Patent Application
20240034589
The present invention relates to a paper sheet handling apparatus.
Priority is claimed on Japanese Patent Application No. 2020-208350 filed on Dec. 16, 2020, the contents of which are incorporated herein by reference.
Conventionally, paper sheet handling apparatuses for handling paper sheets have been known (refer to Patent Document 1, for example).
The paper sheet handling apparatus is provided with a tapping mechanism that, by tapping paper sheets sent out from the paper sheet conveyance path, stores the paper sheets in an accumulated state in the accumulation and storage unit while aligning the paper sheets. The tapping mechanism has an elongated cylindrical tapping rod that can be horizontally rotated by a driving force such as a motor.
The tapping bar, by tapping the paper sheets sent out from the paper sheet conveyance path from one end edge side to the other end edge side located in the horizontal width direction of the paper sheets, can cause the other end edge of the paper sheets to abut against (contact) a fixed wall of the accumulation and storage unit. As a result, the paper sheets can be accumulated in the accumulation and storage unit while being aligned along the fixed wall.
However, the paper sheet handling apparatus described in Patent Document 1 aligns the paper sheets by tapping the paper sheets only from one side (one end edge side in the horizontal width direction of the paper sheets) using the tapping bar. Therefore, in this paper sheet handling apparatus, the operation stroke (movement amount) until the paper sheets abut against the fixed wall of the accumulation and storage unit becomes large. Therefore, there is a disadvantage that considerable time is spent on the alignment work.
The present invention has been made in view of such circumstances. An example of an object of the present invention is to provide a paper sheet handling apparatus capable of aligning paper sheets quickly and reliably.
A paper sheet handling apparatus according to a first aspect of the present invention includes a conveyance unit that conveys paper sheets, an accumulation and storage unit that accumulates and stores paper sheets conveyed by the conveyance unit while aligning the paper sheets, and a control unit that controls the accumulation and storage unit, wherein the accumulation and storage unit has: an accumulation unit that accumulates paper sheets so that a first direction, which is one direction of the vertical width direction and the horizontal width direction, and a second direction, which is the other of the vertical width direction and the horizontal width direction, are oriented in predetermined directions; a first alignment unit that is arranged more to one side in the first direction than the accumulation unit and constituted to be movable between a first retracted position spaced apart from the paper sheets accumulated in the accumulation unit, and a first alignment position that is in contact with one end edge positioned in the first direction of the paper sheets accumulated in the accumulation unit; a second alignment unit that is arranged more to the other side in the first direction than the accumulation unit and constituted to be movable between a second retracted position spaced apart from the paper sheets accumulated in the accumulation unit, and a second alignment position that is in contact with the other end edge positioned in the first direction of the paper sheets accumulated in the accumulation unit, and the control unit causes the paper sheets to be aligned in the first direction by causing the first alignment unit and the second alignment unit to move from the first retracted position and the second retracted position to the first alignment position and the second alignment position and tap the paper sheets accumulated in the accumulation unit from both sides in the first direction.
According to the present invention, it is possible to provide a paper sheet handling apparatus that quickly and reliably aligns paper sheets.
An embodiment of a paper sheet handling apparatus according to the present invention will be described below with reference to the drawings. In this embodiment, Japanese banknotes (1,000 yen note, 2,000 yen note, 5,000 yen note, and 10,000 yen note) will be described as examples of paper sheets. However, the paper sheets are not limited to this case, and foreign banknotes such as euro banknotes and dollar bills may be used.
As shown in
In the present embodiment, the direction in which the identification and counting device 2 and the accumulation and bundling device 3 are adjacent to each other is defined as the left-right direction L1. A direction perpendicular to the vertical direction L2 and the left-right direction L1 is defined as a front-rear direction L3. Further, of the front-rear direction L3, the direction from the banknote handling apparatus 1 toward the operator side is defined as front FW, and the opposite direction is defined as rear BK. Furthermore, left and right are defined from the viewpoint of the banknote handling apparatus 1 viewed from the operator side (front FW side). Therefore, when viewed from the operator side, the identification and counting device 2 side is the right side RH, and the accumulation and bundling device 3 side is the left side LH.
The identification and counting device 2 identifies and counts banknotes S input from the outside under predetermined conditions to perform classification processing, and conveys and delivers the banknotes S to the accumulation and bundling device 3. The accumulation and bundling device 3 performs front-back inversion of the banknotes S conveyed from the identification and counting device 2 based on the identification information of the banknotes S. As a result, the accumulation and bundling device 3 accumulates the banknotes S in the state of the front-back directionalities thereof being unified, and creates a plurality of small bundles.
The identification and counting device 2 and the accumulation and bundling device 3 will be described in detail below.
The identification and counting device 2 will be described in detail below.
As shown in
The identification and counting device 2 has a substantially rectangular device case 10. On the right side surface 10a of the device case 10, a loading unit 11 for loading banknotes S from outside the device (outside the device case 10) and a rejection unit 12 for receiving rejected banknotes S from inside the device (inside the device case 10) are formed.
The loading unit 11 and the rejection unit 12 are formed so as to continuously open from the right side surface 10a of the device case 10 to the front surface 10b. Note that the rejection unit 12 is arranged above the loading unit 11.
The identification and counting device 2 is further provided with an identification and conveyance unit 20, an identification unit 30, and an outbound conveyance unit 40. The identification and conveyance unit 20 conveys the banknotes S that have been loaded into the loading unit 11. The identification unit 30 identifies at least the front and back faces of the banknotes S being conveyed by the identification and conveyance unit 20. The outbound conveyance unit 40 receives the banknotes S whose front and back faces have been correctly identified by the identification unit 30 from the identification and conveyance unit 20 and conveys them toward the adjacent accumulation and bundling device 3.
The identification and conveyance unit 20, the identification unit 30 and the outbound conveyance unit 40 are provided inside the device case 10.
The identification and counting device 2 has an operation display unit 50, for example, of a touch panel type, that enables operation input by an operator and displays various kinds of information. The identification and counting device 2 is further provided with a control unit 51 and a power supply unit 52. The control unit 51 comprehensively controls the identification and counting device 2. The power supply unit 52 can be connected to an external power supply, and supplies power to each unit of the identification and counting device 2 and the accumulation and bundling device 3.
The operation display unit 50 is provided on the front surface 10b of the device case 10 and performs input/output of various signals, information, and the like with the control unit 51.
The control unit 51 is composed of a microcomputer on which a CPU or the like is mounted, for example, and includes a storage unit 51a such as a flash memory. The control unit 51 comprehensively controls not only the identification and counting device 2 but also the entire banknote handling apparatus 1 including the accumulation and bundling device 3. The storage unit 51a pre-stores, for example, a program or a table for causing the banknote handling apparatus 1 to execute various kinds of arithmetic processing. Furthermore, the storage unit 51a can store master data that serves as a reference for identification, data of identification and counting results, and the like.
The banknotes S are loaded into the loading unit 11 from the outside by the operator. At this time, the banknotes S are aligned in a predetermined direction and set on the bottom surface 11a of the loading unit 11 in a vertically accumulated state. Specifically, as shown in
In particular, when the banknotes S are set in the loading unit 11, in relation to the front and back faces, they are set in a state in which four front and back patterns are mixed as shown in
As the first front-back pattern, as shown in
As the second front-back pattern, as shown in
As the third front-back pattern, as shown in
As the fourth front-back pattern, as shown in
In this way, the banknotes S are set in an accumulated state on the bottom surface 11a of the loading unit 11 shown in
A bill press 13 that moves up and down along the wall surface 11b is provided on the wall surface 11b. The bill press 13 presses down the banknotes S placed on the bottom surface 11a from above, and can hold the banknotes S stably by sandwiching the banknotes S with the bottom surface 11a.
As shown in
The banknotes S transferred from the loading unit 11 to the identification and conveyance unit 20 thereafter move through the entire conveyance unit in the banknote handling apparatus 1 maintaining the orientation in which the short sides of the banknotes S, that is, the vertical width direction, are aligned with the left-right direction L1 or the vertical direction L2 of the apparatus. Therefore, the vertical width direction of the banknotes S coincides with the left-right direction L1 or vertical direction L2 of the apparatus, as well as with the direction of conveyance.
The identification and conveyance unit 20 is provided with a first identification and conveyance unit 21 extending from the loading unit 11 toward the left side LH. Moreover, the identification and conveyance unit 20 is provided with a second identification and conveyance unit 22 extending upward from the left end unit of the first identification and conveyance unit 21. Thereby, the banknotes S transferred from the loading unit 11 to the identification and conveyance unit 20 are conveyed toward the left side LH by the first identification and conveyance unit 21. Subsequently, the banknotes S are conveyed by the second identification and conveyance unit 22 with an upward orientation. Further, near the take-in roller 15 of the first identification and conveyance unit 21, a detection unit 23 is installed for detecting whether or not a banknote S has been taken in.
The outbound conveyance unit 40 is provided to extend from the upper end unit of the second identification and conveyance unit 22 toward the left side LH. The outbound conveyance unit 40 conveys the banknotes S toward a coupled conveyance unit 70 of the accumulation and bundling device 3, which will be described later. Moreover, a rejection conveyance unit 41 extending toward the right side RH is connected to the upper end unit of the second identification and conveyance unit 22. The rejection conveyance unit 41 is connected to the rejection unit 12. As a result, the outbound conveyance unit 40 and the rejection conveyance unit 41 are branched and connected to the upper end unit of the second identification and conveyance unit 22.
A sorting unit 42 is provided at the upper end of the second identification and conveyance unit 22. The sorting unit 42 sorts the banknotes S conveyed by the second identification and conveyance unit 22 to either the outbound conveyance unit 40 or the rejection conveyance unit 41. In other words, the sorting unit 42 plays a role of switching the conveyance destination of the banknotes S from the second identification and conveyance unit 22 to the outbound conveyance unit 40 or the rejection conveyance unit 41. The sorting unit 42 switches the conveyance destination of the banknotes S to the outbound conveyance unit 40 or the rejection conveyance unit 41 on the basis of the identification result of the identification unit 30.
The identification unit 30 is provided in the second identification and conveyance unit 22 and performs identification and counting of the banknotes S.
For example, the identification unit 30 identifies the type such as the denomination, and identifies the front-back pattern of each banknote S as one of the four front-back patterns described above (first front orientation N1, first back orientation N2, second front orientation N3, second back orientation N4).
Note that the identification unit 30 outputs the identification information (identification result) of the banknote S to the control unit 51.
