JP2003187213A - Method and system for inspecting and processing rf-id (radio frequency-identification) - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To enhance efficiency in a production process of an RF-ID product, to minimize facility installation and to reduce costs for maintaining the facility, etc., regarding a method and a system for inspecting and processing the RF-ID for inspecting quality of the RF-ID and for processing an inlet part of the RF-ID when the RF-ID is produced. <P>SOLUTION: The method and the system for inspecting and processing the RF-ID is constituted so that an inspection processing is performed by written information to an object inlet 12X at an inspecting position by communication and at least any of this processing, a cut processing for making the inlet 12X into a single page by a laser processing means 15 based on processing information and a printing processing to a prescribed place by the laser processing means 15 based on printing information is relation to the inlet 12X is performed in an inspection processing means 13. <P>COPYRIGHT: (C)2003,JPO

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention, when an RF-ID is manufactured, inspects whether the RF-ID is good or bad.
The present invention relates to an RF-ID inspection processing method and an inspection processing system for processing the D inlet portion.

[0002]

2. Description of the Related Art In recent years, RF-ID (Radio Fre
A technique relating to a non-contact type identification medium (a non-contact type IC card or the like) called a "Quality Identification" is rapidly advancing, and its use is also wide-ranging. For such an RF-ID, what is called an inlet having an IC module and an antenna formed on a base material is attached to a foam sheet, and a predetermined range including the inlet portion is die-cut, and then an inspection by read / write is performed. After the inspection, it is common to write predetermined data to obtain a final IC label, IC card, or the like. It is desired to improve efficiency in such a series of processes and reduce the installation of these facilities.

Conventionally, RF-ID is adopted as, for example, IC label, IC tag, IC ticket, IC.
In the manufacture of IC products such as cards, it is necessary to inspect their performance and the like, and the surface of the IC products needs to be individually processed such as half-cutting for printing and lees and perforation formation. In many cases For example, in the case of an IC label, it is generally performed in each step of attaching an RF-ID inlet to a foam substrate, die-cutting, inspecting, writing predetermined data, and printing.

[0004]

However, the above-mentioned I
As in the case of the C label example, there are problems that four types of equipment are required, the installation place is wide, and the equipment cost is high. Further, a blade die such as a Thomson blade is used in the die cutting process, but the blade die must be newly manufactured every time the product specifications are changed, and the cost becomes high,
There is a problem that adjustment and maintenance must be newly performed. Further, in the printing process, an inkjet printer is generally used, but there are problems that the cost of consumables such as ink increases and that maintenance must be performed frequently.

Therefore, the present invention has been made in view of the above problems, and an RF-ID for improving the efficiency in the manufacturing process of an RF-ID product, reducing the installation of equipment, and reducing costs such as maintenance of equipment. It is an object of the present invention to provide an inspection processing method and an inspection processing system.

[0006]

In order to solve the above problems, according to the invention of claim 1, an inlet having an IC module and an antenna is attached to a predetermined RF-ID form, and the inlet to be inspected. A method of inspecting and processing an RF-ID that causes an inspection process to determine whether the product is good or bad by performing communication according to write information, and performs a corresponding process based on process information and print information, in which the inlet to be inspected is attached. Carrying the deposited RF-ID foam to an inspection position, and causing the inlet to be inspected to perform the inspection processing by the write information at the inspection position, and the processing and the processing information. Based on the cutting process for making the inlet into a single leaf by the optical processing means, and a predetermined number based on the printing information related to the inlet. And a step of ejecting the RF-ID foam from the inspection position after each processing at the inspection position. To do.

According to a second aspect of the invention, the inspection process and at least one of the cutting process and the printing process are performed at the same time at the inspection position.

