KR20210123919A - Apparatus for changing of bill transferring direction threrof - Google Patents

Abstract

Disclosed is a switching device for a medium return path of an automated financial device. The switching device for a medium return path may comprise: a gate assembly including a driving gate positioned on the side of one of a plurality of return paths to guide the medium to different return paths in a switch area where a return direction is changed with respect to the plurality of return paths extending in different directions, and a driven gate positioned on the other return path of the plurality of return paths to rotate in conjunction with the driving gate; a rotating means for rotating the driving gate and the driven gate; and a stopper stopping the rotation of the driven gate at a predetermined angle when the driving gate and rotational force are transmitted to the driven gate.

Description

Media transfer path switching device for automated financial devices

The present invention relates to a media transport path switching device for an automated financial device, and more particularly, to a media transport path switching device for an automated financial device capable of damping vibration of a driven gate interlocked with a driving gate.

Automated financial devices are devices that allow users to make deposits and withdrawals such as cash or checks, account transfers, and inquiries without time restrictions using a cash card or passbook issued by a financial institution. It is an unmanned terminal widely used in the financial industry.

The automated financial device includes a deposit/withdrawal unit for the user to input or receive media for deposit and withdrawal, a transport path through which media deposited and withdrawn through the deposit/withdrawal unit is transported, and a discrimination unit provided on the transport path to discriminate whether there is an abnormality in the media and the type of ticket. and a temporary storage unit for temporarily storing deposited media after passing through the discrimination unit; a reject ticket storage unit for storing media discriminated as having an abnormality in the discrimination unit among withdrawal media; It may include a media storage unit that performs a reflux function.

In addition, the gate provided in the conveyance path usually has a blade shape that is rotatably installed around the rotation axis at the location where the conveyance path is branched, so that the medium transferred from any one conveyance path in response to the deposit and withdrawal step is transferred among the remaining conveyance paths. It is configured to be connected to any one conveyance path. The conveying path is provided with a medium conveying path switching device and is configured to switch the medium conveyed in each deposit/withdrawal step to a multi-directional conveyance path.

For example, in the case of a medium transfer path switching device in which three different blades (including a driving gate and a driven gate) branch in three directions of a conveying path, the driven gate may be rotated in conjunction with the driving gate.

However, as the driven gate is driven and connected to the driving gate through a power transmission means such as a gear, when the driven gate rotates, vibration may be generated at the end of the driven gate due to causes such as gear backlash. .

As shown in Fig. 8, the vibration generated at the end of the driven gate can be stabilized after a predetermined time (stabilization time) has elapsed, but before the vibration of the driven gate is stabilized, the medium passes through the conveying path where the driven gate is installed. When the medium passes through the conveying path, interference with the end of the driven gate may occur, which may make it difficult to stably convey the medium on the conveying path.

Korean Patent Registration 10-1173806 (Announcement on August 16, 2012)

An embodiment of the present invention is to provide a medium conveyance path switching device of an automated financial machine that can stably secure a medium conveyance path by effectively attenuating vibrations generated at the end of the driven gate.

According to an embodiment of the present invention, any one of the plurality of conveying paths is to guide the medium to different conveying paths in a switching area where the conveying direction is changed with respect to a plurality of conveying paths extending in different directions. a gate assembly including a driving gate positioned on the transport path side of the , and a driven gate positioned on the other transport path side of the plurality of transport paths to rotate in association with the driving gate; rotating means for rotating the driving gate and the driven gate; and a stopper for stopping rotation of the driven gate at a predetermined angle when the driving gate and the rotational force are transmitted to the driven gate.

In this case, the stopper may include a first stopper mounted to the driving gate; and a second stopper mounted on the driven gate and configured to damp vibration of the driven gate through selective surface contact of a periphery between the first stoppers.

In addition, the first stopper may include a driving stopper part mounted to the first stopper on the rotation shaft of the driving gate; and a one-way driving contact surface portion and a second-direction driving contact surface portion provided on an edge of the driving stopper and extending in one direction and the other direction.

In addition, the second stopper may include a driven stopper part mounted on the rotation shaft of the driven gate; It is provided on an edge of the driven stopper and includes a one-way driven contact surface portion and a second-direction driven contact surface portion formed to be inclined in one direction and another direction, and when the driven gate is rotated in one direction, the one-way driven contact surface portion is the one-way driving contact surface portion and when the driven gate is rotated in the other direction, the driven contact surface portion in the other direction may be in contact with the driving contact surface portion in the other direction.

