KR100907159B1 - RFID based quantitative work processing and real-time monitoring system and method - Google Patents

Abstract

The present invention is to provide a RFID-based quantitative work processing and real-time monitoring system and method thereof, comprising a RFID reader installed in a crane, RFID tags installed in a transport vehicle and a container, the quantitative worker A quantitative workshop, comprising: a smart device for managing and monitoring the work results in real time, transmitting sensing information of the RFID tag to the quantitative management room, and allowing a worker to monitor the work results in real time; Receive the sensing information of the RFID tag at the quantitative workshop and receive the EPC code information and perform the quantitative management to perform real-time management monitoring of the quantitative loading, and to the shipper and shipper via the Internet A quantitative management office which performs real-time information transmission; And a wireless AP for wireless communication between the smart device in the quantitative workshop and the quantitative management room. The quantitative management efficiency between gantry cranes, containers, and ships using RFID-based technology. It is possible to automatically identify the container, identify the location, verify, and manage it by comparing the tag information sensed by the RFID reader with the quantitative loading information through the EPC network.

 RFID, quantitative, real-time monitoring, EPCIS, loading, unloading

Description

RFID based quantitative job processing and real time monitoring system and method thereof {System and method for load and unload job processing and realtime monitoring based on RFID}

The present invention relates to a quantitative loading process, and in particular, the quantitative loading between a gantry crane (G / C), a container (CNTR) and a vessel using a RFID (Radio Frequency IDentification) based technology. Maximizes management efficiency and automatically identifies and locates containers by comparing tag information sensed by RFID readers with quantitative loading information through EPC (Electronic Product Code) networks The present invention relates to an RFID-based quantitative work processing and real-time monitoring system and method thereof suitable for verifying and managing the same.

Generally speaking, this term refers to the combination of loading and unloading loads.

Therefore, in order to know the details of unloaded cargo, a copy of Bill of Lading (Cargo) or Cargo Manifest must be received from the place of shipment after the ship departs and GSP ( Receive the General Stowage Plan by fax or e-mail from the port of shipment, and send it to the input and customs offices according to the EDI (Electronic Data Interchange) system. It must be collected correctly by forwarding between shipper and shipper or shipper. In addition, dangerous goods should be reported to the Port Authority (before arrival) when loading dangerous goods. After the report is made to each office, the cargo will be shipped according to the scheduled procedure after entering the vessel. At this time, the shipping company must make a BANK L / G (Letter of Guarantee) or OB / L (ocean B / L, Ocean bill of lading) and D / O (Delivery Order) must be issued for a certain fee.

In addition, in case of loading, it is necessary to know the details of the cargo to be shipped. Therefore, it is necessary to receive the cargo related documents such as export declaration and packing list from the shipper or forwarder. In the case of general cargo ships or bulk carriers, the manifest is to be prepared and M / R (Mate's Receipt) prepared. However, in the case of container ships, if the container itself is not severely damaged, only the container number list can be delivered. After receiving the M / R (Main Player Certificate) from the ship, the captain's stamp and signature are confirmed and received, and the B / L (bill of lading) is prepared based on the M / R. The shipping company will forward the B / L to the consignee after receiving the freight.

When performing such a quantitatively, there was a limit in the prior art that the quantitative work management between the gantry crane and the container and the ship was not smoothly performed.

Therefore, the present invention has been proposed to solve the conventional problems as described above, and an object of the present invention is to maximize the efficiency of the quantitative management work performed between the gantry crane, the container and the ship by using RFID-based technology and RFID reader It provides RFID-based quantitative loading processing and real-time monitoring system and method for automatically identifying, locating, verifying and managing containers by comparing the tag information sensed with the quantitative loading information through EPC network. have.

1 is a conceptual diagram of an RFID-based quantitative work processing and real-time monitoring system according to an embodiment of the present invention, Figure 2 is a detailed conceptual view of the quantitative workshop in FIG.

