JP4803205B2 - Bag and automatic ticket gate system with non-contact data carrier device - Google Patents

Description

  The present invention relates to a bag containing a non-contact type data carrier device and an automatic ticket gate system.

Non-contact data carriers are used in shoplifting prevention devices and logistics systems. Such a non-contact type data carrier is used by being affixed to a product packaging box or the product itself, or used as a commuter pass, for example.
As a conventional non-contact type data carrier, there is a card size or a business card size with a maximum communication distance of about 38 cm.

FIG. 1 is an explanatory diagram illustrating a physical distribution system, and the physical distribution system is used, for example, for home delivery.
The physical distribution system 150 includes a belt conveyor 155, a cardboard box 151 mounted on the belt conveyor 155, a non-contact type data carrier 112, and a reader / writer 158 installed on a pillar 159.

The upper surface of the cardboard box 151 is folded, and the non-contact type data carrier 112 is attached to the side surface 153 on the column 159 side.
The cardboard box 151 is moved in the direction of the arrow 155A by the belt conveyor 155, and the non-contact type data carrier 112 is moved from outside the range of the communication distance with the reader / writer 158, and wirelessly communicated with the reader / writer 158. I do.
The reader / writer 158 reads information such as a shipping destination of the cardboard box 151 by wireless communication with the non-contact type data carrier 112 and supplies the read information to a computer (not shown).

  The cardboard box 151 further moves in the direction of the arrow 155A by the belt conveyor 155, and the non-contact type data carrier 112 moves outside the range of the communication distance with the reader / writer 158.

  In the physical distribution system 150 described above, it is necessary to bring the non-contact data carrier 112 and the reader / writer 158 close to each other within the communication distance range. When the communication distance is short, it is necessary to shorten the distance between the belt conveyor 155 and the pillar 159. And the mounting position of the cardboard box 151 is considerably restricted.

FIG. 2 is an explanatory diagram illustrating an automatic ticket gate system.
The automatic ticket gate system 160 includes an automatic ticket gate 169 and a non-contact type data carrier 112. The non-contact type data carrier 112 is used as a commuter pass.
A reader / writer 168 is installed on the upper surface 167 of the automatic ticket gate 169.

A user of the automatic ticket gate system 160 brings the non-contact type data carrier 112 closer to the reader / writer 168 of the automatic ticket gate 169 when passing through the ticket gate.
Then, the non-contact type data carrier 112 moves from outside the range of the communication distance with the reader / writer 168 to within the range, and performs wireless communication with the reader / writer 168.
The reader / writer 168 reads information such as the expiry date of the commuter pass by wireless communication with the non-contact data carrier 112, and the automatic ticket gate 169 opens and closes a gate (not shown) based on the information.

In the automatic ticket gate system 160 described above, the non-contact type data carrier 112 and the reader / writer 168 need to be close to each other within the communication distance range. It takes time and effort.
The following is a somewhat related document in this application.
JP-A-10-69533 Japanese Patent Application Laid-Open No. 09-204548

  An object of the present invention is a bag containing a non-contact type data carrier device, and a bag containing a non-contact type data carrier device capable of expanding the communication distance of the non-contact type data carrier stored in the bag, and The purpose is to provide an automatic ticket gate system.

The first of the gist of the present invention is a bag containing a non-contact type data carrier device comprising a non-contact type data carrier and an auxiliary antenna for expanding the communication distance of the non-contact type data carrier, wherein the auxiliary antenna is A non-contact type data comprising: a first insulating substrate; a first antenna coil formed on the surface of the insulating substrate; and an IC chip or a capacitor connected to the first antenna coil. A first resonance circuit that resonates and amplifies a transmission signal from the carrier is configured, and the non-contact type data carrier is accommodated in an insulating pocket formed on the first insulating base. A second insulating substrate and a second antenna coil formed on the surface of the second insulating substrate to form a second resonant circuit, whereby the first resonant circuit Through the ticket gate Bag housing the non-contact data carrier device which is characterized in that the non-contact communication and Daraita, in.