In addition, the conveying path may include a first conveying path, a second conveying path, and a third conveying path extending in three different conveying directions of the medium.

Further, the driving gate includes a second blade for guiding a conveying direction of the medium from the second conveying path to the first conveying path or the third conveying path, and the driven gate guides the conveying direction of the medium. a first blade guiding from the first conveying path to the second conveying path or the third conveying path, and guiding the conveying direction of the medium from the third conveying path to the first conveying path or the second conveying path It may include a third blade.

The device may further include a support unit for rotatably supporting the driving gate and the driven gate, the support unit comprising: a first support piece; a second support piece in close contact with the sidewall of the first support piece; a third support piece in close contact with the sidewall of the second support piece and the sidewall of the first support piece; and a fixing shaft that penetrates and fixes at least a portion of the first support piece, the second support piece, and the third support piece.

In addition, the rotating means may include an actuator for rotating the driving gate; and a transmission mechanism for transmitting the rotational force of the driving gate to the driven gate.

In addition, the stoppers may be installed to face each other at both ends of the gate assembly.

According to the embodiment according to the present invention, when the driven gate (blade) is rotated by the driving gate (blade), by damping the vibration generated at the end of the driven gate, the stabilization time of the driven gate (which meets the target maximum amplitude There is an advantage in that the time point at which the initial design position is reached) among the time points can be effectively reduced.

In addition, according to the embodiment of the present invention, by forming an avoidance groove through which the rotation shaft of the driven gate can pass through the stopper, there is an advantage that interference between the stopper and other driven gates can be prevented in advance.

1 is a configuration diagram schematically showing a financial automation device in which a medium transport path switching device is installed according to an embodiment of the present invention.
2 is a perspective view illustrating a medium transfer path switching device of an automated financial machine according to an embodiment of the present invention.
FIG. 3 is a rear view of the conveyance path switching device as viewed from the “AA” portion of FIG. 2 .
4 is an enlarged perspective view illustrating an enlarged portion "B" of FIG. 2 .
5 is a front view illustrating a medium transfer path switching device of an automated financial machine according to an embodiment of the present invention.
6 is an operation state diagram illustrating an operation state of FIG. 5 in a switching area of a conveyance path, according to an embodiment of the present invention.
7 is an operational state diagram illustrating a state in which the driven gate of FIG. 5 is rotated counterclockwise according to an embodiment of the present invention.
8 is a graph showing a vibration state generated at the end of the driven gate when the driven gate is rotated according to the interlocking of the driving gate in the conventional medium transport path switching device of the automatic financial device.

Hereinafter, with reference to the accompanying drawings, the configuration and operation according to the embodiment of the present invention will be described in detail. DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS The following description is one of several aspects of the present invention that is claimable, and the following description may form a part of the detailed description of the present invention.

However, in describing the present invention, detailed descriptions of known configurations or functions may be omitted for clarity of the present invention.

The present invention is capable of making various changes and may include various embodiments, and specific embodiments are illustrated in the drawings and described in the detailed description. However, this is not intended to limit the present invention to a specific embodiment, it should be understood to include all modifications, equivalents and substitutes included in the spirit and scope of the present invention.

Terms including an ordinal number such as 1st, 2nd, etc. may be used to describe various components, but the components are not limited by these terms. These terms are used only for the purpose of distinguishing one component from another.

The terms used in the present application are only used to describe specific embodiments, and are not intended to limit the present invention. The singular expression includes the plural expression unless the context clearly dictates otherwise.

Hereinafter, with reference to the accompanying drawings, a medium transport path switching device of an automated financial device according to an embodiment of the present invention will be described.

1 is a configuration diagram schematically showing a financial automation device in which a medium transport path switching device is installed according to an embodiment of the present invention.

As shown in FIG. 1 , the automated financial device 10 according to an embodiment of the present invention includes a frame/housing 700 , a deposit and withdrawal unit 300 , a conveyance path 200 , and a medium conveyance path switching device 100 . ), a discrimination unit 400 , a temporary retention unit 500 , and a reflux cassette 600 may be included.

The frame/housing 700 may provide a storage space for storing a medium. In this embodiment, the frame/housing 700 is not limited to a storage space of a medium (banknote, check, etc.), and the frame/housing 700 may provide an overall appearance of the financial automation device.