According to the third aspect of the present invention, an inlet having an IC module and an antenna is attached to a predetermined RF-ID form, and the inlet to be inspected is communicated by writing information provided or provided in advance. An RF-ID inspection / processing system that performs inspection processing to determine whether it is good or bad and performs processing corresponding to processing information or print information provided or preliminarily provided, wherein at least the inlet to be inspected is Conveying means for conveying the adhered RF-ID foam to an inspection position and discharging the RF-ID foam from the inspection position after a predetermined process at the inspection position, and the processing information and printing at the inspection position. Based on the information, a predetermined wavelength of almost a single wavelength is applied to a predetermined portion of the RF-ID foam to which the inlet is attached. Directly irradiating a beam having a coherence to cut the inlet into a single leaf, and at least one of a printing process for performing printing associated with the inlet at a predetermined position of the RF-ID form. Optical processing means for performing, a system-side antenna for communicating with the inlet, and the write information is transmitted to the inlet to be inspected via the system-side antenna and stored in the IC module of the inlet. , The stored write information transmitted from the inlet is received, and the quality of the inlet is determined by comparing it with the write information transmitted for storage, and the processing information and print information are also determined. Processing means for transmitting at least one of the above to the optical processing means.

According to the fourth and third aspects of the present invention, the optical processing means performs at least one of the cutting process and the printing process at the inspection position at the same time as the inspection process. Yes, the print information is a part or all of the write information.

As described above, the inlet to be inspected at the inspection position is subjected to the inspection processing by the writing information, and the processing and the cutting for making the inlet into a single leaf by the optical processing means based on the processing information. At least one of the processing and the printing processing by the optical processing means on the predetermined portion is performed based on the printing information related to the inlet. That is, the information to be written after the inspection is written to the inlet at the time of the inspection, and the cutting process or the printing process to be performed at another position after the inspection is performed at the inspection position, so that the efficiency in the manufacturing process of the RF-ID product is improved. In addition to the above, it is possible to reduce the cost for installation of equipment and maintenance of equipment by performing each processing at the same inspection position.

[0011]

BEST MODE FOR CARRYING OUT THE INVENTION Preferred embodiments of the present invention will be described below with reference to the drawings. In this embodiment, the electromagnetic induction type is shown as the RF-ID, but it is also applicable to the electrostatic induction type, and the RF-ID is an IC label, an IC tag, an IC ticket, an IC. There are various types of cards and the like, but here, an IC label will be described as one form.

FIG. 1 shows a block diagram of an RF-ID inspection / processing system according to the present invention. In FIG. 1, RF
-ID inspection processing system 11 is a continuous RF-ID
For each inlet 12X to be inspected in each RF-ID form of the form (described in FIG. 2), an inspection processing unit 13 which is a processing unit, a position detection unit 14, and a laser processing unit 15 which is an optical processing unit are included. The mechanical elements are shown in FIG.

The inlet 12X to be inspected is composed of an antenna 21 and an IC module 22, and the antenna 21 is a coil wound on a plane.
It plays a role of receiving a signal from the inspection processing means 13 or transmitting data from the inlet 12X to the inspection processing means 13. Further, the IC module 22 includes the processing unit 3
1, a memory 32 and a demodulation unit 33 are included.

In the IC module 22, the memory 32 is for storing various information as an IC label, for example. The demodulation unit 33 demodulates the control signal and data from the radio wave received by the antenna 21 and converts the code as appropriate. Then, the processing unit 31 performs a process of storing the received control signal and data in the memory 32 and transmitting the data stored in the memory 32 by the program.

The inspection processing means 13 comprises a control portion 41, a DB (database) 42, an inspection processing portion 43, and a data memory 44 as a processing means for determining the quality of the inlet 12X to be inspected. Power amplifier 45, modulator 46, transmitter 47, detector 48, data converter 49, transport drive controller 50, suction drive controller 5
1, interface (IF) section 52 and display means 5
3, the system-side antenna 61 and the transport drive unit 6 are provided.
2 and the suction drive unit 63 are provided as appropriate.

The control unit 41 has the inspection processing means 13
It controls the whole of, and the program according to this is set. DB42 is finally RF-ID
Write information (including print information) such as a user name associated with an ID or the like stored in the memory 32 of the IC module 22 in the inlet 12X, and a cutting process for singulating the inlet portion from the RF-ID form. The cutting position for performing the cutting, and the processing information such as the cutting form and the cutting shape are stored.

