JP4207850B2 - Paper sheet handling equipment - Google Patents

Description

  The present invention relates to a paper sheet handling apparatus in which edges of paper sheets are aligned in one direction and accumulated.

A conventional paper sheet handling apparatus applies a predetermined tension by winding a guide belt around a driving roller and an idle roller so as to extend along the conveying direction of the paper sheet, and the pressure roller is provided via the guide belt. A scraping roller is provided concentrically with the pressure roller while being opposed to the driving roller, and the paper sheets carried along the guide belt are formed on the movable plate or the paper sheets already accumulated on the movable plate. After the collision, when it comes off the pressure roller, the protrusion provided on the scraping roller knocks down the rear edge of the paper sheet, and pulls the rear edge of the paper sheet as it is so that the stacking position can be aligned. (For example, refer to Patent Document 1).
Japanese Utility Model Publication No. 5-44953 (pages 3 to 13, FIG. 1)

  However, in the above-described conventional technology, when a paper sheet that has been carried in collides with a paper sheet that has already been accumulated, the accumulated paper sheet is moved in the loading direction due to the frictional force of the paper sheet. If the paper sheets that are carried in are collected, the trailing edges of the paper sheets may not be aligned. However, when paper sheets that are continuously fed approach abnormally, a conveyance jam occurs, and when the paper sheets are banknotes, the denomination or the like may not be recognized.

  In order to solve the above problems, an object of the present invention is to provide means for aligning and collecting one end of paper sheets.

In order to solve the above-described problems, a paper sheet handling apparatus according to the present invention includes a feed roller for carrying paper sheets to a paper sheet collection location secured by the movable plate, and a perpendicular direction with respect to the movable plate. A reference surface which is provided on the feed roller side so as to be present and serves as a reference for aligning rear ends of the paper sheets stacked at the paper sheet stacking location, and the paper so as to be inclined with respect to the movable plate and said feed roller across the sheet storing location and placed by the drive roller and the idle roller to a position opposite to the ring belt supported by said drive roller and the idle roller so as to have a slack in the feed roller side The leading edge of the paper sheet carried in by the feed roller is received by the slack portion while the ring belt is running, and the paper sheet is moved to the reference plane side by the restoring force of the slack portion deformed at that time And characterized in that.

  Thus, according to the present invention, the paper sheets can be aligned and stacked on the movable plate, and the paper sheets can be smoothly carried out at the time of separation.

  Embodiments of a paper sheet handling apparatus according to the present invention will be described below with reference to the drawings.

FIG. 1 is a main part configuration diagram illustrating a banknote stacking unit according to the first embodiment.
In the figure, reference numeral 1 denotes a banknote stacking unit as a paper sheet stacking unit. In this embodiment, the banknote stacking unit is equipped in an automatic teller machine and stacks banknotes as paper sheets horizontally.
Reference numeral 2 denotes a feed roller. A groove that engages with a reverse roller 3 described later is formed on the outer peripheral surface of the feed roller. The power roller 2 can be rotated in both the clockwise and counterclockwise directions in FIG. 1 by a power transmission mechanism (not shown).

Reference numeral 2 a denotes a high friction member, which is attached to a part of the outer peripheral surface of the feed roller 2 and is set to have a higher friction coefficient than the circumferential surface of the feed roller 2.
Reference numeral 3 denotes a reverse roller, which is arranged in such a way that the grooves and the projections engage with each other at a position facing the feed roller 2, and a power transmission mechanism (not shown) so as not to simultaneously feed out two or more banknotes when separating the banknotes. As a result, it is rotationally driven only in the clockwise direction in FIG.

The feed roller 2 and the reverse roller 3 function as a banknote outlet when separating banknotes, and function as a banknote inlet when stacking banknotes.
Reference numeral 4 denotes a clamping part, which is a part for clamping the banknotes by the feed roller 2 and the reverse roller 3. In order to prevent the leading edge of the banknotes from drooping toward the movable plate 6, the banking part is sandwiched by grooves and convex parts that are engaged with each other. It has the function of increasing the rigidity by making the bill into a waveform.

