KR200392317Y1 - Apparatus of drawing bills in a cash transaction machine - Google Patents

Abstract

The withdrawal device of the automated teller machine includes a storage means for storing paper media, a stack support for stacking paper media transferred from the storage means, and a stack support moving up and down along a predetermined path, and guide protrusions protruding from the side of the stack support. A stacking means for providing the customer with a stack of paper media delivered from the stacking means, a first conveying means for conveying the paper media from the storage means to the stacking means, and a stack of paper media from the stacking means to the withdrawal means And a second conveying means for lifting, and a lifting drive unit and a cam rotating body, wherein the cam rotating body is formed with a guide rail having a variable distance from the center of rotation according to the rotation angle, and the guide protrusions coupled with the guide rail are vertically positioned. And stack transfer means for moving the stack support up and down. By the rotation of the cam rotor, the stack support can move up and down, and the moving cover can move from side to side simultaneously.

Description

Withdrawal device of financial automation equipment {APPARATUS OF DRAWING BILLS IN A CASH TRANSACTION MACHINE}

 The invention relates to a Cash Transaction Machine. More specifically, the present invention relates to a withdrawal device that can withdraw paper media such as banknotes, checks, gift certificates, tickets in the automated teller machine.

The automated teller machine is an automated device that can assist basic financial services, such as deposit or withdrawal, regardless of place and time with respect to financial services. The automated teller machine can be divided into cash dispenser and cash dispenser according to the withdrawal and withdrawal. Recently, it has been used for cash withdrawal, check deposit and withdrawal, bankbook payment, payment of giro fee, ticket release.

Currently, the use of financial automation equipment is gradually increasing in banks and other financial institutions, and as the use of financial automation equipment becomes more convenient, customers are increasingly using the financial automation equipment. As the number of times of using automated teller machines increases, the amount of financial transactions used every time also increases. As the amount of money traded through the automated teller machine increases, several cashes are deposited or withdrawn, and as multiple sheets of cash are used, unintentional occurrences often occur within the automated teller machine due to movement or location interference between the cash. There is a number.

1 is a perspective view of a conventional automatic teller machine.

Referring to Figure 1, the automated teller machine is a device for depositing and withdrawing cash or check, in one housing a number of differently divided into functional units, such as magnetic card reading module, bankbook organizer module, user interface module, banknote deposit and withdrawal module The module is installed.

In the automated teller machine, the magnetic card reading module is exposed to the outside through the card input unit 10, and the user interface module is exposed to the outside through the display screen 20 or the key input unit 25.

In addition, the bill withdrawal module is exposed to the outside through the cash discharge unit (30). The cash discharge unit 30 shown in FIG. 1 is based on a direct discharging method. After the cash of the amount already requested in the bank withdrawal module is prepared, the cash is provided in a stack unit in the cash discharge unit 30. do. However, since a cash cassette that stores cash provides cash only in sheets, a process of temporarily loading cash is required to provide cash in a stack unit in the bank withdrawal module. For this purpose, the bank withdrawal module may include a temporary stacking section.

2 is a block diagram illustrating a temporary stack unit in a conventional withdrawal module.

Referring to FIG. 2, the conventional withdrawal module includes a cash cassette 40, a transfer unit 50, a cash detection sensor 60, a recovery unit 70, and a temporary stack unit 80. The cash is discharged from the cash cassette 40 and moved along the transfer unit 50. The cash is loaded in the temporary stack unit 80 by a predetermined amount and then transferred to the withdrawal unit 30 according to normal transaction authentication.

