WO2023139840A1 - Fraud checking system and fraud checking method - Google Patents

Fraud checking system and fraud checking method Download PDF

Info

Publication number
WO2023139840A1
WO2023139840A1 PCT/JP2022/033879 JP2022033879W WO2023139840A1 WO 2023139840 A1 WO2023139840 A1 WO 2023139840A1 JP 2022033879 W JP2022033879 W JP 2022033879W WO 2023139840 A1 WO2023139840 A1 WO 2023139840A1
Authority
WO
WIPO (PCT)
Prior art keywords
data
manufacturer
analysis
received
spectrum data
Prior art date
Application number
PCT/JP2022/033879
Other languages
French (fr)
Japanese (ja)
Inventor
祐介 加賀
琢也 神林
伸一 谷口
Original Assignee
株式会社日立製作所
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by 株式会社日立製作所 filed Critical 株式会社日立製作所
Publication of WO2023139840A1 publication Critical patent/WO2023139840A1/en

Links

Classifications

    • GPHYSICS
    • G01MEASURING; TESTING
    • G01JMEASUREMENT OF INTENSITY, VELOCITY, SPECTRAL CONTENT, POLARISATION, PHASE OR PULSE CHARACTERISTICS OF INFRARED, VISIBLE OR ULTRAVIOLET LIGHT; COLORIMETRY; RADIATION PYROMETRY
    • G01J3/00Spectrometry; Spectrophotometry; Monochromators; Measuring colours
    • G01J3/28Investigating the spectrum
    • G01J3/42Absorption spectrometry; Double beam spectrometry; Flicker spectrometry; Reflection spectrometry
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q10/00Administration; Management
    • G06Q10/08Logistics, e.g. warehousing, loading or distribution; Inventory or stock management
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q30/00Commerce
    • G06Q30/018Certifying business or products
    • GPHYSICS
    • G06COMPUTING; CALCULATING OR COUNTING
    • G06QINFORMATION AND COMMUNICATION TECHNOLOGY [ICT] SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES; SYSTEMS OR METHODS SPECIALLY ADAPTED FOR ADMINISTRATIVE, COMMERCIAL, FINANCIAL, MANAGERIAL OR SUPERVISORY PURPOSES, NOT OTHERWISE PROVIDED FOR
    • G06Q50/00Information and communication technology [ICT] specially adapted for implementation of business processes of specific business sectors, e.g. utilities or tourism
    • G06Q50/04Manufacturing