Reference numeral 5 denotes a picker roller, which is disposed upstream of the feed roller 2 in the carry-out direction, is connected to a power transmission mechanism (not shown), and rotates in synchronization with the feed roller 2.
Reference numeral 5 a denotes a high friction member, which is attached to a part of the outer peripheral surface of the picker roller 5 and is set to have a higher friction coefficient than the outer peripheral surface of the picker roller 5.

  Reference numeral 6 denotes a movable plate, which is installed at a position facing the picker roller 5 and configured to be reciprocally movable by a driving mechanism (not shown). When separating, banknotes accumulated on the movable plate 6 by moving in the direction of the picker roller 5 Is pressed against the picker roller 5 with an appropriate force, and at the time of stacking, the position is changed according to the number of stacked sheets to secure a paper sheet stacking place 6a of the banknotes carried by the feed roller 2, and at least the topmost banknote The rear end moves so as to enter a rotation locus of a tongue piece 7a described later.

  Reference numeral 7 denotes a tongue wheel, which has a structure having a plurality of tongue pieces 7a radially provided by an elastic member such as natural rubber or synthetic rubber having elasticity. The tongue wheel 7 is moved in the clockwise direction in FIG. 1, that is, the rear end of the bill to the movable plate 6 side at a position substantially coaxial with the rotating shaft of the reverse roller 3 below the feed roller 2 by a power transmission mechanism (not shown). It is made to rotate in the direction to make it rotate, and a plurality are arranged on the side of the reverse roller 3.

  Further, when the banknotes are stacked, the tongue piece 7a of the tongue wheel 7 is rotated within the falling locus of the rear end of the banknote, and the rear end of the banknote is pressed against the movable plate 6 or the banknote on the movable plate 6 and sandwiched between them. When the banknotes are separated, the tongue wheel 7 is retracted from the paper sheet stacking place 6a by a retracting mechanism (not shown) so that the banknotes stacked on the movable plate 6 and the tongue pieces 7a do not overlap. It has become.

Reference numeral 8 denotes a reverse guide, which is a guide for guiding banknotes carried in or out of the feed roller 2, and is provided with an opening (not shown) so that the reverse roller 3 and the tongue piece 7a protrude.
8a is an abutting portion provided on the reverse guide 8, and is a surface (reference surface) serving as a reference for aligning the trailing edges of banknotes.

Reference numeral 9 denotes a side wall, which is disposed at a position facing the contact portion 8a of the reverse guide 8 with the movable plate 6 interposed therebetween.
Reference numeral 10 denotes a driving roller, which is arranged on the opposite side of the feed roller 2 with the picker roller 5 sandwiched above the movable plate 6 and rotates counterclockwise in FIG. The ring belt 12 is driven so that it does not rotate at the time of banknote separation.

Reference numeral 11 denotes an idle roller, and a plurality of idle rollers are installed outside the side wall 9 at positions facing the drive roller 10.
A ring belt (endless belt) 12 is supported so as to be able to run by being wound around each drive roller 10 and each idle roller 11 so as to face the feed roller 2 with the picker roller 5 interposed therebetween. Concavities and convexities are provided on the outer surface that collides, and the tip of the bill does not slip when the tip of the bill to be carried collides with the ring belt 12.

Reference numerals 13 and 14 denote pressure rollers, which are installed at positions facing the driving roller 10 and the idle roller 11, respectively, and press and hold the ring belt 12 with an appropriate force.
As a result, when the drive roller 10 is rotated counterclockwise in FIG. 1, that is, in the direction in which the ring belt 12 is pushed toward the feed roller, the opposite side of the ring belt 12 from the feed roller 2 is tensioned and tensioned. The side of the feed roller 2 in contact with the banknote is slacked in a D-shape, and the leading edge of the banknote sandwiched between the feed roller 2 and the reverse roller 3 is brought into contact with the ring belt 12 as shown in FIG. To collide with each other at a predetermined angle α.

