JPH08147530A - Paper money batch pay-out device - Google Patents

Abstract

PURPOSE: To provide a paper money batch pay-out device capable of appropriate ly arranging and surely paying out paper money by a simple structure. CONSTITUTION: In this paper money pay-out device 16 for paying out the paper money A piled up and reserved in a paper money reservation part 41 altogether by a conveying belt 43 disposed along the paper money reservation part 41, a push-out part 89 for being abutted to the rear end of the paper money A and pushing it out in a pay-out direction is projectingly provided on the surface of the conveying belt 43.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a bill batch dispensing device which is provided in a so-called recycle building validator and dispenses a plurality of bills collectively.

[0002]

2. Description of the Related Art FIG. 7 shows such a conventional banknote batch dispensing device. In this banknote batch dispensing device 101, a plurality of banknotes A arranged so as to be stacked are arranged on both sides (upper and lower sides) of the banknote A. ) A pair of conveyor belts 102a, 10 from both sides
The upper and lower conveyor belts 102a, 102 are sandwiched by 2b.
By simultaneously running 2b in the payout direction, the bills are dispensed collectively at the bill payout outlet 103. In this case, the rotating arm 10 is attached to the lower conveyor belt 102b.
5 and a solenoid 106, which is connected to an up-and-down moving mechanism 104, and the lower conveyor belt 102b stands by at the down-moving position when the bill A is sent from the safe by the up-and-down moving mechanism 104, and the bill A When paying out, the bill A is moved upward so as to be sandwiched between the bill A and the upper conveyor belt 102a.

[0003]

In the conventional banknote batch dispensing device 101 as described above, both upper and lower conveyor belts 102 are provided.
If the clamping force of a and 102b is evenly distributed to the banknote A, and the two conveyor belts 102a and 102b do not travel at exactly the same speed, the banknote A skews or is not aligned in the banknote payout opening 103. There was a problem that it was paid out.
Further, the banknotes A positioned at the uppermost and lowermost parts are directly held by the two conveyor belts 102a and 102b, but the banknotes A stacked in the middle part are only indirectly held, so that the banknotes are easily misaligned. There was a problem such as being slanted and jammed due to a slight catch of. Further, two sets of the conveyor belt and its operating mechanism (reducer, etc.) are required, which causes a problem of complicated structure.

The present invention has been made in view of the above problems, and an object thereof is to provide a bill batch dispensing device which has a simple structure and is capable of properly aligning and securely dispensing bills. There is.

[0005]

SUMMARY OF THE INVENTION In order to achieve the above object, the present invention is a batch of banknotes in which banknotes stacked and reserved in a banknote storage section are collectively dispensed by a conveyor belt arranged along the banknote storage section. The dispensing device is characterized in that a push-out portion that abuts on the tail end of the bill and pushes it out in the dispensing direction is provided on the surface of the conveyor belt.

[0006]

[Function] By the protruding portion, which is brought into contact with the tail end of the bill and pushes the bill in the payout direction, is provided on the surface of the conveyor belt,
With the traveling of the conveyor belt, the push-out section ejects the banknotes stacked and reserved in the banknote retaining section by pushing them out from the tail end side. In this case, the push-out section that comes into contact with the tail ends of the banknotes exerts a pressing force on all the stacked banknotes, and the pressing force acts so that the tail ends of the banknotes, that is, the banknotes are aligned. Therefore, the banknotes can be paid out while the bills are properly aligned by one set of the conveyor belts without causing skew.

[0007]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS A case where a bill batch dispensing device according to an embodiment of the present invention is applied to a so-called recycling bill validator will be described below with reference to the accompanying drawings. In the following description, in order to facilitate understanding of the invention, the overall structure of the recycle building validator will be described first, and then the relevant parts of the invention will be described in detail. This recycle building validator has the function of accepting 1,000-yen bills, 5,000-yen bills, and 10,000-yen bills, as well as the function of paying out 1,000-yen bills. It will be installed. 1 is a cross-sectional view of the recycle building validator in the bill accepting mode, and FIG. 2 is a cross-sectional view of the recycle building validator in the bill dispensing mode.