As shown therein, it is provided with an RFID reader 150 installed in the crane, and equipped with the RFID tag 160 installed in the transport vehicle 130 and the container 110, the quantitative worker manages the quantitative work and real-time And a smart device 170 capable of monitoring a work result, and transmitting sensing information of the RFID tag 160 to the quantitative management room 200, and the worker monitors the work result in real time. A quantitative workshop 100 capable of doing; Receiving the sensing information of the RFID tag 160 in the quantitative work place 100 is transmitted as EPC code information and performs the quantitative management to perform real-time management monitoring of the quantitative loading, 300 through the Internet And a quantitative management room 200 for performing real-time information transmission on the quantitative management information to the shipper 400; And a wireless AP (access point) 300 for performing wireless communication between the smart device 170 and the quantitative management room 200 in the quantitative workplace 100. .

The quantitative management room 200 receives the data generated in real time from the RFID tag 160 through the RFID reader 150, filters and summarizes the information, and transmits the information to the EPCIS 110. Middleware 210 for storing the data of the 160 for a predetermined period of time and providing the stored information when receiving the request for providing the data stored in the external application (Application); EPCIS (Electronic Product Code Information Service) which transmits the middleware 210 and EPC code information and allows the manufacturers given the EPC code to contain detailed information about the products produced by the company. 220); Receives EPC code information about the container 110 through the EPCIS 220, compares the information of the RFID tag 160 with the quantitatively scheduled information, stores and manages the result information, and processes the work processing results in real time. A quantitative management system 230 for performing; And a real time management monitoring unit 240 connected to the quantitative management system 230 to perform real time management monitoring on the quantitative loading.

3 is a detailed block diagram of the quantitative management system in FIG.

As shown here, the quantitative management system 230 includes a control unit 231 for controlling the operation of the quantitative management system 230; A quantitative result information generator 232 which is controlled by the controller 231 and generates quantitative result information for the container 110; A quantitative performance inquiry unit 233 which is controlled by the control unit 231 and processes so that the quantitative performance can be inquired; A quantitative schedule information inquiry unit 234 which is controlled by the controller 231 and processes the quantitative schedule information to be queried; And a work order sending unit 235 under the control of the control unit 231 and processing the work order for quantitative loading to be transmitted.

4 is a flowchart and a conceptual view illustrating a RFID-based quantitative work processing and a real-time monitoring method according to an embodiment of the present invention.

As shown here, when the RFID reader 150 installed in the gantry crane 140 recognizes the RFID tag 160 attached to the transportation vehicle 130 and the container 110, the recognized RFID tag is recognized. A first step (ST1, ST2) of transmitting information to the RFID middleware (210) and transmitting detailed information of the container (110) from the EPCIS (220) to the quantitative loading management system (230); After the first step, the quantitative management system 230 checks whether the quantitatively scheduled information previously received and the RFID tag information transmitted from the EPCIS 220 match (ST3); A third step (ST4, ST5) of storing the work result in the unloading management system 230 when the unloading work of the container 110 according to the unloading work instruction is performed after the second step; After the third step, the loading and unloading management system includes a fourth step (ST6) to perform history management and import and export management through the stored loading and unloading job information.

FIG. 5 is a flowchart illustrating an operation of a quantitative result information generating unit of the quantitative management system after performing FIG. 4.

As shown in the figure, the RFID-based quantitative work processing and real-time monitoring method, when the request for generating the quantitative loading result information after the fourth step, the crane driver registers the work results on the loading / unloading result information screen, the result information An eleventh step (ST11, ST12) for transmitting the registered work result information to the management means; A twelfth step (ST13 to ST16) of storing the work result information after the eleventh step in the loading / unloading result information means and transmitting the work result storing state to the loading / unloading result information screen through the result information management means; A thirteenth step (ST17, ST18) for transmitting the work result information to the smart device 170 of the underman through the loading / unloading result information screen after the twelfth step so that the underman can check the work result; It is characterized by performing.

FIG. 6 is a flowchart illustrating an operation of a quantitative performance inquiry unit of the quantitative management system after performing FIG. 4.