Definitions

  • the present invention relates to a technique for confirming fraudulent use of raw materials containing recycled materials (materials containing recycled materials).
  • Patent Document 1 discloses a technique for preventing fraudulent acts in the supply chain.
  • the summary of Patent Document 1 states, "Provide a logistics management technology that enables authenticity determination by reading image information on a label and that can prove that the image information on the label and shipping-related information are genuinely linked.
  • Patent Literature 1 cannot solve fraudulent use of materials containing recycled materials.
  • the present invention has been made in view of the above circumstances, and its purpose is to provide a technique that can appropriately confirm fraudulent use of materials containing recycled materials.
  • a fraud confirmation system having a processor system having one or more processors and a storage resource, wherein the storage resource is specification data based on specification spectrum data, which is spectrum data of materials containing recycled materials including recycled materials to be generated; received data based on the received spectrum data, which is the received spectrum data of the recycled material-containing material, and the processor determines whether the recycled material-containing material received by the manufacturer is fraudulent based on the specification data and the shipping data or the receiving data.
  • FIG. 1 is a diagram illustrating an outline of an ecosystem according to the first embodiment.
  • FIG. 2 is an overall configuration diagram of the ecosystem according to the first embodiment.
  • FIG. 3 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the first embodiment.
  • FIG. 4 is a diagram illustrating an outline of an ecosystem according to the second embodiment.
  • FIG. 5 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the second embodiment.
  • FIG. 1 is a diagram explaining the overview of the ecosystem according to the first embodiment.
  • the ecosystem is a part of the structure that realizes a circular economy, and the ecosystem involves raw material suppliers that use recycled materials to produce materials containing recycled materials (hereinafter referred to as "contents"), cloud providers that provide cloud services, and manufacturing (processing) manufacturers (hereinafter referred to as “manufacturers”) that manufacture (process) products using the contained materials.
  • the raw material supplier has a raw material supplier system 10 and facilities for producing recycled material-containing materials from recycled materials.
  • the manufacturer has facilities for manufacturing products from materials containing recycled materials, and the manufacturer system 50 .
  • the manufacturer system 50 of the manufacturer stores, in the cloud server 30 of the cloud provider, spectrum data (specification data) indicating the specification of the inclusion material that is the basis of the inclusion material to be generated for which the raw material supplier is requested to generate (Fig. 1 (1)).
  • the specification data is, for example, spectroscopic data measured from a preliminarily prepared standard containing material.
  • the raw material supplier system 10 of the raw material supplier generates the contained material to be generated requested by the manufacturer from the cloud server 30, and measures the spectrum data (shipment data) of the generated contained material to be shipped (Fig. 1 (2)).
  • the raw material supplier system 10 transmits the shipment data to the cloud server 30, and transmits an instruction of analysis conditions for analysis processing that enables extracting feature amounts from the shipment data.
  • the cloud server 30 compares the data after the analysis processing has been performed on the specification data and the data after the analysis processing has been performed on the shipping data, and determines whether or not the containing material to be shipped satisfies the specifications, thereby determining whether or not the containing material can be shipped (Fig. 1 (4)), and transmits the determination result (result of whether shipment is possible) to the raw material supplier system 10 (Fig. 1 (5)).
  • the raw material supplier system 10 displays the shipping availability result.
  • the raw material supplier will ship the created containing material to the manufacturer if it is possible to ship it.
  • the manufacturer system 50 measures the spectrum data (received data) for the received contained material (Fig. 1 (6)). The manufacturer system 50 then transmits the received data to the cloud server 30 ((7) in FIG. 1).
  • the cloud server 30 determines whether the received contained material can be accepted for manufacturing (acceptability) (Fig. 1 (8)), and transmits the determination result (acceptability result) to the manufacturer system 50 (Fig. 1 (9)).
  • acceptability for manufacturing
  • acceptability result the determination result
  • the cloud server 30 determines whether or not the acceptance is possible, it is possible to judge whether or not there is any illegality in the received contained materials by comparing the analyzed data after the analytical processing of the specification data and the analytical data after the analytical processing of the received data. It may be determined whether or not the received content is fraudulent by comparing it with the analysis data.
  • the manufacturer system 50 displays the acceptability result.
  • the product will be manufactured by the manufacturing facility using the received contained material.
  • FIG. 2 is an overall configuration diagram of the ecosystem according to the first embodiment.
  • the ecosystem 1 is an example of an unauthorized confirmation system, and includes a raw material supplier system 10, a manufacturer system 50, and a cloud server 30.
  • the raw material supplier system 10, the manufacturer system 50, and the cloud server 30 are communicably connected via a network (not shown).
  • the raw material supplier system 10 is an example of a processor system and includes a processing device 11 , a spectrum measurement device 16 and an input/output device 19 .
  • the input/output device 19 includes, for example, an input device such as a mouse and a keyboard, and a display device such as a display, receives information input by the user, and displays and outputs a user interface containing various information.
  • an input device such as a mouse and a keyboard
  • a display device such as a display
  • the processing device 11 is, for example, a computer such as a PC (Personal Computer), and includes a communication module 12, a processor 13, a storage resource 14, and an input/output module 15.
  • a PC Personal Computer
  • the communication module 12 is, for example, a wired LAN card or a wireless LAN card, and communicates with other devices (eg, manufacturer system 50, cloud server 30, etc.) via a network.
  • devices eg, manufacturer system 50, cloud server 30, etc.
  • the processor 13 executes various processes according to the programs stored in the storage resource 14.
  • the storage resource 14 stores programs to be executed by the processor 13 and various information used in these programs.
  • the storage resource 14 may be, for example, a semiconductor memory, a flash memory, a HDD (Hard Disk Drive), an SSD (Solid State Drive), or the like, and may be either a volatile type memory or a nonvolatile type memory.
  • the input/output module 15 inputs and outputs data between the spectrum measurement device 16 and the input/output device 19 .
  • the spectrum measuring device 16 is a device that irradiates a measurement object (in this embodiment, the containing material 100 to be shipped) with light and measures the spectrum of reflected light, transmitted light, and the like. By measuring the spectrum of the object to be measured, information on the composition of the object to be measured or information resulting from the composition can be obtained.
  • the wavelength used for measurement may be, for example, a wavelength in at least part of the near-infrared wavelength range (800 to 2500 nm).
  • the spectrum measurement device 16 may be, for example, a handheld device.
  • the spectrum measurement device 16 has a light source 18 and a detection section 17 .
  • a light source 18 generates light in a predetermined wavelength range for irradiating the object to be measured.
  • the detection unit 17 detects light obtained by irradiating the object to be measured with light.
  • barcode information for example, QR code (registered trademark)
  • ID product ID or delivery ID
  • the spectrum measurement device 16 may be configured to measure the barcode information corresponding to the containing material 100 and the spectrum data of the containing material 100 in one operation.
  • the manufacturer system 50 is an example of a processor system and includes a processing device 51 , a spectrum measurement device 56 and an input/output device 59 .
  • the input/output device 59 includes, for example, an input device such as a mouse and a keyboard, and a display device such as a display, receives information input by the user, and displays and outputs a user interface containing various information.
  • the processing device 51 is, for example, a computer such as a PC, and includes a communication module 52, a processor 53, a storage resource 54, and an input/output module 55.
  • the communication module 52 is, for example, a wired LAN card or a wireless LAN card, and communicates with other devices (eg, raw material supplier system 10, cloud server 30, etc.) via a network.
  • devices eg, raw material supplier system 10, cloud server 30, etc.
  • the processor 53 executes various processes according to the programs stored in the storage resource 54.
  • the storage resource 54 stores programs to be executed by the processor 53 and various information used by these programs.
  • the storage resource 54 may be, for example, a semiconductor memory, a flash memory, an HDD, an SSD, or the like, and may be a volatile type memory or a nonvolatile type memory.
  • the input/output module 55 inputs and outputs data between the spectrum measuring device 56 and the input/output device 59 .
  • the spectrum measuring device 56 is a device that irradiates a measurement target (in this embodiment, the received contained material 110, which is the same as the shipped contained material 100 if there is no fraud at the time of shipment or during delivery), and measures the spectrum of reflected light, transmitted light, etc.
  • the wavelength used for measurement may be, for example, a wavelength in at least part of the near-infrared wavelength range (800 to 2500 nm).
  • the spectrum measurement device 56 may be, for example, a handheld device.
  • the spectrum measuring device 56 may be of the same model as the spectrum measuring device 16, or may be of the same standard.
  • the spectrum measurement device 56 has a light source 58 and a detection section 57 .
  • a light source 58 generates light in a predetermined wavelength range for irradiating the object to be measured.
  • the detection unit 57 detects light obtained by irradiating the object to be measured with light.
  • the spectrum measurement device 56 may be configured to measure barcode information corresponding to the containing material 110 and the spectrum of the containing material 110 in one operation. With such a configuration, the ID of the containing material 110 and the spectrum data of the containing material 110 corresponding to the ID can be appropriately acquired, and erroneous acquisition of the spectrum data can be prevented.
  • the cloud server 30 is an example of a processor system and an example of a determination system.
  • the communication module 31 is, for example, a wired LAN card or a wireless LAN card, and communicates with other devices (eg, raw material supplier system 10, manufacturer system 50, etc.) via a network.
  • devices eg, raw material supplier system 10, manufacturer system 50, etc.
  • the processor 32 executes various processes according to programs stored in the storage resource 33 .
  • the storage resource 33 stores programs to be executed by the processor 32 and various information used by these programs.
  • the storage resource 33 may be, for example, a semiconductor memory, a flash memory, an HDD, an SSD, or the like, and may be a volatile type memory or a nonvolatile type memory.
  • FIG. 3 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the first embodiment.
  • spectroscopic spectrum data (specification spectroscopic spectrum data: specification spectrum data, an example of specification data) indicating the specifications of the inclusion material 110 to be generated by the raw material supplier is prepared in the storage resource 54 (step S1).
  • the specification spectroscopic spectrum data may be, for example, spectroscopic spectrum data measured by the spectrum measurement device 56 from a prototype of the containing material to be produced by the raw material supplier, spectroscopic spectrum data obtained by the processor 53 simulating the spectroscopic spectrum data corresponding to the specifications of the containing material 110 to be produced by the raw material supplier, or selected from spectroscopic spectrum data of a plurality of preliminarily prepared containing materials.
  • the processor 53 transmits the prepared spectroscopic spectrum data to the cloud server 30 via the communication module 52, and stores it in the cloud server 30 (step S2).
  • the processor 53 may include the spectroscopic spectrum data in a production request for the containing material to the raw material supplier and transmit it to the cloud server 53.
  • the cloud server 53 may transfer these production requests to the raw material supplier system 10.
  • the contained material requested by the manufacturer is produced using recycled or virgin materials.
  • the request for generation of the contained material from the manufacturer may be received by the raw material supplier system 10 from the manufacturer system 50 via the cloud server 30 and displayed on the input/output device 19, or may be notified by other means.
  • spectroscopic spectrum data shipment spectroscopic data: shipping spectroscopic data, an example of shipping data
  • the processor 13 of the processing device 11 acquires the shipping spectrum data measured by the spectrum measuring device 16 (step S3).
  • the processor 13 transmits the acquired shipment spectroscopic data to the cloud server 30 via the communication module 12 and stores it in the cloud server 30 (step S4).
  • the processor 32 of the cloud server 30 performs analysis processing for extracting a predetermined feature amount from the shipment spectral data, and obtains analysis data (second analysis data: shipment data analysis data) (step S5).
  • the analytical data may be spectral data that has been subjected to analytical processing, or feature amounts (for example, peak positions, physical quantities of peaks, etc.) extracted from the spectral data.
  • the analysis processing may be analysis processing in accordance with preset analysis conditions, or may be analysis processing in accordance with analysis conditions adjusted by sequentially providing the raw material supplier system 10 with analysis results for shipment spectroscopic data and sequentially receiving changes in the analysis conditions from the raw material supplier system 10.
  • the analysis conditions may include at least one of conditions for removing noise components of spectral data (noise removal conditions), conditions for correcting baselines of spectral data (baseline correction conditions), and conditions for separating and sharpening peaks of spectral data (peak separation/sharpening conditions).
  • noise removal conditions for example, smoothing Savitzky-Golay may be performed
  • baseline correction condition any one of SNV (Standard Normal Variate), MSC (Multiplicative Scatter Correction), offset correction, and linear correction may be performed. Variate Curve Resolution) may be executed.
  • the processor 32 of the cloud server 30 saves the shipping spectral data, the second analysis data, and the analysis conditions of the analysis process in the storage resource 33 (step S6).
  • the processor 32 of the cloud server 30 stores, for example, the shipment spectroscopic data, the second analysis data, and the analysis conditions of the analysis process in the storage resource 33 in association with an ID that identifies the contained material to be shipped, for example, an ID that indicates the individual or type of the contained material, or a delivery ID in the delivery of the contained material.
  • the processor 32 of the cloud server 30 performs analysis processing on the specification spectrum data based on the analysis conditions saved in step S6, which correspond to the inclusion material generated in accordance with the specification, and obtains analysis data (first analysis data: specification data analysis data) (step S7).
  • the processor 32 of the cloud server 30 compares the first analysis data and the second analysis data, determines whether or not the generated contained material can be shipped (specifically, whether or not the generated contained material satisfies the specifications), and transmits the shipping decision result to the raw material supplier system 10 (step S8).
  • the first analysis data and the second analysis data are the same or the difference is within a predetermined range, it is determined that the generated inclusion material satisfies the specifications (shippable).
  • the processor 13 of the processing device 11 of the raw material supplier system 10 receives the shipping approval/disapproval result, it displays the shipping approval/disapproval result on the input/output device 19 (step S9). By this process, it is possible to confirm that there is no illegality in the production of the included material to be shipped.
  • the raw material supplier instructs the shipping company to deliver the generated contained material to the manufacturer, and the instructed shipping company delivers the contained material to the manufacturer (step S10).
  • an ID that identifies the contained material to be delivered an ID that identifies the individual or type of the contained material, or an ID that indicates the delivery (delivery ID)
  • a bar code for example, QR code (registered trademark)
  • the manufacturer will receive the inclusions from the delivery company.
  • the received spectroscopic data of the containing material is measured by the spectrum measuring device 56 .
  • the processor 53 of the processing device 51 acquires received spectral data measured by the spectrum measuring device 56 (step S11). Note that, in this embodiment, the processor 53 also acquires an ID that identifies the delivered content. This ID may be acquired by scanning a bar code or the like, or may be acquired by input by a user or the like.
  • the processor 53 transmits the obtained received spectroscopic data to the cloud server 30 via the communication module 52 and stores it in the cloud server 30 (step S12).
  • the processor 32 of the cloud server 30 performs analysis processing on the received spectroscopic data based on the analysis conditions stored in step S6 corresponding to the received inclusion material, and obtains analysis data (third analysis data: received data analysis data) (step S13).
  • analysis processing is performed on the spectrum data under the same analysis conditions, it is possible to appropriately perform comparison based on the analysis data.
  • the processor 32 of the cloud server 30 checks whether or not the received contained material has been tampered with, determines whether or not it can be accepted (if there is no tampering, it determines that it can be accepted, and if there is tampering, it determines that it cannot be accepted), and transmits the result of whether or not it can be accepted to the manufacturer system 50 (step S14).
  • the processor 32 may confirm whether or not the received contained material conforms to the specifications (matches the specifications or falls within the permissible range of the specifications) based on the third analysis data and the first analysis data based on the spec spectrum. According to this confirmation method, it is possible to appropriately grasp whether there has been fraud in the production of the contained material by the raw material supplier or in the replacement of the contained material at the time of delivery.
  • the processor 32 may confirm whether fraud has been committed by determining whether the received contained material 110 is the same as the shipped contained material 100 based on the third analysis data and the second analysis data based on the shipment spectroscopic spectrum. According to this confirmation method, it is possible to appropriately grasp that there has been an illegality such as replacement of the contained material at the time of delivery.
  • the processor 32 may confirm whether or not fraud has been committed based on the first analysis data based on the specification spectroscopic spectrum and the second analysis data based on the shipping spectroscopic spectrum, based on whether or not the shipped contained material conforms to the specifications. According to this confirmation method, it is possible to appropriately grasp that there has been fraud in the production of the contained material by the raw material supplier.
  • the processor 53 of the processing device 51 of the manufacturer system 50 displays the acceptance result on the input/output device 59 (step S15). Thereby, the user of the manufacturer can appropriately grasp whether or not the received inclusion material 110 can be accepted. After receiving the contained material, the manufacturer manufactures and processes products using the contained material.
  • FIG. 4 is a diagram explaining the overview of the ecosystem according to the second embodiment.
  • the ecosystem according to the second embodiment involves raw material suppliers, cloud providers, and manufacturers.
  • the manufacturer system 50A of the manufacturer stores, in the cloud server 30A of the cloud provider, spectrum data (specification data) indicating the specification of the contained material, which is the standard of the contained material for which the raw material supplier is requested to generate (Fig. 4 (1)).
  • the raw material supplier system 10A of the raw material supplier receives specification data from the cloud server 30A as a request to generate the containing material specified by the manufacturer (Fig. 4 (2)).
  • the raw material supplier produces the requested content material with the production equipment.
  • the raw material supplier system 10A measures the generated spectrum data (shipment data) of the contained material to be shipped, and executes analysis processing for the shipment data ((3) in FIG. 4).
  • the raw material supplier system 10A compares the analysis data after performing the analysis processing on the shipping data and the analysis data after performing the analysis processing of the same analysis conditions on the specification data, and determines whether or not the containing material to be shipped satisfies the specifications, thereby determining whether or not the containing material can be shipped, and outputs the result of shipping feasibility (FIG. 4 (4)). After that, when the result of shipping is possible, the raw material supplier ships the generated containing material to the manufacturer.
  • the raw material supplier system 10A transmits the shipping data and the analysis conditions for analysis processing to the cloud server 30A ((5) in FIG. 4).
  • the raw material supplier system 10A transmits the shipment data and the analysis conditions of the analysis processing in association with an ID capable of identifying the corresponding contained material.
  • the manufacturer system 50A acquires the shipping data and analysis conditions corresponding to the received contained material from the cloud server 30A (Fig. 4 (6)).
  • the manufacturer system 50A measures received spectrum data (received data) about the contained material, and executes analysis processing on the received data based on the received analysis conditions (Fig. 4 (7)).
  • the manufacturer system 50A determines whether or not the received contained material can be accepted for manufacturing (acceptability), and outputs the determination result (acceptability result) (Fig. 4 (8)).
  • acceptability determines whether or not the received contained material can be accepted for manufacturing
  • acceptability result outputs the determination result (acceptability result) (Fig. 4 (8)).
  • the manufacturer manufactures the product using the manufacturing facility using the received contained material, if the received material is acceptable.
  • FIG. 5 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the second embodiment.
  • spectroscopic spectrum data (specification spectroscopic spectrum data: specification spectrum data, an example of specification data) indicating the specifications of the containing material 110 to be generated by the raw material supplier is prepared in the storage resource 54 (step S21).
  • the specification spectroscopic spectrum data may be, for example, spectroscopic spectrum data obtained by preparing a prototype of the containing material to be produced by the raw material supplier and measuring the prototype by the spectrum measuring device 56, spectroscopic spectral data obtained by the processor 53 simulating spectroscopic spectral data corresponding to the specifications of the containing material 110 to be produced by the raw material supplier, or selecting spectroscopic spectral data of a plurality of preliminarily prepared containing materials.
  • the processor 53 transmits the prepared spectroscopic spectrum data to the cloud server 30 via the communication module 52, and stores it in the cloud server 30 (step S22).
  • the contained material requested by the manufacturer is produced using recycled or virgin materials.
  • the request for generation of the contained material from the manufacturer may be received by the raw material supplier system 10A from the manufacturer system 50A via the cloud server 30A and displayed on the input/output device 19, or may be notified by other means.
  • the spectrum measurement device 16 measures the spectroscopic spectrum data (shipping spectroscopic data: shipping spectroscopic data, an example of shipping data) of the contained material that is generated and is to be shipped.
  • the processor 13 of the processing device 11 acquires the shipping spectrum data measured by the spectrum measuring device 16 (step S23).
  • the processor 13 performs analysis processing for extracting a predetermined feature amount from the shipment spectral data, and obtains analysis data (second analysis data: shipment data analysis data) (step S24).
  • the analytical data may be spectral data that has been subjected to analytical processing, or feature amounts (for example, peak positions, physical quantities of peaks, etc.) extracted from the spectral data.
  • the analysis processing may be analysis processing according to preset analysis conditions, or may be analysis processing according to analysis conditions set by outputting analysis results for shipping spectroscopic data and sequentially receiving changes in analysis conditions.
  • the analysis conditions may include at least one of conditions for removing noise components of spectral data (noise removal conditions), conditions for correcting baselines of spectral data (baseline correction conditions), and conditions for separating and sharpening peaks of spectral data (peak separation/sharpening conditions).
  • noise removal conditions for example, smoothing Savitzky-Golay may be performed, as the baseline correction condition, any one of SNV, MSC, offset correction, and linear correction may be performed, and as the peak separation/sharpening condition, either differentiation processing or MCR may be performed.
  • the processor 13 downloads the specification spectrum of the specification corresponding to the contained material to be shipped from the cloud server 30A (step S25).
  • the processor 13 performs analysis processing on the specification spectroscopic spectrum based on the same analysis conditions as in step S24 to obtain analysis data (first analysis data: specification data analysis data) (step S26).
  • the processor 13 compares the first analysis data and the second analysis data, determines whether or not the generated contained material can be shipped (specifically, whether or not the generated contained material satisfies the specifications), and outputs the shipping decision result to the input/output device 19 (step S27). By this process, it is possible to confirm that there is no illegality in the production of the included material to be shipped.
  • the processor 13 stores the shipment spectrum data, the second analysis data, and the analysis conditions of the analysis process in the cloud server 30A (step S28).
  • the processor 13 stores, for example, the shipment spectroscopic data, the second analysis data, and the analysis conditions of the analysis process in the cloud server 30A in association with an ID that identifies the containing material to be shipped, for example, the ID of the containing material or the delivery ID of the containing material.
  • the raw material supplier instructs the shipping company to deliver the generated contained material to the manufacturer, and the instructed shipping company delivers the contained material to the manufacturer (step S29). After this, the manufacturer will receive the inclusions from the delivery company.
  • the spectrum measurement device 56 measures the received spectroscopic data of the containing material (received spectroscopic data: received spectroscopic data, an example of received data).
  • the processor 53 of the processing device 51 acquires the received spectral data measured by the spectrum measuring device 56 (step S30).
  • the processor 53 acquires the analysis conditions corresponding to the received contained material from the cloud server 30A, performs analysis processing on the received spectral data based on the acquired analysis conditions, and obtains analysis data (third analysis data: received data analysis data) (step S31).
  • the processor 53 checks whether or not the received contained material has been tampered with, determines whether or not it can be accepted (if there is no tampering, it determines that it can be accepted, and if there is tampering, it determines that it cannot be accepted), and outputs the result of whether or not it can be accepted to the input/output device 59 (step S32). Thereby, the user of the manufacturer can appropriately grasp whether or not the received inclusion material 110 can be accepted. After receiving the contained material, the manufacturer manufactures and processes products using the contained material.
  • the processor 53 may confirm whether or not the received contained material conforms to the specification (whether it matches the specification or is within the allowable range of the specification) based on the third analysis data and the first analysis data analyzed under the same analysis conditions as the specification spectroscopic spectrum.
  • the spectroscopic spectrum data may be acquired from the storage resource 54 or the cloud server 30A. According to this confirmation method, it is possible to appropriately grasp whether there has been fraud in the production of the contained material by the raw material supplier or in the replacement of the contained material at the time of delivery.
  • the processor 53 may confirm whether fraud has been committed by determining whether the received contained material is the same as the shipped contained material based on the third analysis data and the second analysis data based on the shipped spectroscopic data. According to this confirmation method, it is possible to appropriately grasp that there has been an illegality such as replacement of the contained material at the time of delivery.
  • the processor 53 may confirm whether or not fraud has been committed based on the first analysis data based on the specification spectroscopic spectrum and the second analysis data based on the shipping spectroscopic spectrum, based on whether the shipped contained material conforms to the specifications. According to this confirmation method, it is possible to appropriately grasp that there has been fraud in the production of the contained material by the raw material supplier.
  • a spectroscopic analysis device as a spectrum measurement device was shown, but the present invention is not limited to this, and any device that can measure a spectrum related to the composition of the contained material may be used, for example, a mass spectrometer that can detect the mass spectrum of the contained material.
  • the spectrum measurement device 16 of the raw material supplier system 10 (10A) is used for the shipment spectrum data, but the delivery company that delivers the recycled material-containing material may have a spectrum measurement device having the same function as the spectrum measurement device 16, and the delivery company's spectrum measurement device may be used to measure the shipment spectrum data when the delivery company receives the recycled material-containing material from the raw material supplier for delivery.
  • the spectrum measuring device 16 does not need to be provided in the raw material supplier system 10 (10A).
  • the delivery company may measure the received spectral data of the recycled material-containing material using the spectrum measurement device of the delivery company, and transmit it to the manufacturer system 50 (50A). By doing so, the manufacturer system does not need to include the spectrum measuring device 56 .
  • spectrum data as specification data, shipping data, and receipt data
  • the present invention is not limited to this, and data of a predetermined feature amount included in spectrum data obtained from spectrum data may be used as specification data, shipping data, and receipt data.
  • the cloud server 30 may be provided in the manufacturer, or the functions of the cloud server 30 may be provided in the manufacturer system 50.
  • the cloud server 30 and the processor 51 of the manufacturer system may be configured in one computer.
  • part or all of the processing performed by the processor may be performed by a hardware circuit.
  • the programs in the above embodiments may be installed from program sources.
  • the program source may be a program distribution server or storage media (eg, portable storage media).