Based on the identification information output from the identification unit 30, the control unit 51 determines whether the banknote S conveyed from the loading unit 11 can be accepted and whether it is of a preset denomination. When the conveyed banknote S is acceptable and is of a preset denomination, the control unit 51 has the banknote S conveyed from the second identification and conveyance unit 22 through the outbound conveyance unit 40 to the accumulation and bundling device 3.
Further, the control unit 51, upon determining that the banknote S conveyed from the loading unit 11 cannot be accepted based on the identification information output from the identification unit 30, determines the banknote S to be a banknote S to be rejected. In this case, the control unit 51 causes the banknote S to be conveyed from the second identification and conveyance unit 22 to the rejection unit 12 via the rejection conveyance unit 41.
Furthermore, upon determining, based on the identification information output from the identification unit 30, that the banknote S conveyed from the loading unit 11 is acceptable and has a denomination other than the preset denomination, for example, a 1,000-yen note different from the preset 10,000-yen note, the control unit 51 determines the conveyed banknote S to be a banknote S to be rejected. In this case, the control unit 51 causes the conveyed banknote S to be conveyed from the second identification and conveyance unit 22 to the rejection unit 12 via the rejection conveyance unit 41.
As shown in
The reject unit 12 has a bottom surface 12a, a wall surface 12b, and a pair of side surfaces 12c. The bottom surface 12a is inclined slightly downward to the left with respect to the floor surface. The wall surface 12b extends upward from the left end of the bottom surface 12a. The pair of side surfaces 12c are integrally connected to the bottom surface 12a and the wall surface 12b and face each other in the front-rear direction L3.
Further, the rejection unit 12 has an impeller 43 that causes the banknotes S fed out from the rejection conveyance unit 41 to fall toward the bottom surface 12a while being brought into contact with the wall surface 12b. Thereby, the rejection unit 12 can place the banknotes S fed out from the rejection conveyance unit 41 on the bottom surface 12a while stably accumulating them thereon.
The accumulation and bundling device 3 will be described in detail below.
As shown in
However, the invention is not limited to the case where the separate device cases 10 and 60 are respectively provided. For example, the banknote handling apparatus 1 may have one common apparatus case, and the identification and counting device 2 and the accumulation and bundling device 3 may be arranged in this common apparatus case.
The accumulation and bundling device 3 performs front-back inversion of the banknotes S of a specific denomination conveyed by the outbound conveyance unit 40 of the identification and counting device 2 based on the identification information of the banknotes S. As a result, the front-back directionalities of the banknotes S are unified, and the banknotes S with the front-back directionalities thus unified are bundled to produce a small bundle.
As shown in
The coupled conveyance unit 70 is arranged on the upper surface side in the device case 60 and is arranged so as to linearly extend along the left-right direction L1. The coupled conveyance unit 70 conveys the banknotes S from the upstream right end to the downstream left end. The right end of the coupled conveyance unit 70 is connected to the outbound conveyance unit 40 of the identification and counting device 2. On the other hand, the left end of the coupled conveyance unit 70 opens to the left side surface of the device case 60, and for example can be used as an optional exit 71 that can be used for multiple purposes, such as conveying banknotes S to an evacuation pocket unit capable of storing banknotes that is installed on the left side surface of the device case 60 of the accumulation and bundling device 3.
As a result, the coupled conveyance unit 70 conveys the banknotes S received from the outbound conveyance unit 40 toward the left side LH. At this time, the banknotes S conveyed by the coupled conveyance unit 70 are a mixture of the above-described four front-back patterns. That is, banknotes in the first front orientation N1, banknotes in the first back orientation N2, banknotes in the second front orientation N3, and banknotes in the second back orientation N4 are conveyed by the coupled conveyance unit 70.
As shown in
Specifically, the front-back inverting units 80 are arranged side by side in the left-right direction L1 and are provided at the same height position within the device case Therefore, the two front-back inverting units 80 are arranged adjacent to each other along the conveyance direction of the banknotes S conveyed by the coupled conveyance unit 70.
In the present embodiment, of the two front-back inverting units 80, the front-back inverting unit 80 on the right side RH positioned closer to the identification and counting device 2 is referred to as a first front-back inverting unit 81, and the front-back inverting unit 80 positioned on the left side LH is referred to as a second front-back inverting unit 82.
The first front-back inverting unit 81 is provided so as to intersect the coupled conveyance unit 70. The front-back inverting unit 81 is provided with a branching conveyance unit 90, a non-inverting unit 91, and an inverting unit 92. The branching conveyance unit 90 is coupled to the coupled conveyance unit 70. The non-inverting unit 91 inverts the banknotes S an even number of times based on the identification information detected by the identification unit 30, and so discharges the banknotes S with the same front-back directionality as before the front-back inversion. The non-inverting unit 92 inverts the banknotes S an odd number of times based on the identification information detected by the identification unit 30, and so discharges the banknotes S with a different front-back directionality than before the front-back inversion.
The branching conveyance unit 90 is arranged below the coupled conveyance unit 70 and is formed to extend in the vertical direction L2. The upper end unit of the branching conveyance unit 90 is connected to the coupled conveyance unit 70 from below so as to intersect the coupled conveyance unit 70 substantially at a right angle.
At the connection unit between the upper end unit of the branching conveyance unit 90 and the coupled conveyance unit 70 is provided a branch sorting unit 93 that sorts the banknotes S having two front-back patterns among the banknotes S conveyed from the coupled conveyance unit 70 to the branching conveyance unit 90, and flows the remaining banknotes S to the second front-back inverting unit 82 side positioned downstream of the branching conveyance unit 90.
Specifically, the branch sorting unit 93 sorts only the banknotes in the first front orientation N1 and the banknotes in the first back orientation N2 among the banknotes S conveyed by the coupled conveyance unit 70 to the branching conveyance unit 90. The branch sorting unit 93 passes the remaining banknotes S in the second front orientation N3 and banknotes S in the second back orientation N4, sorting them toward the second front-back inverting unit 82 side.
The operation of the branch sorting unit 93 is controlled by the control unit 51. Also, the control unit 51 controls the branch sorting unit 93 based on the identification information.
The non-inverting unit 91 is arranged below the coupled conveyance unit 70 and on the right side RH of the branching conveyance unit 90. In contrast, the inverting unit 92 is arranged below the coupled conveyance unit 70 and on the left side LH of the branching conveyance unit 90. Thereby, the non-inverting unit 91 and the inverting unit 92 are arranged side by side in the left-right direction L1 with the branching conveyance unit 90 interposed therebetween.
The non-inverting unit 91 is connected to the branching conveyance unit 90, and is formed to turn 180 degrees after heading from the branching conveyance unit 90 to the right end unit side that is the upstream side of the coupled conveyance unit 70, to head to the left end unit side that is the downstream side of the coupled conveyance unit 70.
Specifically, the non-inverting unit 91 includes a first non-inverting unit 91a, a second non-inverting unit 91b, and a third non-inverting unit 91c. The first non-inverting unit 91a is connected to a portion located between the upper end portion and the lower end portion of the branching conveyance unit 90 and extends toward the upstream side of the coupled conveyance unit 70 along the left-right direction L1. The second non-inverting unit 91b is connected to the right end side of the first non-inverting unit 91a and extends downward along the vertical direction L2. The third non-inverting unit 91c is connected to the lower end side of the second non-inverting unit 91b and extends toward the downstream side of the coupled conveyance unit 70 along the left-right direction L1. Thereby, the non-inverting unit 91 as a whole is formed in a U shape that bulges toward the upstream side of the coupled conveyance unit 70.
However, the overall shape of the non-inverting unit 91 is not limited to a U shape, and may be formed to bulge toward the upstream side of the coupled conveyance unit 70 in various curved shapes such as a semicircular shape, an arc shape, a C shape (katakana “ko” shape), or the like.
Since the non-inverting unit 91 is configured as described above, while the banknote S is being conveyed from the coupled conveyance unit 70 to the first non-inverting unit 91a of the non-inverting unit 91 via the branching conveyance unit 90, the banknote S can be front-back inverted once. Subsequently, while the banknote S is conveyed from the first non-inverting unit 91a to the third non-inverting unit 91c via the non-inverting unit 91b, the banknote S can be front-back inverted again.
As a result, the non-inverting unit 91 front-back inverts the banknote S twice (an even number of times) in total, and so can discharge the banknote S from the left end unit side of the third non-inverting unit 91c with the same front-back directionality as the banknote S when conveyed by the coupled conveyance unit 70.
The inverting unit 92 is connected to the branching conveyance unit 90, and is formed to turn 180 degrees after heading from the branching conveyance unit 90 to the left end portion side that is the downstream side of the coupled conveyance unit 70, to head to the right end portion side that is the upstream side of the coupled conveyance unit 70.
Specifically, the inverting unit 92 includes a first inverting unit 92a, a second inverting unit 92b, and a third inverting unit 92c. The first inverting unit 92a is connected to the lower end portion of the branching conveyance unit 90 and extends toward the downstream side of the coupled conveyance unit 70 along the left-right direction L1. The second inverting unit 92b is connected to the left end side of the first inverting unit 92a and extends downward along the vertical direction L2. The third inverting unit 92c is connected to the lower end side of the second inverting unit 92b and extends toward the upstream side of the coupled conveyance unit 70 along the left-right direction L1. Thereby, the inverting unit 92 as a whole is formed in a U shape that bulges toward the downstream side of the coupled conveyance unit 70.
However, the overall shape of the non-inverting unit 92 is not limited to a U shape, and may be formed to bulge toward the downstream side of the coupled conveyance unit 70 in various curved shapes such as a semicircular shape, an arc shape, a C shape (katakana “ko” shape), or the like.
Since the inverting unit 92 is configured as described above, while the banknote S is being conveyed from the coupled conveyance unit 70 to the first inverting unit 92a of the inverting unit 92 via the branching conveyance unit 90, the banknote S cannot be front-back inverted. After that, while the banknote S is being conveyed from the first inverting unit 92a to the third inverting unit 92c via the second inverting unit 92b, the banknote S can be front-back inverted once.
As a result, the non-inverting unit 92 front-back inverts the banknote S once (an odd number of times) in total, and so can discharge the banknote S from the right end portion side of the third inverting unit 92c with a different front-back directionality as the banknote S when conveyed by the coupled conveyance unit 70.