As shown in both figures, this recycled bill validator 1 has a cabinet 2 in which a high-value banknote storage unit 3, a banknote identification unit 4, a banknote payout unit 5 and a low-value banknote storage unit 6 are arranged in the vertical direction from the upper side. Among them, the high-value banknote storage unit 3 is integrated as an upper unit, and the banknote identification unit 4, the banknote payout unit 5, and the low-value banknote storage unit 6 are integrated as a lower unit, and are attached to and detached from the cabinet 2, respectively. It is possible to install. The lower portion of the low-value banknote storage unit 6 is formed in a box shape, and the circuit board 7 is stored inside. A bill insertion slot 8 for receiving the bill A is formed in the front portion of the bill identification unit 4, and a bill ejection opening 9 for ejecting the bill A is formed in the front portion of the bill ejection unit 5. The bill insertion opening 8 and the bill ejection opening 9 are integrally formed and project forward from the cabinet 2. Cabinet 2
Although not shown in both figures, an upper door with a key (corresponding to the upper unit) and a lower door (corresponding to the lower unit) are provided on the front side of the banknotes through the opening of these doors.
And the bill payout opening 9 is exposed to the outside.

On the other hand, the high-value banknote storage unit 3, the banknote identification unit 4,
The banknote transport path connecting the banknote pay-out section 5 and the low-value banknote storage section 6 is branched from the receiving transfer path 10 for receiving and transferring the banknote A from the banknote insertion slot 8 and the downstream end of the receiving transfer path 10 and the high-value banknote storage section 3 And the low-value banknote transport path 12 that connects to the low-value banknote storage section 6, and the payout transfer path 1 that branches from the low-value banknote transfer path 12 and connects to the banknote payout section 5.
3 and 3. A first gate 14 is provided at a branch portion between the high-value banknote transport path 11 and the low-value banknote transport path 12.
A second gate 15 is provided at a branch portion between the low-value banknote transport path 12 and the payout transport path 13. These first gates 14
The second gate 15 receives the 1,000-yen bill shown in FIG. 1 as a standby state, and when it receives the 5,000-yen bill or the 10,000-yen bill, the first gate 14 rotates to receive it. The banknote A is guided from the receiving and conveying path 10 to the high-value banknote conveying path 11. In addition, when paying out the 1,000-yen bill, the second gate 1
5 rotates, and the banknote A conveyed from the low-value banknote storage unit 12 is guided from the low-value banknote transfer path 12 to the payout transfer path 13.

The high-value banknote storage unit 3 includes a high-value banknote transport path 11
Of the standby passage 21 connected to the downstream end of the banknote, a bill feeding device 22 provided so as to sandwich the standby passage 21, an upper 5000 yen safe 23 and a lower 10,000 yen safe provided so as to sandwich the bill feeding device 22. 24 and. The banknote feeding device 22 has a high-value banknote stacking plate 25, and if the high-value banknote stacking plate 25 transfers the banknote A sent from the high-value banknote transport path 11 to the standby path 21, it is five If it is 10,000 yen, it is sent into the 1,000-yen safe 23 and into the 10,000-yen safe 24, respectively. The 5,000-yen safe 23 and the 10,000-yen safe 24 are detachably attached to the unitized high-value banknote storage unit 3, and can be individually taken out and collected.

Reference numeral 26 in the drawing is a high-value banknote stack motor for operating the banknote feeding device 22, and reference numeral 27 is a transfer device such as a roller facing the high-value banknote transfer path 11 of the high-value banknote storage section 3, and It is an upper conveyance motor that operates a conveyance device (both not shown) of the bill validator 4. Further, reference numeral 28 in the drawing is a first passage sensor that detects the completion of feeding the banknote A into the standby passage 21. Further, reference numerals 29 and 30 are a first position sensor and a second position sensor, respectively, which detect the upper moving end position and the lower moving end position of the high-value banknote stack plate 25. Also, reference numeral 31
Is a first switch provided on the upper door located in front of the 5,000 yen safe deposit box 23 and the 10,000 yen safe box 24. When the upper switch is opened by the first switch 31,
The operation of the Recycle Building Validator 1 is stopped. Although not shown in both figures, the 5000-yen safe 23 and the 10,000-yen safe 24 are respectively provided with a third position sensor and a fourth position sensor for detecting the fullness of the bill A.

The banknote discriminating section 4 discriminates a banknote slot 8 for receiving the banknote A from the outside and a discriminating mechanism (not shown) for discriminating the authenticity and denomination of the banknote A received from the banknote slot 8.
And a transport mechanism (not shown) that transports the received banknote A to the standby position of the receiving transport path 10, waits for the identification result of the identification mechanism, and then performs the reverse transport for transporting to the destination or returning. ing. Reference numeral 35 in the drawing is a second passage sensor that detects the completion of receipt of the bill A from the bill insertion slot 8. Further, although omitted in both figures, a mechanism that faces the receiving conveyance path 10 and prevents the received banknote A from being pulled out is incorporated on the upstream side of the second passage sensor 35.