As shown in the figure, the RFID-based quantitative work processing and real-time monitoring method, when the quantitative loading results after the fourth step, when the underman enters the inquiry item information on the loading / unloading performance inquiry screen, loading / unloading A twenty-first step (ST21, ST22) of transmitting the inquiry information to the performance management means; After the twenty-first step, the loading / unloading performance management means is a twenty-second step (ST23 ~ ST25) to receive the loading / unloading performance information retrieved by searching the loading / unloading performance information means; The twenty-third step after the twenty-second step, the loading / unloading performance management means transmits the loading / unloading performance inquiry information through the loading / unloading performance inquiry screen so that the underman can check the performance inquiry information (ST26 to ST28); It characterized in that to perform including.

FIG. 7 is a flowchart illustrating an operation of a quantitative loading information inquiry unit of the quantitative loading management system after performing FIG. 4.

As shown in the figure, when the RFID-based quantitative loading processing and real-time monitoring method, when the quantitative loading information inquiry after the fourth step, underman enters the schedule information inquiry item on the loading / loading schedule information inquiry screen, A thirty-first step (ST31, ST32) of transmitting scheduled information inquiry information to the loading / unloading scheduled information management means; After the thirty-first step, the loading / unloading schedule information management means comprises: a thirty-second step (ST33 to ST35) of receiving the scheduled information by querying the scheduled information inquiry information to the loading / unloading schedule information means; After the thirty-second step, the loading / unloading schedule information management means transmits the schedule information through the loading / loading schedule information inquiry screen to allow the underman to check the schedule information (ST36 to ST38); It is characterized by performing.

FIG. 8 is a flowchart illustrating an operation of a work instruction transmitter of the quantitative management system after performing FIG. 4.

As shown in the figure, the RFID-based quantitative work processing and real-time monitoring method, when performing the work order transmission after the fourth step, if the underman enters the work order items on the loading / unloading work order screen loading / unloading work A forty-first step (ST41, ST42) for transmitting work instruction information to the instruction management means; After the forty-first step, the loading / unloading work order managing means stores the work order information as the loading / unloading work order information means and receives the work order information (ST43 to ST45); The loading / unloading work order management means transmits the work order information to the loading / unloading work order screen, sends the work order to the crane driver so that the crane engineer can check the work order information, and the loading / unloading work order screen In step 43, ST46 to ST50 for outputting the work order information to the underman so that the underman can check the work order information.

RFID-based quantitative work processing and real-time monitoring system and method according to the present invention maximizes the efficiency of quantitative management work between gantry crane, container and ship by using RFID-based technology and tag information sensed by RFID reader and Compared with the quantitative loading information through the EPC network, it can automatically identify the container, determine the location, verify and manage it.

Therefore, the present invention can provide a real-time information inquiry based on the EPC network, can use the information utilization system of the EPC network, it is possible to work efficiency by providing a universal quantitative operation system.

In addition, the present invention can efficiently identify the location information of the container / vehicle, can reduce the waiting time of the transport vehicle, it becomes possible to efficiently manage the terminal.

In addition, the present invention is able to minimize the input data and reduce the lead time of the cargo by utilizing real-time information sharing.

In addition, according to the present invention, in the economic and industrial aspects, it is possible to reduce the logistics cost by speedy and accurate cargo handling through real-time information sharing, increase the cargo handling rate per crane unit, and activate the marine logistics IT industry. Will be.

A preferred embodiment of the RFID-based quantitative work processing and real-time monitoring system and method thereof according to the present invention configured as described above will be described in detail with reference to the accompanying drawings. In the following description of the present invention, detailed descriptions of well-known functions or configurations will be omitted if it is determined that the detailed description of the present invention may unnecessarily obscure the subject matter of the present invention. In addition, terms to be described below are terms defined in consideration of functions in the present invention, which may vary according to intention or precedent of a user or an operator, and thus, the meaning of each term should be interpreted based on the contents throughout the present specification. will be.

First, the present invention maximizes the efficiency of the quantitative management work between the gantry crane, the container and the ship by using the RFID-based technology, and automatically compares the tag information sensed by the RFID reader with the quantitative loading information through the EPC network. The purpose is to identify the location, determine the location, and verify and manage it.

