting hole 16, and the corresponding denomination It is dropped into the denomination storage 6 through the sorting hole 16. The denomination sorting hole 16 is formed with a hole that is slightly larger than the outer shape (outer diameter) of each denomination coin, and in order of decreasing outer shape of the coin, that is, for 1 yen, for 50 yen, for 5 yen, for 100 yen, They are arranged along the transport direction in the order of 10 yen and 500 yen. At the time of withdrawal, the money is stored in the withdrawal delivery path 7 from the denomination storage 6 based on the designated denomination and discharged to the coin dispensing port 37. A conveyance monitoring sensor 24 is provided in front of each coin type sorting hole 16 in the coin conveyance direction. The conveyance monitoring sensor 24 is a sensor for detecting the arrival of the conveyed coins, and measures whether the coins are normally conveyed between the conveyance monitoring sensors 24 by measuring the time for switching from OFF to ON. To do.

  FIG. 1 is a perspective view of a deposit conveyance path of a coin processing device according to an embodiment. In the same figure, the coin feeding unit 10 has a cylindrical shape and the upper part is the coin deposit slot 4. When a deposit coin received from a customer is inserted into the coin deposit slot 4, the coin C is put one by one. Pull out. The structure for paying out the coin C is, for example, by using a rotating disk (not shown) that rotates at a constant speed, and moving a plurality of coins C inside along a peripheral wall disposed around the rotating disk. Is fed out one by one from a feed outlet (not shown) in the direction of arrow F.

  The coin C fed out from the coin feeding unit 10 is further fed out in the direction of arrow F by a feeding roller 11 as a coin feeding means. The feeding roller 11 delivers the coin C fed from the coin feeding unit 10 to an intermediate roller 12 described later on the deposit conveyance path 5 in the coin delivery unit 15. The feeding roller 11 only needs to reliably feed the coin C and pass it to the intermediate roller 12, and the peripheral speed rotates at a lower speed than the peripheral speed of the intermediate roller 12.

  The intermediate roller 12 is provided coaxially with the belt pulley 18-1 on the driving side of the conveying belt 8 and rotates at a higher speed than the peripheral speed of the feeding roller 11. The intermediate roller 12 conveys the coin C fed by the feeding roller 11 with the transport plate 25 a little along the deposit transport path 5. As a result, the coin C is slid in the direction of the arrow G by the width adjusting guide 35 described later, and then the intermediate roller 12 delivers the coin C to the transport belt 8. The width adjusting guide 35 guides the conveyance of the coins C in a predetermined conveying direction, but the width adjusting guide 35 is not shown in FIG.

  The conveying belt 8 conveys the coin C received from the intermediate roller 12 on the conveying plate 25 by sandwiching the coin C with the conveying plate 25. The conveyor belt 8 is rotated at a higher speed than the peripheral speed of the feeding roller 11 by a driving belt pulley 18-1 and a driven belt pulley 18-2.

  The deposit conveyance path 5 is constituted by a conveyance plate 25 and a conveyance belt 8, and conveys the coin C while sandwiching the coin C therebetween. As described above, the transport plate 25 is provided with the recognition unit 9, the reject hole 19, and a plurality of denomination sorting holes 16. A plurality of pressure rollers 28 are provided between the driving belt pulley 18-1 and the driven belt pulley 18-2.

  The coin C fed out from the coin feeding unit 10 by the deposit conveyance path 5 of the coin processing apparatus 1 having the above configuration performs the authenticity determination and the denomination determination operation in the recognition unit 9, and when it is not a regular coin, On the other hand, coins determined as regular coins are allowed to fall from the reject hole 19 while being monitored for conveyance by the conveyance monitoring sensor 24, and from the denomination hole 16 according to the size of each denomination of the coin C. It falls and is stored in the denomination storage 6.