Note that the position of the left end of the third non-inverting unit 91c in the non-inverting unit 91 (discharge position of the banknote S) and the position of the right end of the third inverting unit 92c in the inverting unit 92 (discharge position of the banknote S) are positioned at the same height, and are arranged to face each other with a gap in the left-right direction L1.
In the present embodiment, since the non-inverting unit 91 is connected to a portion located between the upper end portion and the lower end portion of the branching conveyance unit 90, and the inverting unit 92 is connected to the lower end portion of the branching conveyance unit 90, the connection position between the branching conveyance unit 90 and the non-inverting unit 91 is located higher than the connection position between the branching conveyance unit 90 and the inverting unit 92.
However, the present invention is not limited to this case, and the connection position between the branching conveyance unit 90 and the inverting unit 92 may be positioned above the connection position between the branching conveyance unit 90 and the non-inverting unit 91.
At the connection unit between the branching conveyance unit 90 and the non-inverting unit 91, there is provided a gate unit 94 for switching the conveyance path so as to convey the banknotes S conveyed by the branching conveyance unit 90 to either the non-inverting unit 91 or the inverting unit 92.
The gate unit 94 performs sorting by switching the conveyance route so as to convey, among the banknotes S conveyed by the branching conveyance unit 90, the banknotes S in the first front orientation N1 to the non-inverting unit 91, and convey the remaining banknotes S in the first back orientation N2 to the inverting unit 92. The operation of the gate unit 94 is controlled by the control unit 51. Also, the control unit 51 controls the gate unit 94 based on the identification information.
As a result, among the banknotes S conveyed by the branching conveyance unit the first front-back inverting unit 81 causes the banknotes S in the first front orientation N1 to be discharged from the non-inverting unit 91 while maintaining the first front orientation N1 due to the two front-back inversions by the non-inverting unit 91. On the other hand, for the banknotes S in the first back orientation N2, the first front-back inverting unit 81 discharges the banknotes S from the inverting unit 92 in the state of the front-back directionality thereof being changed to the first front orientation N1 due to the one front-back inversion by the inverting unit 92.
Therefore, the first front-back inverting unit 81 can unify the front-back directionalities of the banknotes S discharged from the non-inverting unit 91 and the inverting unit 92 to the first front orientation N1.
The second front-back inverting unit 82 is arranged on the left side LH of the first front-back inverting unit 81 and has the same configuration as the first front-back inverting unit 81. Accordingly, a detailed description of the second front-back inverting unit 82 will be omitted, with the main points that differ from the first front-back inverting unit 81 being described.
In addition, the same reference numerals are given to the same components of the second inverting unit 82 as the components constituting the first inverting unit 81.
The branch sorting unit 93 in the second inverting unit 82 sorts, among the banknotes conveyed by the coupled conveyance unit 70, the banknotes S that have passed through the branch sorting unit 93 in the first inverting unit 81, that is, the banknotes S in the second front orientation N3 and the banknotes S in the second back orientation N4, so as to flow to the second front-back inverting unit 82 side.
When the banknotes S other than the banknotes S in the second front orientation N3 and the banknotes S in the second back orientation N4 are conveyed by the coupled conveyance unit 70, the branch sorting unit 93 operates so as to allow these banknotes S to pass to flow toward the left end side, which is the downstream side of the coupled conveyance unit 70. As a result, even if banknotes S other than the banknotes S in the second front orientation N3 and the banknotes S in the second back orientation N4 have been conveyed to the second front-back inverting unit 82, these banknotes can be discharged from the option outlet 71 to the outside of the machine or to an evacuation pocket or the like.
The gate unit 94 in the second front-back inverting unit 82 performs sorting by switching the conveyance route so as to convey, among the banknotes S conveyed by the branching conveyance unit 90, the banknotes S in the second front orientation N3 to the non-inverting unit 91, and convey the remaining banknotes S in the second back orientation N4 to the inverting unit 92.
As a result, among the banknotes S conveyed by the branching conveyance unit 90, the second front-back inverting unit 82 causes the banknotes S in the second front orientation N3 to be discharged from the non-inverting unit 91 while maintaining the second front orientation N3 due to the two front-back inversions by the non-inverting unit 91. On the other hand, for the banknotes S in the second back orientation N4, the second front-back inverting unit 82 discharges the banknotes S from the inverting unit 92 in the state of the front-back directionality thereof being changed to the second front orientation N3 due to the one front-back inversion by the inverting unit 92.
Therefore, the second front-back inverting unit 82 can unify the front-back directionalities of the banknotes S discharged from the non-inverting unit 91 and the inverting unit 92 to the second front orientation N3.
As shown in
The first accumulation and storage unit 100, the second accumulation and storage unit 101, the bundling unit 103, and the accumulation conveyance unit 104 are provided in the device case 60 so as to be positioned below the first and second inverting units 81 and 82.
The first accumulation and storage unit 100 is positioned below the branching conveyance unit 90 in the first inverting unit 81 and between the left end of the third non-inverting unit 91c and the right end of the third inverting unit 92c. Thereby, the banknotes S in the first front orientation N1 that are discharged from the third non-inverting unit 91c after two front-back inversions by the non-inverting unit 91 are loaded one by one into the first accumulation and storage unit 100. Moreover, the banknotes S in the first front orientation N1 that are discharged from the third inverting unit 92c after one front-back inversion by the inverting unit 92 are loaded one by one into the first accumulation and storage unit 100.
Accordingly, the banknotes S unified in the first front orientation N1 from the non-inverting unit 91 and the inverting unit 92 are continuously and alternately loaded into the first accumulation and storage unit 100, for example. Therefore, the banknotes S in the first front orientation N1 can be stored in an accumulated state the first accumulation and storage unit 100, and the banknotes S can be grouped by a predetermined number (for example, 100).
In particular, a predetermined number of the banknotes S can be accumulated in the first accumulation and storage unit 100 in a state of being aligned in the horizontal width direction and the vertical width direction of the banknotes S. At this time, as described above, the banknotes S can be accumulated in a state of the horizontal width direction of the banknotes S being made to match the front-rear direction L3 of the apparatus, and the vertical width direction of the banknotes S being made to match the left-right direction L1 of the apparatus.
The first accumulation and storage unit 100 will be described in detail below.
As shown in
Furthermore, the first accumulation and storage unit 100 is provided with a width-direction alignment unit 120 that aligns the banknotes S accumulated in the unit base unit 110 in the horizontal width direction, and a conveyance direction alignment unit 130 that aligns the banknotes S accumulated in the unit base unit 110 in the conveyance direction.
As shown in
The lower base unit 111 is made of, for example, a thin metal plate, and has a rectangular outer shape in plan view that is longer in the front-rear direction L3 than in the left-right direction L1. Note that the lower base unit 111 is formed by bending the metal plate.
Like the lower base unit 111, the upper base unit 112 is made of, for example, a thin metal plate, and has a rectangular outer shape in plan view that is longer in the front-rear direction L3 than in the left-right direction L1. However, the upper base unit 112 is formed to have a smaller outer shape than the lower base unit 111. Further, the upper base unit 112 is formed by bending a metal plate, and is appropriately formed with hollowed recesses and the like.
As shown in
At both ends of the upper base unit 112 in the left-right direction L1, there are formed a plurality of expansion accommodation holes 114 that pass through the upper base unit 112 in the vertical direction L2 and open on both sides in the left-right direction L1. The plurality of expansion accommodation holes 114 are formed so as to be spaced apart in the front-rear direction L3.
The conveyance direction alignment unit 130 is accommodated in the plurality of expansion accommodation holes 114 so as to be relatively movable in the left-right direction L1 with respect to the upper base unit 112.
Specifically, a third stopper unit 270, an alignment plate 311 and the like of a third alignment mechanism 131, to be described later, are mainly accommodated to be movable in the left-right direction L1 in the plurality of expansion accommodation holes 114 formed in the right side RH of the upper base unit 112. A fourth stopper unit 420 of a fourth alignment mechanism 132, which will be described later, is accommodated so as to be movable in the left-right direction L1 in a plurality of expansion accommodation holes (not shown) formed in the left side LH of the upper base unit 112.
These will be explained later.
The area on the top surface of the upper base 112 that is located on both sides of the main accumulation area 113 in the left-right direction L1 and between adjacent expansion accommodation holes 114 in the front-rear direction L3 is used as an expansion accumulation area 115.
The expansion accumulation area 115 is used as an additional area in which banknotes S can be accumulated in addition to the main accumulation area 113 when the third alignment mechanism 131 and the fourth alignment mechanism 132 are moved away from each other in the left-right direction L1. Note that the expansion accumulation area 115 can accumulate the banknotes S even if the third alignment mechanism 131 and the fourth alignment mechanism 132 are spaced apart to the maximum extent in the left-right direction L1.
As shown in
The first alignment mechanism 121 is located more to the rear BK side of the apparatus than the upper base unit 112 and is provided so as to be movable relative to the upper base unit 112 in the front-rear direction L3. In contrast, the second alignment mechanism 122 is located more to the front FW side of the apparatus than the upper base unit 112 and is provided so as to be movable relative to the upper base unit 112 in the front-rear direction L3.
The first alignment mechanism 121 will be described in detail.
The first alignment mechanism 121 is provided with a first base unit 140, a first base drive unit 150, a first alignment unit 160, and a first alignment drive unit 170. The first base unit 140 is movable in the front-rear direction L3 with respect to the upper base unit 112. The first alignment unit 160 is provided in the first base unit 140. The first base drive unit 150 drives the first base unit 140. The first alignment drive unit 170 drives the first alignment unit 160.
The first base unit 140 is made of, for example, a thin metal plate. The first base unit 140 is arranged between the lower base unit 111 and the upper base unit 112 and is arranged on the rear BK side of the upper base unit 112.
On the underside of the first base unit 140, a first guide shaft 141 fixed to the lower base unit 111 is inserted inside, and a first linear motion guide unit 142 is provided to linearly guide the first guide shaft 141.
The first guide shaft 141 is a cylindrical rod arranged on the right side RH of the lower base unit 111 and linearly extending along the front-rear direction L3. The first linear motion guide unit 142 is a guide member such as a linear ball bearing, for example. The first linear motion guide unit 142 is arranged on the right side RH of the first base unit 140, and the first guide shaft 141 is slidably fitted therein. Thereby, the first base unit 140 is supported so as to be movable along the front-rear direction L3 with high-precision straightness while being guided by the first guide shaft 141.