The above-mentioned write information includes both the information used only for inspection and the information finally written in the RF-ID as a product, but in this embodiment, as the final information. There is. In addition, in the present embodiment, the writing information and the processing information are stored in the DB 42 in advance. However, as a form in which the writing information and the processing information are transmitted from another device for each inspection of each RF-ID form (inlet) and provided. Good.

That is, the control unit 41 causes the DB 12 to be supplied to the inlet 12X to be inspected via the system side antenna 61.
2 sends the writing information acquired in 2 to the inlet 1
By storing in the 2X IC module (memory) 22 (32), receiving the stored write information transmitted from the inlet 12X, and comparing it with the write information transmitted for storing. The inspection processing unit 43 performs inspection processing for determining the quality of the inlet, and D
At least one (both in the present embodiment) of the processing information and the printing information (a part or all of the writing information) acquired from B42 is transmitted to the laser processing means 15.

The inspection processing section 43 carries out the above-described inspection processing (good / bad judgment) on the inlet 12X by an inspection routine by a program. The data memory 44
Mainly stores various setting data for communication, and stores a temporary storage area (a buffer which may be provided in the inspection processing unit 43) for inspection determination and a determination result as appropriate. It also serves as a storage area.

The data conversion unit 49 converts information when transmitting information to the inlet 12X to be inspected into, for example, "1" or "0", and also the inlet 12X.
The transmission data from is converted into, for example, "1" and "0".
The modulator 46 uses the information converted by the data converter 49 based on the transmission output from the transmitter 47, for example, FS.
Modulates to K (frequency shift keying) modulated wave. The power amplifier 45 power-amplifies the modulated wave modulated by the modulator 46, and the amplified modulated wave is transmitted from the system side antenna 61. Then, the detection unit 48 detects and demodulates the transmission radio wave from the inlet 12X received by the system side antenna 61.

On the other hand, the transfer drive control unit 50 generates a control signal for driving a winder, an unwinder, etc. (not shown) which is transferred to sequentially inspect the inlet 12X, based on a command from the control unit 41, and the IF unit. It is sent to the conveyance drive unit 62 via 52. The suction drive control means 51 generates a control signal for driving a suction means (84 in FIG. 5) described later based on a command from the control section 41 and sends it to the suction drive section 63 via the IF section 52. .

Further, the IF unit 52 has a position detecting unit 1 which will be described later.
The position detection signal from 4 is input, and this signal is sent to the control unit 41. Then, via the IF section 52, the control section 41 transmits to the laser processing means 15 the print information associated with the inlet 12X based on the write information transmitted to the corresponding inlet 12X, and also from the DB 42. The acquired processing information is transmitted. The display means 53 displays the result of the inspection process as a whole or individually.

The position detecting section 14 is an RF-device to be inspected.
A sensor that detects that the inlet 12X of the ID form has been conveyed and has reached the inspection position, and the position of the timing mark for detecting the position formed on the RF-ID form (inlet), the corresponding material, etc. Is used. For example, as shown in FIG. 2 described later, when the timing mark is invisible and made of a metal material, a proximity sensor is used as the position detecting unit. The proximity sensor can be used even if it is visible or if the timing mark is formed of a metal material.
Further, when the timing mark is formed invisible, a transmissive optical sensor can be used regardless of the forming material, and a reflective optical sensor can be used if visible. is there.

The laser processing means 15 is based on the transmitted processing information and printing information, and the corresponding inlet 1
By appropriately scanning a predetermined portion of the RF-ID foam to which 2X is attached and directly irradiating it with a laser beam, a cutting process for making the inlet 12X into a single leaf, and a predetermined portion of the RF-ID foam. The printing process is performed to perform printing associated with the inlet 12X. In addition, as the optical processing means, in the present embodiment, the case of performing processing by laser light is shown.
The beam light is not limited to this and may be any beam that can be processed by scraping off paper, film, resin, or the like, and the beam light is a light beam having a substantially single wavelength coherence property. Further, in this embodiment,
Although the case of one laser processing means 15 is shown, two laser processing means may be arranged so that the cutting process and the printing process are performed separately.

