Patent Application
20220207249
The present application claims priority under 35 U.S.C. ยง 119 to Japanese Application No. 2020-218243 filed on Dec. 28, 2020, the entire content of which is incorporated herein by reference.
At least an embodiment of the present invention relates to a card reader and a transaction apparatus for performing a transaction or the like with the use of a card inserted through a card insertion slot.
A card reader has a magnetic head that reads magnetic information from a card inserted from a card insertion slot, and is mounted on a transaction apparatus such as an automatic teller machine (ATM) and a point-of-sale system (POS system). In such a card reader, a method for manually inserting and pulling out a card has been proposed (see Japanese Unexamined Patent Application Publication No. 2020-113357). In the manual type card reader described in Japanese Unexamined Patent Application Publication No. 2020-113357, a card is manually inserted or pulled out with the use of a recess hollowed out except for the portion where the magnetic head is disposed and the portion where both ends of the card pass through. In addition, when the card is inserted to the position where the rear end of the card passes through the magnetic head, the tip of the card butts up against the end of the housing and communication with the IC card takes place at that position. The magnetic data is read when the card is inserted and when the card is pulled out.
Manual card readers are used domestically and internationally in parking lot payment machines and drive-through transaction apparatuses. However, since manual card readers perform magnetic read, the card must be inserted and pulled out at as constant speed as possible, but when operated from inside the car, the card insertion and pull-out are unstable and magnetic read errors are likely to occur. For this reason, it is desirable to mount an assist type card reader that uses motorized conveyance or the like in parking lot payment machines and drive-through transaction apparatuses. In such cases, the control on the higher-level device side of the card reader must be changed to accommodate the assist type card reader.
In view of the above-described issues, an object of at least an embodiment of the present invention is to provide a card reader and a transaction apparatus which do not need to change the control in a higher-level device even when the card handling is changed from a manual type to an assisted type using motor conveyance or the like.
In order to solve the above issue, a card reader according to at least an embodiment of the present invention includes a front wall where an insertion slot opens, a conveyance path extending from the insertion slot toward a back side, a magnetic head configured to read information from a card conveyed along the conveyance path, a conveyance mechanism configured to convey the card inserted into the insertion slot along the conveyance path, an entry sensor configured to detect that the card has been inserted into the insertion slot, and a controller. The controller performs an insertion monitoring start instruction step to start monitoring insertion of the card by the entry sensor upon receipt of an initialization command transmitted from a higher-level device and a carry-in start instruction step to start carry-in of the card by the conveyance mechanism when the entry sensor detects the insertion of the card.
In addition, at least an embodiment of the present invention is a transaction apparatus including a card reader and a higher-level device to control the card reader. The card reader includes a front wall where an insertion slot opens, a conveyance path extending from the insertion slot toward a back side, a magnetic head configured to read information from a card conveyed along the conveyance path, a conveyance mechanism configured to convey the card inserted into the insertion slot along the conveyance path, an entry sensor configured to detect that the card has been inserted into the insertion slot, and a controller. The controller performs an insertion monitoring start instruction step to start monitoring insertion of the card by the entry sensor upon receipt of an initialization command transmitted from the higher-level device and a carry-in start instruction step to start carry-in of the card by the conveyance mechanism when the entry sensor detects the insertion of the card.
In the card reader and transaction apparatus according to this aspect, an insertion monitoring start instruction step to start monitoring insertion of the card by the entry sensor is performed by an initialization command that has been output from the higher-level device in a card reader without a conveyance mechanism. Thus, when changing from a card reader without a conveyance mechanism to the card reader with a conveyance mechanism according to this aspect, it is not necessary to change the configuration of the higher-level device. Accordingly, it is easy to switch from a card reader without a conveyance mechanism to a card reader with the conveyance mechanism.
In the card reader and transaction apparatus according to this aspect, an aspect can be employed in which a carry-out start instruction step to start carry-out of the card by the conveyance mechanism upon receipt of a card pull-out monitoring command transmitted from the higher-level device and an insertion monitoring resumption instruction step to resume monitoring the insertion of the card by the entry sensor when the entry sensor detects carry-out of the card are performed. According to such aspect, a carry-out start instruction step to start carry-out of the card is performed by the card pull-out monitoring command that has been output from the higher-level device in a card reader without a conveyance mechanism. Thus, when changing from a card reader without a conveyance mechanism to the card reader with a conveyance mechanism according to this aspect, it is not necessary to change the configuration of the higher-level device. Accordingly, it is easy to switch from a card reader without a conveyance mechanism to a card reader with the conveyance mechanism.