In the first aspect of the present invention, the first antenna coil of the auxiliary antenna may further include a capacitance pattern for adjusting a resonance frequency, and a region surrounded by the first antenna coil is non-contact The area of the data carrier is at least twice the area surrounded by the second antenna coil, and the shortest distance between the innermost circumference of the first antenna coil and the outermost circumference of the second antenna coil is 2 cm or less. In addition, the contactless data carrier device can be card size or business card size.

The second of the gist of the present invention is an automatic ticket gate system that performs non-contact communication with a bag containing the non-contact type data carrier device according to any one of claims 1 to 5. However, there is an automatic ticket gate system that performs non-contact communication with a reader / writer installed on the vertical side surface of the automatic ticket gate without taking out the non-contact type data carrier from the bag.

According to the bag containing the non-contact type data carrier device of the present invention, since the non-contact type data carrier and the auxiliary antenna are included in the bag, the communication distance of the non-contact type data carrier can be increased. As a result, the ticket gate can be removed without taking out the non-contact type data carrier from the bag, and the ticket gate operation in transportation or the like can be facilitated.
In the automatic ticket gate system of the present invention, it is possible to check the ticket without taking out the non-contact type data carrier from the bag, which is convenient for the user and can facilitate the ticket gate operation.

Embodiments of the present invention will be described below with reference to the accompanying drawings.
FIG. 3 is a schematic configuration diagram showing the first embodiment of the non-contact type data carrier device. The non-contact type data carrier device 10 includes an auxiliary antenna 14 and a non-contact type data carrier 12.

  The auxiliary antenna 14 includes a rectangular or substantially rectangular insulating base material 11, an antenna coil 15, a capacitance pattern 8, and a member 17. In addition, the wiring 13 is connected to the line pattern 16 </ b> C and the member 17. The wiring 13 is preferably formed on the back surface of the insulating base material 11 (hereinafter also referred to as “base material back surface”) with respect to the surface of the insulating base material 11 on which the antenna coil 15 is formed.

  On the surface of the insulating base material 11, an antenna coil 15 having a line pattern that goes around the periphery of the insulating base material 11 is formed. As an example, the insulating base material 11 is a hard insulating base material. Specifically, a plastic resin sheet such as polyethylene terephthalate (PET), vinyl chloride, polypropylene, acrylic resin, methacrylic resin, and acetate resin, which is hard, can be used.

The antenna coil 15 has an outermost line pattern 16C, an innermost line pattern 16A, and a line pattern 16B between the line patterns 16A and 16C.
The end portion of the outermost line pattern 16C and the connection portion of the member 17 are connected via the wiring 13, and a capacitance pattern for adjusting the resonance frequency is provided between the wiring 13 and the end portion of the line pattern 16A. 8 and a member 17 are provided in parallel. In the case of FIG. 3, the number of turns of the line pattern is 3, but is not limited to 3.
The member 17 is composed of, for example, an IC chip, a capacitor, or the like, and a capacitor pattern may be formed on the IC chip.

  The non-contact type data carrier 12 is fixed to the surface of the insulating base material 11 of the auxiliary antenna 14. On the surface of the insulating base 71 of the non-contact data carrier 12, an antenna coil 75 having a line pattern that circulates along the periphery of the insulating base 71 is formed. The non-contact type data carrier 12 installed in the non-contact type data carrier device 10 is not limited to one, and a plurality of non-contact type data carriers 12 can be installed.

  In the non-contact type data carrier device 10, a portion of the antenna coil 15 that is close to the antenna coil 75 and a portion of the antenna coil 75 that is close to the antenna coil 15 are parallel or substantially parallel. Even when a plurality of contactless data carriers 12 are installed in the contactless data carrier device 10, a portion of the antenna coil 15 that is close to the antenna coil 75 and a portion of the antenna coil 75 that is close to the antenna coil 15 However, both are assumed to be parallel or substantially parallel.

  The non-contact type data carrier 12 and the auxiliary antenna 14 are arranged so that the region surrounded by the antenna coil 15 and the region surrounded by the antenna coil 75 are overlapped with each other, and the insulating coil 11 is insulated from the surface on which the antenna coil 15 is formed. The formation surface of the antenna coil 75 of the base material 71 is parallel or substantially parallel.