Here, FIG. 2 shows an explanatory view of the RF-ID form to be inspected and processed in the inspection processing system according to the present invention. 2A and 2B show, for example, a continuous RF-ID form 71 for producing an IC label, and an inlet sheet (simply as an inlet and an inlet) is provided on a predetermined portion of a first tack paper 72 such as paper. 12A is attached, and the second tack paper 73 is attached so as to cover the entire surface. Further, a release paper 75 is provided on the back surface of the inlet sticking surface of the first tack paper 72 with an adhesive 74 applied. This continuous RF-ID form 71 is
For example, it is supplied from a roll-shaped or Z-folded state and is wound or Z-folded. Although the present embodiment shows the case where the RF-ID forms are continuous, they may be sequentially supplied as the RF-ID forms of each single leaf.

Then, in the area other than the inlet sticking area of the RF-ID form 71, in the area 76 where the cutting process is planned, the IC module related information (printing information) such as ID and name is printed by the laser processing. It is printed by the means 15. This area 76 is the above-mentioned D
It is determined by the processing information stored in B42,
For example, the cut position is specified by the size as a label that encloses the inlet 12A, the cut form is specified as continuous cut (half cut, full cut), perforated cut, etc., and the cut shape is quadrangular, circular, heart-shaped. Various shapes such as the shape are designated.

FIG. 2C shows an inlet 12A. The inlet 12A has an antenna 21 formed by a coil on one surface and a timing mark 23 formed inside the antenna 21. The IC module 22 is electrically connected to and mounted on both ends of the antenna 21. For example, an antenna 21 and a timing mark 23 are formed by screen printing or the like on one surface of an opaque member such as an opaque film or paper or a transparent member such as a transparent film, and then the IC module 22 is mounted as described above. Is.

Then, an adhesive or the like is applied to the surface of the inlet 12A on which the IC module 22 is formed, and the surface shown in FIG.
As shown in FIG. 7, the sheet is attached to a predetermined portion of the corresponding individual RF-ID foam on a continuous foam sheet (first tack paper 72). The timing mark for position detection may be formed in a predetermined portion (regardless of the range of the cut area 76) on the surface of the second tack paper 73, and a marginal portion is formed in the RF-ID form. When it is made to form, you may form in the said marginal part.

Next, FIG. 3 is an explanatory perspective view of the components for performing inspection and processing in the inspection processing system according to the present invention, and FIG. 4 is an explanatory view of the processing stage and suction means of FIG. In FIG. 3, a stage 81 serving as an inspection position and a processing position (printing position) is arranged, and the position detection unit 14 and the laser processing means 15 are arranged above a portion of the stage 81 where the inlet 12A is located. It As shown in FIGS. 3 and 4, the stage 81 is on the surface of the inlet 81.
An opening 82 is formed in a portion where at least 2A is located, and a predetermined number of suction holes 83 are formed in a portion other than the opening 82.

The inside of the stage 81 is a space region, and the system side antenna 61 is arranged below the formed opening 83 with a predetermined depth. The predetermined depth means a communicable distance defined for the inlet 12X located on the opening 83 (this distance is also an inspection item).
Is. In this case, by moving the system-side antenna 61 up and down with respect to the inlet 12X, it is possible to inspect and judge whether the inlet 12X is good or defective from the communicable distance.

A suction means 84 is provided on the stage 81, and at least the RF-ID foam on the stage 12 at the time of laser beam irradiation is sucked and fixed through the suction holes 83, so that laser processing or laser processing is performed. This is for preventing the RF-ID form from being displaced during printing. In this case, the suction holes 83 are arranged so that the suctioned RF-ID foam does not undulate in each suction hole 83.
The suction force is appropriately adjusted according to the diameter of the sheet, the thickness of the sheet (workpiece), the hardness, and the like. Further, the suction mechanism 84 also plays a role of discharging smoke generated during laser beam irradiation. In addition, the RF-ID in which the inspection processing objects are continuous
When each RF-ID foam is a single leaf instead of the foam 71, for example, a belt transport unit is provided before and after the transport direction with respect to the stage 81 to transport each RF-ID foam.