  That is, as shown in FIG. 1, the picker roller 5 is disposed so that the lower end thereof is positioned slightly lower than the pinching portion 4 for pinching the banknotes by the feed roller 2 and the reverse roller 3. The banknotes sandwiched between the rollers 3 and carried in collide with the tangent at the slack portion of the ring belt 12 at an angle α (for example, α = 80 degrees).

In addition, the space | interval of the clamping part 4 and the slack side of the ring belt 12 is installed in the space | interval shorter than the shortest length of the banknote to handle.
Further, the ring belt 12, the idle roller 11, the driving roller 10 , and the pressing rollers 13 and 14 are not limited to a plurality of sets, and may be single according to the bill width to be handled (for example, when stacked in the longitudinal direction). One set may be used).

The operation of the above configuration will be described.
2 to 7 are explanatory diagrams illustrating the integration operation of the first embodiment, and FIGS. 8 to 10 are explanatory diagrams illustrating the separation operation of the first embodiment.
In FIG. 2, the banknotes sent from the banknote conveyance path (not shown) are sandwiched by the clamping unit 4 so as to have a waveform so that the leading edge of the banknotes does not hang down toward the movable plate 6, and the rigidity is increased. A banknote is carried into the banknote stacking unit 1 (FIG. 2).

The leading edge of the banknote carried in collides with the rotating ring belt 12 at a predetermined angle α (FIG. 3), and by its rigidity, it bites into the slack portion of the ring belt 12 and deforms the ring belt 12. At this time, since the ring belt 12 has elasticity, the ring belt 12 is deformed according to the length of the banknote, and can accept the banknote while responding to the difference in the size of the banknote to be carried.
Further, the traveling speed of the ring belt 12 is set so that the leading edge of the banknote to be carried in does not reach the movable plate 6 or the banknote on the movable plate 6 before the rear end. While the leading edge of the bill is received, the trailing edge of the banknote is separated from the feed roller 2 and the reverse roller 3, and the tongue piece 7a follows the falling locus of the trailing edge of the banknote and presses the trailing edge against the movable plate 6. (FIG. 4) When the leading edge of the bill is released to the movable plate 6 by the restoring force and running due to the elasticity of the ring belt 12 (FIG. 5), the tongue piece 7a is further rotated while being in contact with the bill, The rear end is moved to a position where it abuts against the abutting portion 8a of the reverse guide 8, and the rear end of the banknote is aligned and accumulated on the abutting portion 8a of the reverse guide 8, and the ring belt 12 is restored to its original position by its restoring force and rotation. It returns to the shape (FIG. 6).

When the accumulation of all banknotes is completed, the feed roller 2, reverse roller 3, picker roller 5, tongue wheel 7 and drive roller 10 stop rotating, and the ring belt 12 stops (FIG. 7).
Next, the operation at the time of separation will be described with reference to FIGS.
By moving the high friction members 2a and 5a of the feed roller 2 and picker roller 5 to a position facing the movable plate 6, a retraction mechanism (not shown) prevents the bills accumulated on the movable plate 6 and the tongue piece 7a from overlapping each other. The tongue wheel 7 is retracted from the paper sheet stacking place 6a, the movable plate 6 is raised (FIG. 8), and the banknotes stacked on the movable plate 6 are pressed against the picker roller 5 (FIG. 9).

The banknote pressed by the picker roller 5 is conveyed in the direction of the feed roller 2 with the clockwise rotation of the picker roller 5 in FIG. 9, and is nipped by the nipping unit 4 and carried out to a banknote conveyance path (not shown). .
At this time, since the rotation of the driving roller 10 is stopped and the ring belt 12 is not rotated, the banknote being separated is not disturbed.