The insulating base 71 of the non-contact data carrier 12 is the same or substantially the same as the card size or business card size, and the communication distance when the auxiliary antenna 14 is not provided is about 40 cm to about 38 cm as an example.
The shortest distance between the innermost line pattern 16A of the antenna coil 15 and the outermost line pattern of the antenna coil 75 is 2 cm or less or substantially 2 cm or less, or the outermost line pattern 16C of the antenna coil 15; The shortest distance from the outermost line pattern of the antenna coil 75 is 2 cm or less or substantially 2 cm or less.
This is because the magnetic coupling efficiency decreases when these intervals are separated.

In the non-contact type data carrier device 10, the area surrounding the antenna coil 15 of the auxiliary antenna 14 has an area twice as large as the area surrounding the antenna coil 75 of the non-contact type data carrier 12.
In the auxiliary antenna 14, the antenna coil 15 and the member 17 constitute a first resonance circuit. The auxiliary antenna 14 (the first resonance circuit therein) resonates with the transmission signal from the reader / writer, amplifies the resonance signal by this resonance, and supplies it to the non-contact type data carrier 12. The auxiliary antenna 14 (the first resonance circuit in the auxiliary antenna 14) resonates with the transmission signal from the non-contact data carrier 12, amplifies the transmission signal by this resonance, and supplies the amplified transmission signal to the reader / writer. .

  The capacitance pattern 8 for adjusting the resonance frequency enables fine adjustment of the resonance frequency by adjusting the C component in the LC resonance circuit, and several capacitance patterns 8A of equal capacitance or gradually increasing / decreasing capacitance are provided. 8B,..., 8N are connected in parallel.

  The capacitance patterns 8A, 8B,... 8N and the conductive wires 9 leading to the capacitance patterns are formed on the front and back sides of the insulating substrate 11. In FIG. 3, hatched portions with diagonal lines correspond to portions where the wiring 9 or the capacitance pattern 8 is formed on the back surface of the insulating base 11 opposite to the auxiliary antenna 15. In the case of the capacitance pattern 8, conductive patterns having the same shape, the same size or substantially the same shape, and the same size are formed facing each other on the front and back of this portion.

In principle, the capacitance pattern 8 for adjusting the resonance frequency can be adjusted only to reduce the capacitance of the capacitor. However, when the lead wire that has been cut once is reconnected, the capacitance can be adjusted to increase after cutting. .
In the case of reducing the capacitor capacity, the conductor 9 is sequentially cut at the positions 9a and 9b from the tip 8A side of the capacitor pattern 8. It is not necessary to cut both the front and back conductive wires, and one of the easy conductive wires may be cut. The lead wire can be cut with a razor blade or the like. In the case of increasing the capacitance of the capacitor, it is necessary to repair by reconnecting the conductive wire once cut from the 9n side. In this case, connection by soldering or other appropriate means can be performed.

The capacitance of each capacitor pattern can be adjusted within the allowable range of the resonance frequency that can obtain the best communication state by adjusting each unit. Is preferably a value calculated in advance.
Usually, in the case of a frequency of 13.6 MHz, if the cutting at one place is an adjustment amount of 0.05 to 0.1 MHz, it will meet the purpose. In FIG. 3, four capacity adjustment patterns are shown, but the number is not limited to four.

FIG. 4 is a schematic enlarged cross-sectional view of a main part when the non-contact type data carrier device of FIG. 3 is cut in the vertical direction at a portion where the non-contact type data carrier is vertically cut.
Line patterns 16 </ b> A to 16 </ b> C are formed on the surface of the insulating base material 11, and the non-contact type data carrier 12 is fixed to the insulating base material 11 via an adhesive or glue (not shown).
The conductive patterns 8 u and 8 d of the capacitance pattern 8 are formed on both surfaces of the insulating base material 11.