The banknote payout section 5 transfers the banknote A for currency exchange,
It has a function to arrange a predetermined number of sheets internally and to dispense them all at once, and also has a function to hold banknotes A without overlapping them when they are sent in piles when aligning banknotes A. There is. For this reason, the banknote payout unit 5 is a batch holding unit 41 for aligning the banknotes A fed one by one from the downstream end of the payout transport path 13 so as to be sequentially stacked,
The reject holding unit 42, which is disposed below the collective holding unit 41 and holds the bills A when they are overlapped and sent.
And a payout conveyor belt 43 for collectively dispensing the banknote A,
A guide plate 44 that partitions the batch holding unit 41 and the reject holding unit 42 and that moves upward before the payout to press the banknote A in the batch holding unit 41 against the payout conveyance belt 43,
It is provided with a reject stack plate 45 for feeding the banknotes A in the batch holding section 41 into the reject holding section 42, and a banknote payout opening 9 located ahead of the payout conveyance belt 43. In this case, the banknote payout opening 9, the batch holding unit 41, the payout conveyance belt 43, and the guide plate 44 function as a batch payout device for the banknote A, and the reject holding unit 42, the reject stack plate 45, and the guide plate 44 reject the banknote A. Functions as a device.

That is, the banknote holding unit 4 for each banknote A
1, when the predetermined number is reached, the guide plate 44 moves upward, and then the payout conveyor belt 43 travels to collectively send out the banknotes A to the banknote payout exit 9, while the banknotes A overlap and are sent. If the guide plate 44 is moved upward,
The reject stack plate 45 moves downward, the bill A is passed through the guide plate 44, and is sent from the batch holding unit 41 to the reject holding unit 42.

Reference numeral 46 in the drawing denotes a payout stack motor for vertically moving the guide plate 44 and the reject stack plate 45. Further, reference numeral 47 is a batch storage unit 4 for the banknote A.
Third detection of completion of feeding to 1 (counting the number of sheets)
Reference numeral 48 is a passage sensor, and reference numeral 48 is a fourth passage sensor that detects the completion of the batch dispensing of the bill A. Further, reference numeral 4
Reference numeral 9 is a fifth position sensor for detecting the traveling stop position of the payout conveyance belt 43, and reference numerals 50 and 51 are guide plates 4.
The sixth position sensor and the seventh position sensor for respectively detecting the upper moving end position and the lower moving end position of No. 4, reference numerals 52 and 53, are the first position sensor for detecting the upper moving end position and the lower moving end position of the reject stack plate 45. 8 position sensor and 9th position sensor. Further, reference numeral 54 represents the reject holding unit 4
It is a second switch that detects whether or not the banknote A is held in the bank 2.

The delivery conveyor belt 43 is operated by a lower conveyor motor 66, which will be described later, and the power transmission mechanism from the lower conveyor motor 66 to the delivery conveyor belt 43 is omitted in both figures. Similarly, the power transmission mechanism from the payout stack motor 46 to the guide plate 44 and the reject stack plate 45 is also omitted.

The low-price bill storage unit 6 has a function of storing the 1,000-yen bills conveyed from the bill identification unit 4 and sending the stored 1,000-yen bills to the bill dispensing unit 5. Therefore, the low-value banknote storage unit 6 includes a 1,000-yen safe 61, a sending stack plate (not shown) for sending the banknote A sent from the low-value banknote transport path 12 into the 1,000-yen safe 61, and the 1,000-yen safe 61. Low-price bill stack plate 62 holding the bills inside
And a low-value banknote conveyor belt 63 that sends out the banknote A from the 1,000 yen safe 61 to the banknote payout section 5. Thousand yen safe 61
Is configured to be attachable to and detachable from the unitized low-value banknote storage unit 6, and by taking out the banknote A, it is possible to collect the banknote A and replenish the banknote A for exchange.