Further, since the slack portion of the ring belt 12 is deformed by being pushed by the bill lifted by the movable plate 6, it is possible to separate the bill without providing a mechanism for retracting the ring belt 12 (FIG. 10).
As described above, according to the present embodiment, by providing the ring belt at a position facing the feed roller 2, it is possible to receive the leading edge of the bill to be carried in, and reverse the bill by the restoring force of the ring belt. It can be released to the guide side, and furthermore, the bills can be aligned and accumulated on the contact part of the reverse guide by the tongue piece, so that the bills can be smoothly carried out at the time of separation.

In addition, by setting the interval between the sandwiching portion and the ring belt at an interval shorter than the shortest length of the banknote to be handled, it is possible to receive the leading edge of the banknote to be carried regardless of the size of the banknote, It can be aligned and accumulated on the movable plate.
Furthermore, since the slack portion of the ring belt is deformed by being pushed by the bill lifted by the movable plate, the bill can be separated without providing a mechanism for retracting the ring belt.

FIG. 11 is a main part configuration diagram showing the banknote stacking part of the second embodiment.
The banknote stacking unit 1 of the present embodiment stacks banknotes as paper sheets in a standing position along the movable plate 6.
In addition, the same part as the said Example 1 attaches | subjects the same code | symbol, and abbreviate | omits the description.
At the time of stacking in a standing position, the tongue piece 7a rotates in the fall trajectory at the trailing edge of the bill as in the horizontal stacking, but the tongue piece wheel 7 is positioned so as not to press the trailing edge of the bill against the movable plate 6. When separating the bills, the tongue wheel 7 is retracted from the paper sheet stacking place 6a by a retracting mechanism (not shown) so that the bills moving in the direction of the picker roller 5 and the tongue 7a do not overlap.

Reference numeral 20 denotes a close-up tongue wheel, which is configured to rotate coaxially with the idle roller 11 and is arranged on the side of the idle roller 11. Like the tongue roller 7, the elastic tongue 20 has a radial tongue 20 a. The number of tongue pieces 20a is smaller than that of the tongue pieces 7a.
A plurality of tongue pressing guides 21 are arranged on the side of the pressing roller 14 and are provided in the rotation locus of the tongue piece 20a. When the tongue tongue wheel 20 rotates, the tongue piece 20a collides with the tongue pressing guide 21. It is configured to be folded.

The operation of the above configuration will be described.
12 to 17 are explanatory diagrams showing the integration operation of the second embodiment, and FIGS. 18 to 20 are explanatory diagrams showing the separation operation of the second embodiment.
In FIG. 12, a bill sent from a bill conveyance path (not shown) is pinched by the pinching portion 4 of the feed roller 2 and the reverse roller 3 so that the tip of the bill does not fall toward the movable plate 6. The raised banknote is carried into the banknote stacking unit 1.

The loaded banknote collides with the ring belt 12 in a standing state (FIG. 13), and is caught by the slack of the ring belt 12 due to its rigidity, while the ring belt 12 receives the leading edge of the banknote. In addition, the rear end of the banknote separated from the feed roller 2 and the reverse roller 3 is struck by the tongue piece 7a and moves to the movable plate 6 side (FIG. 14).
Then, the restoring force and running of the ring belt 12 and the tongue piece 20a rotate counterclockwise in FIG. 15 to move the leading edge of the banknote colliding with the ring belt 12 to the movable plate 6 side more actively ( 15), the sheets are stacked in a standing position along the movable plate 6 at the sheet stacking place 6a and are aligned with the contact portion 8a of the reverse guide 8 by their own weight. The ring belt 12 returns to its original shape by its restoring force and rotation (FIG. 16).