FIG. 5 is an enlarged view of a main part in which both ends of the antenna coil of the auxiliary antenna and the vicinity of the capacity pattern in FIG. 3 are enlarged. As described above, the first member 17 is composed of an IC chip, a capacitor, and the like.
When the member 17 is an IC chip, a pair of electrode terminals is formed, and one electrode terminal is connected to a terminal of the innermost line pattern 16A via a bump, and the other electrode terminal Is connected to the terminal 19 guided by the wiring 13 from the outermost line pattern 16C via a bump. The member 17 is flip-chip mounted.

When the first member 17 is an IC chip, an RF circuit unit, a controller circuit unit, a memory unit, a capacitance unit, and the like are provided in the IC chip.
The wiring 13 forms a through hole in the line pattern 16 </ b> C of the antenna coil 15 and the terminal 19 so as to conduct on the back surface of the substrate. In FIG. 5, the wiring 13 seems to be formed on the surface of the antenna coil, but is assumed to be formed on the back surface of the base material.

  When the member 17 is a capacitor, the member 17 and the adjustment capacitance pattern 8 are connected in parallel, and the combined capacitance C and L by the auxiliary antenna 15 form a first resonance circuit. This has a constant resonance frequency.

  The formation of the antenna coil 15 and the capacitance pattern 8 of the non-contact type data carrier device 10 in the first embodiment is performed by laminating, for example, about 5 μm to 50 μm of aluminum foil or copper foil on the surface of the insulating base 11 described above. Alternatively, an iron foil is formed by etching using photo etching or an etching technique after resist printing. Since the capacitor pattern 8 has the same or substantially the same capacitor pattern on both surfaces, the capacitor pattern 8 is exposed on both surfaces using a photomask, and then a highly accurate capacitor pattern is formed by photoetching through a resist film. be able to.

FIG. 6 is a schematic configuration diagram showing the non-contact data carrier in FIG.
The non-contact type data carrier 12 includes a rectangular or substantially rectangular insulating base 71, an antenna coil 75, a member 78, marks 71A and 71B, and the like. The member 78 is flip-chip mounted, and is simply indicated by a rectangular frame in the drawing for easy understanding of the state of the line pattern.

  On one surface of the insulating base 71, an antenna coil 75, marks 71A and 71B, and the like are formed. The antenna coil 75 includes a line pattern 76I that circulates along the periphery on the surface of the insulating base 71.

  Marks 71A, 71B and the like are formed in the vicinity of one end 72A and the other end 72B of the antenna coil 75. In FIG. 6, the number of turns of the line pattern 76 from one end 72 </ b> A to the other end 72 </ b> B of the antenna coil 75 is six, but is not limited to six. The antenna coil 75 is, for example, a copper foil, iron foil, aluminum foil or the like having a constant or substantially constant thickness of about 5 μm to 50 μm, preferably an aluminum foil. The antenna coil 75 can be formed in the same manner as the auxiliary antenna 15.

In the non-contact type data carrier 12, the antenna coil 75 and the member 78 constitute a second resonance circuit. The resonance frequency of the second resonance circuit and the resonance frequency of the first resonance circuit are the same or substantially the same.
The member 78 is constituted by, for example, an IC chip, a capacitor, or the like, and a capacitor pattern may be formed on the IC chip.

FIG. 7 is a partially enlarged view in which the vicinity of both ends of the antenna coil in FIG. 6 is enlarged.
In the vicinity of one end 72A of the antenna coil 75, a circular mark 71A is formed by a conductor pattern.
In the vicinity of the other end 72B of the antenna coil 75, a circular mark 71B is formed by a conductor pattern.

Further, between the line patterns of the antenna coil 75, rectangular marks 73A and 73B are formed by a conductor pattern.
The marks 71A, 71B, 73A, 73B are arranged such that a straight line connecting the centers of the circular marks 71A, 71B and a straight line connecting the centers of the square marks 73A, 73B are orthogonal or substantially orthogonal. .

  In the non-contact type data carrier 12, the antenna coil 75 and the marks 71A and 71B are covered with an insulating film (insulating layer) made of an insulating resist material, and the terminals 72A and 72B and the marks 73A and 73B are exposed to form a member 78. Further, only the connection portion with the member 78 of the terminals 72A and 72B may be exposed and the other portion may be covered with an insulating film.