The first base drive unit 150 is provided with a first rack gear 151, a first pinion gear 152, and a first base drive motor 153. The first rack gear 151 is fixed to the bottom surface of the first base unit 140. The first pinion gear 152 is provided in the first base unit 140 side and meshes with the first rack gear 151. The first base drive motor 153 drives the first pinion gear 152.
The first rack gear 151 is formed in a straight line extending along the front-rear direction L3. The first rack gear 151 is arranged on the left side LH of the first base unit 140 and fixed to the lower surface of the first base unit 140 with the rack teeth directed to the right side RH. The first base drive motor 153 is fixed to the lower surface side of the lower base unit 111, with the drive shaft thereof protruding to the upper surface side of the lower base. The first pinion gear 152 is attached to the drive shaft of the first base drive motor 153.
The first base drive motor 153 is, for example, a stepping motor, and its operation is controlled by the control unit 51, and rotates the first pinion gear 152 forward and backward based on signals from the control unit 51. Thereby, the first base unit 140 can be moved in the front-rear direction L3 while being guided by the first guide shaft 141 via the first rack gear 151.
In this way, since the first base unit 140 can be moved in the front-rear direction L3, by moving the first base unit 140 according to the size (horizontal width) of the banknotes S, banknotes S of various sizes can be handled.
The first alignment unit 160 has a first arm unit 161 and a first plane contact unit 162, and is formed in a Z shape (crank shape) in plan view. The first alignment unit 160 is arranged on the upper surface side of the first base unit 140. Also, the first alignment unit 160 is arranged so as to be positioned above the upper base unit 112 of the unit base unit 110. The first arm unit 161 is attached to a first alignment shaft 163 rotatably erected on the upper surface of the first base unit 140. Accordingly, the first alignment unit 160 is rotatable around the first alignment shaft 163. The first alignment shaft 163 is arranged so as to be positioned on the rear BK side of the first rack gear 151.
The first alignment unit 160 is rotatable (movable) about the first alignment shaft 163 between a first retracted position P1 as shown in
As shown in
In particular, when the first alignment unit 160 is positioned at the first alignment position K1, the first planar contact unit 162 is provided so as to be substantially parallel along the vertical width direction (conveyance direction) of the banknotes S, as shown in
In addition, since the first base unit 140 can be moved according to the horizontal width size of the banknotes S accumulated on the upper base unit 112, the rotation angle of the first alignment unit 160 around the first alignment shaft 163 can be made constant regardless of the horizontal width size of the banknotes S to be accumulated.
As shown in
The first alignment gear 171 is formed in a fan shape in a plan view with the teeth facing the right side RH, and is arranged on the upper surface side of the first base unit 140. The first alignment drive motor 173 is fixed to the lower surface side of the first base unit 140, with the drive shaft thereof protruding to the upper surface side of the first base unit 140. The first motor gear 172 is attached to the drive shaft of the first alignment drive motor 173.
The first alignment drive motor 173 is, for example, a stepping motor. The operation of the first alignment drive motor 173 is controlled by the control unit 51, with the first alignment gear 171 being driven forward and backward on the basis of a signal from the control unit 51. Accordingly, the first alignment drive motor 173 can rotate the first alignment shaft 163 via the first alignment gear 171, and thereby can move the first alignment unit 160 back and forth between the first retracted position P1 and the first alignment position K1.
The second alignment mechanism 122 is arranged more on the front FW side of the apparatus than the upper base unit 112. The second alignment mechanism 122 is arranged to face the above-described first alignment mechanism 121 in the front-rear direction L3 with the upper base unit 112 interposed therebetween. The second alignment mechanism 122 of this embodiment has the same configuration as the first alignment mechanism 121. The second alignment mechanism 122 is arranged to be point symmetrical to the first alignment mechanism 121, rotated 180 degrees, with the reference position O (see
Accordingly, with respect to the second alignment mechanism 122, the same components as those of the first alignment mechanism 121 are given “second” instead of “first” in their names, and will be briefly described below.
The second alignment mechanism 122 is provided with a second base unit 180, a second base drive unit 190, a second alignment unit 200, and a second alignment drive unit 210. The second base unit 180 is movable in the front-rear direction L3 with respect to the upper base unit 112. The second base drive unit 190 drives the second base unit 180. The second alignment unit 200 is provided on the second base unit 180. The second alignment drive unit 210 drives the second alignment unit 200.
The second base unit 180 is arranged on the front FW side of the upper base unit 112. A second linear guide unit 182 that guides a second guide shaft 181 fixed to the lower base unit 111 is provided on the lower surface of the second base unit 180. The second guide shaft 181 is arranged on the left side LH of the lower base unit 111, and the second linear guide unit 182 is arranged on the left side LH of the second base unit 180. Thereby, the second base unit 180 is supported so as to be movable along the front-rear direction L3 with high-precision straightness while being guided by the second guide shaft 181.
The second base drive unit 190 is provided with a second rack gear 191, a second pinion gear 192, and a second base drive motor 193. The second rack gear 191 is fixed to the bottom surface of the second base unit 180. The second pinion gear 192 is provided in the second base unit 180 and meshes with the second rack gear 191. The second base drive motor 193 drives the second pinion gear 192.
The second rack gear 191 is arranged on the right side RH of the second base unit 180. The second pinion gear 192 is attached to the drive shaft of the second base drive motor 193. The second base drive motor 193 rotates the second pinion gear 192 forward and backward based on a signal from the control unit 51. Thereby, the second base unit 180 can be moved in the front-rear direction L3 while being guided by the second guide shaft 181 via the second rack gear 191.
The second alignment unit 200 has a second arm unit 201 and a second planar contact unit 202 and is arranged on the upper surface side of the second base unit 180. Also, the second alignment unit 200 is arranged so as to be positioned above the upper base unit 112 of the unit base unit 110. The second arm unit 201 is attached to a second alignment shaft 203 rotatably erected on the upper surface of the second base unit 180. Accordingly, the second alignment unit 200 is rotatable around the second alignment shaft 203. The second alignment shaft 203 is arranged so as to be positioned on the front FW side of the second rack gear 191.
The second alignment unit 200 is rotatable (movable) about the second alignment shaft 203 between a second retracted position P2 as shown in
As shown in
In particular, when the second alignment unit 200 is positioned at the second alignment position K2, the second planar contact unit 202 is provided so as to be substantially parallel along the vertical width direction (conveyance direction) of the banknotes S, as shown in
As shown in
The second alignment gear 211 is formed in a fan shape in a plan view with the teeth facing the left side LH, and is arranged on the upper surface side of the second base unit 180. The second motor gear 212 is attached to the drive shaft of the second alignment drive motor 213.
The second alignment drive motor 213 rotates the second alignment gear 211 forward and backward based on a signal from the control unit 51. Accordingly, the second alignment shaft 203 can be rotated via the second alignment gear 211, and the second alignment unit 200 can be made to move back and forth between the second retracted position P2 and the second alignment position K2.
The control unit 51 controls the operation of the width-direction alignment unit 120 equipped with the first alignment mechanism 121 and the second alignment mechanism 122 configured as described above. Note that the control unit 51 performs appropriate control while detecting banknotes S based on various sensors (for example, non-contact sensors such as photoelectric sensors, contact sensors, and the like) and the operating positions of the first alignment mechanism 121 and second alignment mechanism 122.
In particular, the control unit 51, according to the denomination of the banknote S preset by the operation display unit 50, moves the first base unit 140 and the second base unit 180 along the front-rear direction L3 to adjust the spacing between the first alignment unit 160 and the second alignment unit 200. Thereby, according to the width of the banknotes S, the first alignment unit 160 and the second alignment unit 200 can be arranged facing each other in the front-rear direction L3 at an optimum spacing.
More specifically, the control unit 51 controls the first base unit 140 and the second base unit 180 to move along the front-rear direction L3 so that the inverval in the front-rear direction L3 between the first planar contact unit 162 and the second planar contact unit 202 matches the horizontal width of the banknotes S to be accumulated on the upper base unit 112 when the first alignment unit 160 and the second alignment unit 200 have been positioned in the first alignment position K1 and second alignment position K2.
As a result, it is possible to flexibly deal with banknotes S having small horizontal widths as shown in
Subsequently, the control unit 51 performs control so as to rotate the first alignment unit 160 and the second alignment unit 200 from the first retracted position P1 and the second retracted position P2 to the first alignment position K1 and the second alignment position K2, respectively, to tap the banknotes S accumulated in the upper base unit 112 from both sides in the horizontal width direction, and thereby align the banknotes S in the horizontal width direction.
At this time, in the present embodiment, the control unit 51 performs control so as to simultaneously rotate the first alignment unit 160 and the second alignment unit 200 to so as to shift from the first retracted position P1 and the second retracted position P2 to the first alignment position K1 and the second alignment position K1.
As shown in
The third alignment mechanism 131 is located more on the right side RH of the apparatus than the upper base unit 112 and is provided so as to be movable relative to the upper base unit 112 in the left-right direction L1. In contrast, the fourth alignment mechanism 132 is located more on the left side LH of the apparatus than the upper base unit 112 and is provided so as to be movable relative to the upper base unit 112 in the left-right direction L1.
As shown in
The third base unit 250 is, for example, a thin metal plate, and is arranged above the upper base unit 112 and is arranged on the right side RH of the upper base unit 112. The third base unit 250 has a front wall 251 and a rear wall 252 facing each other in the front-rear direction L3, and a right wall 253 coupling the front wall 251 and the rear wall 252 in the front-rear direction L3. The front wall 251 and the rear wall 252 are arranged on the outer side of the upper base unit 112 in the front-rear direction L3. Furthermore, the right wall 253 is arranged on the right side RH of the upper base unit 112.
In the front wall 251 of the third base unit 250 is provided a third linear motion guide unit 256 through which a guide shaft 255 that is fixed in the device case 60 is inserted to linearly guide the guide shaft 255.
The guide shaft 255 is a cylindrical rod arranged more to the front FW side than the front wall 251 and linearly extending along the left-right direction L1. The third linear motion guide unit 256 is a guide member such as a linear ball bearing, which is arranged in the front wall 251 and has the guide shaft 255 slidably fitted therein. Thereby, the third base unit 250 is supported so as to be movable along the left-right direction L1 with high-precision straightness while being guided by the guide shaft 255. A plurality of stopper mounting units 257 projecting toward the left side LH are formed in the right wall 253 of the third base unit 250. The plurality of stopper mounting units 257 are arranged at spacings in the front-rear direction L3 corresponding to the plurality of expansion accommodation holes 114 formed in the right end portion of the upper base unit 112.