1 is a conceptual diagram of an RFID-based quantitative work processing and real-time monitoring system according to an embodiment of the present invention, Figure 2 is a detailed conceptual view of the quantitative workshop in FIG.

So, in the quantitative work place 100, the RFID reader 150 is installed in the crane 140, and the RFID tag 160 is installed in the container 110 and the transport vehicle 130. At the time of loading, the crane 140 operates so that the container 110 in the ship 120 is loaded into the transport vehicle 130, and when loaded, the container 110 of the transport vehicle 130 is loaded into the ship 120. The crane 140 operates so as to operate.

Here, RFID is a field of automatic recognition, such as a barcode and a magnetic, and is a technology for wirelessly recognizing information recorded by using microwave or long wave by attaching the RFID tag 160 to a target using radio frequency. Therefore, the antenna and the RFID tag 160 stores the information suitable for the purpose of use, attaches it to the application target, and recognizes the information through the RFID reader 150.

In addition, the RFID tag 160 is a tag attached to a product or an object instead of a conventional barcode and refers to a small chip containing various types of information of the object. This information can be used in the management system in conjunction with a variety of communication lines, such as satellite communication as well as wired through the RFID reader 150. The RFID tag 160 has an IC chip and an antenna, and the storage device in the chip stores a place for storing an ID code and other data, and receives a signal from the RFID reader 150 to send data in the tag. There is a memory for. The storage capacity of tags is usually around 8bits to 16kbits.

The RFID reader 150 transmits sensing information on the RFID tag 160 to the RFID middleware 210 of the quantitative management room 200. In addition, the RFID reader 150 reads the information of the RFID tag 160 and transmits the EPC information to the RFID middleware 210. In addition, the RFID tags 160 serve to make the plurality of tags 160 recognizable while they are within the recognition distance, and include an antenna, a controller, and the like.

In addition, the quantitative worker's smart device 170 receives the quantitative work instruction and the work processing result from the quantitative management system 230 of the quantitative management room 200 through the wireless AP 300. In addition, the quantitative worker can perform real-time management of the quantitative loading by receiving the real-time work results from the quantitative management system 230 of the quantitative management room 200 through the wireless AP 300 using the smart device 170. have.

In addition, the quantitative management room 200 may be configured by the RFID middleware 210, EPCIS 220, quantitative management system real-time management monitoring unit 240.

Therefore, the RFID middleware 210 receives the data generated in real time from the RFID tag 160 through the RFID reader 150, filters and summarizes the information, transmits the information to the EPCIS 110, and transmits the data of the RFID tag 160. It keeps it for a certain period of time and provides the stored information when it receives a request for providing the data from an external application. In addition, the RFID middleware 210 collects, filters, and groups recognized raw tag data.

The EPCIS 220 transmits the middleware 210 and the EPC code information, and allows the manufacturers given the EPC code to contain detailed information about the products produced by the EPCIS. Thus, EPCIS 210 allows information to be shared so that business (transaction) partners can obtain data about objects or transactions that originate from objects (commodities, boxes, pallets, etc.) that are not directly controlled, EPCIS data consists of static and dynamic information. In addition, the EPCIS 210 manages the product information and provides it by displaying it in a physical markup language (PML) when there is a request for providing the information. The EPCIS 210 serves as a gateway of the EPC global network. Receives a tag event from the RFID middleware 210, generates track & trace events based on the information generated from the RFID middleware 210, and stores it in a local data store for future use. EPCIS 210 also acts as a hub for integrating information about a given EPC. In addition, the EPCIS 210 operates as a background service, and communication with an external application may be performed using a socket. Sockets allow you to access services regardless of the language or platform, and multiple connections are possible because the service requests from your applications are synchronized using queues.

The EPC (Electronic Product Code) is a network standard code for utilizing RFID (Radio Frequency IDentification) technology based on the Internet. RFID tags store only minimal information such as product identification codes (EPC codes), and detailed information about products is retrieved through the Internet.