The circular marks 71A and 71B are used for alignment when the member 78 is flip-chip mounted. For example, when the member 78 is mounted by a mounting device such as a flip chip bonder, the marks 71A and 71B can be photographed and image processed to be mounted at an accurate position.
In mounting the member 78, one of the square marks 73A and 73B is used, and the surface electrode of the member 78 is bonded to the one mark and the terminals 72A and 72B, thereby bonding the member 78 at three points. And stability can be improved.

  FIG. 8 is a schematic configuration diagram showing a second embodiment of the non-contact type data carrier device. The non-contact type data carrier device 20 has a configuration in which a protective layer 29 is provided for the auxiliary antenna 14 in the non-contact type data carrier device 10 of FIG. In the non-contact type data carrier device 20, the same components as those of the non-contact type data carrier device 10 in FIG. 1 are denoted by substantially the same reference numerals, and the description of the same components is appropriately omitted.

The non-contact type data carrier device 20 includes an auxiliary antenna 24 and a non-contact type data carrier device 12. The non-contact type data carrier 12 installed in the non-contact type data carrier device 20 is not limited to one, and a plurality of non-contact type data carriers 12 can be installed.
The auxiliary antenna 24 includes an insulating base material 21, an antenna coil 15, a capacitance pattern 8, a member 17, a protective layer 29, and an insulating pocket 28.
The terminal of the innermost line pattern 16A and the terminal of the outermost line pattern 16C are connected to the member 17 via the wiring 13, and the resonance frequency is adjusted between the wiring 13 and the line pattern 16A. The capacitor pattern 8 and the member 17 are provided in the same manner as in the first embodiment.

FIG. 9 is a schematic enlarged cross-sectional view of a main part when the non-contact type data carrier device of FIG. 8 is cut in the vertical direction at a portion where the non-contact type data carrier is vertically cut.
The line patterns 16A to 16C on the insulating base material 21 of the auxiliary antenna 24 are covered with a protective layer 29, and the non-contact type data carrier 12 is accommodated in the pocket 28 so as to contact the surface of the insulating base material 21. ing. The pocket 28 allows the contactless data carrier 12 to be easily inserted and removed. The pocket 28 is formed by providing an opening in the protective layer 29 or the like.

The formation of the antenna coil 15 and the capacitance pattern 8 of the non-contact data carrier device 20 in the second embodiment can be manufactured under the same conditions as in the first embodiment. However, since the protective layer 29 is provided in the second embodiment, a material that is the same as or thinner than the insulating base material 21 and has a strength capable of holding the non-contact type data carrier 12 is laminated and laminated. Processing is required. As a material of the protective layer 29, polyethylene, polypropylene, PET, paper, or the like can be used.
The conductive patterns 8 u and 8 d of the capacitor pattern 8 are formed on both surfaces of the insulating base material 21.

FIG. 10 is a schematic configuration diagram showing a third embodiment of the non-contact type data carrier device. This non-contact type data carrier device 30 is formed by directly printing an auxiliary antenna 34 on an insulating substrate 31 with respect to the auxiliary antenna 14 in the non-contact type data carrier device 10 of FIG. As the insulating base 31, an insulating base such as paper or cardboard can be used. Furthermore, it can also be set as the structure which provided the protective layer 39 on the auxiliary antenna. If paper, cardboard, etc. absorb moisture, it cannot be said to be an insulating base material. Therefore, assuming that the insulating base is dry, it is still necessary to have an insulating coating on the surface. preferable.
In the non-contact data carrier device 30, the same components as those of the non-contact data carrier device 10 in FIG. 1 are denoted by the same reference numerals, and the description of the same components will be omitted as appropriate.

The non-contact type data carrier device 30 includes an auxiliary antenna 34 and the non-contact type data carrier 12. The non-contact type data carrier 12 installed in the non-contact type data carrier device 30 is not limited to one, and a plurality of non-contact type data carriers 12 can be installed.
The auxiliary antenna 34 includes an insulating base material 31 such as paper or cardboard, the antenna coil 15, the capacitance pattern 8, the member 17, a protective layer 39 as necessary, and an insulating pocket 38.