Landscapes

  • Business, Economics & Management (AREA)
  • Physics & Mathematics (AREA)
  • Engineering & Computer Science (AREA)
  • Economics (AREA)
  • General Physics & Mathematics (AREA)
  • Spectroscopy & Molecular Physics (AREA)
  • Theoretical Computer Science (AREA)
  • Marketing (AREA)
  • General Business, Economics & Management (AREA)
  • Strategic Management (AREA)
  • Human Resources & Organizations (AREA)
  • Tourism & Hospitality (AREA)
  • Development Economics (AREA)
  • Entrepreneurship & Innovation (AREA)
  • Health & Medical Sciences (AREA)
  • General Health & Medical Sciences (AREA)
  • Accounting & Taxation (AREA)
  • Primary Health Care (AREA)
  • Finance (AREA)
  • Operations Research (AREA)
  • Quality & Reliability (AREA)
  • Manufacturing & Machinery (AREA)
  • Management, Administration, Business Operations System, And Electronic Commerce (AREA)
  • Investigating Or Analysing Materials By Optical Means (AREA)

Abstract

The present invention makes it possible to appropriately check for fraud involving a material containing a recycled material. Provided is an ecosystem 1 including a cloud server 30 that includes one or more processors 32 and a storage resource 33, wherein the storage resource 33 stores specification data based on specification spectral data, that is, spectral data on a recycled material containing material which is to be produced and contains a recycled material, shipment data based on shipment spectral data, that is, spectral data on the material containing the recycled material shipped from a raw material supplier that produces the material containing the recycled material, or received data based on received spectral data, that is, spectral data on the material containing the recycled material received from the raw material supplier in a manufacturer that carries out manufacturing or processing using the material containing the recycled material; and the processor 32 is configured to determine fraud involving the material containing the recycled material received by the manufacturer on the basis of the specification data and the shipment data or the received data.