In the card reader and transaction apparatus according to this aspect, as aspect can be employed in which the card reader includes a front sensor configured to detect presence or absence of the card on an upstream side of the conveyance path, and a rear sensor configured to detect presence or absence of the card on a downstream side of the conveyance path, and after the carry-in start instruction step, the controller stops the carry-in of the card by the conveyance mechanism on a basis of a detection result by the front sensor that the card is present and a detection result by the rear sensor that the card is present, and after the carry-out start instruction step, the controller stops the carry-out of the card by the conveyance mechanism on a basis of a detection result by the front sensor that the card is absent and a detection result by the rear sensor that the card is absent.
In the card reader and transaction apparatus according to at least an embodiment of the present invention, an insertion monitoring start instruction step to start monitoring insertion of the card by the entry sensor is performed by an initialization command that has been output from the higher-level device in a card reader without a conveyance mechanism. Thus, when changing from a card reader without a conveyance mechanism to the card reader with a conveyance mechanism according to at least an embodiment of the present invention, it is not necessary to change the configuration of the higher-level device. Accordingly, it is easy to switch from a card reader without a conveyance mechanism to a card reader with the conveyance mechanism.
Embodiments will now be described, by way of example only, with reference to the accompanying drawings which are meant to be exemplary, not limiting, and where like elements are numbered alike in several figures, in which:
An embodiment of the present invention will now be described with reference to the accompanying drawings. In the following description, a card C moves in a front-rear direction X illustrated in
A base material C0 of the card C is, for example, a thin rectangular card made of vinyl chloride having a thickness of about 0.7 to 0.8 mm, and a magnetic stripe C1 in which magnetic data is recorded is formed on a lower surface C7 of the card C. An IC chip C2 is fixed to an upper surface C6 of the card C. In other words, the card C in this embodiment is a contact IC card with a magnetic stripe. The card C may be a contactless IC card with a magnetic stripe. In addition, the base material C0 of the card C may be a polyethylene terephthalate (PET) card having a thickness of approximately 0.18 mm to 0.36 mm, or a paper card or the like having a predetermined thickness.
The card reader 1 has a front cover 10 in which an insertion slot 30 into which the card C is inserted is provided on a front wall 11, and a frame 20 coupled to the rear side of the front cover 10. In the interior of the front cover 10 and the frame 20, a conveyance path 31 extending from the insertion slot 30 to the rear side X2 is provided, and the card C moves along the conveyance path 31. On the upstream side of the conveyance path 31, at the rear side X2 from the insertion slot 30, a front sensor 61 is provided to detect the presence or absence of the card C, and on the downstream end of the conveyance path 31, a rear sensor 62 is provided to detect the presence or absence of the card C. The front sensor 61 and rear sensor 62 are optical sensors such as photocouplers.
In the conveyance path 31, at the rear side X2 of the front sensor 61, a magnetic head 4 which reads and records magnetic data with the magnetic stripe C1 of the card C during conveyance of the card C inserted from the insertion slot 30. In addition, in the conveyance path 31, at the rear side X2 of the magnetic head 4 and at the front side X1 of the rear sensor 62, an IC contact point 5 which performs at least one of reading and recording of information with the IC chip C2 of the card C is provided. The IC contact point 5 is electrically connected to the terminal of the IC chip C2 by moving in the up-down direction.
The card reader 1 is provided with a controller 9 equipped with a control circuit 91 and a CPU 92, and the higher-level device 110 of the transaction apparatus 100 controls the card reader 1 via the controller 9. In addition, the detection results of the front sensor 61 and the rear sensor 62 are input to the controller 9 via a signal line. Moreover, the magnetic head 4 and the control circuit 91 are electrically connected by the signal line, and the IC contact point 5 and the control circuit 91 are electrically connected by the signal line.
The card reader 1 is provided with a shutter member 7 between the insertion slot 30 and the front sensor 61, and the shutter member 7 opens and closes the conveyance path 31 on the basis of a signal or the like output from the controller 9 via the signal line. Although the figures are omitted, in this embodiment, the shutter member 7 is configured as a spring-loaded extraction prevention lever, and the extraction prevention lever engages with the card C to prevent extraction of the card C, and opens and closes the conveyance path 31 by driving by a solenoid. In this embodiment, the front sensor 61 detects the displacement of the extraction prevention lever when the card C contacts the extraction prevention lever, thereby detecting the presence or absence of the card C on the upstream side of the conveyance path 31.
The card reader 1 of this embodiment is provided with a conveyance mechanism 8 that conveys the card C inserted from the insertion slot 30 along the conveyance path 31, and an entry sensor 85 that detects the insertion of the card C into the insertion slot 30. The entry sensor 85 is disposed at the front side X1 of the conveyance mechanism 8.