Cash is withdrawn from the cash cassette 40 one by one, and the withdrawn cash is transferred to the temporary stack unit 80 along the transfer unit 50. During the transfer to the temporary stack unit 80, the cash passes through the cash detection sensor 60, the cash detection sensor 60, whether or not the double sheet of cash passing through, the damage of the bill, the authenticity of the bill of paper, Forgery can be detected. When the medium passing in this way is unable to make a normal transaction, the recovery piece 72 may be operated to switch the transfer path of the cash, and the converted cash is stored in the recovery part 70 to be temporarily stacked 80. Can't enter

When cash is loaded in the temporary stack unit 80, the support 82 on which the cash is loaded is positioned below from the end of the transfer unit 50, and the cash discharged from the end of the transfer unit 50 is placed on the support 82. They are stacked one after the other. After the predetermined cash is loaded on the support 82, the support 82 is raised to position the cash stack on the transfer path of the transfer unit 50, and the transfer unit 50 is operated in reverse to load the temporary stack 80. The cash can be transferred to the discharge unit 30 at one time. As the withdrawal process is completed, the customer can receive the requested cash through the discharge unit 30.

If the customer does not receive the money withdrawn from the withdrawal unit 30, the automated teller machine should collect the remaining money again and store it in the collection box. At this time, the transfer unit 50 should be operated again for the recovery of the cash, the transferred cash may be recovered to the recovery unit 70 or other recovery unit.

In order to raise the support 82 after stacking the cash on the temporary stack unit 80, an operating device separately controlled from the transfer unit 50 must be added and a separate operating device for operating the recovery piece 72. May be added separately from the support 82. In addition, as mentioned, since the recovery unit 70 mounted between the temporary stack unit 80 and the recovery unit for collecting unreceived cash are often maintained separately from the cash cassette 40, the motor, Numerous actuators, such as solenoids, are used and are controlled separately, making it difficult to control the withdrawal device.

The present invention is to solve the above problems, an object of the present invention is to simply reduce the operating device and control variables used in the transfer and processing of paper media such as cash in the Cash Transaction Machine (Cash Transaction Machine) It is to provide a withdrawal device.

Another object of the present invention is to provide a withdrawal device capable of performing various functions in one power system by the interaction between each component.

According to the present invention for achieving the above object of the present invention, the withdrawal device of the automatic teller machine can easily transfer the stack member by using a cam rotating body, the rotation of the cam rotating body moves the stack support up and down In addition to this, other movements and operations can be easily extended.

For example, conventionally, the solenoid may be used naturally to move the stack member up and down, but since the solenoid moves only at both ends, it is difficult to control the displacement, and the movement direction is limited to only one direction and does not extend in both directions. However, since the movement range is also limited to a certain displacement, further expansion of the function may be limited. In addition, since only a linear reciprocating motion can be implemented, it is very difficult to add other functions even though it is suitable for performing one function.

However, in the present invention, various functions can be added based on the rotation of the cam rotating body. Specifically, by controlling the rotation angle, it is possible to control the movement of the peripheral parts as well as the movement displacement, and can implement various movements such as rotational movement, linear movement, and repetitive movement of the peripheral components based on the rotation. By adjusting the total amount, bidirectional movement can be realized without limiting the range. In fact, in the present invention, by adjusting the rotational direction and the rotation angle of the cam rotating body, it is possible to control the lifting movement of the stack support, as well as the sliding movement of the movable cover, and to control the movement of the stack support and the movable cover simultaneously to simplify the power system. I can keep it.

The withdrawal device of the automatic teller machine is provided with a stack member including a storage member for storing paper media, a stack support for stacking the paper media transferred from the storage member, and a guide protrusion protruding from the side of the stack support. A withdrawal member for providing a stack of paper media to a customer, a first transport member for transporting the paper media from the storage member to the stack member, a second transport member for transporting the stack of paper media from the stack member to the withdrawal member, and a cam It includes a stack transfer member for elevating the stack support using a rotating body. The cam rotating body has a variable distance from the center of rotation according to the rotation angle, that is, a spiral guide rail is formed, and the stack support can move up and down while the guide protrusion of the stack member moves along the guide rail. Here, the first and second conveying members may include sections that are partially shared, and may be completely separated from each other and operate separately from each other.