  FIG. 4 is a front view of the coin delivery section of the deposit conveyance path according to the embodiment. In the coin delivery unit 15, the feeding roller 11 rotates at a low rotational peripheral speed V <b> 1, contacts the coin C on the transport plate 25, and feeds the coin C while pinching it. The intermediate roller 12 rotates at a high rotational peripheral speed V2, receives the coin C fed out by the feeding roller 11, contacts the coin C, and conveys the coin C only a little while sandwiching it. Thereafter, the coin C is sandwiched between the transport belt 8 and the transport plate 25 by being slid in the direction of the transport belt 8 (the direction of the arrow G). The conveyor belt 8 rotates at a high rotational peripheral speed V2 in the same manner as the intermediate roller 12 by the rotation of the belt pulley 18-1.

  Here, the rotational peripheral speed is in a relationship of V1 <V2 as described above. Thereby, the interval between the plurality of coins C conveyed in the deposit conveyance path 5 is secured at a predetermined distance, the authenticity determination and denomination determination operation by the recognition unit 9, the rejection operation by the rejection hole 19, and the denomination selection hole The sorting operation by 16 is performed accurately.

  FIG. 5 is a plan view of the coin delivery section of the deposit conveyance path. In the coin delivery unit 15, the feeding roller 11 is provided near the entrance of the deposit conveyance path 5 and is driven by a driving source (not shown). The intermediate roller 12 is provided on the same straight line as the feeding roller 11 with respect to the coin conveyance direction. The rotation shaft 12a of the intermediate roller 12 is provided coaxially with the rotation shaft 18-1a of the belt pulley 18-1 of the conveyor belt 8, and is driven by a common drive source (not shown). Here, the illustration C <b> 1 shows a state where the tip of the coin C is in contact with the lower end A of the feeding roller 11. Thereafter, the feeding roller 11 feeds the coin C in the arrow F direction at a low rotational peripheral speed V1. C2 in the drawing shows a state in which the leading end of the coin C is in contact with the lower end B of the intermediate roller 12 and at the same time the rear end of the coin C is in contact with the lower end A of the feeding roller 11.

  Therefore, in order for the coin C to be smoothly delivered between the feeding roller 11 and the intermediate roller 12, the distance L between the rotation shaft 11a of the feeding roller 11 and the rotation shaft 12a of the intermediate roller 12 (between AB) is as follows. The length of the medium in the conveyance direction of the coin C (that is, the diameter in the case of a normal circular coin) is preferably equal to or shorter than the medium length.

  When the coin C is further transported from the state shown in the figure C2, the rear end of the coin C comes out of contact with the lower end A of the feeding roller 11. The coin C conveyed by the intermediate roller 12 is slid along the slide part 35-2 of the width adjusting guide 35. The width adjusting guide 35 is provided on the side surface of the deposit conveyance path 5, and a parallel part 35-1 is provided in parallel with the conveyance direction from the feeding roller 11 to the intermediate roller 12 in the conveyance direction, and the recognition unit 9 and the subsequent parts are also arranged in the conveyance direction. Parallel portions 35-3 are provided in parallel. In the vicinity of the intermediate roller 12, a slide portion 35-2 that is inclined in the direction of the conveyor belt 8 is provided. Thus, the coin C slides in the direction of arrow G along the width adjusting guide 35 by the intermediate roller 12 and the slide portion 35-2.

  After the feeding roller 11 comes out of contact with the coin C, the contact start point D of the conveyor belt 8 comes into contact with the tip of the coin C as the coin C slides in the arrow G direction. That is, the conveyance belt 8 is provided at a distance where the conveyance belt 8 does not contact the coin C until only the intermediate roller 12 comes into contact with the coin C.

  Then, when the coin C is further conveyed and the contact between the rear end of the coin C and the lower end B of the intermediate roller 12 is released, the coin C passes through the deposit conveyance path 5 only by the conveyance belt 8 as shown in FIG. It is conveyed at high speed in the direction of arrow H.