The plurality of stopper mounting units 257 enter into each of the plurality of expansion accommodation holes 114 from the right side RH. A third stopper unit 270 is fixed to each of the plurality of stopper mounting units 257. The third stopper unit 270 is formed vertically extending in the vertical direction L2, receives the banknotes S discharged from the inverting unit 92 side, and guides the banknotes S toward the upper base unit 112.
In the illustrated example, the case where the third base unit 250 is provided with four third stopper units 270 is taken as an example. These third stopper units 270 are movable within the expansion accommodation hole 114 as the third base unit 250 moves in the left-right direction L1.
The third base drive unit 260 is provided with a third rack gear 261, a third pinion gear 262, and a third base drive motor 263. The third rack gear 261 is fixed to the front wall 251 of the third base unit 250. The third pinion gear 262 meshes with the third rack gear 261. The third base drive motor 263 drives the third pinion gear 262 directly or indirectly via a base relay gear or the like.
The third rack gear 261 is formed in a linear shape extending along the left-right direction L1, and is fixed to the right wall 253 with the rack teeth directed downward. The third base drive motor 263 is, for example, a stepping motor, and its operation is controlled by the control unit 51, and rotates the third pinion gear 262 forward and backward based on signals from the control unit 51. As a result, the third base unit 250 can be moved in the left-right direction L1 while being guided by the guide shaft 255 via the third rack gear 261.
In this manner, the third base unit 250 can be moved in the left-right direction L1. By moving the third base unit 250 according to the size (vertical width) of the banknote S, it is possible to handle banknotes S of various sizes.
The third conveyance unit 280 is provided at the upper unit of the third base unit 250, and in addition to receiving the banknotes S discharged from the non-inverting unit 91 also loads the banknotes S into the upper base unit 112. The third conveyance unit 280 is provided with a third conveyance path 281, a third conveyance roller 282, a third impeller 283, and a third conveyance drive unit 285.
As shown in
As shown in
A plurality of slit holes 290 are formed in the third lower conveyance guide 281b so as to pass through the third lower conveyance guide 281b in the vertical direction L2 and open to the left side LH. The slit holes 290 are formed in a horizontally long shape extending along the left-right direction L1, and are formed in plurality at intervals in the front-rear direction L3.
Joint projections 291 are formed at the right end of the third lower conveyance guide 281b so as to extend toward the right side RH. The joint projections 291 are formed to extend linearly, and are formed in a plurality at intervals in the front-rear direction L3. As a result, the plurality of joint projections 291 are formed in a comb shape. Also, a gap between the joint projections 291 adjacent in the front-rear direction L3 is a joint accommodation unit 292 that opens to the right side RH.
Here, as shown in
The joint projections 291 on the side of the third non-inverting unit 91c are formed to extend linearly toward the left side LH. A plurality of the joint projections 91d are formed in a comb-teeth shape so as to enter the joint accommodation units 292 on the side of the third lower conveyance guide 281b. Therefore, the joint projections 91d on the side of the third non-inverting unit 91c are accommodated in the joint accommodation units 292 on the side of the third lower conveyance guide 281b so as to be movable in the left-right direction L1.
The joint accommodation units 91e on the side of the third non-inverting unit 91c are formed between the joint projections 91d adjacent to each other in the front-rear direction L3, and the joint projections 291 on the side of the third lower conveyance guide 281b are capable of entering therein. Accordingly, the joint projections 291 on the side of the third lower conveyance guide 281b are accommodated in the joint accommodation units 91e on the side of the third non-inverting unit 91c so as to be movable in the left-right direction L1.
As described above, the joint projections 291 and joint accommodation units 292 on the side of the third lower conveyance guide 281b are combined with the joint projections 91d and joint accommodation units 91e on the side of the third non-inverting unit 91c. As a result, even if the third alignment mechanism 131 moves in the left-right direction L1, which is the conveyance direction, the coupled state between the third lower conveyance guide 281b and the third non-inverting unit 91c can be stably maintained without being affected by this movement. Therefore, it is possible to appropriately transfer the banknotes S from the third non-inverting unit 91c to the upper surface of the third lower conveyance guide 281b.
As shown in
A plurality of joint projections and a plurality of joint accommodation units are also formed in the right end unit of the third upper conveyance guide 281a similarly to the third lower conveyance guide 281b, and these are combined with the third non-inverting unit 91c.
Furthermore, the third upper conveyance guide 281a protrudes toward the left side LH more than the third lower conveyance guide 281b. The third upper conveyance guide 281a is inclined obliquely downward so as to extend downward toward the upper base unit 112 side. This allows the banknotes S conveyed from the non-inverting unit 91 to be reliably guided while the banknotes S are conveyed and accumulated as they are dropped toward the upper base unit 112.
As shown in
The third conveyance roller 282 and the third impeller 283 are attached to a third conveyance shaft 284 arranged between the front wall 251 and the rear wall 252 of the third base unit 250 along the front-rear direction L3. The third conveyance shaft 284 is arranged substantially directly below the third lower conveyance guide 281b and is rotatably supported by the front wall 251 and the rear wall 252. Thereby, by rotating the third conveyance shaft 284, the third conveyance rollers 282 and the third impellers 283 can be rotated, and the banknotes S can be conveyed.
The third conveyance drive unit 285 is provided with a third conveyance gear 300 provided on the third conveyance shaft 284, a third intermediate gear 301 that meshes with the third conveyance gear 300, and a third conveyance drive motor 302 that drives the third intermediate gear 301.
The third conveyance shaft 284 protrudes rearward from the rear wall 252 of the third base unit 250 toward the rear BK side, and the third conveyance gear 300 is fixed to the rear end unit of the third conveyance shaft 284. The third relay gear 301 is arranged further to the rear BK side than the rear wall 252 of the third base unit 250 and is fixed to the drive shaft of the third conveyance drive motor 302.
The third conveyance drive motor 302 is, for example, a stepping motor. The operation of the third conveyance drive motor 302 is controlled by the control unit 51. The third conveyance drive motor 302 rotates the third conveyance shaft 284 via the third relay gear 301 and the third conveyance gear 300 based on a signal from the control unit 51. Thereby, the third conveyance roller 282 and the third impeller 283 can be rotated together with the third conveyance shaft 284, and it becomes possible to convey the banknotes S that have been conveyed between the third upper conveyance guide 281a and the third lower conveyance guide 281b from the non-inverting unit 91 toward the upper base unit 112.
The third alignment unit 310 is provided with an alignment plate 311 provided in the third base unit 250 and an alignment plate drive unit 330 that drives the alignment plate 311 in conjunction with the third conveyance rollers 282.
As shown in
The alignment plate 311 includes a vertically long contact unit 312 and an alignment plate main body 313. The contact unit 312 has a flat contact surface facing the upper base unit 112 side. The alignment plate main body 313 is integrally formed with the contact unit 312 and extends more toward the right side RH and lower than the third stopper unit 270. The contact unit 312 can come into contact with one edge positioned in the vertical width direction of the banknotes S.
As shown in
The lower end unit of the alignment plate body 313 is rotatably attached to an alignment shaft 320 pivotally supported by the third base unit 250. The alignment shaft 320 is arranged along the front-rear direction L3, and both sides of the alignment shaft 320 are pivotally supported by support pieces 321 integrally formed with the rear wall 252 of the third base unit 250.
Accordingly, the alignment plate 311 can swing about the alignment shaft 320 in the left-right direction L1.
Specifically, the alignment plate 311 is swingable (movable) between a third alignment position K3 shown in
The alignment plate 311 is accommodated together with the third stopper unit 270 in the expansion accommodation hole 114 provided in the upper base unit 112.
As shown in
The alignment plate drive shaft 331 is positioned below the third conveyance shaft 284 and above the alignment shaft 320, and is arranged between the front wall 251 and the rear wall 252 of the third base unit 250 along the front-rear direction L3. The alignment plate drive shaft 331 is rotatably supported by the front wall 251 and the rear wall 252 while passing through the receiving hole 314 formed in the alignment plate 311. The alignment plate drive shaft 331 projects rearward from the rear wall 252 of the third base unit 250 toward the rear BK side.
The eccentric cam 340 is arranged in the vertically elongated receiving hole 314 formed in the alignment plate 311. The eccentric cam 340 is an eccentric disc cam having an outer diameter that contacts the inner surface of receiving hole 314. The eccentric cam 340 is formed with an eccentric hole 341 passing through the eccentric cam 340 in the front-rear direction L3. The eccentric hole 341 is formed at a position eccentric from the center of the eccentric cam 340. Thereby, the eccentric cam 340 is formed so that the wall thickness (thickness in the radial direction) varies in the circumferential direction.
The eccentric cam 340 has the alignment plate drive shaft 331 inserted into the eccentric hole 341 and is thereby integrally combined with the alignment plate drive shaft 331. Therefore, the eccentric cam 340 eccentrically rotates around the alignment plate drive shaft 331 as the alignment plate drive shaft 331 rotates. Accordingly, the eccentric rotation of the eccentric cam 340 can be used to swing the alignment plate 311 between the third alignment position K3 and the third retracted position P3.
Specifically, the eccentric rotation of the eccentric cam 340 accompanying the rotation of the alignment plate drive shaft 331 causes the maximum wall thickness unit 342 to contact the portion of the inner surface of the receiving hole 314 that is on the contact unit 312 side, as shown in
As shown in
The conveyance branch gear 351 is provided on the third conveyance shaft 284 and arranged between the third conveyance gear 300 and the rear wall 252 of the third base unit 250. Thereby, the conveyance branch gear 351 rotates together with the third conveyance shaft 284, the third conveyance rollers 282 and the third impellers 283.
The alignment plate gear 352 is provided at the rear end of the third base unit 250, protruding more toward the rear BK side than the rear wall 252.
The alignment plate relay gear 353 is arranged between the third conveyance gear 300 and the conveyance branch gear 351 and is pivotally supported by the rear wall 252 of the third base unit 250. The alignment plate relay gear 353 meshes with each of the third conveyance gear 300 and the conveyance branch gear 351.
As a result, the alignment plate relay gear 353 can transmit the rotational force of the conveyance branch gear 351 to the alignment plate gear 352, interlocking with the rotation of the third conveyance shaft 284, which can rotate the alignment plate drive shaft 331 and eccentric cam 340 in conjunction with the rotation of the third conveyance shaft 284, the third conveyance rollers 282 and the third impellers 283. Therefore, the alignment plate 311 can be continuously swung between the third alignment position K3 and the third retracted position P3 in conjunction with the rotation of the third conveyance rollers 282 and the like.