The banknote A sent from the low-value banknote transport path 12 is guided between the low-value banknote transport belt 63 and the low-value banknote stack plate 62, and is transported to the storage standby position by the traveling of the low-value banknote transport belt 63. . Here, the feeding stack plate moves downward, and the banknote A is transferred to the low-value banknote stack plate 62.
And slip it through and send it to the Thousand Yen Safe 61. On the other hand, when the banknote A is sent out, the low-value banknote stack plate 62 moves up to a position where it is hidden by the low-value banknote transfer belt 63, and the low-value banknote transfer belt 63 transfers the banknotes A one by one from the uppermost banknote. Send it out to road 12. Although not shown,
A separating roller is provided in the vicinity of the entrance / exit of the 1,000-yen safe 61, and the separating roller sends the uppermost banknote A so that it is delivered from the low-value banknote transport belt 63.
The next banknote A is pressed by the separating claws 64 provided side by side on the low-value banknote transport belt 63, and the banknotes A are transferred one by one to the low-value banknote transport path 1.
Send it to 2 surely.

However, when the two banknotes A and A are stuck together without water, the two banknotes A and A are sent in an overlapping manner even if the separating roller and the separating claw 64 are used. , And some of them are sent in an overlapping state. In such a case, the identification sensor 65 provided on the low-value banknote transport path 12 and a twelfth position sensor (encoder function) 71 described later identify this state and operate the above-described reject device.

Reference numeral 66 in the figure denotes a low-value bill transport belt 6
3 and a lower conveyance motor for operating the above-mentioned payout conveyance belt 43, and reference numeral 67 is a low-value banknote stack plate 62.
And a low-value banknote stack motor that moves the feeding stack plate up and down. Further, reference numeral 68 is a fifth passage sensor that detects the completion of sending the bill A to the 1,000-yen cashbox 61 and the completion of sending it out, and activates / stops the low-value bill transport belt 63. Further, reference numerals 69 and 70 are a tenth position sensor and an eleventh position sensor for detecting the upper moving end position and the lower moving end position of the low-price bill stack plate 62, and the reference numeral 71 is a rotation angle of the lower conveyance motor 66. It is a twelfth position sensor for detecting.

In this case, the fifth passage sensor 68 starts / stops the low-value banknote transport belt 63, that is, causes the lower transport motor 66 to rotate one banknote A by one sheet. When the sheets A and A are fed in a partially overlapped state, the lower conveyance motor 66 rotates more than one sheet of the bill A is fed. Therefore, the twelfth position sensor 71 detects the state where the two banknotes A, A are partially overlapped, and complements the discrimination ability of the discrimination sensor 65.

Reference numerals 72 and 73 in the figure denote a thirteenth position sensor and a fourteenth position sensor for detecting the fullness and the emptyness of the thousand-yen safe 61, respectively. Also,
Reference numeral 74 is a third switch provided on the lower door located on the front surface of the 1,000-yen safe 61. In this case as well, when the lower door is opened by the third switch 74, the recycle building validator 1 It is designed to stop driving.

Next, the operation of receiving the bill A will be described with reference to FIG. 1, and the operation of dispensing the bill A will be described with reference to FIG. FIG. 1 shows a standby state in the bill receiving mode, in which the first gate 14 and the second gate 15 are in a state of receiving a 1,000-yen bill. In this state, when a 1,000-yen bill (banknote A) is inserted into the banknote insertion slot 8, the banknote A
After being identified by the bill identifying unit 4, the bills are sent from the receiving transport path 10 to the low-value bill storage unit 6 through the low-value bill transport path 12. The banknote A sent to the low-value banknote storage unit 6 is then transferred from the storage standby position connected to the low-value banknote transport path 12 to the 1,000-yen safe 61 by the transfer stack plate.

On the other hand, when a 5000-yen bill or a 10,000-yen bill (banknote A) is inserted into the bill insertion slot 8, the bill-identifying section 4 determines that the bill is a 5,000-yen bill or a 10,000-yen bill. After being identified, the first gate 14 rotates to switch the transport path.
The banknote A that has passed through the banknote identification section 4 is sent from the receiving and conveying path 10 to the high-value banknote storing section 3 through the high-value banknote conveying path 11. In the high-value banknote storage unit 3, the high-value banknote stack plate 2
When 5 is in the upper end position and is in a standby state for receiving 10,000-yen bills, and the 10,000-yen bills have been sent to the standby passage 21, the high-value banknote stack plate 25 moves downward from this state. Then, the banknote A is sent to the 10,000-yen cash box 24. When the bill A is identified by the bill identifying unit 4 as a 5,000 yen bill, the high-value bill stack plate 25 moves to the lower end position by the time the bill A is sent to the standby passage 21. When the bill is received in the standby passage 21, the high-price bill stack plate 25 moves upward to feed the bill A into the 5,000 yen safe 23.