At this time, when the tongue piece 20a hits the bill which collides with the ring belt 12 and moves to the movable plate 6 side, the tongue piece 20a is pressed by the tongue piece holding guide 21 so as not to be rolled up as it is. Further, the number of tongue pieces 20a is smaller than that of the tongue pieces 7a so that the bills are not pinched between the tongue pieces 20a and the tongue pieces 20a that are bent by being pressed by the tongue piece holding guide 21 and wound upward. is doing.
Further, the tongue piece 7a is arranged at the rear end of the bill so that the bills accumulated in the paper sheet collecting place 6a are not struck by the tongue piece 7a and fall to the picker roller side and disturb the incoming bill. The tongue wheel 7 is arranged so as not to press the trailing edge of the bill against the movable plate 6.

When the accumulation of all the banknotes is completed, the rotation of the feed roller 2, reverse roller 3, picker roller 5, tongue piece wheel 7, close tongue piece wheel 20 and drive roller 10 is stopped, and the ring belt 12 is stopped (FIG. 17). ).
Next, the operation during separation will be described with reference to FIGS.
The tongue wheel 7 is retracted from the paper sheet stacking place 6a by a retracting mechanism (not shown) so that the bills stacked at the paper stacking position 6a do not overlap with the tongue piece 7a. The friction members 2a and 5a are moved to positions facing the movable plate 6 (FIG. 18), and the movable plate 6 is moved in the direction of the picker roller 5 to press the accumulated banknotes against the picker roller 3 (FIG. 19).

At this time, since the ring belt 12 and the closing tongue wheel 20 are not rotated in the same manner as in the first embodiment, the ring belt 12 is pushed and deformed by the banknote that has moved, and in particular, a mechanism for retracting the ring belt 12 is not provided. Banknotes can be separated (FIG. 20).
As described above, the same effects as those of the first embodiment can be obtained also in the integration and separation operations in the standing position.

FIG. 21 is an enlarged view of the main part showing the banknote stacking part of Example 3, and FIG. 22 is a view of FIG.
In the figure, 30 is a gear fixed to one side of the driving roller 10 that drives the ring belt 12, and 31 is a gear fixed to one side of the pressing roller 13 that presses the ring belt 12 against the driving roller 10. The gears 30 and 31 are meshed so that the rotation of the driving roller 10 is transmitted to the pressing roller 13 so that the pressing roller 13 can be rotated, and the driving roller 10 is in contact with the ring belt 12. The circumferential speed V2 of the pressing roller 10 at the contact portion with the ring belt 12 is set to be slightly faster than the circumferential speed V1, and the unevenness is provided on the outer peripheral surface of the ring belt 12. A plurality of teeth (not shown) are continuously formed on the outer periphery of the pressing roller 13 at equal intervals so as to mesh with each other.

The setting for slightly increasing the peripheral speed V2 of the pressing roller 13 at the contact portion with the ring belt 12 from the peripheral speed V1 at the contact portion with the ring belt 12 is the number of teeth of the gears 30 and 31. Alternatively, it can be performed by appropriately selecting the gear diameter, the diameter of the driving roller 10 and the pressing roller 13, and the like.
Other configurations are the same as those in the first or second embodiment.

Example 3 having such a configuration is for stacking and paying out banknotes as in Example 1 or Example 2. However, when the driving roller 10 rotates to run the ring belt 12 during stacking, The rotation of the driving roller 10 is transmitted to the pressing roller 13 through the gears 30 and 31, and the pressing roller 13 is thereby rotated.
At this time, the peripheral speed V2 of the pressing roller 13 at the contact portion with the ring belt 12 is set to be slightly higher than the peripheral speed V1 of the driving roller 10 at the contact portion with the ring belt 12, and the pressing roller 10 Since the teeth formed on the outer periphery of the ring belt 12 are engaged with the ring belt 12, the travel of the ring belt 12 depends on the rotation of the pressing roller 13. Since it travels stably at a constant speed according to the rotation of 13, it is possible to prevent banknotes from being caught on the ring belt 12, and it is possible to more reliably align and stack the banknotes.