Therefore, FIG. 5 shows an explanatory view of a state during inspection and processing in the inspection processing system according to the present invention. Figure 5
In the above system, when the continuous RF-ID foam 71 to which the inlet 12A is attached as described above is transported and the inlet 12X in the RF-ID foam to be inspected is positioned at the inspection position on the stage 81. At the same time as the inspection process is performed by transmitting the write information from the side antenna 61 to the inlet 12X,
When the laser processing means 15 directly irradiates the laser beam 15A, for example, the ID number 9 based on the print information.
The printing process of printing 0 is performed, and the cutting process of forming the cut portion 76A along the cut area 76 is performed based on the cut information.

Here, FIG. 6 shows an explanatory view of a cutting process at the time of processing in the inspection processing system according to the present invention. FIG. 6A shows a case where the laser beam 15A is used for half-cutting, and the first and second tack papers 7 are formed.
2, 73 and adhesive 74 are cut, that is, release paper 7
Laser beam 15A so as to cut to the upper surface of 5
The focus of is adjusted. FIG. 6B shows a case where full cutting is performed by the laser beam 15A in the case where the single-leaf RF-ID foam is the inspection processing target as described above, and the first and second tack papers 72, This is a case where all of 73, the adhesive 74, and the release paper 75 are cut, and the focus of the laser beam 15A is adjusted for full cutting. It is needless to say that the half cut may be performed even when a single-leaf RF-ID foam is used as an inspection target.

Further, FIG. 7 shows an explanatory view of a printing process at the time of inspection and processing in the inspection processing system according to the present invention.
7A to 7D show that the RF-ID foam to be inspected and processed can be applied to both continuous and single RF-ID foams. FIG. 7 (A) shows that the second tack paper 73 is directly irradiated with the laser beam 15A to penetrate the second tack paper 73.
It shows a case where the print information 91 such as the D number is printed. In this case, the printing information 91 can be highlighted by making the first tack paper 72 and the second tack paper 73 different in color.

Further, when the printing process is sequentially performed from the cutting process by the laser beam 15A, the focus in the cutting process and the focus of the printing process may be set differently, and if the irradiation energy is different in each process. However, the print resolution is increased in the case of focus adjustment. In the figure, as a method of making the irradiation energy different, the irradiation energy at the time of printing processing is weakened. This also applies to FIGS. 7B and 7D.

In FIG. 7B, the second tack paper 7 is preliminarily set in the area for printing the print information on the second tack paper 73.
An ink 92 having a color different from that of No. 3 is formed by printing or the like, and the laser beam 15A is directly irradiated to the ink 9 concerned.
The case where the print information 92A such as an ID number is formed by scraping off 2 is shown.

In FIG. 7C, the laser beam 15A is directly irradiated to penetrate all of the first and second tack papers 72 and 73, the adhesive 74 and the release paper 75 to print an ID number or the like. The case where the information 91 is formed is shown.
In this case, when combining the half cuts of FIG. 6A, the focus of the laser beam 15A is changed or the irradiation energy is adjusted to be stronger than that of the cutting process.

Then, FIG. 7 (D) shows a second sheet of thermal paper.
This is a case where the tack paper 73A is configured, and the case where the print information 93 such as the ID number is formed by directly irradiating the laser beam 15A and making it thermally sensitive is shown.

Therefore, FIG. 8 shows a processing flowchart of the inspection and processing of the inspection processing system according to the present invention. Figure 8
First, the RF-ID forms 7 are sequentially supplied.
Based on a command from the control unit 41, the transport drive control unit 50 outputs the drive amount for transporting the RF-ID foam (inlet 12X) to be inspected in 1 to the transport drive unit 62 via the IF unit 52 ( Step (S) 1).