Here, the withdrawal device is a device including a withdrawal function, and both the withdrawal module and the withdrawal module may be understood as withdrawal device. In addition, the paper medium handled by the withdrawal device is a sheet shape having a certain value, such as a bill, a check, a gift certificate, a ticket, etc., and the material is made of a material that can replace the paper, such as a plastic thin film. Can be.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings, but the present invention is not limited or limited by the embodiments.

Figure 3 is a block diagram for explaining the withdrawal device of the automatic teller machine according to an embodiment of the present invention, Figure 4 is a perspective view for explaining the upper unit of the withdrawal device of Figure 3, Figure 5 is the upper part of Figure 4 Front view for explaining the unit.

Referring to FIG. 3, the withdrawal device 100 according to the present embodiment may include a cash cassette 110, a first transfer device 120, a temporary stack unit 130, a second transfer device 160, and a withdrawal unit 170. ). The withdrawal device 100 may include one or more cash cassettes 110, and may select one of the cash cassettes 110 to withdraw cash as necessary. Cash withdrawn from the cash cassette 110 in a sheet unit is transferred to the temporary stack unit 130 by the first transfer device 120, and the transferred cash is loaded in the sheet unit in the temporary stack unit 130. When a predetermined amount of cash is loaded on the temporary stack unit 130, the stack support 132 of the temporary stack unit 130 moves to the second transfer unit 160, and the cash stack of the second transfer unit 160 is moved. Located on the transfer path defined by the may be transferred to the withdrawal unit 170.

One or two or more cash cassettes 110 are loaded in the withdrawal device 100, and the cash loaded corresponding to the rotation of the pickup roller 112 may be discharged one by one. Cash discharged from the withdrawal device 100 is transferred to the temporary stack unit 130 by the first transfer device 120, but is not transferred to the temporary stack unit 130 when it is determined as a double sheet or a counterfeit bill. It may not be stored in the first recovery unit 140. At this time, the recovery piece 142 is mounted on the transfer path of the first transfer device 120, the recovery piece 142 can be operated by a drive device such as a solenoid to switch the transfer path of cash.

On the stack support of the temporary stack unit 130, the cash transferred from the cash cassette 110 is stacked one by one. When a predetermined amount is loaded, the first transfer device 120 may stop the transfer of cash, and the temporary stack unit 130 supporting the cash stack may include a second transfer device (not shown) by a stack transfer member (not shown). 160).

4 and 5, the upper unit 102 of the withdrawal apparatus 100 may be separated from the lower unit on which the cash cassette 110 is mounted. The upper unit 102 is a part of the first transfer apparatus 120, the temporary stack unit 130, the first recovery unit 140, the stack transfer member 150, the second transfer apparatus 160, and the withdrawal unit 170. ). The upper unit 102 includes a unit main body 104 and an extension unit 106, in which the first transfer device 120 to the withdrawal unit 170 are parallel in the unit main body 104 and the withdrawal extension 106. Installed between the frame plate 108. The structure for transmitting power to the outside of the frame plate 108 is exposed, the power transmission structure using the belt can transmit the rotation of the motor to each gear or circular transfer belt.

6 is a front view illustrating the internal structure of the upper unit of FIG. 4, and FIG. 7 is a perspective view illustrating the temporary stack unit of the upper unit of FIG. 4. For reference, in FIG. 6, the cam rotator 154 is transparently processed to clearly display the internal structure of the upper unit. Specifically, the outer edge of the cam rotator 154 is represented by a thick solid line, and the main internal element is It is indicated by a broken line.

Referring to FIG. 6, the cash transferred through the first circulation transfer belt 122 of the first transfer apparatus 120 is loaded in the temporary stack unit 130. The temporary stack unit 130 is for stacking the requested cash before withdrawal, and includes a stack support 132, a stack circulation belt 134, and a guide protrusion 136.