The deposit/withdrawal unit 300 may provide a deposit/withdrawal space for inputting or receiving a medium. The deposit and withdrawal unit 300 may be provided with a belt, a roller, a motor, etc. for transferring the medium. The configuration of these belts, rollers, motors, etc. are general matters in conveying media, and thus detailed description thereof will be omitted.

The conveyance path 200 may provide a conveyance path of the medium in the inner space of the frame/housing 700 . The conveyance path 200 may provide a conveyance path of the medium deposited and withdrawn through the deposit/withdrawal unit 300 . For example, the conveyance path 200 guides the media deposited through the deposit/withdrawal unit 300 to the discrimination unit 400 , the temporary retention unit 500 and the reflux cassette 600 , or discharges from the reflux cassette 600 . The medium may be guided to the discrimination unit 400 and the deposit/withdrawal unit 300 .

The medium conveying path switching device 100 may be installed on the conveying path 200 . The medium conveying path switching device 100 may branch the conveying path so that the moving direction of the medium is guided. A detailed description of the medium transport path switching device 100 will be described later.

The discrimination unit 400 may be installed on the conveyance path 200 . The discrimination unit 400 may discriminate the type of media passing through the conveying path 200 and whether there is an abnormality or the like. At the time of counting the deposit of the medium, the normal medium discriminated as a medium having no abnormality by the discrimination unit 400 may be temporarily stored in the temporary retention unit 500 , and the discriminating unit 400 discriminates as a medium having an abnormality. The suspicious medium may be returned to the customer by being returned through the deposit and withdrawal unit 300 .

The temporary holding unit 500 may provide a storage space for temporarily storing the medium identified by the discrimination unit 400 . The temporary holding unit 500 may receive the medium identified through the discrimination unit 400 through the conveyance path 200 .

The reflux cassette 600 may provide a stack space in which the storage of the medium may be possible upon deposit. The reflux cassette 600 may discharge the media stored in the stack space upon withdrawal. The reflux cassette 600 may include a plurality of cassettes having different sizes depending on the type of winding.

The configuration of the automated financial device 10 described above is exemplified to help the understanding of the present embodiment. Accordingly, other components may be added thereto as needed, and the configuration and structure may be modified or changed according to the needs of the implementer.

FIG. 2 is a perspective view showing a media transport path switching device of an automated financial machine according to an embodiment of the present invention, FIG. 3 is a rear view of the transport path switching device viewed from the “AA” portion of FIG. 2, and FIG. 4 is FIG. 2 is an enlarged perspective view showing an enlarged part "B", FIG. 5 is a front view showing a medium transport path switching device of an automated financial device according to an embodiment of the present invention, and FIG. 6 is an embodiment of the present invention Accordingly, it is an operating state diagram showing the operating state of FIG. 5 in the switching zone of the conveyance path, and FIG. 7 is an operating state diagram showing the state in which the driven gate of FIG. 5 is rotated counterclockwise according to an embodiment of the present invention. .

2 to 7 , the medium transport path switching device 100 according to an embodiment of the present invention includes a support unit 110 , a gate assembly 130 , a rotating means 140 , and a stopper 190 . ) may be included.

Specifically, the support unit 110 may be located in a switching area of the conveyance path 200 where the conveyance paths of the medium M converge in three directions. Here, the switching zone may be understood as a zone in which the conveying direction is changed with respect to the plurality of conveying paths 200 extending in different directions.

The medium M conveyed on the conveyance path 200 may be supported by the guide roller 710 . Referring to FIG. 6 , in the case of the three-way conveyance path 200 , for convenience and understanding of the description, the conveyance path located in the downward direction of FIG. 6 is the first conveyance path 201 , the conveyance in the left direction of the drawing. A path is defined as a second conveyance path 202 , and a conveyance path in the right direction in the drawing is defined as a third conveyance path 203 . The support unit 110 may be located in a switching area where the conveying path 200 diverges to the switching path 120 .

The support unit 110 may include a first support piece 111 , a second support piece 112 , a third support piece 113 , and a fixed shaft (not shown). The first support piece 111 may be provided in the form of an inverted triangular piece as a whole. The sidewalls of the first support piece 111 may be in close contact with the sidewalls of the second support piece 112 and the sidewalls of the third support piece 113 .