The inlet 1 to be inspected by the position detector 14
When the 2X timing mark 23 is detected, the control unit 41 stops the conveyance via the conveyance drive control unit 50 and the conveyance drive unit 62, and the suction drive control unit 51 and the suction drive unit based on the command from the control unit 41. The RF-ID foam on the stage 81 is suction-fixed by the suction means 85 via 63 (S2).

Therefore, the transmission data (writing information such as identification information) for the inspection target is acquired from the DB 42, and the inspection target is sent via the data conversion unit 49, the modulation unit 46, the power amplification unit 45, and the system side antenna 61. While transmitting to the inlet 12X, the print information of a part or all (here, the ID number) of the write information and the processing information acquired from the DB 42 are transmitted to the laser processing means 15 (S).
3).

When there is a response from the inlet 12X (the writing information stored in the inlet 12X is transmitted as it is), the writing information is received and the inspection processing section 43 is received.
In step S4, the transmission data and the reception data are matched. On the other hand, the laser processing means 15 prints an ID number or the like on the basis of the received print information, and performs a cutting process on the basis of the processing information (S5).

Returning to the inspection processing, the result of the above matching (S6), when they match, it is judged as a non-defective product (S6).
7). On the other hand, in the matching result (S6), if they do not match, it is determined that the product is defective (S8). In addition, the above S4
If there is no response in step S3, it is determined that the IC module 14 is defective and the inlet 12X is defective (S).
8). Then, these determination results are stored in the data memory 44 (S9). Then, when the inspection process is completed and the printing process and the processing process are completed, the transport drive control unit 50
Then, continuous conveyance of the RF-ID foam 71 is started via the conveyance drive unit 62 (S10).

Then, the next inlet 12X to be inspected
When the position detection unit 14 detects (S11), S2 to S9 are repeated for the inlet 12X to store the determination result in the data memory 44 (S9), and the continuous conveyance of the RF-ID foam 71 is performed. Start (S1
0). When the next inlet 12X to be inspected is not detected, the inspection and inspection processing of all inlets 12X to be inspected, the printing and cutting processes are completed, and the quality of the inspection result is stored in the data memory 44. All RF
-The ID form 71 is discharged and the transportation is completed (S
12).

Therefore, the inspection result is appropriately displayed on the display section 53 (S13). The inspection results are displayed for each inlet 12X or a predetermined number of inlets 1X.
You may perform it for every 2X inspection result. Even if the inlet 12X to be inspected is a defective product, the ID number or the like is printed. Therefore, when displaying the inspection result, the defective inlet 12X can be specified by associating the print information with the inspection result. It is possible.

As described above, since the optical processing means, such as the laser processing means 15, performs non-contact printing and cutting, the yield can be improved without damaging the IC module in the inlet 12A at that time. ,
Since the cutting die does not use the conventional cutting die, variable machining can be performed on demand, and the manufacturing cost of the cutting die and the manufacturing time can be saved. Further, since the ink jet printer as used in the printing process is not used, consumables such as ink are not required and the maintenance can be performed. Further, since the writing information and the printing information are printed at the same position and at the same time during the inspection, it is possible to prevent the information unmatching. That is, the information to be written after the inspection is written to the inlet at the time of the inspection, and the cutting process and the printing process are performed at the inspection position at the same time, so that the efficiency in the manufacturing process of the RF-ID product can be improved. At the same time, by performing each process at the same inspection position, it is possible to reduce the installation of equipment and reduce costs such as maintenance of equipment.

In the above embodiment, one form of the IC label is shown, but as described above, the IC label, the IC tag,
It can also be applied to various RF-IDs such as IC tickets and IC cards. If the RF-ID product is not adhered later, the adhesive 74 and the release paper 75 as shown in FIG. 2 are unnecessary. It will be.