FIG. 2 shows a standby state in the bill payout mode, in which the second gate 15 is rotated so that the low bill transport path 12 and the payout transport path 13 are communicated with each other, and the low bill storage portion 6 is opened. The low-value banknote stack plate 62 is in a state of being retracted to the upper end position. When the low-value banknote transport belt 63 starts traveling and the separation roller starts to rotate in response to the payout command, the banknote A from the 1,000-yen safe 61 passes through the low-value banknote transport path 12 and the payout transport path 13, and the banknote payout unit 5
One by one is sent to. The banknotes A are accumulated in the batch storage unit 41 so as to be stacked while being counted by the third passage sensor 47. When the number of banknotes A in the batch storing unit 41 reaches a predetermined number, the low-value banknote conveying belt 63 and the separating roller stop, and at the same time, the guide plate 44 of the banknote payout unit 5 moves upward. When the guide plate 44 reaches the upper end position along with the banknote A, the payout conveyance belt 43 starts traveling, and the banknotes A are collectively sent out from the batch storage section 41 to the banknote payout opening 9.

On the other hand, when it is identified that the banknotes A are overlapped and conveyed (the identification sensor 65 and the twelfth position sensor 71) in the conveyance process from the 1,000 yen safe 61 to the batch holding section 41, this overlap occurs. Waiting for the banknote A to reach the batch holding section 41, the conveyance of the banknote A from the 1,000 yen safe 61 is temporarily stopped, the guide plate 44 is moved up, and then the reject stack plate 45 is moved down to hold the batch. Banknote A in section 41
Are sent into the reject holding unit 42. Then, a predetermined number of banknotes A are newly conveyed by the same procedure as described above.

In this case, another control method may be used.
That is, before the stacked banknotes A reach the batch storing section 41, the guide plate 44 is moved upward so that the stacked banknotes A are directly guided to the reject storing section 42. At this time, the count of the banknote A is passed once, and the count is increased from the next banknote A. In this way, a series of operations of the recycle building validator 1 is performed.

Next, the main part of this embodiment will be described in detail. FIG. 3 is a cross-sectional view showing the batch dispensing device of the bill dispensing unit 5 described above, and FIG. 4 is a front view thereof. 5 is a cross-sectional view showing the batch dispensing device in the dispensing state with respect to the standby state in FIG. 3, and FIG. 6 is a front view thereof. As shown in these figures, the batch dispensing device 16
Is a payout conveying belt 43 for collectively paying out the bill A,
Batch holding section 41 configured below the payout conveyance belt 43
And a guide plate 44 that supports the banknotes A in the batch storing unit 41 and guides the payout of the banknotes A.

The batch holding section 41 has a payout conveyance path 1 on the entrance side.
The banknotes A which are connected to the banknote 3 at the outlet side are connected to the banknote payout opening 9 and are fed one by one from the payout conveyance path 13
Hold a predetermined number of sheets by stacking them in sequence. The guide plates 44 are composed of a pair of left and right (see FIGS. 4 and 6), and are located above the reject retaining section 42 formed of a box body as described above, and include the batch retaining section 41 and the reject retaining section 42. It is arranged so as to partition. Guide plate 4
4, a mounting plate 81 is disposed so as to straddle both the guide plates 44, 44, and a coil spring 82 is provided below the mounting plate 81 between the guide plate 44 and the bottom surface of the reject retaining portion 42. Is provided. The placing plate 81 supports the banknote A sent to the reject holding unit 42, and the coil spring 8
The banknote A in the reject holding section 42 is pressed against the guide plate 44 via 2 (the state in which there is no banknote A in the reject holding section 42 is shown).

Each of the guide plates 44 is composed of a guide plate main body 83 facing the inside of the collective holding section 41 and a support plate section 84 facing the outside of the collective holding section 41 and extending downward from the guide plate main body 83. The coil spring 82 urges the mounting plate 81 upward. A long hole 84a is formed in the support plate portion 84 of each guide plate 44 in the horizontal direction, and a pin 85a of a crank disk 85 is engaged with the long hole 84a. That is, by the rotation of the payout stack motor 46 described above, the crank disk 85 rotates via a power transmission mechanism (not shown), and the two guide plates 44, 44 are moved to the lower end position which constitutes the collective holding section 41. It is moved in parallel with the upper end position for guiding the payout of the bill A.