  As described above, the inter-axis distance L (between AB) is preferably equal to or shorter than the diameter of the coin C. That is, the distance AB is equal to or shorter than the diameter of the smallest diameter coin (1 yen). Thereby, delivery from the feeding roller 11 to the intermediate roller 12 can be performed reliably. On the other hand, the distance AD is equal to or longer than the diameter of the largest diameter coin (500 yen). Thereby, the conveyance belt 8 rotating at high speed does not directly contact the coin C fed out at a low speed by the feeding roller 11, but comes into contact with the coin C once conveyed at a high speed by the intermediate roller 12. It will be. Therefore, the conveyor belt 8 is not worn by the slip load when the coin C is received due to the difference in the conveyance speed with the feeding roller 11.

  In the above-described embodiment, it has been described that the rotation shaft 12a of the intermediate roller 12 is coaxial with the rotation shaft 18-1a of the belt pulley 18-1 of the conveyor belt 8. However, the present invention is not limited to this. That is, the rotating shaft 12a of the intermediate roller 12 is on an extension line of the rotating shaft 18-1a of the belt pulley 18-1 of the conveying belt 8, and may be driven by a different driving source (not shown).

  Further, as in the following modification of the embodiment, the rotating shaft 12a of the intermediate roller 12 is located upstream of the rotating shaft 18-1a of the belt pulley 18-1 of the conveying belt 8 in the conveying direction of the coins C. It may be a thing.

  FIG. 6 is a front view showing a modification of the coin delivery section of the deposit conveyance path. In the coin delivery unit 15, the feeding roller 11, the intermediate roller 12, and the transport belt 8 are provided on the same straight line with respect to the coin transport direction. As described above, the feeding roller 11 rotates at a low rotational peripheral speed V1, contacts the coin C, and feeds the coin C in the direction of arrow F. The intermediate roller 12 rotates at a high rotational peripheral speed V2 and receives the coin C from the feeding roller 11 when it contacts the coin C, and conveys the coin C only a little. The conveyor belt 8 rotates at a high rotational peripheral speed V2 similarly to the intermediate roller 12 by the rotation of the belt pulley 18-1, and conveys the coin C in the direction of arrow H. These rotational peripheral speeds have a relationship of V1 <V2 as described above.

  C4 in the drawing shows a state in which the rear end of the coin C is in contact with the lower end A of the feeding roller 11 and at the same time the front end of the coin C is in contact with the lower end B of the intermediate roller 12. When the coin C is further conveyed by the intermediate roller 12, the rear end of the coin C is released from the lower end A of the feeding roller 11. Thereafter, the contact start point D of the conveyor belt 8 contacts the tip of the coin C. That is, the conveyance belt 8 is provided at a distance where the conveyance belt 8 does not contact the coin C until only the intermediate roller 12 comes into contact with the coin C. When the coin C is further transported and the contact between the rear end of the coin C and the lower end B of the intermediate roller 12 is released, the coin C is transported at high speed in the direction of arrow H by the transport belt 8 alone. The C5 in the figure shows a state where the sheet is conveyed only by the conveyor belt 8.

  As described above, the distance L (between AB) between the rotation shaft 11a of the feeding roller 11 and the rotation shaft 12a of the intermediate roller 12 is preferably equal to or shorter than the diameter of the coin C. That is, the distance AB is equal to or shorter than the diameter of the smallest diameter coin (1 yen). Thereby, delivery from the feeding roller 11 to the intermediate roller 12 can be performed reliably. On the other hand, the distance AD is equal to or longer than the diameter of the largest diameter coin (500 yen). As a result, the conveyor belt 8 rotating at high speed does not directly contact the coin C being fed at a low speed by the feeding roller 11, but once contacts the coin C being conveyed at a high speed by the intermediate roller 12. It will be. Therefore, the conveyor belt 8 is not worn by the slip load when the coin C is received due to the difference in the conveyance speed with the feeding roller 11. In the figure, the width adjusting guide 35 is not shown, but according to the modification of the embodiment, the slide portion 35-2 of the width adjusting guide 35 need not be provided.