[0048]

As described above, according to the present invention, the inlet of the inspection target at the inspection position is subjected to the inspection processing by the write information, and the optical processing means performs the processing based on this processing and the processing information. By performing at least one of the cutting process for making the inlet a single leaf and the printing process by the optical processing means to the predetermined location based on the printing information related to the inlet, that is, at each of the same positions. RF-ID by performing processing
It is possible to improve the efficiency in the manufacturing process of the product, reduce the installation of equipment, and reduce costs such as maintenance of equipment.

[Brief description of drawings]

FIG. 1 is a block configuration diagram of an RF-ID inspection processing system according to the present invention.

FIG. 2 is an inspection in the inspection processing system according to the present invention,
It is explanatory drawing of RF-ID form of a process target.

FIG. 3 is an inspection in the inspection processing system according to the present invention,
It is an explanatory perspective view of a constituent part which processes.

FIG. 4 is an explanatory diagram of a processing stage and suction means of FIG.

FIG. 5 is an inspection in the inspection processing system according to the present invention,
It is explanatory drawing of the state at the time of processing.

FIG. 6 is an explanatory diagram of a cutting process during processing in the inspection processing system according to the present invention.

FIG. 7 is an inspection in the inspection processing system according to the present invention,
FIG. 9 is an explanatory diagram of a printing process during processing.

FIG. 8 is a processing flowchart of inspection and processing of the inspection processing system according to the present invention.

[Explanation of symbols]

11 RF-ID inspection processing system 12 inlets (RF-ID) 13 Inspection processing means 14 Position detector 15 Laser processing means 21 antenna 61 System side antenna 71 RF-ID form 81 stages 84 suction means

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Claims (5)

[Claims] 1. An inlet having an IC module and an antenna is attached to a predetermined RF-ID form,
An inspection / processing method of RF-ID for causing an inlet of an inspection object to perform communication processing according to write information to perform inspection processing for determining pass / fail, and to perform corresponding processing based on processing information and print information. RF-ID to which the inlet of
Transporting the foam to an inspection position, and causing the inlet to be inspected to perform the inspection processing with the writing information at the inspection position, and the optical processing means based on this processing and the processing information. A cutting process for making the inlet a single leaf,
And a step of performing at least one of printing processing by the optical processing means on a predetermined location based on the printing information related to the inlet, and after each processing at the inspection position, the RF-ID form is displayed. And a step of ejecting from the inspection position. 2. The RF-ID inspection processing method according to claim 1, wherein the inspection process and at least one of the cutting process and the printing process are performed at the same time at the inspection position. An RF-ID inspection / processing method characterized by the above. 3. A predetermined RF-ID form to which an IC module and an inlet having an antenna are attached,
RF that communicates with the inlet to be inspected based on the write information provided or provided in advance to perform an inspection process to determine pass / fail, and also performs a corresponding process based on the provided or previously provided processing information and print information -ID
In the inspection processing system, at least the RF-ID form having the inlet to be inspected attached is conveyed to an inspection position, and the RF-ID form is moved from the inspection position after a predetermined process at the inspection position. RF-I to which the corresponding inlet is attached, based on the processing information and the printing information, at the transporting means for discharging and the inspection position.
By directly irradiating a predetermined portion of the D-form with a beam having a coherence property of substantially a single wavelength, a cutting process for making the inlet a single leaf, and the RF-I
Optical processing means for performing at least one of printing processing for performing printing associated with the inlet at a predetermined position of the D-form, a system-side antenna for communicating with the inlet, and the inlet to be inspected The write information via the system-side antenna to be stored in the IC module of the inlet, and the stored write information transmitted from the inlet is received and transmitted for storing. RF-ID comprising: a processing unit for making a quality decision of the inlet by comparing it with the written information and transmitting at least one of the processing information and the printing information to the optical processing unit. Inspection processing system. 4. The RF-ID inspection processing system according to claim 3, wherein the optical processing means is at the inspection position, at the same time as the inspection processing, at least one of the cutting processing and the printing processing. An RF-ID inspection / processing system characterized by performing the above process. 5. The RF-ID inspection / processing system according to claim 3 or 4, wherein the print information is part or all of the write information. system.