Description

不正確認システム及び不正確認方法Fraud Confirmation System and Fraud Confirmation Method
 本発明は、リサイクル材を含む原材料(リサイクル材含有材)の不正を確認する技術に関する。 The present invention relates to a technique for confirming fraudulent use of raw materials containing recycled materials (materials containing recycled materials).
 サプライチェーンにおける不正行為を防止する技術として、特許文献1に開示の技術がある。特許文献1の要約には、「ラベルの画像情報を読み取ることにより真贋判定が可能であり、且つ、ラベルの画像情報と、出荷関連情報と、が真正に紐付けられていることを証明可能な物流管理技術を提供する。機械読取り可能な情報担体と出荷関連情報が印字されたラベルを使用した物流管理方法であって、ラベル上の情報担体と出荷関連情報を撮像するステップと、取得した画像情報から、特徴点データと、出荷関連情報データを抽出するステップと、抽出した出荷関連情報データを、特徴点データをファイルネームとして紐付けてクラウドサーバに保存するステップと、専用アプリを備えた情報端末を用いて前記ラベル上の情報担体を撮像し、取得した画像情報から特徴点データを抽出し、クラウドサーバに保存されている特徴点データと照合することにより真贋判定を行い、且つ出荷関連情報データを確認可能とするステップと、を備えていることを特徴とする物流管理方法。」が開示されている。 Patent Document 1 discloses a technique for preventing fraudulent acts in the supply chain. The summary of Patent Document 1 states, "Provide a logistics management technology that enables authenticity determination by reading image information on a label and that can prove that the image information on the label and shipping-related information are genuinely linked. A logistics management method using a machine-readable information carrier and a label on which shipping-related information is printed, comprising the steps of imaging the information carrier and shipping-related information on the label, extracting feature point data and shipping-related information data from the acquired image information, and extracting shipping-related information. a step of storing data in a cloud server with the feature point data as a file name; and a step of capturing an image of the information carrier on the label using an information terminal equipped with a dedicated application, extracting feature point data from the obtained image information, comparing the acquired image information with the feature point data stored in the cloud server, thereby performing authenticity determination and making it possible to confirm shipping-related information data.
特開2020-177445号公報JP 2020-177445 A
 近年、サーキュラーエコノミーを推進するために、リサイクル材含有材の利用が促進されており、リサイクル材含有材を偽装する等の不正を防ぐことが要請される。しかしながら、特許文献1に開示の技術は、リサイクル材含有材の不正に対して解決することができない。 In recent years, the use of materials containing recycled materials has been promoted in order to promote a circular economy, and there is a demand to prevent fraud such as camouflaging materials containing recycled materials. However, the technology disclosed in Patent Literature 1 cannot solve fraudulent use of materials containing recycled materials.
 本発明は、上記事情に鑑みなされたものであり、その目的は、リサイクル材含有材に対する不正を適切に確認することのできる技術を提供することにある。 The present invention has been made in view of the above circumstances, and its purpose is to provide a technique that can appropriately confirm fraudulent use of materials containing recycled materials.
 上記目的を達成するため、一観点に係る不正確認システムは、1以上のプロセッサと、記憶資源とを有するプロセッサシステムを有する不正確認システムであって、前記記憶資源は、生成対象となるリサイクル材を含むリサイクル材含有材のスペクトルデータである仕様スペクトルデータに基づく仕様データと、リサイクル材含有材を生成する原料サプライヤから出荷されるリサイクル材含有材のスペクトルデータである出荷スペクトルデータに基づく出荷データ、又はリサイクル材含有材を用いて製造又は加工を行う製造メーカにおいて、前記原料サプライヤから受け取ったリサイクル材含有材のスペクトルデータである受取スペクトルデータに基づく受取データと、を格納し、前記プロセッサは、前記仕様データと、前記出荷データ又は前記受取データとに基づいて、前記製造メーカに受け取られたリサイクル材含有材についての不正を判定する。 In order to achieve the above object, a fraud confirmation system according to one aspect is a fraud confirmation system having a processor system having one or more processors and a storage resource, wherein the storage resource is specification data based on specification spectrum data, which is spectrum data of materials containing recycled materials including recycled materials to be generated; received data based on the received spectrum data, which is the received spectrum data of the recycled material-containing material, and the processor determines whether the recycled material-containing material received by the manufacturer is fraudulent based on the specification data and the shipping data or the receiving data.
 本発明によれば、リサイクル材含有材に対する不正を適切に確認することができる。  According to the present invention, it is possible to appropriately confirm fraudulent use of materials containing recycled materials.
図1は、第1実施形態に係るエコシステムの概要を説明する図である。FIG. 1 is a diagram illustrating an outline of an ecosystem according to the first embodiment. 図2は、第1実施形態に係るエコシステムの全体構成図である。FIG. 2 is an overall configuration diagram of the ecosystem according to the first embodiment. 図3は、第1実施形態に係るエコシステムにおける不正確認処理を説明するフローチャートである。FIG. 3 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the first embodiment. 図4は、第2実施形態に係るエコシステムの概要を説明する図である。FIG. 4 is a diagram illustrating an outline of an ecosystem according to the second embodiment. 図5は、第2実施形態に係るエコシステムにおける不正確認処理を説明するフローチャートである。FIG. 5 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the second embodiment.
 実施形態について、図面を参照して説明する。なお、以下に説明する実施形態は特許請求の範囲に係る発明を限定するものではなく、また実施形態の中で説明されている諸要素及びその組み合わせの全てが発明の解決手段に必須であるとは限らない。 The embodiment will be described with reference to the drawings. It should be noted that the embodiments described below do not limit the invention according to the scope of claims, and not all of the elements and combinations thereof described in the embodiments are essential to the solution of the invention.
<第1実施形態>
 まず、第1実施形態に係るエコシステムの概要を説明する。
<First embodiment>
First, an overview of the ecosystem according to the first embodiment will be described.
 図1は、第1実施形態に係るエコシステムの概要を説明する図である。 FIG. 1 is a diagram explaining the overview of the ecosystem according to the first embodiment.
 エコシステムは、サーキュラーエコノミーを実現する構成の一部であり、エコシステムには、リサイクル材を使用してリサイクル材含有材(以下、含有材といもいう)を生成する原料サプライヤと、クラウドサービスを提供するクラウドプロバイダと、含有材を利用して製品を製造(加工)する製造(加工)メーカ(以下、製造メーカという)とが関わる。原料サプライヤは、リサイクル材からリサイクル材含有材を生成する設備と、原料サプライヤシステム10とを有する。製造メーカは、リサイクル材含有材から製品を製造する設備と、製造メーカシステム50とを有する。 The ecosystem is a part of the structure that realizes a circular economy, and the ecosystem involves raw material suppliers that use recycled materials to produce materials containing recycled materials (hereinafter referred to as "contents"), cloud providers that provide cloud services, and manufacturing (processing) manufacturers (hereinafter referred to as "manufacturers") that manufacture (process) products using the contained materials. The raw material supplier has a raw material supplier system 10 and facilities for producing recycled material-containing materials from recycled materials. The manufacturer has facilities for manufacturing products from materials containing recycled materials, and the manufacturer system 50 .
 製造メーカの製造メーカシステム50は、クラウドプロバイダのクラウドサーバ30に対して、原料サプライヤに生成を依頼する生成対象の含有材の基準となる含有材の仕様を示すスペクトルデータ(仕様データ)を格納する(図1(1))。本実施形態では、仕様データは、例えば、予め用意した基準となる含有材から測定される分光スペクトルデータである。 The manufacturer system 50 of the manufacturer stores, in the cloud server 30 of the cloud provider, spectrum data (specification data) indicating the specification of the inclusion material that is the basis of the inclusion material to be generated for which the raw material supplier is requested to generate (Fig. 1 (1)). In the present embodiment, the specification data is, for example, spectroscopic data measured from a preliminarily prepared standard containing material.
 次いで、原料サプライヤの原料サプライヤシステム10は、クラウドサーバ30から製造メーカから依頼された生成対象の含有材を生成し、生成した出荷対象となる含有材のスペクトルデータ(出荷データ)を測定する(図1(2))。次いで、原料サプライヤシステム10は、出荷データをクラウドサーバ30に送信し、出荷データに対して特徴量を抽出可能にする解析処理の解析条件の指示を送信する。 Next, the raw material supplier system 10 of the raw material supplier generates the contained material to be generated requested by the manufacturer from the cloud server 30, and measures the spectrum data (shipment data) of the generated contained material to be shipped (Fig. 1 (2)). Next, the raw material supplier system 10 transmits the shipment data to the cloud server 30, and transmits an instruction of analysis conditions for analysis processing that enables extracting feature amounts from the shipment data.
 次いで、クラウドサーバ30は、仕様データに対して解析処理を行った後のデータと、出荷データに対して解析処理を行った後のデータとを比較して、出荷対象の含有材が仕様を満たすか否かを判定することにより、この含有材を出荷できるか否かを判定し(図1(4))、判定結果(出荷可否結果)を原料サプライヤシステム10に送信する(図1(5))。 Next, the cloud server 30 compares the data after the analysis processing has been performed on the specification data and the data after the analysis processing has been performed on the shipping data, and determines whether or not the containing material to be shipped satisfies the specifications, thereby determining whether or not the containing material can be shipped (Fig. 1 (4)), and transmits the determination result (result of whether shipment is possible) to the raw material supplier system 10 (Fig. 1 (5)).
 次いで、原料サプライヤシステム10は、出荷可否結果を表示する。原料サプライヤでは、出荷可である場合には、作成した含有材を製造メーカに対して出荷することとなる。 Next, the raw material supplier system 10 displays the shipping availability result. The raw material supplier will ship the created containing material to the manufacturer if it is possible to ship it.
 製造メーカでは、原料サプライヤから出荷された含有材を受け取ると、製造メーカシステム50は、受け取った含有材についてのスペクトルデータ(受取データ)を測定する(図1(6))。次いで、製造メーカシステム50は、受取データをクラウドサーバ30に送信する(図1(7))。 When the manufacturer receives the contained material shipped from the raw material supplier, the manufacturer system 50 measures the spectrum data (received data) for the received contained material (Fig. 1 (6)). The manufacturer system 50 then transmits the received data to the cloud server 30 ((7) in FIG. 1).
 次いで、クラウドサーバ30は、受け取った含有材を製造のために受け入れてよいか否か(受入可否)を判定し(図1(8))、判定結果(受入可否結果)を製造メーカシステム50に送信する(図1(9))。ここで、受入可否の判定としては、仕様データに対して解析処理を行った後の解析データと、受取データに対して解析処理を行った後の解析データとを比較して、受け取った含有材に不正がないか否かを判定してもよく、仕様データに対して解析処理を行った後の解析データと、出荷データに対して解析処理を行った後の解析データとを比較して、受け取った含有材に不正がないか否かを判定してもよく、出荷データに対して解析処理を行った後の解析データと、受取データに対して解析処理を行った後の解析データとを比較して、受け取った含有材に不正がないか否かを判定してもよい。 Next, the cloud server 30 determines whether the received contained material can be accepted for manufacturing (acceptability) (Fig. 1 (8)), and transmits the determination result (acceptability result) to the manufacturer system 50 (Fig. 1 (9)). Here, as a judgment of whether or not the acceptance is possible, it is possible to judge whether or not there is any illegality in the received contained materials by comparing the analyzed data after the analytical processing of the specification data and the analytical data after the analytical processing of the received data. It may be determined whether or not the received content is fraudulent by comparing it with the analysis data.
 次いで、製造メーカシステム50は、受入可否結果を表示する。製造メーカでは、受入可である場合には、受け取った含有材を用いて製造設備により製品を製造等することとなる。 Next, the manufacturer system 50 displays the acceptability result. In the manufacturer, if the acceptance is possible, the product will be manufactured by the manufacturing facility using the received contained material.
<システム構成>
 図2は、第1実施形態に係るエコシステムの全体構成図である。
<System configuration>
FIG. 2 is an overall configuration diagram of the ecosystem according to the first embodiment.
 エコシステム1は、不正確認システムの一例であり、原料サプライヤシステム10と、製造メーカシステム50と、クラウドサーバ30とを備える。原料サプライヤシステム10と、製造メーカシステム50と、クラウドサーバ30とは、図示しないネットワークを介して通信可能に接続されている。 The ecosystem 1 is an example of an unauthorized confirmation system, and includes a raw material supplier system 10, a manufacturer system 50, and a cloud server 30. The raw material supplier system 10, the manufacturer system 50, and the cloud server 30 are communicably connected via a network (not shown).
<原料サプライヤシステム10>
 原料サプライヤシステム10は、プロセッサシステムの一例であり、処理装置11と、スペクトル計測装置16と、入出力装置19とを備える。
<Raw material supplier system 10>
The raw material supplier system 10 is an example of a processor system and includes a processing device 11 , a spectrum measurement device 16 and an input/output device 19 .
 入出力装置19は、例えば、マウス、キーボード等の入力装置と、ディスプレイ等の表示装置を含み、ユーザによる情報の入力を受け付け、各種情報を含むユーザインターフェースを表示出力する。 The input/output device 19 includes, for example, an input device such as a mouse and a keyboard, and a display device such as a display, receives information input by the user, and displays and outputs a user interface containing various information.
 処理装置11は、例えば、PC(Personal Computer)等の計算機であり、通信モジュール12と、プロセッサ13と、記憶資源14と、入出力モジュール15とを備える。 The processing device 11 is, for example, a computer such as a PC (Personal Computer), and includes a communication module 12, a processor 13, a storage resource 14, and an input/output module 15.
 通信モジュール12は、例えば、有線LANカードや無線LANカードなどであり、ネットワークを介して他の装置(例えば、製造メーカシステム50、クラウドサーバ30等)と通信する。 The communication module 12 is, for example, a wired LAN card or a wireless LAN card, and communicates with other devices (eg, manufacturer system 50, cloud server 30, etc.) via a network.
 プロセッサ13は、記憶資源14に格納されているプログラムに従って各種処理を実行する。 The processor 13 executes various processes according to the programs stored in the storage resource 14.
 記憶資源14は、プロセッサ13で実行対象となるプログラムや、このプログラムで使用する各種情報等を格納する。記憶資源14としては、例えば、半導体メモリ、フラッシュメモリ、HDD(Hard Disk Drive)、SSD(Solid State Drive)等であってよく、揮発タイプのメモリでも、不揮発タイプのメモリでもよい。 The storage resource 14 stores programs to be executed by the processor 13 and various information used in these programs. The storage resource 14 may be, for example, a semiconductor memory, a flash memory, a HDD (Hard Disk Drive), an SSD (Solid State Drive), or the like, and may be either a volatile type memory or a nonvolatile type memory.
 入出力モジュール15は、スペクトル計測装置16や入出力装置19との間でデータの入出力を行う。 The input/output module 15 inputs and outputs data between the spectrum measurement device 16 and the input/output device 19 .
 スペクトル計測装置16は、測定対象(本実施形態では、出荷対象の含有材100)に対して光を照射し、反射光や透過光等のスペクトルを測定する装置である。測定対象のスペクトルを測定することにより、測定対象の組成の情報又は組成に起因する情報を得ることができる。測定に使用する波長は、例えば、近赤外線の波長範囲(800~2500nm)の少なくとも一部の範囲の波長であってもよい。スペクトル計測装置16は、例えば、ハンディー型の装置であってもよい。 The spectrum measuring device 16 is a device that irradiates a measurement object (in this embodiment, the containing material 100 to be shipped) with light and measures the spectrum of reflected light, transmitted light, and the like. By measuring the spectrum of the object to be measured, information on the composition of the object to be measured or information resulting from the composition can be obtained. The wavelength used for measurement may be, for example, a wavelength in at least part of the near-infrared wavelength range (800 to 2500 nm). The spectrum measurement device 16 may be, for example, a handheld device.