There are also several EPC codes, but the most widely known 96-bit code (General IDentifier-96, GID). The EPC-96 code is represented in 96 binary numbers as shown in FIG. 6, the version (Header: 8-bit header), the manager (EPC Manager: 38-bit company code), the product class (Object Class: 24-bit product code), It can be configured as a serial number (36 bits).

Header: H1 H2

The header defines the total length of the EPC code, the identification code format and the filter value. The header has a variable length value. Currently, two and eight bit headers are defined. The 2-bit header has three values (01, 10, 11), and the 8-bit header has 63 values. The header serves to help the RFID reader 150 to easily determine the length of the tag.

-Company Code (EPC Manager): M1 M2 M3 M4 M5 M6 M7

Corresponds to the business code of the EAN (European Article Number) barcode and is assigned by EAN member organizations of each country. With 28 bits of capacity, approximately 260 million company codes can be allocated by combining seven numbers (0 to 9) and letters (A to F).

-Product Code (Object Class): O1 O2 O3 O4 O5 O6

Corresponds to the item code of the barcode and assigned by the user. With 24 bits of capacity, you can code about 16 million products by combining six numbers and letters.

-Serial Number: S1 S2 S3 S4 S5 S6 S7 S8 S9

A unique identification number assigned to the same product and assigned by the user. With 36 bits, 8 numbers and letters can be combined to code 68 billion products.

Unlike conventional bar code numbers, these EPCs have serial numbers that can individually identify all individuals, even for the same product. In addition, EPC technology captures goods tracking and goods movement very accurately, improves supply chain visibility, and improves data collection and processing efficiency.

Meanwhile, the quantitative loading management system 230 receives the EPC code information about the container 110 through the EPCIS 220, compares the information of the RFID tag 160 with the quantitative loading information, and stores and manages the result information. Perform real-time processing on work processing results.

Real-time management monitoring unit 240 is connected to the quantitative management system 230 to perform the real-time management monitoring for the quantitative loading.

3 is a detailed block diagram of the quantitative management system in FIG.

Thus, the quantitative loading management system 230 is the control unit 231, the quantitative result information generating unit 232, the quantitative loading performance inquiry unit 233, the quantitative loading information inquiry unit 234, the work order transmission unit 235 It can be configured to include.

The controller 231 controls the operation of the quantitative management system 230.

The quantitative result information generator 232 generates the quantitative result information for the container 110.

The quantitative performance inquiry unit 233 processes so that the quantitative performance can be inquired.

The quantitative schedule information inquiry unit 234 processes the quantitative schedule information to be inquired.

The work order transmission unit 235 processes the work order for quantitative loading to be transmitted.

4 is a flowchart and a conceptual view illustrating a RFID-based quantitative work processing and a real-time monitoring method according to an embodiment of the present invention.

First, the RFID reader 150 installed in the gantry crane 140 recognizes the RFID tag 160 attached to the transportation vehicle 130 and the container 110 (ST1).

Then, the RFID reader 150 transmits the recognized RFID tag information to the RFID middleware 210, and the RFID middleware 210 requests the detailed information of the container 110 through the EPC code to the EPCIS 220. In step 220, detailed information of the container 110 is transmitted to the quantitative loading management system 230 (ST2).

Accordingly, the quantitative loading management system 230 checks whether the quantitative loading information received in advance and the RFID tag information received from the EPCIS 220 match (ST3).

Then, the quantitative work of the container 110 according to the quantitative work instruction is performed (ST4).

When the quantitative work of the container 110 according to the quantitative work instruction is performed as described above, the work result is stored in the quantitative management system 230 (ST5).

In addition, the quantitative management system 230 allows history management and import / export management to be performed through the stored quantitative job information (ST6).

FIG. 5 is a flowchart illustrating an operation of a quantitative result information generating unit of the quantitative management system after performing FIG. 4.

Therefore, upon request for quantitative result information generation, the crane driver registers the work result on the loading / unloading result information screen (ST11).

Then, the registered job result information is transmitted to the result information management means in the quantitative result information generation unit 232 (ST12).

In addition, the result information management means stores the work result information as the loading / unloading result information means (ST13, ST14). Then, information on storing the work result is received (ST15).