Both side portions of the second support piece 112 may be in close contact with the sidewall of the first support piece 111 and the sidewall of the third support piece 113 . In addition, both side portions of the third support piece 113 may be in close contact with the sidewall of the second support piece 112 and the sidewall of the first support piece 111 . A fixing shaft (not shown) may be fixed through at least a portion of the first support piece 111 , the second support piece 112 , and the third support piece 113 .

The first support piece 111 , the second support piece 112 , and the third support piece 113 may be disposed symmetrically with each other with the fixed shaft interposed therebetween. And the first support piece 111 , the second support piece 112 , and the third support piece 113 have a plurality of first blades 161 , second blades 162 , and third blades 163 interposed therebetween. It may be provided in plurality to be spaced apart along the longitudinal direction of the fixed shaft and connected.

The gate assembly 130 may guide the movement direction of the medium M conveyed in the conveyance path 200 in three directions. To this end, the gate assembly 130 may include a driving gate 132 and a driven gate rotatably installed on the support unit 110 .

Here, the driving gate 132 may be understood as a gate directly drivingly connected to the actuator 141 , and the driven gate may be understood as a gate receiving the driving force of the actuator 141 through the driving gate 132 . Since the driving gate 132 and one end of the driven gate are rotated in the switching region where the transfer path 200 is branched into the switching path 120 , the other end of the driving gate 132 and the driven gate selects the switching path 120 . can be opened or blocked.

The driving gate 132 may be connected to the actuator 141 to be driven. The driving gate 132 may guide the conveyance direction of the medium M from the second conveyance path 202 to the first conveyance path 201 or the third conveyance path 203 .

The driving gate 132 includes a second rotation shaft 152 rotatably mounted to the support unit 110 , and a plurality of second blades spaced apart from one side of the second rotation shaft 152 in the longitudinal direction. (162). The second rotation shaft 152 is a rotation shaft of the driving gate 132 , and may be rotatably installed on one side of the support unit 110 . The rear end of the second rotation shaft 152 may be driven and connected to the actuator 141 . A first stopper 191 may be mounted on the front end of the second rotation shaft 152 .

The driven gate may be driven and connected to the driving gate 132 via the transmission mechanism 170 . Accordingly, the driven gate may be linked according to the rotation of the driving gate 132 . The driven gate may include a first driven gate 133 positioned on the third transport path 203 side and a second driven gate 131 positioned on the first transport path 201 side.

The first driven gate 133 may guide the conveyance direction of the medium M from the third conveyance path 203 to the first conveyance path 201 or the second conveyance path 202 . The first driven gate 133 includes a third rotation shaft 153 rotatably mounted to the support unit 110 , and a plurality of third rotation shafts 153 spaced apart from one another in the longitudinal direction at one side of the third rotation shaft 153 . It may include three blades 163 . The third rotation shaft 153 is a rotation shaft of the first driven gate 133 , and may be rotatably installed on the other side of the support unit 110 . A second stopper 192 may be mounted on the front end of the third rotation shaft 153 .

The second driven gate 131 includes a first rotation shaft 151 rotatably mounted to the support unit 110 , and a plurality of first rotation shafts 151 spaced apart from each other in the longitudinal direction at one side of the first rotation shaft 151 . It may include a blade 161 . The first rotation shaft 151 is a rotation shaft of the second driven gate 131 , and may be rotatably installed on a lower portion of the support unit 110 . The first blade 161 may guide the conveyance direction of the medium M from the first conveyance path 201 to the second conveyance path 202 or the third conveyance path 203 .

In this embodiment, the second blade 162 is driven and connected to the actuator 141 through the second rotating shaft 152, but is not limited thereto, and the first blade 161 or the third blade according to the design environment. 163 may be drivingly connected to actuator 141 . For example, when the first blade 161 is driven and connected to the actuator 141 through the first rotation shaft 151 , the first blade 161 and the first rotation shaft 151 are connected to the driving gate 132 . The second blade 162 and the second rotation shaft 152 and the third blade 163 and the third rotation shaft 153 may be a driven gate.

The rotating means 140 may include an actuator 141 that rotates the driving gate 132 and a transmission mechanism 170 that transmits the rotational force of the driving gate 132 to the driven gate.

The actuator 141 may provide a rotational force for rotating the driving gate 132 clockwise or counterclockwise to the second rotation shaft 152 of the driving gate 132 . The transmission mechanism 170 includes a driving gear 172 mounted on the rear end of the second rotation shaft 152 , a first driven gear 171 provided on the rear end of the third rotation shaft 153 , and a first rotation shaft It may include a second driven gear (not shown) provided at the rear end of the 151 . These driving gears 172 and the first driven gear 171 may be engaged with each other through the driving teeth 172a and the first driven teeth 171a.