FIG. 23 is an explanatory diagram illustrating a banknote stacking unit according to the fourth embodiment.
In the fourth embodiment, the optical sensor 35 is moved to the movable plate 6 or the movable plate in the vicinity of the outside of the rotation locus R of the tip of each tongue piece 7a in the tongue piece wheel 7 and at the lowest point in the behavior range of the ring belt 12. 6 is provided so as to be able to detect the banknotes stacked on top of each other, and the movement of the movable plate 6 is controlled based on the detection output of the optical sensor 35 during stacking of banknotes.

The other configurations in this embodiment are the same as those in the first, second, or third embodiment.
In the fourth embodiment having such a configuration, the movable plate 6 is moved in a direction approaching the picker roller 5 from a standby position such as a home position when banknotes are stacked. Movable plate 6 if bills movable plate 6 is not integrated by this movement, also the case where a bill on the movable plate 6 is stacked banknotes of the uppermost side is within operating range of the ring belt 12 The optical axis of the optical sensor 35 is interrupted, and the output is switched from off to on.

Since the optical sensor 35 is arranged near the outside of the rotation locus R at the tip of each tongue piece 7a in the tongue piece wheel 7 as described above, when the banknotes are stacked on the movable plate 6, the tongue piece It is possible to accurately detect the upper surface position of the uppermost banknote pressed against the movable plate 6 by 7a.
The movement of the movable plate 6 is stopped when a certain period of time has passed with the optical sensor 35 turned on, and the movable plate 6 is moved away from the picker roller 5 within a range in which the bills on the movable plate 6 fall within the rotation locus R of the tongue piece 7a. Suitable for stacking bills fed by the feed roller 2, reverse roller 3 and picker roller 5 at a position where the bills accumulated on the movable plate 6 do not hit the ring belt 12 by moving a certain amount in the direction. Stop at the desired position.

In this state, banknotes are collected in the same manner as in Example 1 or the like. However, when the banknotes are increased and the optical axis of the optical sensor 35 is cut off, the output is switched from off to on again. 6 is moved away from the picker roller 5 and stopped at a position suitable for stacking bills.
In this way, the position of the movable plate 6 is controlled when stacking banknotes.
The feeding operation is performed in the same manner as in the first embodiment.

  According to the embodiment described above, the position of the movable plate is controlled so that the bill on the movable plate does not hit the ring belt within a range in which the bills accumulated on the movable plate fall within the rotation trajectory of the tongue piece. The accumulated bills are not dragged by contact with the ring belt, so the end of the bill can be abutted against the abutment portion by the rotation of the tongue piece, and the bills are in a state suitable for feeding. It becomes possible to accumulate.

  In each of the above embodiments, an example in which the present invention is applied to an automatic teller machine has been described. However, the present invention can also be applied to an apparatus that stacks and feeds paper sheets having different dimensions other than bills on the same movable plate.

The principal part block diagram which shows the banknote stacking part of Example 1. Explanatory drawing which shows integration operation of Example 1 Explanatory drawing which shows integration operation of Example 1 Explanatory drawing which shows integration operation of Example 1 Explanatory drawing which shows integration operation of Example 1 Explanatory drawing which shows integration operation of Example 1 Explanatory drawing which shows integration operation of Example 1 Explanatory drawing which shows isolation | separation operation | movement of Example 1. FIG. Explanatory drawing which shows isolation | separation operation | movement of Example 1. FIG. Explanatory drawing which shows isolation | separation operation | movement of Example 1. FIG. The principal part block diagram which shows the banknote stacking part of Example 2. Explanatory drawing which shows the integration | stacking operation | movement of Example 2. FIG. Explanatory drawing which shows the integration | stacking operation | movement of Example 2. FIG. Explanatory drawing which shows the integration | stacking operation | movement of Example 2. FIG. Explanatory drawing which shows the integration | stacking operation | movement of Example 2. FIG. Explanatory drawing which shows the integration | stacking operation | movement of Example 2. FIG. Explanatory drawing which shows the integration | stacking operation | movement of Example 2. FIG. Explanatory drawing which shows isolation | separation operation | movement of Example 2. FIG. Explanatory drawing which shows isolation | separation operation | movement of Example 2. FIG. Explanatory drawing which shows isolation | separation operation | movement of Example 2. FIG. The principal part enlarged view which shows the banknote stacking part of Example 3. The figure which looked at FIG. 21 from the arrow A direction Explanatory drawing which shows the banknote stacking part of Example 4.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Bill collection part 2 Feed roller 2a, 4a High friction member 3 Reverse roller 4 Clamping part 5 Picker roller 6 Movable plate 6a Paper sheet collection place 7 Tongue wheel
7a tongue piece 8 reverse guide 8a contact part 9 side wall 10 drive roller 11 idle roller 12 ring belt 13, 14 pressing roller 20
20a Tongue piece 21 Tongue piece presser guide 30 Gear 31 Gear 35 Optical sensor