 スペクトル計測装置16は、光源18と、検出部17とを有する。光源18は測定対象に照射するための所定の波長範囲の光を発生する。検出部17は、測定対象に光を照射して得られる光を検出する。 The spectrum measurement device 16 has a light source 18 and a detection section 17 . A light source 18 generates light in a predetermined wavelength range for irradiating the object to be measured. The detection unit 17 detects light obtained by irradiating the object to be measured with light.
 ここで、出荷対象の含有材100又はその含有材100を梱包する梱包材に対して、その含有材100を識別可能なID(製品ID、又は配送ID)を示すバーコード情報(例えば、QRコード(登録商標))が付加されて管理されることがあるが、この場合には、スペクトル計測装置16は、含有材100に対応するバーコード情報と、その含有材100のスペクトルデータとを1操作で測定できるような構成としてもよい。このような構成とすると、IDと、そのIDに対応する含有材100のスペクトルデータとを適切に取得することができ、スペクトルデータの誤取得や、偽装等を防止することができる。 Here, barcode information (for example, QR code (registered trademark)) indicating an ID (product ID or delivery ID) that can identify the containing material 100 to be shipped or the packing material that packs the containing material 100 may be added and managed. In this case, the spectrum measurement device 16 may be configured to measure the barcode information corresponding to the containing material 100 and the spectrum data of the containing material 100 in one operation. With such a configuration, the ID and the spectrum data of the containing material 100 corresponding to the ID can be appropriately acquired, and erroneous acquisition of the spectrum data, falsification, and the like can be prevented.
<製造メーカシステム50>
 製造メーカシステム50は、プロセッサシステムの一例であり、処理装置51と、スペクトル計測装置56と、入出力装置59とを備える。
<Manufacturer system 50>
The manufacturer system 50 is an example of a processor system and includes a processing device 51 , a spectrum measurement device 56 and an input/output device 59 .
 入出力装置59は、例えば、マウス、キーボード等の入力装置と、ディスプレイ等の表示装置を含み、ユーザによる情報の入力を受け付け、各種情報を含むユーザインターフェースを表示出力する。 The input/output device 59 includes, for example, an input device such as a mouse and a keyboard, and a display device such as a display, receives information input by the user, and displays and outputs a user interface containing various information.
 処理装置51は、例えば、PC等の計算機であり、通信モジュール52と、プロセッサ53と、記憶資源54と、入出力モジュール55とを備える。 The processing device 51 is, for example, a computer such as a PC, and includes a communication module 52, a processor 53, a storage resource 54, and an input/output module 55.
 通信モジュール52は、例えば、有線LANカードや無線LANカードなどであり、ネットワークを介して他の装置(例えば、原料サプライヤシステム10、クラウドサーバ30等)と通信する。 The communication module 52 is, for example, a wired LAN card or a wireless LAN card, and communicates with other devices (eg, raw material supplier system 10, cloud server 30, etc.) via a network.
 プロセッサ53は、記憶資源54に格納されているプログラムに従って各種処理を実行する。 The processor 53 executes various processes according to the programs stored in the storage resource 54.
 記憶資源54は、プロセッサ53で実行対象となるプログラムや、このプログラムで使用する各種情報等を格納する。記憶資源54としては、例えば、半導体メモリ、フラッシュメモリ、HDD、SSD等であってよく、揮発タイプのメモリでも、不揮発タイプのメモリでもよい。 The storage resource 54 stores programs to be executed by the processor 53 and various information used by these programs. The storage resource 54 may be, for example, a semiconductor memory, a flash memory, an HDD, an SSD, or the like, and may be a volatile type memory or a nonvolatile type memory.
 入出力モジュール55は、スペクトル計測装置56や入出力装置59との間でデータの入出力を行う。 The input/output module 55 inputs and outputs data between the spectrum measuring device 56 and the input/output device 59 .
 スペクトル計測装置56は、測定対象(本実施形態では、受け取った含有材110であり、出荷時や配送中において不正等がない場合には、出荷された含有材100と同一物である)に対して光を照射し、反射光や透過光等のスペクトルを測定する装置である。測定に使用する波長は、例えば、近赤外線の波長範囲(800~2500nm)の少なくとも一部の範囲の波長であってもよい。スペクトル計測装置56は、例えば、ハンディー型の装置であってもよい。スペクトル計測装置56は、スペクトル計測装置16と同機種であってもよく、同規格の機種であってもよい。 The spectrum measuring device 56 is a device that irradiates a measurement target (in this embodiment, the received contained material 110, which is the same as the shipped contained material 100 if there is no fraud at the time of shipment or during delivery), and measures the spectrum of reflected light, transmitted light, etc. The wavelength used for measurement may be, for example, a wavelength in at least part of the near-infrared wavelength range (800 to 2500 nm). The spectrum measurement device 56 may be, for example, a handheld device. The spectrum measuring device 56 may be of the same model as the spectrum measuring device 16, or may be of the same standard.
 スペクトル計測装置56は、光源58と、検出部57とを有する。光源58は測定対象に照射するための所定の波長範囲の光を発生する。検出部57は、測定対象に光を照射して得られる光を検出する。 The spectrum measurement device 56 has a light source 58 and a detection section 57 . A light source 58 generates light in a predetermined wavelength range for irradiating the object to be measured. The detection unit 57 detects light obtained by irradiating the object to be measured with light.
 スペクトル計測装置56は、含有材110に対応するバーコード情報と、その含有材110のスペクトルとを1操作で測定できるような構成としてもよい。このような構成とすると、含有材110のIDと、そのIDに対応する含有材110のスペクトルデータとを適切に取得することができ、スペクトルデータの誤取得を防止することができる。 The spectrum measurement device 56 may be configured to measure barcode information corresponding to the containing material 110 and the spectrum of the containing material 110 in one operation. With such a configuration, the ID of the containing material 110 and the spectrum data of the containing material 110 corresponding to the ID can be appropriately acquired, and erroneous acquisition of the spectrum data can be prevented.
<クラウドサーバ30>
 クラウドサーバ30は、プロセッサシステムの一例及び判定システムの一例であり、例えば、PCや、汎用サーバ等の計算機であり、通信モジュール31と、プロセッサ32と、記憶資源33とを備える。
<Cloud server 30>
The cloud server 30 is an example of a processor system and an example of a determination system.
 通信モジュール31は、例えば、有線LANカードや無線LANカードなどであり、ネットワークを介して他の装置(例えば、原料サプライヤシステム10、製造メーカシステム50等)と通信する。 The communication module 31 is, for example, a wired LAN card or a wireless LAN card, and communicates with other devices (eg, raw material supplier system 10, manufacturer system 50, etc.) via a network.
 プロセッサ32は、記憶資源33に格納されているプログラムに従って各種処理を実行する。 The processor 32 executes various processes according to programs stored in the storage resource 33 .
 記憶資源33は、プロセッサ32で実行対象となるプログラムや、このプログラムで使用する各種情報等を格納する。記憶資源33としては、例えば、半導体メモリ、フラッシュメモリ、HDD、SSD等であってよく、揮発タイプのメモリでも、不揮発タイプのメモリでもよい。 The storage resource 33 stores programs to be executed by the processor 32 and various information used by these programs. The storage resource 33 may be, for example, a semiconductor memory, a flash memory, an HDD, an SSD, or the like, and may be a volatile type memory or a nonvolatile type memory.
 次に、第1実施形態に係るエコシステムにおける不正確認処理を説明する。 Next, fraud confirmation processing in the ecosystem according to the first embodiment will be described.
 図3は、第1実施形態に係るエコシステムにおける不正確認処理を説明するフローチャートである。 FIG. 3 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the first embodiment.
 製造メーカシステム50において、記憶資源54に原料サプライヤにより生成されるべき生成対象の含有材110の仕様を示す分光スペクトルデータ(仕様分光スペクトルデータ:仕様スペクトルデータ、仕様データの一例)を用意する(ステップS1)。ここで、仕様分光スペクトルデータは、例えば、原料サプライヤで生成されるべき含有材の試作品を生成して、スペクトル計測装置56によりその試作品から測定された分光スペクトルデータとしてもよく、プロセッサ53が原料サプライヤにより生成されるべき含有材110の仕様に対応する分光スペクトルデータを模擬的に作成した分光スペクトルデータとしてもよく、予め用意された複数の含有材の分光スペクトルデータから選択されたものとしてもよい。 In the manufacturer system 50, spectroscopic spectrum data (specification spectroscopic spectrum data: specification spectrum data, an example of specification data) indicating the specifications of the inclusion material 110 to be generated by the raw material supplier is prepared in the storage resource 54 (step S1). Here, the specification spectroscopic spectrum data may be, for example, spectroscopic spectrum data measured by the spectrum measurement device 56 from a prototype of the containing material to be produced by the raw material supplier, spectroscopic spectrum data obtained by the processor 53 simulating the spectroscopic spectrum data corresponding to the specifications of the containing material 110 to be produced by the raw material supplier, or selected from spectroscopic spectrum data of a plurality of preliminarily prepared containing materials.
 次いで、プロセッサ53は、用意した仕様分光スペクトルデータを、通信モジュール52を介してクラウドサーバ30に送信し、クラウドサーバ30に保存させる(ステップS2)。なお、プロセッサ53は、仕様分光スペクトルデータを、原料サプライヤに対する含有材の生成要求に含めてクラウドサーバ53に送信してもよく、この場合には、クラウドサーバ53は、これらの生成要求を原料サプライヤシステム10に転送してもよい。 Next, the processor 53 transmits the prepared spectroscopic spectrum data to the cloud server 30 via the communication module 52, and stores it in the cloud server 30 (step S2). Note that the processor 53 may include the spectroscopic spectrum data in a production request for the containing material to the raw material supplier and transmit it to the cloud server 53. In this case, the cloud server 53 may transfer these production requests to the raw material supplier system 10.
 次いで、原料サプライヤにおいては、製造メーカから生成を要求された含有材をリサイクル材やバージン材を用いて生成する。なお、製造メーカからの含有材の生成要求は、例えば、製造メーカシステム50からクラウドサーバ30を介して、原料サプライヤシステム10が受信して、入出力装置19に表示するようにしてもよく、他の手段により通知してもよい。 Next, at the raw material supplier, the contained material requested by the manufacturer is produced using recycled or virgin materials. Note that the request for generation of the contained material from the manufacturer may be received by the raw material supplier system 10 from the manufacturer system 50 via the cloud server 30 and displayed on the input/output device 19, or may be notified by other means.
 次いで、原料サプライヤにおいては、スペクトル計測装置16により生成されて出荷対象となる含有材の分光スペクトルデータ(出荷分光スペクトルデータ:出荷スペクトルデータ、出荷データの一例)が測定される。処理装置11のプロセッサ13は、スペクトル計測装置16により測定された出荷分光スペクトルデータを取得する(ステップS3)。 Next, at the raw material supplier, spectroscopic spectrum data (shipping spectroscopic data: shipping spectroscopic data, an example of shipping data) of the containing material to be shipped generated by the spectrum measuring device 16 is measured. The processor 13 of the processing device 11 acquires the shipping spectrum data measured by the spectrum measuring device 16 (step S3).
 次いで、プロセッサ13は、取得した出荷分光スペクトルデータを、通信モジュール12を介してクラウドサーバ30に送信し、クラウドサーバ30に保存させる(ステップS4)。 Next, the processor 13 transmits the acquired shipment spectroscopic data to the cloud server 30 via the communication module 12 and stores it in the cloud server 30 (step S4).
 次いで、クラウドサーバ30のプロセッサ32は、出荷分光スペクトルデータに対して所定の特徴量を抽出可能にするための解析処理を実施し、解析データ(第2解析データ:出荷データ解析データ)を得る(ステップS5)。ここで、解析データとしては、解析処理が施されたスペクトルデータとしてもよく、スペクトルデータから抽出された特徴量(例えば、ピークの位置や、ピークの物理量等)としてもよい。また、解析処理は、予め設定された解析条件に従った解析処理であってもよく、出荷分光スペクトルデータに対する解析結果を原料サプライヤシステム10に逐次提供し、原料サプライヤシステム10から解析条件の変更を逐次受け付けることにより調整された解析条件に従った解析処理であってもよい。ここで、解析条件は、スペクトルデータのノイズ成分を除去するための条件(ノイズ除去条件)、スペクトルデータのベースラインを補正するための条件(ベースライン補正条件)、スペクトルデータのピークを分離及び先鋭化するための条件(ピーク分離・先鋭化条件)との少なくとも一つを含んでもよい。ノイズ除去条件としては、例えば、平滑化サビツキ-ゴレイを実行することとしてもよく、ベースライン補正条件としては、SNV(Standard Normal Variate)、MSC(Multiplicative Scatter Correction)、オフセット補正、線形補正のいずれかを実行することとしてもよく、ピーク分離・先鋭化条件としては、微分処理、MCR(Multivariate Curve Resolution)のいずれかを実行することとしてもよい。 Next, the processor 32 of the cloud server 30 performs analysis processing for extracting a predetermined feature amount from the shipment spectral data, and obtains analysis data (second analysis data: shipment data analysis data) (step S5). Here, the analytical data may be spectral data that has been subjected to analytical processing, or feature amounts (for example, peak positions, physical quantities of peaks, etc.) extracted from the spectral data. Further, the analysis processing may be analysis processing in accordance with preset analysis conditions, or may be analysis processing in accordance with analysis conditions adjusted by sequentially providing the raw material supplier system 10 with analysis results for shipment spectroscopic data and sequentially receiving changes in the analysis conditions from the raw material supplier system 10. Here, the analysis conditions may include at least one of conditions for removing noise components of spectral data (noise removal conditions), conditions for correcting baselines of spectral data (baseline correction conditions), and conditions for separating and sharpening peaks of spectral data (peak separation/sharpening conditions). As the noise removal condition, for example, smoothing Savitzky-Golay may be performed, and as the baseline correction condition, any one of SNV (Standard Normal Variate), MSC (Multiplicative Scatter Correction), offset correction, and linear correction may be performed. Variate Curve Resolution) may be executed.
 次いで、クラウドサーバ30のプロセッサ32は、出荷分光スペクトルデータと、第2解析データと、解析処理の解析条件とを記憶資源33に保存する(ステップS6)。本実施形態では、クラウドサーバ30のプロセッサ32は、例えば、出荷分光スペクトルデータと、第2解析データと、解析処理の解析条件と、を出荷対象の含有材を識別するID、例えば、含有材の個体又は種別を示すID又は含有材の配送における配送ID等に対応付けて記憶資源33に保存する。 Next, the processor 32 of the cloud server 30 saves the shipping spectral data, the second analysis data, and the analysis conditions of the analysis process in the storage resource 33 (step S6). In the present embodiment, the processor 32 of the cloud server 30 stores, for example, the shipment spectroscopic data, the second analysis data, and the analysis conditions of the analysis process in the storage resource 33 in association with an ID that identifies the contained material to be shipped, for example, an ID that indicates the individual or type of the contained material, or a delivery ID in the delivery of the contained material.
 次いで、クラウドサーバ30のプロセッサ32は、仕様分光スペクトルデータに対して、仕様に対応して生成された含有材に対応する、ステップS6で保存された解析条件に基づいて解析処理を実施し、解析データ(第1解析データ:仕様データ解析データ)を得る(ステップS7)。 Next, the processor 32 of the cloud server 30 performs analysis processing on the specification spectrum data based on the analysis conditions saved in step S6, which correspond to the inclusion material generated in accordance with the specification, and obtains analysis data (first analysis data: specification data analysis data) (step S7).
 次いで、クラウドサーバ30のプロセッサ32は、第1解析データと、第2解析データとを比較し、生成された含有材を出荷してもよいか(具体的には、生成された含有材が仕様を満たしているか否か)の出荷可否を判定し、出荷可否結果を原料サプライヤシステム10に送信する(ステップS8)。ここで、本実施形態では、第1解析データと、第2解析データとが同一又は差が所定の範囲内である場合に、生成された含有材が仕様を満たしている(出荷可)と判定する。 Next, the processor 32 of the cloud server 30 compares the first analysis data and the second analysis data, determines whether or not the generated contained material can be shipped (specifically, whether or not the generated contained material satisfies the specifications), and transmits the shipping decision result to the raw material supplier system 10 (step S8). Here, in the present embodiment, when the first analysis data and the second analysis data are the same or the difference is within a predetermined range, it is determined that the generated inclusion material satisfies the specifications (shippable).