The result information management means, which has received the information on the work result storage, transmits the work result storage state to the loading / unloading result information means (ST16).

Then, the operation result information of the loading / unloading result information screen is transmitted to the smart device 170 of the underman so that the underman can confirm the operation result (ST18).

FIG. 6 is a flowchart illustrating an operation of a quantitative performance inquiry unit of the quantitative management system after performing FIG. 4.

Therefore, when the quantitative loading performance inquiry, Underman enters the inquiry item information on the loading / unloading performance inquiry screen (ST21), the inquiry information is transmitted to the loading / unloading performance management means in the quantitative loading performance inquiry unit 233 (ST22 ).

The loading / unloading performance management means inquires the loading / unloading performance information as the loading / unloading performance information means (ST23). The loading / unloading performance information means then retrieves the loading / unloading actual information (ST24). The loading / unloading performance inquiry information thus retrieved is transmitted from the loading / unloading performance information means to the loading / unloading performance management means (ST25).

In addition, the loading / unloading performance management means transmits the loading / unloading performance inquiry information through the loading / unloading performance inquiry screen (ST26). And the loading / unloading performance inquiry screen outputs the loading / unloading actual inquiry information to the underman (ST27), allowing the underman to check the performance inquiry information (ST28).

FIG. 7 is a flowchart illustrating an operation of a quantitative loading information inquiry unit of the quantitative loading management system after performing FIG. 4.

So, when the quantitative loading information inquiry, Underman enters the schedule information inquiry item on the loading / loading schedule information inquiry screen (ST31), the scheduled information as the loading / unloading schedule information management means in the quantitative loading information inquiry section 234 The inquiry information is transmitted (ST32).

The loading / unloading schedule information management means inquires the schedule information inquiry information as the loading / unloading schedule information means (ST33). The loading / unloading schedule information means then retrieves the schedule information (ST34). The scheduled information thus scanned is transmitted to the loading / unloading schedule information management means as the loading / unloading schedule information means (ST35).

In addition, the loading / unloading schedule information management means transmits the scheduled information to the loading / unloading schedule information inquiry screen (ST36).

Then, the loading / unloading schedule information inquiry screen outputs the schedule information to the smart device 170 of the underman (ST37), the underman can check the schedule information (ST38).

FIG. 8 is a flowchart illustrating an operation of a work instruction transmitter of the quantitative management system after performing FIG. 4.

Thus, when performing the work order transmission, when the underman enters the work order items on the loading / unloading work order screen (ST41), the work order information is transmitted to the loading / unloading work order management means in the work order transmission unit 235 ( ST42).

The loading / unloading work order management means stores the work order information as the loading / unloading work order information means (ST43). The loading / unloading work order information means then stores the work order information (ST44). And the loading / unloading work order information means transmits the work order information to the loading / unloading work order management means (ST45).

Accordingly, the loading / unloading work order management means transmits the work order information to the loading / unloading work order screen (ST46). In addition, the loading / unloading work order management means transmits the work order to the crane driver so that the crane engineer can check the work order information (ST48).

In addition, by outputting the work order information to the smart device 170 of the underman on the loading / unloading work order screen (ST49), the underman can check the work order information (ST50).

As such, the present invention maximizes the efficiency of the quantitative management work performed between the gantry crane, the container, and the ship by using the RFID-based technology, and automatically compares the tag information sensed by the RFID reader with the quantitative loading information through the EPC network. It identifies the location, determines the location, verifies and manages it.

Although the above has been described as being limited to the preferred embodiment of the present invention, the present invention is not limited thereto and various changes, modifications, and equivalents may be used. Therefore, the present invention can be applied by appropriately modifying the above embodiments, it will be obvious that such application also belongs to the scope of the present invention based on the technical idea described in the claims below.

1 is a conceptual diagram of a RFID-based quantitative work processing and real-time monitoring system according to an embodiment of the present invention.

2 is a detailed conceptual view of the quantitative workplace in FIG.

3 is a detailed block diagram of the quantitative management system in FIG.