As shown in
Accordingly, in the fourth alignment mechanism 132, the same components as those of the third alignment mechanism 131 will be described simply by adding “fourth” instead of “third” to their names.
However, the fourth alignment mechanism 132 does not have a component corresponding to the third alignment unit 310.
As shown in
The fourth base unit 400 has a front wall 401, a rear wall 402, and a left wall 403 coupling the front wall 401 and the rear wall 402 in the front-rear direction L3. The left wall 403 has a banknote discharge port 404 that penetrates the left wall 403 in the left-right direction L1 for discharging banknotes accumulated on the upper surface of the upper base unit 112 to the outside (left side LH) while maintaining the accumulated state.
In the front wall 401 of the fourth base unit 400 is provided a fourth linear motion guide unit 406 through which a guide shaft 255 that is fixed in the device case 60 is inserted to linearly guide the guide shaft 255. Thereby, the fourth base unit 400 is supported so as to be movable along the left-right direction L1 with high-precision straightness while being guided by the guide shaft 255.
The guide shaft 255 is a common guide shaft with the third base unit 250. However, the present invention is not limited to this case, and separate guide shafts may be used to guide the third base unit 250 and the fourth base unit 400, respectively.
The fourth base drive unit 410 is provided with a fourth rack gear 411, a fourth pinion gear 412, and a fourth base drive motor 413. The fourth rack gear 411 is fixed to the front wall 401 of the fourth base unit 400. The fourth pinion gear 412 meshes with the fourth rack gear 411. The fourth base drive motor 413 drives the fourth pinion gear 412 directly or indirectly via a base relay gear or the like.
The fourth base drive motor 413 is, for example, a stepping motor. The operation of the fourth base drive motor 413 is controlled by the control unit 51, and the fourth base drive motor 413 rotates the fourth pinion gear 412 forward and backward based on a signal from the control unit 51. As a result, the fourth base unit 400 can be moved in the left-right direction L1 while being guided by the guide shaft 255 via the fourth rack gear 411.
In this manner, the fourth base unit 400 can be moved in the left-right direction L1. By moving the fourth base unit 400 according to the size (vertical width) of the banknote S, it is possible to handle banknotes S of various sizes.
The fourth conveyance unit 430 is provided at the upper unit of the fourth base unit 400, and in addition to receiving the banknotes S discharged from the inverting unit 92 also loads the banknotes S into the upper base unit 112. The fourth conveyance unit 430 is provided with a fourth conveyance path 431, a fourth conveyance roller 432, a fourth impeller 433, and a fourth conveyance drive unit 435.
As shown in
As shown in
Here, a joint projection 92d and a joint accommodation unit 92e are formed in the right end (outlet) of the third inverting unit 92c, which constitutes the inverting unit 92. The joint projection 92d and the joint accommodation unit 92e correspond to the joint projection 441 and the joint accommodation unit 442, respectively, and are combined with the joint projection 441 and the joint accommodation unit 442, respectively. Accordingly, even if the fourth alignment mechanism 132 moves in the left-right direction L1, which is the conveyance direction, the coupled state between the fourth lower conveyance guide 431b and the third inverting unit 92c can be stably maintained without being affected by this movement, and it is possible to properly pass the banknotes S from the third inverting unit 92c to the upper surface of the fourth lower conveyance guide 431b.
The fourth conveyance roller 432 and the fourth impeller 433 are arranged in the slit holes 440 formed in the fourth lower conveyance guide 431b. The fourth impeller 433 is attached to a fourth conveyance shaft 434 arranged between the front wall 401 and the rear wall 402 of the fourth base unit 400. Thereby, by rotating the fourth conveyance shaft 434, the fourth conveyance rollers 432 and the fourth impellers 433 can be rotated, and the banknotes S can be conveyed.
The fourth conveyance drive unit 435 is provided with a fourth conveyance gear 450 provided on the fourth conveyance shaft 434, a fourth intermediate gear 451 that meshes with the fourth conveyance gear 450, and a fourth conveyance drive motor not shown that drives the fourth intermediate gear 451.
The fourth conveyance drive motor rotates the fourth conveyance shaft 434 via the fourth relay gear 451 and the fourth conveyance gear 450 based on a signal from the control unit 51. Thereby, the fourth conveyance roller 432 and the fourth impeller 433 can be rotated together with the fourth conveyance shaft 434, and it becomes possible to convey the banknotes S that have been conveyed between the fourth upper conveyance guide 431a and the fourth lower conveyance guide 431b from the inverting unit 92 toward the upper base unit 112.
By the way, between the front wall 401 and the rear wall 402 of the fourth base unit 400, a stopper shaft 460 extending along the front-rear direction L3 is supported. The stopper shaft 460 is arranged below the fourth conveyance shaft 434.
A plurality of fourth stopper units 420 are fixed to the stopper shaft 460 via attachment units 461 attached to the stopper shaft 460. The plurality of fourth stopper units 420 are arranged at intervals in the front-rear direction L3, and enter the plurality of expansion accommodation holes 114 formed in the upper base unit 112 from the left side LH. These fourth stopper units 420 are formed vertically extending in the vertical direction L2, and play the role of receiving the banknotes S discharged from the non-inverting unit 91 side, and guiding the banknotes S toward the upper base unit 112.
It should be noted that four fourth stopper units 420 are provided, for example, similarly to the third stopper unit 270. However, the number of fourth stopper units 420 is not limited to this case, and may be changed as appropriate.
The stopper shaft 460 to which the fourth stopper units 420 are fixed is rotationally driven by a fourth stopper drive unit (not shown). The fourth stopper drive unit has a stopper gear provided on the stopper shaft 460 and a stopper drive motor that drives the stopper gear directly or indirectly via a stopper intermediate gear or the like.
The stopper drive motor is, for example, a stepping motor. The operation of the stopper drive motor is controlled by the control unit 51, and the stopper drive motor rotates the stopper gear forward and backward based on a signal from the control unit 51. Accordingly, by rotating the stopper shaft 460, it is possible to rotate the fourth stopper units 420 around the stopper shaft 460.
Specifically, the fourth stopper unit 420 can be rotated between the closed position P4 (see
Note that when positioned at the closed position P4, the fourth stopper unit 420 receives the banknotes S discharged from the non-inverting unit 91 side and guides the banknotes S to the upper base unit 112.
The control unit 51 controls the operation of the conveyance direction alignment unit 130 equipped with the third alignment mechanism 131 and the fourth alignment mechanism 132 configured as described above. Note that the control unit 51 performs appropriate control while detecting banknotes S based on various sensors (for example, non-contact sensors such as photoelectric sensors, contact sensors, and the like) and the operating positions of the third alignment mechanism 131 and fourth alignment mechanism 132.
In particular, the control unit 51, according to the denomination of the banknote S preset by the operation display unit 50, moves the third base unit 250 and the third base unit 250 along the left-right direction L1, to adjust the spacing between the third stopper unit 270 and the fourth stopper unit 420. Thereby, according to the vertical width of the banknote S, the third stopper unit 270 and the fourth stopper unit 420 can be positioned facing each other in the left-right direction L1 by the optimal spacing.
As a result, it is possible to flexibly deal with banknotes S having small vertical widths as shown in
Moreover, in the state of the fourth stopper units 420 being positioned at the closed unit P4, the control unit 51, by causing the alignment plate 311 to swing from the third retracted position P3 to the third alignment position K3, taps banknotes S accumulated on the upper base unit 112 from one side in the vertical width direction. By this operation, the banknotes S are aligned in the vertical width direction between the fourth stopper units 420.
As shown in
However, since the second accumulation and storage unit 101 is arranged on the left side LH of the accumulation conveyance unit 104, the banknote discharge port 404 opens to the right side RH.
As shown in
The accumulation conveyance unit 104 has, for example, a first chuck member 500 capable of clamping the accumulated banknotes S in the vertical direction L2. The first chuck member 500 is provided with a first chuck unit 501 located above the accumulated banknotes S and a second chuck unit 502 located below the accumulated banknotes S. The first chuck unit 501 and the second chuck unit 502 can be relatively moved closer to and away from each other in the vertical direction L2, and can hold the accumulated banknotes S in the vertical direction L2 while maintaining the orientation thereof.
The first chuck member 500 configured in this manner is movable between the first accumulation and storage unit 100 and the second accumulation and storage unit 101 along the left-right direction L1. Therefore, the accumulated banknotes S stored in the first accumulation and storage unit 100 can be taken out through the banknote discharge port 404, and the accumulated banknotes S stored in the second accumulation and storage unit 101 can be taken out through the banknote discharge port 404.
Further, the first chuck member 500 can transfer the accumulated banknotes S taken out from the first accumulation and storage unit 100 and the second accumulation and storage unit 101 to the second chuck member 510 of the bundling unit 103.
The bundling unit 103 is arranged below the accumulation conveyance unit 104 and includes the second chuck member 510 capable of receiving banknotes S in an accumulated state from the first chuck member 500 of the accumulation conveyance unit 104.
The second chuck member 510 is provided with a first chuck unit 511 located above the accumulated banknotes S and a second chuck unit 512 located below the accumulated banknotes S. The first chuck unit 511 and the second chuck unit 512 can be relatively moved closer to and away from each other in the vertical direction L2, and can hold the accumulated banknotes S in the vertical direction L2 while maintaining the orientation thereof.
The bundling unit 103 is further provided with a bundling mechanism unit 520 that bundles the banknotes S in the accumulated state sandwiched by the second chuck member 510 with a bundling tape (not shown), thereby creating a small bundle in which a plurality of banknotes S are bundled into a single bundle.
The bundling unit 103 further has, for example, a drawer-type small bundle discharge unit 521 for receiving the created small bundle. The small bundle discharge unit 521 is formed on the front surface of the device case 60 as shown in
However, the small bundle discharge unit 521 is not limited to a drawer type, and may be provided as an opening. Thus, the small bundle created by the bundling unit 103 can be discharged out of the apparatus through the small bundle discharge unit 521.
Next, a description will be given of a case where the banknote handling apparatus 1 configured as described above is used to process the banknotes S to produce a small bundle of banknotes S, for example, 10,000 yen notes.
First, as an initial setting, the operator inputs the denomination of the small bundle to be produced, the number of banknotes S to be made into the small bundle, and the like to the operation display unit 50, and also inputs the number of small bundles to be produced.