  The end portion of the outermost line pattern 16C and the connection portion of the member 17 are connected via the wiring 13, and a capacitance pattern for adjusting the resonance frequency is provided between the wiring 13 and the end portion of the line pattern 16A. 8 and the member 17 are the same as those in the first and second embodiments.

  The formation of the antenna coil 15 and the capacity pattern 8 of the non-contact data carrier device 30 in the third embodiment is performed by using a conductive material containing carbon or aluminum paste on the surface of the insulating base 31 such as paper or cardboard. The antenna coil 15 and the capacity pattern 8 are printed with the printing ink.

Since paper, cardboard, and the like are assumed to be rigid and have a certain thickness, a capacitor cannot be formed even if a capacitance pattern is formed on both sides thereof.
Then, it laminates on the surface of insulating base materials 31, such as paper and corrugated paper, and is performed by printing a conductive pattern. In this case, first, the conductive pattern 8d on the lower layer side is printed on the surface with the conductive printing ink, and then the insulating film 18 is printed with the insulating printing ink covering the entire conductive pattern, and the printing ink insulation is printed. The capacitive pattern 8 is formed by printing the conductive pattern 8u on the upper layer side with a conductive ink on the film.
The conductive wire 9 and the wiring 13 that lead to the capacitance pattern can be formed in the same manner.

FIG. 11 is a schematic enlarged cross-sectional view of a main part when the non-contact type data carrier device of FIG. 10 is cut in the vertical direction at a portion where the non-contact type data carrier is vertically cut.
The upper surface of the insulating substrate 31 of the auxiliary antenna 34 and the line patterns 16A to 16C printed on the upper surface are covered with a protective layer 39, and the non-contact type data carrier 12 is accommodated in the pocket 38. . The pocket 38 allows the contactless data carrier 12 to be easily inserted and removed.
The conductive patterns 8 u and 8 d of the capacitance pattern 8 are formed by printing through an insulating film 18.

FIG. 12 is an explanatory view illustrating a cardboard box to which the non-contact type data carrier device 20 of FIG. 10 is attached.
In FIG. 12A, the non-contact type data carrier device 20 is affixed to one side surface 44 of the four side surfaces of the cardboard box 41.
Corrugated cardboards 42 </ b> A and 42 </ b> B are folded on the upper surface of the cardboard box 41. The corrugated cardboard on the side surface 44 is adjacent to the corrugated cardboard 42A, and is parallel or substantially parallel to the gap 42C between the corrugated cardboards 42A and 42B. The corrugated cardboard on the side surface 43 is adjacent to the corrugated cardboard on the side surface 44, and is perpendicular or substantially perpendicular to the gap 42C between the corrugated cardboards 42A and 42B.

In FIG. 12B, the auxiliary antenna 34 of the non-contact type data carrier device 30 is directly printed on one side surface 53 of the four side surfaces of the cardboard box 51. The non-contact type data carrier 12 is accommodated in a pocket provided in the auxiliary antenna 34.
Corrugated cardboards 52 </ b> A and 52 </ b> B are folded on the upper surface of the cardboard box 51. The corrugated cardboard on the side surface 54 is not adjacent to the corrugated cardboard 52A, and is parallel or substantially parallel to the gap 52C between the corrugated boards 52A and 52B. The corrugated cardboard on the side surface 53 is not adjacent to the corrugated cardboard on the side surface 54, and is perpendicular or substantially perpendicular to the gap 52C between the corrugated cardboards 52A and 52B.

  FIG. 13 is an explanatory diagram illustrating a physical distribution system using a non-contact type data carrier device. The physical distribution system 50 includes a belt conveyor 55, a cardboard box 51 mounted on the belt conveyor 55, a non-contact type data carrier device 30, and a reader / writer 58 installed on a pillar 59.