4 is a flowchart and a conceptual view illustrating a RFID-based quantitative work processing and a real-time monitoring method according to an embodiment of the present invention.

FIG. 5 is a flowchart illustrating an operation of a quantitative result information generating unit of the quantitative management system after performing FIG. 4.

FIG. 6 is a flowchart illustrating an operation of a quantitative performance inquiry unit of the quantitative management system after performing FIG. 4.

FIG. 7 is a flowchart illustrating an operation of a quantitative loading information inquiry unit of the quantitative loading management system after performing FIG. 4.

FIG. 8 is a flowchart illustrating an operation of a work instruction transmitter of the quantitative management system after performing FIG. 4.

Explanation of symbols on the main parts of the drawings

100: quantitative workshop

110: container (CNTR)

120: ship

130: transport vehicle

140: crane

150: RFID Reader

160: RFID Tag

170: smart device

200: Quantitative Management Office

210: RFID Middleware

220: EPCIS

230: Quantitative Management System

240: real-time management monitoring unit

300: wireless AP

410: Zen

420: shipper

Claims (8)

A crane having an RFID reader for sensing EPC information from an RFID tag installed in a transport vehicle or a container; RFID middleware for receiving the EPC information from the RFID reader, filtering, grouping and storing the EPC information, and providing the EPC information when requested from the outside; EPCIS for storing detailed information on the product corresponding to the EPC information, and provides in the PML (Physical Markup Language) when requested from the outside; A quantitative loading management server for generating and providing quantitative result information by comparing detailed information on the product and quantitatively scheduled information, and providing a quantitative performance inquiry function based on the quantitative result information; A smart device which receives the quantity loading schedule information or the quantity loading instruction from the quantity loading worker and transmits the quantity quantity loading instruction to the quantity loading management server; And A monitoring unit providing the quantitative result information or the quantitative result inquiry result on a screen in real time; RFID-based quantitative work processing system comprising a. The method of claim 1, The EPC information includes a header defining an identification code format and a filter value, an EPC manager, an object code, and a serial number. The method of claim 1, The EPCIS generates and stores track and trace events based on the information provided from the RFID middleware, and also acts as a hub for integrating EPC information according to each product. Processing system. An RFID-based quantitative work processing method of a transport vehicle or container equipped with an RFID tag, a crane equipped with an RFID reader, and a system including a smart device, a quantitative management server, and EPCIS, (a) sensing, by the RFID reader, the EPC information from the RFID tag and transferring the EPC information to the quantitative management server; (b) the quantitative management server transferring the EPC information to the EPCIS and receiving detailed information of a product corresponding to the EPC information from the EPCIS; (c) the quantitative management server comparing detailed information of the product with quantitatively scheduled information; (d) the quantitative management server generating quantitative result information based on the comparison result; And (e) the loading management server storing or transmitting the loading result information to the smart device; RFID-based quantitative task processing method comprising a. The method of claim 4, wherein The EPC information includes a header defining an identification code type and a filter value, an EPC manager, an object code, and a serial number. The method of claim 4, wherein After the step (e), when the quantitative loading management server receives a request for quantitative loading results from the smart device, the loading / unloading performance information is queried based on the quantitative loading result information and the inquiry result is transmitted to the smart device. RFID based quantitative work processing method characterized in that. A quantitative result information generating unit for generating quantitative result information; A quantitative performance inquiry unit for searching quantitative performance based on the quantitative result information; A quantitative schedule information inquiry unit for inquiring quantitative schedule information for obtaining the quantitative result information; A work order transmission unit for transmitting a work order for quantification; And According to the work instruction for the unloading, the EPC information received from the RFID reader of the crane is transmitted to the EPCIS, the detailed information of the product corresponding to the EPC information is received from the EPCIS and compared with the quantitative loading information, the quantitative loading A control unit which controls to generate and provide result information; Quantitative management system comprising a. The method of claim 7, wherein The control unit, receiving the operation instruction for the loading and unloading from the smart device of the quantitative worker, and transfer the loading result information to the smart device via the wireless AP, characterized in that the loading.

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