 原料サプライヤシステム10の処理装置11のプロセッサ13は、出荷可否結果を受信すると、出荷可否の結果を入出力装置19に表示する(ステップS9)。この処理により、出荷される含有材には、生成時における不正がないことが確認できる。 When the processor 13 of the processing device 11 of the raw material supplier system 10 receives the shipping approval/disapproval result, it displays the shipping approval/disapproval result on the input/output device 19 (step S9). By this process, it is possible to confirm that there is no illegality in the production of the included material to be shipped.
 この結果、出荷可である場合には、原料サプライヤは、例えば、配送会社に対して、生成した含有材を製造メーカに配送するように指示し、指示を受けた配送会社が含有材を製造メーカに配送する(ステップS10)。ここで、含有材を配送する際には、含有材又は含有材を梱包する梱包材に対して、配送する含有材を識別するID(含有材の個体又は種別を識別するID又は配送を示すID(配送ID))が、例えば、バーコード(例えば、QRコード(登録商標))等により付加される。この後、製造メーカは、配送会社から含有材を受け取ることとなる。 As a result, if it is possible to ship, the raw material supplier, for example, instructs the shipping company to deliver the generated contained material to the manufacturer, and the instructed shipping company delivers the contained material to the manufacturer (step S10). Here, when delivering the contained material, an ID that identifies the contained material to be delivered (an ID that identifies the individual or type of the contained material, or an ID that indicates the delivery (delivery ID)) is added to the contained material or the packing material that packs the contained material, for example, using a bar code (for example, QR code (registered trademark)). After this, the manufacturer will receive the inclusions from the delivery company.
 製造メーカシステム50においては、受け取った含有材の分光スペクトルデータ(受取分光スペクトルデータ)がスペクトル計測装置56により測定される。処理装置51のプロセッサ53は、スペクトル計測装置56によって測定された受取分光スペクトルデータを取得する(ステップS11)。なお、本実施形態では、プロセッサ53は、配送された含有材を識別するIDについても取得する。このIDは、バーコード等をスキャンして取得されてもよいし、ユーザ等による入力によって取得されてもよい。 In the manufacturer system 50 , the received spectroscopic data of the containing material (received spectroscopic data) is measured by the spectrum measuring device 56 . The processor 53 of the processing device 51 acquires received spectral data measured by the spectrum measuring device 56 (step S11). Note that, in this embodiment, the processor 53 also acquires an ID that identifies the delivered content. This ID may be acquired by scanning a bar code or the like, or may be acquired by input by a user or the like.
 次いで、プロセッサ53は、取得した受取分光スペクトルデータを、通信モジュール52を介してクラウドサーバ30に送信し、クラウドサーバ30に保存させる(ステップS12)。 Next, the processor 53 transmits the obtained received spectroscopic data to the cloud server 30 via the communication module 52 and stores it in the cloud server 30 (step S12).
 次いで、クラウドサーバ30のプロセッサ32は、受取分光スペクトルデータに対して、受け付けた含有材に対応する、ステップS6で保存された解析条件に基づいて解析処理を実施し、解析データ(第3解析データ:受取データ解析データ)を得る(ステップS13)。ここで、スペクトルデータに対して同一の解析条件による解析処理を行うので、解析データによる比較を適切に行うことができる。 Next, the processor 32 of the cloud server 30 performs analysis processing on the received spectroscopic data based on the analysis conditions stored in step S6 corresponding to the received inclusion material, and obtains analysis data (third analysis data: received data analysis data) (step S13). Here, since analysis processing is performed on the spectrum data under the same analysis conditions, it is possible to appropriately perform comparison based on the analysis data.
 次いで、クラウドサーバ30のプロセッサ32は、受け取った含有材に対して不正が行われたか否かの不正確認を行って受入可否を判定し(不正がなければ、受入可と判定し、不正があれば、受入不可と判定し)、受入可否結果を製造メーカシステム50に送信する(ステップS14)。 Next, the processor 32 of the cloud server 30 checks whether or not the received contained material has been tampered with, determines whether or not it can be accepted (if there is no tampering, it determines that it can be accepted, and if there is tampering, it determines that it cannot be accepted), and transmits the result of whether or not it can be accepted to the manufacturer system 50 (step S14).
 ここで、不正確認において、プロセッサ32は、第3解析データと、仕様分光スペクトルに基づく第1解析データとに基づいて、受け取った含有材が仕様に該当するか否か(仕様に一致するか又は仕様の許容範囲内にあるか否か)により不正が行われたかを確認してもよい。この確認方法によると、原料サプライヤによる含有材の生成における不正や、配送時における含有材のすり替え等の不正があったことを適切に把握することができる。 Here, in the confirmation of fraud, the processor 32 may confirm whether or not the received contained material conforms to the specifications (matches the specifications or falls within the permissible range of the specifications) based on the third analysis data and the first analysis data based on the spec spectrum. According to this confirmation method, it is possible to appropriately grasp whether there has been fraud in the production of the contained material by the raw material supplier or in the replacement of the contained material at the time of delivery.
 また、プロセッサ32は、第3解析データと、出荷分光スペクトルに基づく第2解析データとに基づいて、受け取った含有材110が出荷された含有材100と同じであるか否かにより不正が行われたかを確認してもよい。この確認方法によると、配送時における含有材のすり替え等の不正があったことを適切に把握することができる。 In addition, the processor 32 may confirm whether fraud has been committed by determining whether the received contained material 110 is the same as the shipped contained material 100 based on the third analysis data and the second analysis data based on the shipment spectroscopic spectrum. According to this confirmation method, it is possible to appropriately grasp that there has been an illegality such as replacement of the contained material at the time of delivery.
 また、プロセッサ32は、仕様分光スペクトルに基づく第1解析データと、出荷分光スペクトルに基づく第2解析データとに基づいて、出荷された含有材が仕様に該当するか否かにより不正が行われたかを確認してもよい。この確認方法によると、原料サプライヤによる含有材の生成における不正があったことを適切に把握することができる。 In addition, the processor 32 may confirm whether or not fraud has been committed based on the first analysis data based on the specification spectroscopic spectrum and the second analysis data based on the shipping spectroscopic spectrum, based on whether or not the shipped contained material conforms to the specifications. According to this confirmation method, it is possible to appropriately grasp that there has been fraud in the production of the contained material by the raw material supplier.
 製造メーカシステム50の処理装置51のプロセッサ53は、受入可否結果を受信すると、受入可否結果を入出力装置59に表示する(ステップS15)。これにより、製造メーカのユーザは、受け取った含有材110を受け入れてもよいか否かを適切に把握することができる。なお、製造メーカにおいては、含有材を受け入れた後にこの含有材を用いて製品の製造や加工を行うこととなる。 Upon receiving the acceptance result, the processor 53 of the processing device 51 of the manufacturer system 50 displays the acceptance result on the input/output device 59 (step S15). Thereby, the user of the manufacturer can appropriately grasp whether or not the received inclusion material 110 can be accepted. After receiving the contained material, the manufacturer manufactures and processes products using the contained material.
<第2実施形態>
 次に、第2実施形態に係るエコシステムについて説明する。
<Second embodiment>
Next, an ecosystem according to the second embodiment will be described.
 まず、第2実施形態に係るエコシステムの概要を説明する。 First, an outline of the ecosystem according to the second embodiment will be explained.
 図4は、第2実施形態に係るエコシステムの概要を説明する図である。 FIG. 4 is a diagram explaining the overview of the ecosystem according to the second embodiment.
 第2実施形態に係るエコシステムは、第1実施形態に係るエコシステムと同様に、原料サプライヤと、クラウドプロバイダと、製造メーカとが関わる。 Like the ecosystem according to the first embodiment, the ecosystem according to the second embodiment involves raw material suppliers, cloud providers, and manufacturers.
 製造メーカの製造メーカシステム50Aは、クラウドプロバイダのクラウドサーバ30Aに対して、原料サプライヤに生成を依頼する含有材の基準となる含有材の仕様を示すスペクトルデータ(仕様データ)を格納する(図4(1))。 The manufacturer system 50A of the manufacturer stores, in the cloud server 30A of the cloud provider, spectrum data (specification data) indicating the specification of the contained material, which is the standard of the contained material for which the raw material supplier is requested to generate (Fig. 4 (1)).
 次いで、原料サプライヤの原料サプライヤシステム10Aは、クラウドサーバ30Aから製造メーカから指定された含有材の生成要求として仕様データを受け取る(図4(2))。 Next, the raw material supplier system 10A of the raw material supplier receives specification data from the cloud server 30A as a request to generate the containing material specified by the manufacturer (Fig. 4 (2)).
 原料サプライヤは、要求された含有材を生成設備により生成する。次いで、原料サプライヤシステム10Aは、生成した出荷対象の含有材のスペクトルデータ(出荷データ)を測定し、出荷データに対する解析処理を実行する(図4(3))。次いで、原料サプライヤシステム10Aは、出荷データに対して解析処理を行った後の解析データと、仕様データに対して同様の解析条件の解析処理を行った後の解析データとを比較して、出荷対象の含有材が仕様を満たすか否かを判定することにより、この含有材を出荷できるか否かを判定し、出荷可否結果を出力する(図4(4))。この後、原料サプライヤでは、出荷可否結果が出荷可である場合には、生成した含有材を製造メーカに対して出荷することとなる。 The raw material supplier produces the requested content material with the production equipment. Next, the raw material supplier system 10A measures the generated spectrum data (shipment data) of the contained material to be shipped, and executes analysis processing for the shipment data ((3) in FIG. 4). Next, the raw material supplier system 10A compares the analysis data after performing the analysis processing on the shipping data and the analysis data after performing the analysis processing of the same analysis conditions on the specification data, and determines whether or not the containing material to be shipped satisfies the specifications, thereby determining whether or not the containing material can be shipped, and outputs the result of shipping feasibility (FIG. 4 (4)). After that, when the result of shipping is possible, the raw material supplier ships the generated containing material to the manufacturer.
 次いで、原料サプライヤシステム10Aは、出荷データと、解析処理の解析条件とをクラウドサーバ30Aに送信する(図4(5))。なお、本実施形態では、原料サプライヤシステム10Aは、出荷データと、解析処理の解析条件とを、対応する含有材を特定可能なIDと対応付けて送信する。 Next, the raw material supplier system 10A transmits the shipping data and the analysis conditions for analysis processing to the cloud server 30A ((5) in FIG. 4). In the present embodiment, the raw material supplier system 10A transmits the shipment data and the analysis conditions of the analysis processing in association with an ID capable of identifying the corresponding contained material.
 製造メーカでは、原料サプライヤから出荷された含有材を受け取ると、製造メーカシステム50Aは、受け取った含有材に対応する、出荷データと、解析条件とをクラウドサーバ30Aから取得する(図4(6))。 When the manufacturer receives the contained material shipped from the raw material supplier, the manufacturer system 50A acquires the shipping data and analysis conditions corresponding to the received contained material from the cloud server 30A (Fig. 4 (6)).
 次いで、製造メーカシステム50Aは、受け取った含有材についてのスペクトルデータ(受取データ)を測定し、受取データに対して、受け取った解析条件に基づいて解析処理を実行する(図4(7))。 Next, the manufacturer system 50A measures received spectrum data (received data) about the contained material, and executes analysis processing on the received data based on the received analysis conditions (Fig. 4 (7)).
 次いで、製造メーカシステム50Aは、受け取った含有材を製造のために受け入れてよいか否か(受入可否)を判定し、判定結果(受入可否結果)を出力する(図4(8))。ここで、受入可否の判定としては、仕様データに対して解析処理を行った後の解析データと、受取データに対して解析処理を行った後の解析データとを比較して、受け取った含有材に不正がないか否かを判定してもよく、仕様データに対して解析処理を行った後の解析データと、出荷データに対して解析処理を行った後の解析データとを比較して、受け取った含有材に不正がないか否かを判定してもよく、出荷データに対して解析処理を行った後の解析データと、受取データに対して解析処理を行った後の解析データとを比較して、受け取った含有材に不正がないか否かを判定してもよい。この後、製造メーカでは、受入可である場合には、受け取った含有材を用いて製造設備により製品を製造等することとなる。 Next, the manufacturer system 50A determines whether or not the received contained material can be accepted for manufacturing (acceptability), and outputs the determination result (acceptability result) (Fig. 4 (8)). Here, as a judgment of whether or not the acceptance is possible, it is possible to judge whether or not there is any illegality in the received contained materials by comparing the analyzed data after the analytical processing of the specification data and the analytical data after the analytical processing of the received data. It may be determined whether or not the received content is fraudulent by comparing it with the analysis data. After that, the manufacturer manufactures the product using the manufacturing facility using the received contained material, if the received material is acceptable.
<システム構成>
 第2実施形態に係るエコシステムの原料サプライヤシステム10Aと、製造メーカシステム50Aと、クラウドサーバ30Aのハードウェア構成は、図2に示す第1実施形態に係る原料サプライヤシステム10と、製造メーカシステム50と、クラウドサーバ30と同様である。なお、本実施形態では、原料サプライヤシステム10Aと、製造メーカシステム50Aと、クラウドサーバ30Aの内部構成については、便宜的に図2の参照符号を用いる。
<System configuration>
The hardware configurations of the raw material supplier system 10A, the manufacturer system 50A, and the cloud server 30A of the ecosystem according to the second embodiment are the same as those of the raw material supplier system 10, the manufacturer system 50, and the cloud server 30 according to the first embodiment shown in FIG. In this embodiment, reference numerals in FIG. 2 are used for the internal configurations of the raw material supplier system 10A, the manufacturer system 50A, and the cloud server 30A for convenience.
 次に、第2実施形態に係るエコシステムにおける不正確認処理を説明する。 Next, fraud confirmation processing in the ecosystem according to the second embodiment will be described.
 図5は、第2実施形態に係るエコシステムにおける不正確認処理を説明するフローチャートである。 FIG. 5 is a flowchart for explaining fraud confirmation processing in the ecosystem according to the second embodiment.
 製造メーカシステム50Aにおいて、記憶資源54に原料サプライヤにより生成されるべき含有材110の仕様を示す分光スペクトルデータ(仕様分光スペクトルデータ:仕様スペクトルデータ、仕様データの一例)を用意する(ステップS21)。ここで、仕様分光スペクトルデータは、例えば、原料サプライヤで生成されるべき含有材の試作品を作成して、スペクトル計測装置56によりその試作品から測定された分光スペクトルデータとしてもよく、プロセッサ53が原料サプライヤにより生成されるべき含有材110の仕様に対応する分光スペクトルデータを模擬的に作成した分光スペクトルデータとしてもよく、予め用意された複数の含有材の分光スペクトルデータから選択されたものとしてもよい。 In the manufacturer system 50A, spectroscopic spectrum data (specification spectroscopic spectrum data: specification spectrum data, an example of specification data) indicating the specifications of the containing material 110 to be generated by the raw material supplier is prepared in the storage resource 54 (step S21). Here, the specification spectroscopic spectrum data may be, for example, spectroscopic spectrum data obtained by preparing a prototype of the containing material to be produced by the raw material supplier and measuring the prototype by the spectrum measuring device 56, spectroscopic spectral data obtained by the processor 53 simulating spectroscopic spectral data corresponding to the specifications of the containing material 110 to be produced by the raw material supplier, or selecting spectroscopic spectral data of a plurality of preliminarily prepared containing materials.
 次いで、プロセッサ53は、用意した仕様分光スペクトルデータを、通信モジュール52を介してクラウドサーバ30に送信し、クラウドサーバ30に保存させる(ステップS22)。 Next, the processor 53 transmits the prepared spectroscopic spectrum data to the cloud server 30 via the communication module 52, and stores it in the cloud server 30 (step S22).