Claims (9)

A feed roller for carrying paper sheets into a paper sheet collection place secured by a movable plate;
A reference surface that is provided on the side of the feed roller so as to extend in a direction perpendicular to the movable plate, and serves as a reference for aligning the rear ends of the sheets stacked at the sheet stacking location ;
And placed by the drive roller and the idle roller on the opposite side of the position and the feed roller across the paper sheet storing place to be oblique to the movable plate,
A ring belt supported by the drive roller and idle roller so as to have a slack on the feed roller side;
The leading edge of the paper sheet carried by the feed roller is received by the slack portion while the ring belt is running, and the paper sheet is moved to the reference plane side by the restoring force of the slack portion deformed at that time. Characteristic paper sheet handling device. In the paper sheet handling apparatus according to claim 1,
A pressing roller that presses and holds the ring belt against the driving roller and the idle roller;
An apparatus for handling paper sheets, wherein the drive roller is disposed so as to face the movable plate, and the ring belt is driven to be pushed toward the feed roller. In the paper sheet handling apparatus according to claim 2,
When stacking paper sheets in a standing state along the movable plate,
A close-up tongue wheel having a tongue piece radially is arranged so as to rotate coaxially to the side of the idle roller, and the leading edge of the paper sheet colliding with the ring belt by the close-up tongue piece wheel is placed on the movable plate side. Paper sheet handling device characterized by being moved. In the paper sheet handling apparatus according to claim 3,
A paper sheet handling apparatus, wherein a tongue-holding guide for folding the tongue-piece of the shifting tongue piece wheel is provided in a rotation locus of the closing tongue piece wheel. In the paper sheet handling apparatus according to claim 1 or claim 3,
When collecting paper sheets horizontally on the movable plate,
Provide a tongue wheel having a radial tongue below the feed roller,
An apparatus for handling paper sheets, wherein the movable plate is moved so that a rear end of the uppermost paper sheet on the movable plate enters a rotation locus of the tongue wheel. In the paper sheet handling apparatus according to claim 5,
A sensor for detecting paper sheets on the movable plate at a position of a lower end of the ring belt;
When the movable plate rises, the sensor detects the uppermost sheet on the movable plate and then accumulates on the movable plate on the ring belt within a range that falls within the rotation locus of the tongue wheel. A paper sheet handling apparatus, wherein the movable plate is lowered to a position where a paper sheet is not hit. In the paper sheet handling apparatus according to any one of claims 1 to 6,
The paper sheet handling apparatus is characterized in that the ring belt is driven only when paper sheets are accumulated. In the paper sheet handling apparatus according to any one of claims 1 to 7,
An apparatus for handling paper sheets, wherein irregularities are provided on the outer surface of the ring belt. In the paper sheet handling apparatus according to claim 8,
Forming teeth that mesh with the irregularities of the ring belt on the outer peripheral surface of the pressure roller that presses and holds the ring belt against the drive roller;
An apparatus for handling paper sheets, wherein the ring belt is caused to travel by rotating the pressing roller at a peripheral speed faster than that of the drive roller when collecting paper sheets.

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