After these initial settings are made, the operator loads 10,000 yen banknotes S in an accumulated state into the loading unit 11 of the identification and counting device 2, as shown in
When the banknotes S are set in the loading unit 11, the banknotes S are taken in one by one by the feed-out roller 14 and the take-in roller 15 and transferred to the identification and conveyance unit 20, as shown in
During this time, the identification unit 30 counts the conveyed banknotes S, identifies the denomination of the banknotes S, identifies front and back patterns, and the like, and outputs identification information of the banknotes S to the control unit 51.
Based on the identification information output from the identification unit 30, the control unit 51, upon determining that the conveyed banknote S can be accepted and that the banknote S is of a preset denomination, conveys the banknote S from the second identification and conveyance unit 22 to the accumulation and bundling device 3 via the outbound conveyance unit 40.
Further, the control unit 51, upon determining that the conveyed banknote S is unacceptable based on the identification information output from the identification unit determines the banknote S to be a banknote S to be rejected, and has the banknote S conveyed from the second identification and conveyance unit 22 to the rejection unit 12 via the rejection conveyance unit 41.
Moreover, the control unit 51, upon determining that the conveyed banknote S can be accepted based on the identification information output from the identification unit 30 and determining that the banknote S is of a denomination other than the preset denomination, for example, upon determining that the banknote S is a 1,000-yen note different from the 10,000-yen note, determines the banknote S to be a banknote S to be rejected, and has the banknote S conveyed from the second identification and conveyance unit 22 to the rejection unit 12 via the rejection conveyance unit 41.
As a result, only the 10,000-yen bills S determined to be acceptable can be conveyed from the second identification and conveyance unit 22 to the outbound conveyance unit 40, while the other banknotes S can be conveyed to the rejection unit 12 via the rejection conveyance unit 41.
As described above, it is possible to use the identification and counting device 2 to extract only banknotes S of 10,000 yen notes that are determined to be acceptable and set in advance, and to deliver them to the coupled conveyance unit 70 of the accumulation and bundling device 3. At this time, the control unit 51 ascertains that each banknote S delivered from the identification and counting device 2 to the coupled conveyance unit 70 has one of the four front-rear patterns.
As shown in
The branch sorting unit 93 in the second front-back inverting unit 82 receives an instruction from the control unit 51, and when the banknote S conveyed by the coupled conveyance unit 70 has the front-rear pattern of the second front orientation N3 and the second back orientation N4, sorts the banknote S so as to be conveyed to the branching conveyance unit 90.
When the banknote S is conveyed to the branching conveyance unit 90 in the first front-back inverting unit 81, based on the instruction from the control unit 51, the gate unit 94 switches the conveyance path so as to convey the banknote S in the first front orientation N1 to the non-inverting unit 91, and convey the banknote S in the first back orientation N2 to the inverting unit 92.
As a result, the paper sheet handling apparatus 1 can discharges the banknotes S in the first front orientation N1 from the non-inverting unit 91 while maintaining the first front orientation N1 as is by inverting the banknotes S twice with the non-inverting unit 91. The paper sheet handling apparatus 1 can discharge the banknotes S in the first back orientation N2 from the inverting unit 92 in a state in which the front-back directionalities have been changed to the first front orientation N1 by one inversion with the inverting unit 92.
As a result, the front-back directionalities of the banknotes S discharged from the non-inverting unit 91 and the inverting unit 92 can be unified to the first front orientation N1 by using the first front-back inverting unit 81. Accordingly, the banknotes S whose front-back directionality has been unified to the first front orientation N1 can be transferred to the first accumulation and storage unit 100, for example.
When the banknote S is conveyed to the branching conveyance unit 90 in the second front-back inverting unit 82, based on the instruction from the control unit 51, the gate unit 94 switches the conveyance path so as to convey the banknote S in the second front orientation N3 to the non-inverting unit 91, and convey the banknote S in the second back orientation N4 to the inverting unit 92. As a result, the banknote S in the second front orientation N3 can be discharged from the non-inverting unit 91 while maintaining the second front orientation N3 by inverting the banknotes S twice with the non-inverting unit 91, while the banknote S in the second back orientation N4 can be discharged from the inverting unit 92 in a state where the front-back directionality has been changed to the second front orientation N3 by one front-back inversion with the inverting unit 92.
As a result, the front-back directionalities of the banknotes S discharged from the non-inverting unit 91 and the inverting unit 92 can be unified to the second front orientation N3 by using the second front-back inverting unit 82. Therefore, the banknotes S whose front-back directionality has been unified to the second front orientation N3 can be transferred to the second accumulation and storage unit 101.
Here, in storing the banknotes S in the first accumulation and storage unit 100 and the second accumulation and storage unit 101, the control unit 51 preliminarily sets the spacing between the first base unit 140 and the second base unit 180 and the spacing between the third base unit 250 and the fourth base unit 400 to a spacing corresponding to the banknotes S.
Specifically, the control unit 51, upon recognizing that the denomination of the banknote S loaded based on the identification information of the identification unit 30 is a preset 10,000 yen note, reads the horizontal width direction and the vertical width direction of the 10,000-yen note from the data stored in the storage unit 51a. The control unit 51, on the basis of the read data, controls the first base unit 140 and the second base unit 180 to move along the front-rear direction L3 so that the spacing in the front-rear direction L3 between the first planar contact unit 162 and the second planar contact unit 202 matches the horizontal width of the 10,000-yen banknotes S to be accumulated on the upper base unit 112, when the first alignment unit 160 and the second alignment unit 200 have been positioned in the first alignment position K1 and second alignment position K2, as shown in
In addition, the control unit 51 moves the first base unit 140 and the second base unit 180 along the front-rear direction L3 so that the first planar contact unit 162 and the second planar contact unit 202 are arranged to be equally spaced from the reference position O in the upper base 112, so that the reference position O in the upper base unit 112 and center of the banknote S in the horizontal width direction coincide.
Further, the control unit 51, according to the denomination of the banknote S preset by the operation display unit 50, moves the third base unit 250 and the fourth base unit 400 along the left-right direction L1, to adjust the spacing between the third stopper unit 270 and the fourth stopper unit 420. Thereby, as shown in
A description will be given of how banknotes S discharged from the first front-back inverting unit 81 are stored in the first accumulation and storage unit 100 based on the initial settings described above.
For example, as shown in
Similarly, when banknotes S whose front-back directionalities have been unified to the first front orientation N1 are transferred from the inverting unit 92 to the first accumulation and storage unit 100, the control unit 51 drives the fourth conveyance drive motor to rotate the fourth conveyance shaft 434. As a result, the fourth conveyance rollers 432 and the fourth impellers 433 can be rotated, and banknotes S can be conveyed toward the upper base unit 112 through the space between the upper surface of the fourth lower conveyance guide 431b and the lower surface of the fourth upper conveyance guide 431a. Therefore, the banknotes S can be loaded onto the upper base unit 112.
In this way, the banknotes S discharged from the non-inverting unit 91 and the banknotes S discharged from the inverting unit 92 can for example be alternately loaded onto the upper base unit 112, and can be stored while being accumulated on the upper base unit 112.
When the banknotes S are stored on the upper base unit 112, the control unit 51 rotates the first alignment unit 160 and the second alignment unit 200 from the first retracted position P1 and the second retracted position P2 shown in
Moreover, since the first planar contact unit 162 and the second planar contact unit 202 are arranged at equal intervals from the reference position O on the upper base unit 112, the banknotes S can be aligned so that the center of the banknotes S in the horizontal width direction matches the center of the banknotes S in the front-rear direction L3 of the upper base unit 112 (that is, the center in the conveyance direction).
Furthermore, since the control unit 51 drives the third conveyance drive motor 302, the alignment plate drive shaft 331 can be rotated in conjunction with the rotation of the third conveyance rollers 282. As a result, the eccentric cam 340 can be rotated together with the alignment plate drive shaft 331, and the alignment plate 311 can be swung from the third retracted position P3 shown in
Note that the alignment plate 311 may align the banknotes S each time they are accumulated on the upper base unit 112, or may perform the alignment once every multiple number of sheets, such as once every two sheets, for example.
As described above, banknotes S (10,000 yen notes) whose front-back directionality are unified in the first front orientation N1 can be stored in the first accumulation and storage unit 100 while being neatly accumulated in a state of being aligned in the horizontal and vertical width directions.
As in the case described above, by transferring the banknotes S from the second front-back inverting unit 82 into the second accumulation and storage unit 101, banknotes S (10,000 yen notes) whose front-back directionality are unified in the second front orientation N3 can be stored in the second accumulation and storage unit 101 while being neatly accumulated in a state of being aligned in the horizontal and vertical width directions.
Next, when a predetermined number (for example, 100) of banknotes S are accumulated in the first accumulation and storage unit 100 and the second accumulation and storage unit 101, as shown in
Specifically, the control unit 51 drives the stopper drive motors in the first accumulation and storage unit 100 and the second accumulation and storage unit 101 to move the fourth stopper units 420 from the closed position P4 (see
Next, the control unit 51 moves the first chuck member 500 of the accumulation conveyance unit 104 toward the first accumulation and storage unit 100 side, and after removing the banknotes in an accumulated state stored on the upper base unit 112 of the first accumulation and storage unit 100, transfers the banknotes S to the second chuck member 510 in the bundling unit 103.
Subsequently, the control unit 51 controls the bundling unit 103 to have the accumulated banknotes S received by the second chuck member 510 bundled by the bundling mechanism unit 520. As a result, a small bundle in which the banknotes S in the accumulated state are bundled with the bundling tape can be created.
Similarly, the control unit 51 moves the first chuck member 500 of the accumulation conveyance unit 104 toward the second accumulation and storage unit 101 side, and after removing the banknotes in an accumulated state stored on the upper base unit 112 of the second accumulation and storage unit 101, transfers the banknotes S to the second chuck member 510 in the bundling unit 103.
Subsequently, the control unit 51 controls the bundling unit 103 to have the accumulated banknotes S received by the second chuck member 510 bundled by the bundling mechanism unit 520. As a result, a small bundle in which the banknotes S in the accumulated state are bundled with the bundling tape can be created.
In this manner, the accumulated banknotes S stored in the first accumulation and storage unit 100 and the second accumulation and storage unit 101 can for example be taken out alternately and made into small bundles by the bundling unit 103.