 次いで、原料サプライヤにおいては、製造メーカから生成を要求された含有材をリサイクル材やバージン材を用いて生成する。なお、製造メーカからの含有材の生成要求は、例えば、製造メーカシステム50Aからクラウドサーバ30Aを介して、原料サプライヤシステム10Aが受信して、入出力装置19に表示するようにしてもよく、他の手段により通知してもよい。 Next, at the raw material supplier, the contained material requested by the manufacturer is produced using recycled or virgin materials. Note that the request for generation of the contained material from the manufacturer may be received by the raw material supplier system 10A from the manufacturer system 50A via the cloud server 30A and displayed on the input/output device 19, or may be notified by other means.
 次いで、原料サプライヤにおいては、生成されて出荷対象となる含有材の分光スペクトルデータ(出荷分光スペクトルデータ:出荷スペクトルデータ、出荷データの一例)がスペクトル計測装置16により測定される。処理装置11のプロセッサ13は、スペクトル計測装置16により測定された出荷分光スペクトルデータを取得する(ステップS23)。 Next, at the raw material supplier, the spectrum measurement device 16 measures the spectroscopic spectrum data (shipping spectroscopic data: shipping spectroscopic data, an example of shipping data) of the contained material that is generated and is to be shipped. The processor 13 of the processing device 11 acquires the shipping spectrum data measured by the spectrum measuring device 16 (step S23).
 次いで、プロセッサ13は、出荷分光スペクトルデータに対して所定の特徴量を抽出可能にするための解析処理を実施し、解析データ(第2解析データ:出荷データ解析データ)を得る(ステップS24)。ここで、解析データとしては、解析処理が施されたスペクトルデータとしてもよく、スペクトルデータから抽出された特徴量(例えば、ピークの位置や、ピークの物理量等)としてもよい。また、解析処理は、予め設定された解析条件に従った解析処理であってもよく、出荷分光スペクトルデータに対する解析結果を出力し、解析条件の変更を逐次受け付けることにより設定された解析条件に従う解析処理であってもよい。ここで、解析条件は、スペクトルデータのノイズ成分を除去するための条件(ノイズ除去条件)、スペクトルデータのベースラインを補正するための条件(ベースライン補正条件)、スペクトルデータのピークを分離及び先鋭化するための条件(ピーク分離・先鋭化条件)との少なくとも一つを含んでもよい。ノイズ除去条件としては、例えば、平滑化サビツキ-ゴレイを実行することとしてもよく、ベースライン補正条件としては、SNV、MSC、オフセット補正、線形補正のいずれかを実行することとしてもよく、ピーク分離・先鋭化条件としては、微分処理、MCRのいずれかを実行することとしてもよい。 Next, the processor 13 performs analysis processing for extracting a predetermined feature amount from the shipment spectral data, and obtains analysis data (second analysis data: shipment data analysis data) (step S24). Here, the analytical data may be spectral data that has been subjected to analytical processing, or feature amounts (for example, peak positions, physical quantities of peaks, etc.) extracted from the spectral data. Further, the analysis processing may be analysis processing according to preset analysis conditions, or may be analysis processing according to analysis conditions set by outputting analysis results for shipping spectroscopic data and sequentially receiving changes in analysis conditions. Here, the analysis conditions may include at least one of conditions for removing noise components of spectral data (noise removal conditions), conditions for correcting baselines of spectral data (baseline correction conditions), and conditions for separating and sharpening peaks of spectral data (peak separation/sharpening conditions). As the noise removal condition, for example, smoothing Savitzky-Golay may be performed, as the baseline correction condition, any one of SNV, MSC, offset correction, and linear correction may be performed, and as the peak separation/sharpening condition, either differentiation processing or MCR may be performed.
 次いで、プロセッサ13は、出荷する含有材に対応する仕様の仕様分光スペクトルをクラウドサーバ30Aからダウンロードする(ステップS25)。次いで、プロセッサ13は、仕様分光スペクトルに対してステップS24と同じ解析条件に基づいて解析処理を実施し、解析データ(第1解析データ:仕様データ解析データ)を得る(ステップS26)。 Next, the processor 13 downloads the specification spectrum of the specification corresponding to the contained material to be shipped from the cloud server 30A (step S25). Next, the processor 13 performs analysis processing on the specification spectroscopic spectrum based on the same analysis conditions as in step S24 to obtain analysis data (first analysis data: specification data analysis data) (step S26).
 次いで、プロセッサ13は、第1解析データと、第2解析データとを比較し、生成された含有材を出荷してもよいか(具体的には、生成された含有材が仕様を満たしているか否か)の出荷可否を判定し、出荷可否結果を入出力装置19に出力する(ステップS27)。この処理により、出荷される含有材には、生成時における不正がないことが確認できる。 Next, the processor 13 compares the first analysis data and the second analysis data, determines whether or not the generated contained material can be shipped (specifically, whether or not the generated contained material satisfies the specifications), and outputs the shipping decision result to the input/output device 19 (step S27). By this process, it is possible to confirm that there is no illegality in the production of the included material to be shipped.
 次いで、プロセッサ13は、出荷分光スペクトルデータと、第2解析データと、解析処理の解析条件とをクラウドサーバ30Aに保存する(ステップS28)。本実施形態では、プロセッサ13は、例えば、出荷分光スペクトルデータと、第2解析データと、解析処理の解析条件と、を出荷対象の含有材を識別するID、例えば、含有材のID又は含有材の配送ID等に対応付けてクラウドサーバ30Aに保存する。 Next, the processor 13 stores the shipment spectrum data, the second analysis data, and the analysis conditions of the analysis process in the cloud server 30A (step S28). In the present embodiment, the processor 13 stores, for example, the shipment spectroscopic data, the second analysis data, and the analysis conditions of the analysis process in the cloud server 30A in association with an ID that identifies the containing material to be shipped, for example, the ID of the containing material or the delivery ID of the containing material.
 この後、出荷可否結果が出荷可である場合には、原料サプライヤは、例えば、配送会社に対して、生成した含有材を製造メーカに配送するように指示し、指示を受けた配送会社が含有材を製造メーカに配送する(ステップS29)。この後、製造メーカは、配送会社から含有材を受け取ることとなる。 After that, if the result of shipping is possible, the raw material supplier, for example, instructs the shipping company to deliver the generated contained material to the manufacturer, and the instructed shipping company delivers the contained material to the manufacturer (step S29). After this, the manufacturer will receive the inclusions from the delivery company.
 製造メーカシステム50Aにおいては、受け取った含有材の分光スペクトルデータ(受取分光スペクトルデータ:受取スペクトルデータ、受取データの一例)がスペクトル計測装置56により測定される。処理装置51のプロセッサ53は、スペクトル計測装置56により測定された受取分光スペクトルデータを取得する(ステップS30)。 In the manufacturer system 50A, the spectrum measurement device 56 measures the received spectroscopic data of the containing material (received spectroscopic data: received spectroscopic data, an example of received data). The processor 53 of the processing device 51 acquires the received spectral data measured by the spectrum measuring device 56 (step S30).
 次いで、プロセッサ53は、クラウドサーバ30Aから、受け付けた含有材に対応する解析条件を取得し、受取分光スペクトルデータに対して取得した解析条件に基づいて解析処理を実施し、解析データ(第3解析データ:受取データ解析データ)を得る(ステップS31)。 Next, the processor 53 acquires the analysis conditions corresponding to the received contained material from the cloud server 30A, performs analysis processing on the received spectral data based on the acquired analysis conditions, and obtains analysis data (third analysis data: received data analysis data) (step S31).
 次いで、プロセッサ53は、受け取った含有材に対して不正が行われたか否かの不正確認を行って受入可否を判定し(不正がなければ、受入可と判定し、不正があれば、受入不可と判定)、受入可否結果を入出力装置59に出力する(ステップS32)。これにより、製造メーカのユーザは、受け取った含有材110を受け入れてもよいか否かを適切に把握することができる。なお、製造メーカにおいては、含有材を受け入れた後にこの含有材を用いて製品の製造や加工を行うこととなる。 Next, the processor 53 checks whether or not the received contained material has been tampered with, determines whether or not it can be accepted (if there is no tampering, it determines that it can be accepted, and if there is tampering, it determines that it cannot be accepted), and outputs the result of whether or not it can be accepted to the input/output device 59 (step S32). Thereby, the user of the manufacturer can appropriately grasp whether or not the received inclusion material 110 can be accepted. After receiving the contained material, the manufacturer manufactures and processes products using the contained material.
 ここで、不正確認において、プロセッサ53は、第3解析データと、仕様分光スペクトルに対して同様な解析条件により解析された第1解析データとに基づいて、受け取った含有材が仕様に該当するか否か(仕様に一致又は仕様の許容範囲内にあるか否か)により不正が行われたかを確認してもよい。ここで、仕様分光スペクトルデータは、記憶資源54又はクラウドサーバ30Aから取得するようにすればよい。この確認方法によると、原料サプライヤによる含有材の生成における不正や、配送時における含有材のすり替え等の不正があったことを適切に把握することができる。 Here, in the confirmation of fraud, the processor 53 may confirm whether or not the received contained material conforms to the specification (whether it matches the specification or is within the allowable range of the specification) based on the third analysis data and the first analysis data analyzed under the same analysis conditions as the specification spectroscopic spectrum. Here, the spectroscopic spectrum data may be acquired from the storage resource 54 or the cloud server 30A. According to this confirmation method, it is possible to appropriately grasp whether there has been fraud in the production of the contained material by the raw material supplier or in the replacement of the contained material at the time of delivery.
 また、プロセッサ53は、第3解析データと、出荷分光スペクトルデータに基づく第2解析データとに基づいて、受け取った含有材が出荷された含有材と同じであるか否かにより不正が行われたかを確認してもよい。この確認方法によると、配送時における含有材のすり替え等の不正があったことを適切に把握することができる。 In addition, the processor 53 may confirm whether fraud has been committed by determining whether the received contained material is the same as the shipped contained material based on the third analysis data and the second analysis data based on the shipped spectroscopic data. According to this confirmation method, it is possible to appropriately grasp that there has been an illegality such as replacement of the contained material at the time of delivery.
 また、プロセッサ53は、仕様分光スペクトルに基づく第1解析データと、出荷分光スペクトルに基づく第2解析データとに基づいて、出荷された含有材が仕様に該当するか否かにより不正が行われたかを確認してもよい。この確認方法によると、原料サプライヤによる含有材の生成における不正があったことを適切に把握することができる。 In addition, the processor 53 may confirm whether or not fraud has been committed based on the first analysis data based on the specification spectroscopic spectrum and the second analysis data based on the shipping spectroscopic spectrum, based on whether the shipped contained material conforms to the specifications. According to this confirmation method, it is possible to appropriately grasp that there has been fraud in the production of the contained material by the raw material supplier.
<バリエーション>
 なお、本発明は、上述の実施例に限定されるものではなく、本発明の趣旨を逸脱しない範囲で、適宜変形して実施することが可能である。また、下記で説明した処理は組み合わせて用いてもよい。
<Variation>
It should be noted that the present invention is not limited to the above-described embodiments, and can be modified appropriately without departing from the gist of the present invention. Also, the processes described below may be used in combination.
 例えば、上記実施形態では、スペクトル計測装置として、分光分析装置を用いた例を示していたが、本発明はこれに限られず、含有材の組成に関係するスペクトルが計測できる装置であればよく、例えば、含有材のマススペクトルを検出することのできる質量分析装置であってもよい。 For example, in the above embodiment, an example of using a spectroscopic analysis device as a spectrum measurement device was shown, but the present invention is not limited to this, and any device that can measure a spectrum related to the composition of the contained material may be used, for example, a mass spectrometer that can detect the mass spectrum of the contained material.
 また、上記実施形態では出荷分光スペクトルデータを原料サプライヤシステム10(10A)が有するスペクトル計測装置16を使用するようにしていたが、リサイクル材含有材を配送する配送業者がスペクトル計測装置16と同様な機能を有するスペクトル計測装置を所有し、配送業者が原料サプライヤからリサイクル材含有材を配送のために受領した際に配送業者のスペクトル計測装置により出荷分光スペクトルデータを計測するようにしてもよい。このようにすると、原料サプライヤによる配送するリサイクル材含有材の出荷分光スペクトルデータに対する改変等の不正を防止することができる。また、原料サプライヤシステム10(10A)において、スペクトル計測装置16を備えなくてもよくなる。また、この場合には、製造メーカによってリサイクル材含有材が受け取られる際に、配送業者が配送業者のスペクトル計測装置によりリサイクル材含有材の受取分光スペクトルデータを計測して、製造メーカシステム50(50A)に送信するようにしてもよい。このようにすると、製造メーカシステムにおいて、スペクトル計測装置56を備えなくてもよくなる。 Also, in the above embodiment, the spectrum measurement device 16 of the raw material supplier system 10 (10A) is used for the shipment spectrum data, but the delivery company that delivers the recycled material-containing material may have a spectrum measurement device having the same function as the spectrum measurement device 16, and the delivery company's spectrum measurement device may be used to measure the shipment spectrum data when the delivery company receives the recycled material-containing material from the raw material supplier for delivery. By doing so, it is possible to prevent fraud such as alteration of the shipped spectroscopic data of the recycled material-containing material delivered by the raw material supplier. Moreover, the spectrum measuring device 16 does not need to be provided in the raw material supplier system 10 (10A). Also, in this case, when the recycled material-containing material is received by the manufacturer, the delivery company may measure the received spectral data of the recycled material-containing material using the spectrum measurement device of the delivery company, and transmit it to the manufacturer system 50 (50A). By doing so, the manufacturer system does not need to include the spectrum measuring device 56 .
 また、上記実施形態においては、仕様データ、出荷データ、及び受取データとして、スペクトルデータを用いた例を主に示していたが、本発明はこれに限られず、仕様データ、出荷データ、及び受取データとして、スペクトルデータから得られるスペクトルデータに含まれる所定の特徴量のデータとしてもよい。 Also, in the above embodiment, an example of using spectrum data as specification data, shipping data, and receipt data was mainly shown, but the present invention is not limited to this, and data of a predetermined feature amount included in spectrum data obtained from spectrum data may be used as specification data, shipping data, and receipt data.
 また、上記第1実施形態において、クラウドサーバ30を、製造メーカに備えるようにしてもよく、クラウドサーバ30の機能を製造メーカシステム50に備えるようにしてもよく、この場合には、クラウドサーバ30と製造メーカシステムの処理装置51とを1つの計算機で構成するようにしてもよい。 In addition, in the above-described first embodiment, the cloud server 30 may be provided in the manufacturer, or the functions of the cloud server 30 may be provided in the manufacturer system 50. In this case, the cloud server 30 and the processor 51 of the manufacturer system may be configured in one computer.
 また、上記実施形態において、プロセッサが行っていた処理の一部又は全部を、ハードウェア回路で行うようにしてもよい。また、上記実施形態におけるプログラムは、プログラムソースからインストールされてよい。プログラムソースは、プログラム配布サーバ又は記憶メディア(例えば可搬型の記憶メディア)であってもよい。 Also, in the above embodiments, part or all of the processing performed by the processor may be performed by a hardware circuit. Also, the programs in the above embodiments may be installed from program sources. The program source may be a program distribution server or storage media (eg, portable storage media).
 10,10A…原料サプライヤシステム、11…処理装置、12…通信モジュール、13…プロセッサ、14…記憶資源、15…入出力モジュール、16…スペクトル計測装置、17…検出部、18…光源、19…入出力モジュール、30,30A…クラウドサーバ、31…通信モジュール、32…プロセッサ、33…記憶資源、50,50A…製造メーカシステム、51…処理装置、52…通信モジュール、53…プロセッサ、54…記憶資源、55…入出力モジュール、56…スペクトル計測装置、57…検出部、58…光源、59…入出力装置
 