  According to the above embodiment, the feeding roller 11 is fed between the feeding roller 11 that rotates at a low speed and feeds the coin C and the conveying belt 8 that rotates at a high speed and conveys the coin C to the deposit conveyance path 5. The intermediate roller 12 for receiving the coin C is arranged, the intermediate roller 12 is rotated at a high speed like the conveyor belt 8, and the coin C is first brought into contact with the intermediate roller 12, and then brought into contact with the conveyor belt 8 and conveyed. As a result, the conveyor belt 8 is not worn by a slip load when the coin C is received due to a difference in the conveyance speed from the feeding roller 11.

  In the above description, the example has been described in which the coin C fed from the coin feeding unit 10 is fed by the feeding roller 11 as the coin feeding means and delivered to the intermediate roller 12, but is not limited thereto. That is, the present invention can be applied even if the intermediate roller 12 is configured to receive directly from the coin feeding unit 10 as a coin feeding means.

DESCRIPTION OF SYMBOLS 1 Coin processing apparatus 2 Banknote processing apparatus 3 POS register | resistor 4 Coin deposit port 5 Deposit conveyance path 6 Money classification storage 8 Conveying belt 9 Recognizing part 10 Coin feeding part 11 Feeding roller 12 Intermediate roller 15 Coin delivery part C Coin

Claims (11)

Coin feeding means for sequentially feeding coins at a predetermined feeding speed;
In the coin processing device having a conveyor belt that rotates at a higher speed than the feeding speed by the coin feeding means and contacts and conveys the coins fed by the coin feeding means,
A coin processing apparatus characterized in that an intermediate roller that rotates at a higher speed than the feeding speed by the coin feeding means and receives the coins fed by the coin feeding means is disposed between the coin feeding means and the conveyor belt. .   The coin processing apparatus according to claim 1, wherein a peripheral speed of the intermediate roller is the same as a peripheral speed of the transport belt.   2. The coin processing apparatus according to claim 1, wherein a rotation shaft of the intermediate roller is on an extension line of a rotation shaft of a belt pulley of the transport belt.   The coin processing apparatus according to claim 3, wherein a rotation shaft of the intermediate roller is coaxial with a rotation shaft of a belt pulley of the transport belt.   The coin processing apparatus according to claim 1, wherein a rotation shaft of the intermediate roller is located upstream of a belt pulley of the transport belt in the transport direction of the coin.   The coin processing apparatus according to claim 5, wherein the intermediate roller is on the same straight line in a transport direction of the coin with respect to a belt pulley of the transport belt.   2. The coin processing apparatus according to claim 1, wherein the coin feeding means is a feeding roller.   The coin processing apparatus according to claim 7, wherein a distance between the rotation shafts of the feeding roller and the intermediate roller is equal to or shorter than a medium length in a conveyance direction of the coin.   The intermediate roller is provided on the same straight line as the feeding roller in the coin conveyance direction, and the conveyance belt is a distance at which the conveyance belt does not contact the coin until the intermediate roller contacts the coin. The coin processing device according to claim 7, wherein the coin processing device is provided.   The intermediate roller is provided on the same straight line as the feeding roller in the coin conveyance direction, and further provided with a slope-shaped guide for bringing the coin conveyed by the intermediate roller toward the conveyance belt. The coin processing apparatus according to claim 7. In a coin processing device that pays out coins by abutting a feeding roller that rotates at a low speed, then receives the coins by abutting a conveying belt that rotates at a high speed, and conveys a plurality of coins on a conveying surface at intervals.
An intermediate roller that rotates at high speed is provided between the feeding roller and the conveyor belt,
After the coins are fed out by the abutment of the feeding roller, the coins are received by the abutment of the intermediate roller, and after the abutment of the feeding rollers with respect to the coins is released, the coins by the abutment of the transport belt The coin processing device is characterized by receiving the coin.

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