A non-contact type data carrier device 30 is affixed or directly printed on the side surface of the cardboard box 51. The non-contact type data carrier device 20 may be used.
The cardboard box 51 is moved in the direction of the arrow 55A by the belt conveyor 55, and the non-contact type data carrier device 30 is moved from outside the range of the communication distance with the reader / writer 58 to within the range. Communicate.
The reader / writer 58 performs wireless communication with the non-contact type data carrier device 30, reads information such as the shipping destination of the cardboard box 51 from the non-contact type data carrier 12, and supplies the read information to a computer (not shown). When the non-contact type data carrier device 30 holds a plurality of non-contact type data carriers 12, the reader / writer identifies the necessary non-contact type data carrier by the identification code of the data carrier, and the shipping destination is determined from the data carrier alone. It is possible to acquire information of a purpose such as.

  The cardboard box 51 is further moved in the direction of the arrow 55 </ b> A by the belt conveyor 55, and the non-contact type data carrier device 30 is moved out of the communication distance range with the reader / writer 58.

In the physical distribution system 50 described above, it is necessary to bring the non-contact data carrier device 30 and the reader / writer 58 close to each other within a communication distance range.
Since the communication distance of the non-contact type data carrier device 30 is larger than the communication distance of the non-contact type data carrier 12 when the auxiliary antenna 34 is not provided, in the case of a cardboard box in which only the non-contact type data carrier 12 is attached to the side surface. In comparison, the distance between the belt conveyor 55 and the pillar 59 can be increased, and the degree of freedom of the mounting position of the cardboard box 51 can be increased.

FIG. 14 is an explanatory view illustrating a bag containing the non-contact type data carrier device of the present invention. The bag 61 accommodates the non-contact type data carrier device 20.
The non-contact type data carrier 12 in the non-contact type data carrier device 20 is used as a commuter pass.

  FIG. 15 is an explanatory diagram illustrating an automatic ticket gate system using a non-contact type data carrier device. The automatic ticket gate system 60 includes an automatic ticket gate 69 and a non-contact type data carrier device 20. The non-contact type data carrier device 20 is accommodated in a bag 61. A reader / writer 68 is installed on the side surface 66 of the automatic ticket gate 69.

The user of the automatic ticket gate system 60 brings the bag 61 close to the reader / writer 68 of the automatic ticket gate 69 when passing through the ticket gate.
The non-contact type data carrier device 20 moves from outside the range of the communication distance with the reader / writer 68 to within the range, and performs wireless communication with the reader / writer 68.
The reader / writer 68 performs wireless communication with the non-contact type data carrier device 20, reads information such as the expiry date of the commuter pass from the non-contact type data carrier 12, and the automatic ticket gate 69 is not shown based on the information. Open and close the gate. When the non-contact type data carrier device 20 holds a plurality of non-contact type data carriers 12, the reader / writer identifies the necessary non-contact type data carrier by the identification code of the data carrier 12 and is effective only from the data carrier. Information of a purpose such as a deadline is acquired.

In the automatic ticket gate system 60 described above, it is necessary to bring the non-contact type data carrier device 20 and the reader / writer 68 within the communication distance range.
Since the communication distance of the non-contact type data carrier device 20 is larger than the communication distance of the non-contact type data carrier 12 when the auxiliary antenna 24 is not provided, the distance between the non-contact type data carrier device 20 and the reader / writer 68 should be increased. The user can save the trouble of taking out the non-contact type data carrier 12 from the bag 61.

  In addition, each said embodiment is an illustration of this invention, and this invention is not limited to each said embodiment.