The conveyance mechanism 8 includes a motor 80 that operates on the basis of a signal output from the controller 9 via the signal line, drive rollers 81 and 82 to which the rotational output of the motor 80 is transmitted, and support rollers 83 and 84 that face the drive rollers 81 and 82 via the conveyance path 31. The support rollers 83 and 84 support the card C from the side opposite to the drive rollers 81 and 82. The drive rollers 81 and 82 drive the card C from the lower side Z1, and the support rollers 83 and 84 support the card C from the upper side Z2. The conveyance mechanism 8 has a gear transmission mechanism to be described below, and the rotational output of the motor 80 is transmitted to the drive rollers 81 and 82 via the gear transmission mechanism.
The drive roller 81 and the support roller 83 are disposed between the entry sensor 85 and the magnetic head 4 in the front-rear direction X. More specifically, the drive roller 81 and the support roller 83 are disposed between the entry sensor 85 and the shutter member 7 in the front-rear direction X. The drive roller 82 and the support roller 84 are disposed between the magnetic head 4 and the IC contact point 5 in the front-rear direction X.
In the card reader 1 having such a configuration, the card C inserted from the insertion slot 30 is conveyed along the conveyance path 31 by the conveyance mechanism 8, and thus the card C can be conveyed at a certain speed, or the like, and the card C can be properly inserted and carried out. Accordingly, even when the operation is performed in a car or the like because the card reader is used in a parking lot payment machine or a drive-through type transaction apparatus, communication between the card C and the magnetic head 4 can be ensured.
As illustrated in
The front cover 10 has a recess 15 recessed from the front wall 11 toward the rear side X2 (back side), and the recess 15 is shaped to be hollowed out except for the portion where both ends of the card C pass through. The recess 15 forms a vertically long quadrangular opening 150 when viewed from the front, and the recess 15 is surrounded by four side walls 151, 152, 153, and 154. Among the four side walls 151, 152, 153, and 154, at the side wall 153 on the left side Y2, a groove 14 constituting the conveyance path 31 extends in the front-rear direction X. A portion 140 of the groove 14 opening at the front wall 11 constitutes a part of the insertion slot 30. A slit 13 is continuously formed in the side wall 151 on the right side Y1 and the front wall 11, and a portion of the slit 13 formed in the front wall 11 constitutes a portion of the insertion slot 30, and a portion of the slit 13 formed in the side wall 151 constitutes a portion of the conveyance path 31.
A rear wall 155 is provided at the back of the recess 15, and a slit 16, which constitutes a part of the conveyance path 31, is formed in the rear wall 155 so as to extend in the right-left direction Y. Accordingly, the card C can be conveyed in such a manner that the front end C4 of the card C passes through the slit 16 and reaches the inside of the frame 20.
In this embodiment, as illustrated in
Here, in the cylindrical body section 12 of the front cover 10, the rear side X2 of a first front wall portion 111 and the rear side X2 of a second front wall portion 112 are each a first space 121 and a second space 122 that are adjacent via the side wall 151 of the recess 15. In this embodiment, the first front wall portion 111 has a larger width dimension, which is a dimension in the right-left direction, than the width dimension of the second front wall portion 112. Accordingly, the first space 121 is larger in width dimension than the second space 122, and the entry sensor 85, conveyance mechanism 8, shutter member 7, front sensor 61, and magnetic head 4 that has been described with reference to
The second front wall portion 112 is provided with an infrared sensor 19 that detects a human movement. When the infrared sensor 19 is in standby mode, in which no human movement is detected, the shutter member 7 closes the conveyance path 31, and the card C cannot be inserted into the card reader 1. In this state, when the infrared sensor 19 detects a human movement, the shutter member 7 opens the conveyance path 31 to allow insertion of the card C.
As illustrated in
Here, in a state where the frame members 22 and 23 coupled to the front cover 10, a gap that serves as the conveyance path 31 is secured between the frame members 22 and 23, and a space is secured in which the IC contact point 5 can move in the up-down direction Z. In addition, in a state where the frame members 22 and 23 coupled to the front cover 10, the first end plate section 221 of the frame member 22 is located at Z1 below the slit 16 formed in the rear wall 155 of the recess 15 illustrated in
In this embodiment, the entry sensor 85, conveyance mechanism 8, shutter member 7, front sensor 61, and magnetic head 4 illustrated in
Here, the shutter member 7, front sensor 61, and magnetic head 4 are directly supported by the first protruding section 222 and the third protruding section 232. In contrast, the entry sensor 85 and the conveyance mechanism 8 are supported by the first protruding section 222 and the third protruding section 232 via a first support member 86 and a second support member 87.
More specifically, the first support member 86 supports the motor 80 and movable members such as the drive rollers 81 and 82, and the second support member 87 is supported by the first protruding section 222 and the third protruding section 232 in the state of supporting the support rollers 83 and 84 and the entry sensor 85. In this embodiment, the conveyance mechanism 8 is provided with a gear transmission mechanism 89 that transmits the rotation of the motor 80 to the drive rollers 81 and 82, and gears such as a worm gear 891 and a worm wheel 892 that constitute the gear transmission mechanism 89 are supported by the first support member 86 together with the motor 80 and the drive rollers 81 and 82.