The stack support 132 of the temporary stack unit 130 is positioned in front of the outlet of the first transport device 120, and the cash discharged from the first transport device 120 is stacked on the stack support 132 in units of sheets. The stack support 132 is rotatably mounted to the frame plate 108 at the left side of the unit body 104 and can move up and down about the rotation center 138. When the stack support 132 is located below it can support the cash discharged from the first transport device 120 at the bottom of the outlet of the first transport device 120, when the stack support 132 is located above the cash The stack may be placed on the transfer path II of the second transfer device 160 to prepare for transferring the cash to the withdrawal unit 170. Of course, if the customer does not receive cash, the stack support 132 is moved down and the moving cover 190 is moved to the seat of the stack support 132 to transfer the cash stack to the second collection box 180. The opening of the second collection box 180 can be opened.

Referring to FIG. 7, the stack circulation belt 134 is mounted in parallel with each other on the stack support 132 of the temporary stack unit 130. When the temporary stack 130 is located below the stack circulation belt 134 does not operate, but when the temporary stack 130 moves upward to function as part of the second transfer device 160, The stack gear 133 is coupled to one of the gears of the second transfer device 160, and can receive power from the gear to operate the stack circulation transfer belt 134. Accordingly, the cash stack on the stack support 132 may start operation by the stack circulation belt 134 and may be transferred to the withdrawal unit 170.

In addition, the guide protrusion 136 is formed on the side of the stack support 132. The guide protrusion 136 meshes with the guide rail 158 of the cam rotator 154, and the guide protrusion 136 may move along the guide rail 158 in response to the rotation of the cam rotator 154. Since the guide rail 158 is formed to be inclined, the stack support 132 can be raised or lowered by the rotation of the cam rotating body 154. The end of the guide protrusion 136 is equipped with a rotatable movement wheel 137, the guide protrusion 136 is a guide rail 158 because the movement wheel 137 moves while rotating inside the guide rail 158. You can move along smoothly.

FIG. 8 is a perspective view illustrating a cam rotating body of the upper unit of FIG. 4, and FIG. 9 is a front view illustrating the cam rotating body of the upper unit of FIG. 4.

8 and 9, the cam rotator 154 is rotatably mounted to the frame plate 108 and is functionally connected to an adjacent drive motor 152 to receive a rotational force. A circular gear 156 is formed outside the cam rotator 154, and the cam rotator 154 receives a rotational force from the driving motor 152 through a belt.

In addition, a guide rail 158 is formed on the front of the cam rotator 154. One end of the guide rail 158 is adjacent to the rotation center of the cam rotator 154, and the other end is adjacent to the outside of the cam rotator 154. Therefore, when the guide protrusion 136 moves along the guide rail 158, it may become further away from or closer to the center of the cam rotating body 154.

As shown in FIG. 9, the guide rails 158 are connected as one, but specifically, may be divided into three sections. First, the first circular arc section 158a is formed adjacent to the center of the cam rotator 154 and has a substantially constant curvature. However, the inclined section 158b connected to the first circular arc section 158a extends to the outer side of the cam rotating body 154 and may gradually increase in distance to the center, and the second circular arc at the end of the inclined section 158b. Section 158c is connected. In the first and second circular arc sections 158a and 158c, the guide protrusion 136 may be fixed at a predetermined height, thereby maintaining a stable fixed state by maintaining a constant distance from the center of the cam rotating body 154. In addition, since the traveling direction of the initial guide protrusion 136 and the first circular arc section 158a face the same direction, the initial movement is very easy.

A sliding protrusion 159 is formed at the end of the cam rotator 154. The sliding protrusion 159 is coupled to the sliding rail 198, and is fixed integrally with the moving cover 190 to move left and right together with the moving cover 190. As mentioned above, the cam support 154 may rotate to move the stack support 132 up and down, and at the same time, the sliding protrusion 159 adjacent to the periphery of the cam rotor 154 may move the sliding rail 198. ) And the moving cover 190 can be moved left and right.

FIG. 10 is a front view illustrating the function of the cam rotating body in the upper unit of FIG. 4, and FIG. 11 is a perspective view illustrating the moving cover of the upper unit of FIG. 4.