It is explanatory drawing which illustrates a physical distribution system. It is explanatory drawing which illustrates an automatic ticket gate system. It is a schematic block diagram which shows 1st Embodiment of a non-contact-type data carrier apparatus. FIG. 4 is a schematic enlarged cross-sectional view of a main part when the non-contact type data carrier device of FIG. 3 is cut in a longitudinal direction at a portion where the non-contact type data carrier is vertically cut. It is the principal part enlarged view to which the both ends of the antenna coil of the auxiliary antenna in FIG. 3, and the capacity pattern vicinity were expanded. It is a schematic block diagram which shows the non-contact-type data carrier in FIG. It is the elements on larger scale which expanded the vicinity of both ends of the antenna coil in FIG. It is a schematic block diagram which shows 2nd Embodiment of a non-contact-type data carrier apparatus. FIG. 9 is a schematic enlarged cross-sectional view of a main part when the non-contact type data carrier device of FIG. 8 is cut in a vertical direction at a portion where the non-contact type data carrier is vertically cut. It is a schematic block diagram which shows 3rd Embodiment of a non-contact-type data carrier apparatus. FIG. 11 is a schematic enlarged cross-sectional view of a main part when the non-contact type data carrier device of FIG. 10 is cut in a vertical direction at a portion where the non-contact type data carrier is vertically cut. It is explanatory drawing which illustrates the cardboard box which attached the non-contact-type data carrier apparatus of FIG. It is explanatory drawing which illustrates the physical distribution system using a non-contact-type data carrier apparatus. It is explanatory drawing which illustrates the bag which accommodated the non-contact-type data carrier apparatus of this invention. It is explanatory drawing which illustrates the automatic ticket gate system using a non-contact-type data carrier apparatus.

Explanation of symbols

8 Capacitance pattern 8u, 8d Conductive pattern 9 Conductor 10, 20, 30 Non-contact type data carrier device 11, 21, 31 Insulating base material (first insulating base material)
12 Non-contact type data carrier 13 Wiring 14, 24, 34 Auxiliary antenna 15 Ante coil (first antenna coil)
16A to 16C, 76I Line pattern 17 member (first member)
18 Insulating film 19 Terminal 28, 38 Pocket 29, 39 Protective layer 41, 51, 151 Corrugated cardboard box 42A, 42B, 52A, 52B Corrugated cardboard 42C, 52C Gap 43, 44, 53, 54, 66, 153 Side 50, 150 Distribution system 55,155 Belt conveyor 58,68,158,168 Reader / writer 59,159 Pillar 60,160 Automatic ticket gate system 61 Bag 69,169 Automatic ticket gate 71 Insulating base material (second insulating base material)
75 Antenna coil (second antenna coil)
78 member (second member)
112 Non-contact data carrier 167 Top surface

Claims (6)

A bag containing a non-contact type data carrier device comprising a non-contact type data carrier and an auxiliary antenna that extends the communication distance of the non-contact type data carrier,
The auxiliary antenna includes a first insulating base, a first antenna coil formed on the surface of the insulating base, and an IC chip or a capacitor connected to the first antenna coil. A first resonance circuit configured to resonate and amplify a transmission signal from a non-contact data carrier;
The non-contact type data carrier is housed in an insulating pocket formed on a first insulating base, and a second insulating base and a second insulating base formed on the surface of the second insulating base. The non-contact type data is characterized in that the second resonance circuit is configured to have a non-contact communication with the reader / writer of the automatic ticket checker via the first resonance circuit. A bag containing the carrier device. It said auxiliary first antenna coil of the antenna, bag accommodating the non-contact data carrier device according to claim 1 Symbol placement, characterized by further comprising a capacitor pattern for adjusting the resonance frequency. The area surrounded by the first antenna coil has an area that is at least twice as large as the area surrounded by the second antenna coil of the non-contact data carrier, and the innermost circumference of the first antenna coil and the outermost area of the second antenna coil. bag shortest distance, which houses the non-contact data carrier device according to claim 1 Symbol mounting, characterized in that it is a 2cm below the outer. Bag contactless data carrier device accommodating the non-contact data carrier device according to claim 1 Symbol mounting characterized in that it is a card size or business card size. The bag containing the non-contact type data carrier device according to any one of claims 1 to 4, wherein a plurality of non-contact data carrier devices are installed in the insulating pocket. An automatic ticket gate system that performs non-contact communication with a bag containing the non-contact type data carrier device according to any one of claims 1 to 5, wherein the user removes the non-contact type data carrier from the bag. An automatic ticket gate system that performs non-contact communication with a reader / writer installed on the vertical side surface of the automatic ticket gate without being taken out of the machine.

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