On the other hand, the delivery conveyor belt 43 is also attached to the guide plate 4.
Similar to No. 4, it is composed of a pair of left and right (see FIGS. 4 and 6), and is arranged with a predetermined gap in the left and right direction. Each payout conveyance belt 43 includes an endless belt main body 86 and a pair of front and rear pulleys 87, 87 around the belt main body 86. The left and right pulleys 87, 87 are provided.
Are attached to a common support shaft 88. In this case, the rear pulley (support shaft 88) 87 is a drive pulley, and the belt main body 86 travels via a power transmission mechanism (not shown) by the rotation of the lower conveyance motor 66 described above.

Further, two extruding protrusions 89, 89 are formed on the surface of each belt main body 86, and both extruding protrusions 89, 89 are one of the extruding protrusions when the belt main body 86 travels half way. The other extruding projections 89 are arranged at positions opposite to each other so that the other extruding projections 89 come to the original positions of 89. Further, as shown in FIG. 6, both the extrusion protrusions 89, 89 are arranged in a position away from the guide plates 44, 44 in the left-right direction together with the belt main bodies 86, 86, and hit the tail end of the bill A. So that it has a sufficient protrusion length. Reference numeral 45 in the figure is the above-described reject stack plate.

Here, the operation of the batch dispensing device 16 will be described with reference to FIGS. 3 and 5. In the standby state shown in FIG. 3, the guide plate 44 is at the lower end position, and the banknotes A are sent from the payout transport path 13 to the batch holding section 41 one by one. When a predetermined number of banknotes A are accumulated in the batch storing unit 41, the guide plate 44 on which the banknotes A are placed moves up to the upper end position. When the guide plate 44 reaches the upper end position, the banknote A is sandwiched between the guide plate 44 and the payout conveyance belt 43, and the belt main body 86 starts traveling from this state. In this case, both extrusion protrusions 8 of the belt body 86
9, 89 are in a state where one protrudes forward from the position of the front pulley 87 and the other protrudes rearward from the position of the rear pulley 87 (see FIG. 3). The extrusion protrusion 89 on the rear side wraps around the lower side of the pulley 87, hits the rear end of the banknote A, and pushes the banknotes A together forward (see FIG. 5). Further belt body 86
As the traveling of No. 1 proceeds, the tip of the bill A is pushed out from the bill payout opening 9. Then, when the payout of the bill A is completed, that is, when the belt main body 86 makes a half turn, the operation of the payout conveyance belt 43 is stopped, and at the same time, the guide plate 44 returns to the lower end position.

As described above, according to the present embodiment, since the push-out projection 89 that pushes out the bills A collectively is provided on the surface of the belt main body 86, the bills A are pushed at their rear ends. While being pushed, it is surely pushed forward. For this reason, the payout error of the banknote A is prevented, and the banknote A
Since the push-out projection 89 that pushes out the bills A acts to align the bills A, the bills A can be dispensed in a properly aligned state.

In the present embodiment, the payout conveyor belt has two
Although one extrusion protrusion is provided, the number may be one. The shape of the extrusion protrusion is arbitrary as long as it can push out the stacked banknotes.

[0036]

As described above, according to the bill batch dispensing device of the present invention, the bills are pushed out from the rear by the push-out portion formed on the surface of the transport belt. There is no need for two sets, and with a simple structure, it is possible to properly align and reliably pay out bills.

[Brief description of drawings]

FIG. 1 is a cross-sectional view of a recycle bill validator equipped with a bill batch dispensing device according to an embodiment of the present invention in a bill acceptance mode.

FIG. 2 is a cross-sectional view showing a state where a recycle bill validator equipped with a bill batch dispensing device according to an embodiment of the present invention is in a bill dispensing mode.

FIG. 3 is a sectional view of the banknote batch dispensing device in a standby state.

FIG. 4 is a front view of the banknote batch dispensing device in a standby state.

FIG. 5 is a cross-sectional view of a bill batch dispensing device in a dispensing state.

FIG. 6 is a front view of the bill batch dispensing device in a dispensing state.

FIG. 7 is a sectional view of a conventional banknote batch dispensing device.

[Explanation of symbols]

 16 Batch Dispensing Device 41 Batch Reserving Section 43 Dispensing Conveying Belt 44 Guide Plate 86 Belt Main Body 89 Extrusion Protrusion A Banknote

Claims (1)

[Claims] 1. A banknote batch dispensing device for collectively dispensing banknotes stacked and reserved in a banknote retaining section by a conveyor belt arranged along the banknote retaining section, wherein the banknotes on the surface of the conveyor belt are A bill batch dispensing device, characterized in that a push-out portion that abuts on the tail end and pushes it out in the dispensing direction is provided in a protruding manner.