Referring to FIG. 10, while the cam rotator 154 rotates counterclockwise, the guide protrusion 136 moves along the guide rail 158 and the stack support 132 rotates about the rotation center 138. To rise. At the same time, the sliding protrusion 159 of the cam rotating body 154 moves the sliding rail 198 to the left side, and the moving cover 190 moves to the left side together with the sliding rail 198. The front and rear ends of the movable cover 190 are mounted with rollers 192 and 194, respectively, and the cover circulation transfer belt 196 is mounted while passing through the rollers at both ends. The rotating shaft 192 located on the right side of the moving cover 190 is equipped with a gear 193 at the front, and when the moving cover 190 is at the top of the stack support 132, the rotating force from the front gear 193 is applied. I can receive it. In addition, the gear 195 is mounted on the rear of the rotating shaft 194 located on the left side of the moving cover 190. The gear 195 of the left rotating shaft 194 is not connected to another gear when the moving cover 190 is on the top of the stack support 132, but the second cover is slid to the left to recover the second cover. When positioned on the 180 may be connected to the gear formed in the withdrawal extension 106 may receive power.

The sliding plate 109 for guiding the movement of the movement cover 190 is formed in the frame plate 108 of the unit body 104, and the rotating shafts 192 and 194 of the movement cover 190 are the sliding guide 109. The movement path of the movement cover 190 may be restricted while moving along the.

As shown in FIG. 10, the moving cover 190 moves to the left along the sliding guide 109 by the sliding protrusion 159 and the sliding rail 198, and at the same time the stack support 132 is raised to Fill the place where the moving cover 190 was. Here, the temporary stack 130 moves so that the top surface of the stack support 132 is located on the transfer path of the second transfer device 160, so that a portion of the transfer path defined by the second transfer device 160 is moved. Can be. That is, as the stack support 132 rises and the movement cover 190 moves horizontally, the second path leading from the second transfer device 160 to the withdrawal unit 170 may be completely configured. After the movement is completed, the purifying belts of the second transfer device 160, the temporary stack portion 130 and the movement cover 190 simultaneously start circulation, and the cash stack placed on the stack support 132 is withdrawn. 170).

The sliding rail 198 has an inverted U-shaped shape. Accordingly, as shown in FIG. 6, the cam rotator 154 rotates in the counterclockwise direction, and the sliding protrusion 159 starts to rotate in the circumferential direction, and the end of the sliding rail 198 is also approximately in the circumferential direction. It is formed in close proximity with the sliding protrusion 159, the sliding rail 198 can also start to move smoothly.

In addition, the left end of the sliding rail 198 is open downward. Therefore, even if the cam rotator 154 continues to rotate in the counterclockwise direction and the sliding protrusion 159 is separated from the sliding rail 198, the sliding rail 198 may move in the same direction as the moving direction of the sliding protrusion 159. Since it faces, the sliding protrusion 159 can be easily returned to the original position again. In addition, since the sliding rail 198 and the cam rotator 154 can be separated from each other even if the sliding rails 198 or the cam rotator 154 are not released, the upper unit 102 is checked in case of failure. Even when the internal state can be easily identified.

In this embodiment, the respective transport paths defined by the first transport device 120 and the second transport device 160 are separated from each other, and cash or cash stacks are constant for each transport device except in special cases such as retrieval. Move along in the direction. However, as described with reference to FIG. 2, the conveying path defined by the first conveying device and the second conveying device may be partially shared, and at this time, the temporary stack part and the moving cover may be simultaneously controlled using the cam rotating body. There is a number.

The withdrawal device of the present invention can move the temporary stack part up and down using a cam rotating body, and at the same time, it can open and close the collection box by moving the moving cover left and right. At this time, by adjusting the rotation angle and the direction of rotation, it is possible to precisely control the operation and the operating range between each component, it is possible to simply reduce the drive device and control variables used.

A single power system can be used to regulate the interaction of several components, which is very advantageous for maintenance and repair.

As described above, the present invention has been described with reference to a preferred embodiment of the present invention, but those skilled in the art various modifications and changes of the present invention without departing from the spirit and scope of the present invention described in the claims below I can understand that you can.