The small bundles that are created are loaded into the small bundle discharge unit 521 shown in
As described above, the banknote handling apparatus 1 of the present embodiment, using the first front-back inverting unit 81 and the second front-back inverting unit 82, can perform front-back inversion of the banknotes S being conveyed by the coupled conveyance unit 70 based on the front-back identification information. Thereby, even when banknotes S are conveyed in a state in which the front-back directionality is mixed, the front-back directionality can be unified during conveyance.
In particular, since processing can be performed that unifies the banknotes S so that the front and back faces thereof are facing the same way simply by providing a front-back inverting unit 80 (first front-back inverting unit 81 and the second front-back inverting unit 82) equipped with the non-inverting unit 91 and the inverting unit 92 in the device case 60, the configuration can be simplified and the entire banknote handling apparatus 1 can be made smaller and more compact.
In particular, when the banknotes S have been conveyed to the first accumulation and storage unit 100 and the second accumulation and storage unit 101, the banknote handling apparatus 1 of the present embodiment, by rotating the first alignment unit 160 and the second alignment unit 200 from the first retracted position P1 and the second retracted position P2 to the first alignment position K1 and the second alignment position K2, respectively, can tap the banknotes S accumulated on the upper base unit 112 from both sides in the horizontal width direction, and align the banknotes S in the horizontal width direction.
In this way, by aligning the banknotes S by tapping from both sides in the horizontal width direction instead of aligning by tapping only from one side in the horizontal width direction as in the prior art, it is possible to reduce the moment stroke of the banknotes S (shift amount) and possible to efficiently perform reliable alignment. Therefore, the banknotes S can be quickly and reliably aligned, and the operation time required for the alignment process can be shortened.
Furthermore, by positioning the first alignment unit 160 and the second alignment unit 200 at the first retracted position P1 and the second retracted position P2, the first alignment unit 160 and the second alignment unit 200 can be spaced outward of the entrance area of the banknotes S through which the banknotes S pass until being accumulated on the upper base unit 112. Accordingly, it is possible to prevent the occurrence of a paper jam due to jamming of the banknotes S.
Furthermore, since the first alignment unit 160 and the second alignment unit 200 have the first planar contact unit 162 and the second planar contact unit 202 that make linear or surface contact with the banknotes S, compared to the case of using a conventional cylindrical abutting portion, it is more difficult to leave a strike mark on the banknotes S. Moreover, when the banknotes S are tapped from both sides by using the conventional cylindrical abutting portions, depending on the position of the strike, there is a risk that the banknotes S may be rotated, disrupting their alignment.
In contrast, in the present embodiment, since the first planar contact unit 162 and the second planar contact unit 202, which have wide and flat contact surfaces, are used it is possible to prevent the conventional rotation of the banknotes S that may occur and the accompanying disruption of the alignment of the banknotes S, and can stably align the banknotes S.
Moreover, when the banknotes S have been conveyed to the first accumulation and storage unit 100 and the second accumulation and storage unit 101, the banknote handling apparatus 1 of the present embodiment, by swinging the alignment plate 311 from the third retracted position P3 to the third alignment position K3, can tap the banknotes S accumulated on the upper base unit 112 from one side in the vertical width direction, and align the banknotes S in the vertical width direction with the fourth stopper unit 420. As a result, due to the synergistic effect of the alignment in the horizontal width direction by the first alignment unit 160 and the second alignment unit 200 described above, the banknotes S can be accurately aligned both in the horizontal width direction and in the vertical width direction, and the banknotes S can be stored in an accumulated state that is neatly aligned.
In the present embodiment, when the banknotes S have been aligned in the horizontal width direction in the first accumulation and storage unit 100 and the second accumulation and storage unit 101, the first alignment unit 160 and the second alignment unit 200 were nearly simultaneously rotated from the first retracted position P1 and the second retracted position P2 to the first alignment position K1 and the second alignment position K2, respectively, but the present invention is not limited to this case, and the first alignment unit 160 and the second alignment unit 200 may be rotated at different timings.
For example, the control unit 51 obtains banknote conveyance position information indicating the position of the banknote S being conveyed with respect to the horizontal width direction from the identification unit 30, and, as shown in
Subsequently, as shown in
Contrary to the case described above, when the center position C in the horizontal width direction of the banknotes S accumulated on the upper base unit 112 is shifted to the other side (the second alignment unit 200 side) of the reference position O by the upper base unit 112, the first alignment unit 160 is first rotated to the first alignment position K1. As a result, the first planar contact unit 162 can be kept on standby so as to be substantially parallel to the vertical width direction of the banknotes S, which is the conveying direction. Subsequently, the second alignment unit 200 is rotated to the second alignment position K2 to tap the banknotes S, drawing the banknotes S together so as to abut against the first planar contact unit 162 of the first alignment unit 160, which is already waiting at the first alignment position K1. Thereby, the banknotes S accumulated on the upper base unit 112 can be aligned in the horizontal width direction.
Therefore, even in the case described above, the banknotes S accumulated on the upper base unit 112 can be neatly aligned in the horizontal width direction.
Although embodiments of the present invention have been described above, these embodiments are presented as examples and are not intended to limit the scope of the invention. Embodiments can be implemented in various other forms, and various omissions, replacements, and modifications can be made without departing from the scope of the invention. Embodiments and modifications thereof include, for example, those that can be easily imagined by those skilled in the art, those that are substantially the same, and those within an equivalent range.
For example, in the above-described embodiment, the case in which the banknote handling apparatus 1 is equipped with the identification and counting device 2 and the accumulation and bundling device 3 that are coupled to each other was described as an example, but the identification and counting device 2 is not essential and does not have to be provided.
Furthermore, the configuration is not limited to the case where only one accumulation and bundling device 3 is provided, and two or more may be provided.
For example, the banknote handling apparatus 1 may be formed by coupling two accumulation and bundling devices 3 in the left-right direction L1. In this case, by connecting the coupled conveyance unit 70 in the second accumulation and bundling device 3 to the option outlet 71 of the coupled conveyance unit 70 in the first accumulation and bundling device 3, the banknotes S can be continuously conveyed from the first accumulation and bundling device 3 to the second accumulation and bundling device 3.
When the banknote handling apparatus 1 is configured in this way, for example, the soiled banknotes S identified as soiled banknotes S (soiled paper sheets) by the identification unit 30 can be passed through the first accumulation and bundling device 3, and small bundles of soiled banknotes S can be made in the second accumulation and bundling device 3, while unifying the front-back directionality thereof. Therefore, the second accumulation and bundling device 3 can be used as a dedicated device for bundling the damaged banknotes S.
This allows for uses such as making small bundles while separating the soiled banknotes S from the other banknotes S.
Furthermore, instead of soiled banknotes S, utilizing a second accumulation and bundling device 3 allows for uses such as making small bundles while unifying the front-back directionality of banknotes S of denominations different from those of the first accumulation and bundling device 3. For example, the first accumulation and bundling device 3 can be used for banknotes S of 10,000 yen as in the above embodiment, while the second accumulation and bundling device 3 can be used for banknotes S of 5,000 yen.
Furthermore, a total of four accumulation and bundling devices 3 can be coupled for use as a dedicated accumulation and bundling device 3 for banknotes S of 10,000-yen notes, 5,000-yen notes, 2,000-yen notes, and 1,000-yen notes.
Furthermore, the above embodiment is configured with the first front-back inverting unit 81 and the second front-back inverting unit 82, but the first front-back inverting unit 81 and the second front-back inverting unit 82 are not essential and do not have to be provided.
Even in this case, for example, by conveying the banknotes S with their front-back directionalities unified to the coupled conveyance unit 70, the first accumulation and storage unit 100 and the second accumulation and storage unit 101 can be used to store the banknotes S in an accumulated state while aligning them.
Furthermore, in the case where the first front-back inverting unit 81 and the second front-back inverting unit 82 are not provided, for example, the first accumulation and storage unit 100 and the second accumulation and storage unit 101 may be arranged side by side in the vertical direction L2.
Specifically, as shown in
Even in this configuration, it is possible to create small bundles by bundling with the bundling unit 103 banknotes S in an aligned and accumulated state in the first accumulation and storage unit 100 and banknotes S in an aligned and accumulated state in the second accumulation and storage unit 101.
Furthermore, in the above-described embodiment, Japanese banknotes S are used as an example of paper sheets, but as described above, foreign banknotes S may be used, and the embodiment is not limited to banknotes S. For example, the present invention can be applied to a device that processes paper sheets in general, such as gift certificates, checks, money market instruments such as commercial paper, and securities.
In particular, according to the first accumulation and storage unit 100 and the second accumulation and storage unit 101 of the present embodiment, since according to the size of the paper sheets the spacing between the first base unit 140 and the second base unit 180 can be adjusted, and the spacing between the third base unit 250 and the fourth base unit 400 can be adjusted, it is possible to accommodate a variety of paper sheets, thereby enabling an enhancement of convenience and ease of use.
Furthermore, in the above-described embodiment, when setting the banknotes S in the loading unit 11, they are set in an orientation aligning the long sides of the banknotes S, that is, the horizontal width direction, with the front-rear direction L3 of the apparatus, and aligning the short sides of the banknotes S, that is, the vertical width direction, with the left-right direction L1 of the apparatus, but the embodiment is not limited to this case, and the apparatus may be constituted so that the banknotes S are set in an orientation aligning the long sides of the banknotes S, that is, the horizontal width direction, with the left-right direction L3 of the apparatus, and aligning the short sides of the banknotes S, that is, the vertical width direction, with the front-rear direction L3.
Furthermore, in the above embodiment, although the description was given by taking the example of the configuration that applies the first alignment unit 160 and the second alignment unit 200 to the width-direction alignment unit 120 in the first accumulation and storage unit 100 and the second accumulation and storage unit 101 to align the banknotes in the horizontal width direction, the invention is not limited to this case. That is, the first alignment unit 160 and the second alignment unit 200 may be applied to the conveyance direction alignment unit 130 to align the banknotes S in the vertical width direction. In other words, the first alignment unit and the second alignment unit according to the present invention can be used in either case of aligning the banknotes S in the horizontal width direction or in the case of aligning the banknotes S in the vertical width direction.
The present invention can be applied to a paper sheet handling apparatus for handling paper sheets such as banknotes, and can provide a paper sheet handling apparatus capable of quickly and reliably aligning paper sheets.
| Number | Date | Country | Kind |
|---|---|---|---|
| 2020-208350 | Dec 2020 | JP | national |
| Filing Document | Filing Date | Country | Kind |
|---|---|---|---|
| PCT/JP2021/043994 | 11/30/2021 | WO |