Accordingly, as shown in FIG. 3 , when the driving gear 172 rotates in one direction (eg, clockwise) by the rotation of the second rotation shaft 152 , the first driven gear 171 and the second driven gear may be rotated in other directions (eg, counterclockwise). When the driving gear 172 rotates in the other direction (eg, counterclockwise), the first driven gear 171 and the second driven gear may rotate in one direction (eg, clockwise), respectively.

The stopper 190 may stop the rotation of the driven gate (eg, the first driven gate) at a predetermined angle. To this end, the stopper 190 may include a first stopper 191 mounted on the front end of the second rotation shaft 152 and a second stopper 192 mounted on the front end of the third rotation shaft 153 . have. These first stoppers 191 and second stoppers 192, when the driven gate (eg, the first driven gate) rotates, through the selective surface contact of the peripheral portion, the driven gate (eg, the first driven gate) ) can be damped.

To this end, the first stopper 191 includes a drive stopper portion 191a mounted on the rear end of the second rotation shaft 152 and a driving bend portion 191b protruding from the circumferential surface of the drive stopper portion 191a and , One-way driving contact surface portion 191c formed to be inclined in the other direction of the driving bending portion 191b, and the other direction driving contact surface portion 191d formed to be inclined in the other direction of the driving bending portion 191b, and the first rotation shaft A first avoiding groove 191e through which (151) is penetrated may be included. The first avoidance groove 191e is provided in the form of a groove corresponding to one side of the first rotating shaft 151, thereby preventing interference between the first stopper 191 and one side of the first rotating shaft 151 in advance. can do.

The second stopper 192 includes a driven stopper portion 192a mounted on the rear end of the third rotation shaft 153 , a driven bending portion 192b protruding from the circumferential surface of the driven stopper portion 192a , and a driven bending The one-way driven contact surface portion 192c formed to be inclined in one direction of the portion 192b, the other driven contact surface portion 192d formed to be inclined in the other direction of the driven bent portion 192b, and the first rotation shaft 151 It may include a penetrating second avoiding groove (192e). The second avoiding groove 192e is provided in the form of a groove corresponding to the other side of the first rotating shaft 151, thereby preventing interference between the first stopper 191 and the other side of the first rotating shaft 151 in advance. can do.

For example, as shown in FIG. 5, when the second blade 162 is rotated counterclockwise in FIG. 5 by the operation of the actuator 141, the third blade 163 is rotated in the clockwise direction in FIG. At this time, as the other driven contact surface portion 191d of the first stopper 191 and the other driven contact surface portion 192d of the second stopper 192 are in contact, the end vibration of the third blade 163 can be reduced. have.

And as shown in FIG. 7, when the second blade 162 is rotated in the clockwise direction of FIG. 7 by the operation of the actuator 141, the third blade 163 is rotated in the clockwise direction of FIG. 5, at this time, As the one-way driving contact surface portion 191c of the first stopper 191 and the one-way driven contact surface portion 192c of the second stopper 192 contact each other, end vibration of the third blade 163 may be reduced.

Hereinafter, the operation of the medium transport path switching device according to the embodiment of the present invention having the above configuration will be described.

As shown in FIG. 8 , in order to guide the medium M moved in the conveyance path 200 in one direction to the conveyance path 200 in the other direction, the conveyance path 200 includes a plurality of switching paths 120 that are branched. can be provided. As an example, the plurality of switching paths 120 may include a first switching path 121 , a second switching path 122 , and a third switching path 123 interconnecting the conveyance paths 200 in three directions. have.

The first switching path 121 may connect between the second conveying path 202 and the third conveying path 203 . The second switching path 122 may connect between the first conveyance path 201 and the third conveyance path 203 . The third switching path 123 may connect between the first conveyance path 201 and the second conveyance path 202 . In this case, the first conveyance path 201 may be branched into the second switching path 122 and the third switching path 123 . The second conveyance path 202 may branch into a first switching path 121 and a third switching path 123 . The third conveyance path 203 may branch into the first switching path 121 and the second switching path 122 .