1 is a perspective view of a conventional automatic teller machine.

2 is a block diagram illustrating a temporary stack unit in a conventional withdrawal module.

3 is a block diagram for explaining the withdrawal device of the automatic teller machine according to an embodiment of the present invention.

4 is a perspective view illustrating an upper unit of the withdrawal device of FIG. 3.

5 is a front view illustrating the upper unit of FIG. 4.

FIG. 6 is a front view illustrating an internal structure of the upper unit of FIG. 4.

FIG. 7 is a perspective view illustrating a temporary stack unit of the upper unit of FIG. 4.

FIG. 8 is a perspective view illustrating a cam rotating body of the upper unit of FIG. 4.

FIG. 9 is a front view illustrating a cam rotating body of the upper unit of FIG. 4.

FIG. 10 is a front view illustrating a function of a cam rotating body in the upper unit of FIG. 4.

FIG. 11 is a perspective view illustrating a moving cover of the upper unit of FIG. 4.

<Explanation of symbols for the main parts of the drawings>

100: cash drawer 110: cash cassette

120: first transfer device 130: one-stack part

140: first recovery part 150: stack transfer member

160: second transfer device 170: withdrawal unit

180: The second collection box

Claims (8)

Storage means for storing paper media; A stack means for stacking the paper medium transferred from the storage means, the stack support including a stack support moving up and down along a predetermined path, and a guide protrusion formed on a side of the stack support; Withdrawal means for providing a customer with a stack of paper media delivered from said stacking means; First conveying means for conveying a paper medium from said storing means to said stacking means; Second conveying means for conveying the stack of paper media from said stacking means to said withdrawal means; And And a cam rotating body interlocked with the lifting driving unit and the lifting driving unit, wherein the cam rotating body is formed with a guide rail having a variable distance from the center of rotation according to the rotation angle, and the guide protrusion coupled with the guide rail. And a stack transfer means for moving the stack support upward and downward to move up and down. The method of claim 1, At the end of the guide projection is equipped with a moving wheel, the withdrawal device of the automated teller machine, characterized in that the moving wheel moves along the guide rail. The method of claim 1, And a first collecting means for storing the selected paper medium located on the path defined by the first conveying means, wherein the first collecting means comprises: a collecting piece for switching the conveying path of the selected paper medium; And a first retrieval unit for storing the selected paper medium switched by the retrieval piece. The method of claim 1, A second recovery means for removing the paper medium or the paper medium stack remaining in the path defined by the second transfer means, The second recovery means may include a second recovery part including an opening located on a path defined by the second transfer means, and move along the path defined by the second transfer means to open the second recovery part. A sliding cover for selectively opening and closing a fart and the sliding rail which is integrally connected with the moving cover and moves to the left and right and provides a groove formed vertically; The cam rotating body is provided with a sliding protrusion which is coupled to the sliding rail, the rotation of the cam rotating body by the sliding protrusion and the sliding rail is converted to the slide movement of the moving cover of the automatic teller machine Withdrawal device. The method of claim 4, wherein The sliding rail is formed in a U-shape, the withdrawal device of the automated teller machine, characterized in that the advancing direction of the sliding projection and the direction of the sliding rail is close to each other at both ends of the sliding rail. The method of claim 5, At least one of both ends of the sliding rail is open, withdrawal device of the automated teller machine. The method of claim 1, The guide rail is connected to the first circular arc section adjacent to the center of the cam rotating body, the first circular arc section and the inclined section and the inclined section having a continuously increasing distance from the center of rotation according to the rotation angle. Withdrawal device of the automated teller machine, characterized in that it has a second circular arc section adjacent to the outside of the cam rotating body. The method of claim 1, The first conveying means, the second conveying means, and the stack support are provided with a plurality of circulating conveying belts in parallel with each other, the circulating conveying belt is spaced by a predetermined interval so that the conveying path of the paper medium or the paper media stack Withdrawal device of the automated teller machine, characterized in that to move in parallel along.