As illustrated in
In this embodiment, the first support member 86 includes a plate 865 provided with a drive roller support section 861 and a motor support section 862, two coupling pipes 863 fixed to the drive roller support section 861, and a total of four perfectly circular holes 866 and 867 are provided in the motor support section 862 and the coupling pipes 863. The gear transmission mechanism 89 is supported between the drive roller support section 861 and the motor support section 862.
The second support member 87 includes a first plate 871, a second plate 872 supporting the support rollers 83 and 84, and a coupling pipe 873 coupling the first plate 871 and the second plate 872. The entry sensor 85 is supported between the first plate 871 and the second plate 872. In the first plate 871, elongate hole-shaped holes 876 and 877 having a long axis oriented in the up-down direction Z are formed at the portions where the four holes 866 and 867 of the first support member 86 overlap. Accordingly, after attaching the magnetic head 4 or the like to the first protruding section 222 and the third protruding section 232, the second support member 87 to which the support rollers 83 and 84, or the like have been attached is fixed to the first protruding section 222 and the third protruding section 232. After that, the first support member 86 supporting the motor 80 or the like is positioned with respect to the second support member 87 in the up-down direction Z in which the long axis of the holes 876 and 877 is oriented, and then the first support member 86 and the second support member 87 can be coupled by the fastening member 88.
In this assembled state, the motor 80 and the magnetic head 4 are disposed so as to overlap, as illustrated in
In this embodiment, the magnetic head 4 and the motor 80 are disposed so as to be overlapped with each other via the shield plate 40 made of a high magnetic permeability material such as permalloy. Accordingly, magnetic interference from the motor 80 to the magnetic head 4 can be avoided. Here, since the magnetic head 4 needs to be swingable by the swing member 45, the shield plate 40 and the swing member 45 are supported by the plate section 875 extending toward the side of the motor 80 in the first plate 871 of the second support member 87 illustrated in
In this embodiment, the shield plate 40 and the swing member 45 are connected via two coupling members 47 and 48 which are coupled to the plate section 875 of the first plate 871 by swaging via the shield plate 40. As illustrated in
More specifically, as illustrated in
Next, in step ST2, the controller 9 of the card reader 1 responds to the higher-level device 110 that the initialization has been completed.
Next, in step ST3, the higher-level device 110 outputs a card insertion wait command to the controller 9 of the card reader 1. After that, when the entry sensor 85 is turned on and the insertion of a card C is detected in the card reader 1, the controller 9 causes the motor 80 to start forward rotation and performs a carry-in start instruction step ST12 to start taking in the card C.
Next, in step ST4, when the front sensor 61 and the rear sensor 62 are turned on and the insertion of the card C is completed, the controller 9 of the card reader 1 stops the motor 80 and responds to the higher-level device 110 that the insertion of the card C is completed. Next, in steps ST5 to ST8, the higher-level device 110 outputs a magnetic data read command and a communication command with the IC chip C2 to the controller 9 of the card reader 1 in accordance the content of the transaction, and the controller 9 of the card reader 1 performs processing corresponding to those commands and then responds accordingly.
Next, in step ST9, the higher-level device 110 outputs a card pull-out monitoring command to the controller 9 of the card reader 1, and the controller 9 starts monitoring the pull-out of the card C. At this timing, upon receipt of the card pull-out monitoring command, the controller 9 of the card reader 1 starts reversing the motor 80 and performs a carry-out start instruction step ST13 to start carry-out of the card C by the conveyance mechanism 8.
Next, in step ST10, the controller 9 of the card reader 1 stops the motor 80 when the front sensor 61 and the rear sensor 62 are turned off and the carry-out of the card C is completed, and also responds to the higher-level device 110 that the carry-out of the card C is completed. In addition, when the entry sensor 85 is turned off and the card C is detected to be carried out, the controller 9 performs an insertion monitoring resumption instruction step ST14 to resume monitoring the insertion of the card C by the entry sensor 85, and returns to the step ST3.
In a case where the shutter member 7 is closed during the period when reading of information from the card C, or the like is performed, the card C may be carried out by the conveyance mechanism 8 at the timing when the reading of information from the card C, or the like is completed and the shutter member 7 is opened.
In the above embodiment, the card reader 1 includes the magnetic head 4 and the IC contact point 5, but at least an embodiment of the present invention may be applied when the card reader 1 includes only the magnetic head 4.
The presently disclosed embodiments are therefore to be considered in all respects as illustrative and not restrictive, the scope of the invention being indicated by the appended claims, rather than the foregoing description, and all changes which come within the meaning and range of equivalency of the claims are therefore intended to be embraced therein.
| Number | Date | Country | Kind |
|---|---|---|---|
| 2020-218243 | Dec 2020 | JP | national |