For example, when the second blade 162 is rotated counterclockwise in FIG. 6 by the operation of the actuator 141, the third blade 163 is rotated in the clockwise direction in FIG. 6, at this time, the first stopper ( Since the one-way driving contact surface portion 191c of 191 and the one-way driven contact surface portion 192c of the second stopper 192 are in close contact, end vibration of the third blade 163 can be reduced. At this time, the medium M moved in the second conveyance path 202 may stably pass through the first switching path 121 to move to the third conveyance path 203 .

As described above, the present invention can effectively reduce the stabilization time of the driven gate by damping the vibration generated at the end of the driven gate when the driven gate is rotated by the driving gate, and the rotation shaft of the driven gate can pass through. By forming the avoidance groove in the stopper, there are excellent advantages such as being able to prevent interference between the stopper and other driven gates in advance.

As mentioned above, although the present invention has been described using preferred embodiments, the scope of the present invention is not limited to the specific embodiments described, and those of ordinary skill in the art may freely within the scope of the present invention. Substitution and change of components are possible, which also belongs to the right of the present invention.

100: medium transport path switching device 110: support unit
111: first support piece 112: second support piece
113: third support piece 121: first switching path
122: second switching path 123: third switching path
130: gate assembly 131: second driven gate
132: driving gate 133: first driven gate
140: rotation means 141: actuator
151: first rotation shaft 152: second rotation shaft
153: third rotation shaft 161: first blade
162: second blade 163: second blade
170: transfer mechanism 200: transfer path
300: deposit and withdrawal unit 400: identification unit
500: temporary retention unit 600: reflux cassette
700: frame / housing

Claims (9)

In the medium conveyance path switching device of an automated financial device,
In a switching area where the conveying direction is changed with respect to a plurality of conveying paths extending in different directions, a driving gate positioned on the side of any one of the plurality of conveying paths to guide the medium to different conveying paths and a gate assembly including a driven gate positioned on a side of another transport path among the plurality of transport paths to rotate in association with the driving gate;
rotating means for rotating the driving gate and the driven gate; and
a stopper for stopping the rotation of the driven gate at a predetermined angle when the driving gate and the rotational force are transmitted to the driven gate;
Media transport path switching device for automated financial devices. The method of claim 1,
the stopper
a first stopper mounted to the driving gate; and
a second stopper mounted to the driven gate and configured to damp vibration of the driven gate through selective surface contact of a periphery between the first stoppers;
Media transport path switching device for automated financial devices. 3. The method of claim 2,
The first stopper
a driving stopper part mounted to the rotation shaft of the driving gate; and
It is provided on the edge of the drive stopper portion and includes a one-way driving contact surface portion and a second-direction drive contact surface portion extending in one direction and the other direction,
Media transport path switching device for automated financial devices. 4. The method of claim 3,
The second stopper
a driven stopper part mounted on the rotation shaft of the driven gate;
It is provided on the edge of the driven stopper portion and includes a one-way driven contact surface portion and a second direction driven contact surface portion that are inclined in one direction and the other direction,
When the driven gate is rotated in one direction, the one-way driven contact surface portion is in contact with the one-way driving contact surface portion, and when the driven gate is rotated in the other direction, the other-direction driven contact surface portion is in contact with the other direction driven contact surface portion,
Media transport path switching device for automated financial devices. The method of claim 1,
The return route
a first conveying path, a second conveying path, and a third conveying path extending in three different conveying directions of the medium;
Media transport path switching device for automated financial devices. 6. The method of claim 5,
The driving gate is
a second blade for guiding the conveying direction of the medium from the second conveying path to the first conveying path or the third conveying path;
The driven gate is
a first blade for guiding a conveying direction of the medium from the first conveying path to the second conveying path or the third conveying path; comprising a third blade guiding to the second conveying path,
Media transport path switching device for automated financial devices. The method of claim 1,
Further comprising a support unit for rotatably supporting the driving gate and the driven gate,
the support unit
a first support piece;
a second support piece in close contact with the sidewall of the first support piece;
a third support piece in close contact with the sidewall of the second support piece and the sidewall of the first support piece; and
and a fixed shaft that penetrates and fixes at least a portion of the first support piece, the second support piece, and the third support piece,
Media transport path switching device for automated financial devices. The method of claim 1,
The rotating means
an actuator rotating the driving gate; and
a transmission mechanism for transmitting the rotational force of the driving gate to the driven gate;
Media transport path switching device for automated financial devices. The method of claim 1,
the stopper
installed to face each other at both ends of the gate assembly,
Media transport path switching device for automated financial devices.

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