 
 
 
10, 10A... raw material supplier system, 11... processing device, 12... communication module, 13... processor, 14... storage resource, 15... input/output module, 16... spectrum measuring device, 17... detector, 18... light source, 19... input/output module, 30, 30A... cloud server, 31... communication module, 32... processor, 33... storage resource, 50, 50A... manufacturer system, 51... processor, 52... communication module, 53... processor, 54... Storage resource, 55... Input/output module, 56... Spectrum measuring device, 57... Detector, 58... Light source, 59... Input/output device


Claims (15)

  1.  1以上のプロセッサと、記憶資源とを有するプロセッサシステムを有する不正確認システムであって、
     前記記憶資源は、
      生成対象となるリサイクル材を含むリサイクル材含有材のスペクトルデータである仕様スペクトルデータに基づく仕様データと、
      リサイクル材含有材を生成する原料サプライヤから出荷されるリサイクル材含有材のスペクトルデータである出荷スペクトルデータに基づく出荷データ、又はリサイクル材含有材を用いて製造又は加工を行う製造メーカにおいて、前記原料サプライヤから受け取ったリサイクル材含有材のスペクトルデータである受取スペクトルデータに基づく受取データと、を格納し、
     前記プロセッサは、
      前記仕様データと、前記出荷データ又は前記受取データとに基づいて、前記製造メーカに受け取られたリサイクル材含有材についての不正を判定する
    不正確認システム。
    An fraud verification system having a processor system having one or more processors and storage resources,
    The storage resource is
    Specification data based on specification spectrum data, which is spectrum data of materials containing recycled materials including recycled materials to be generated;
    shipping data based on shipping spectrum data, which is spectrum data of materials containing recycled materials shipped from a raw material supplier that generates materials containing recycled materials, or reception data based on receiving spectrum data, which is spectrum data of materials containing recycled materials received from the raw material supplier in a manufacturer that manufactures or processes using materials containing recycled materials, and
    The processor
    A fraud confirmation system that determines whether or not the recycled material-containing material received by the manufacturer is fraudulent, based on the specification data and the shipping data or the receipt data.
  2. 請求項1に記載の不正確認システムにおいて、
     前記原料サプライヤに設けられる原料サプライヤシステムをさらに含み、
     前記原料サプライヤシステムは、
      出荷される前記リサイクル材含有材の前記出荷スペクトルデータを取得し、前記プロセッサシステムに送信する
    不正確認システム。
    In the fraud confirmation system according to claim 1,
    further comprising a raw material supplier system provided at the raw material supplier;
    The raw material supplier system includes:
    A fraud confirmation system that acquires the shipment spectrum data of the recycled material-containing material to be shipped and transmits it to the processor system.
  3. 請求項2に記載の不正確認システムにおいて、
     前記原料サプライヤシステムは、
      前記出荷スペクトルデータの特徴量を抽出可能にする解析処理の所定の解析条件を前記プロセッサシステムに送信し、
     前記プロセッサシステムは、
      前記仕様データに対して前記所定の解析条件の解析処理を実行した仕様データ解析データと、前記出荷スペクトルデータ又は前記受取スペクトルデータに対して前記所定の解析条件の解析処理を実行した解析データとに基づいて、前記製造メーカに受け取られたリサイクル材含有材についての不正を判定する
    不正確認システム。
    In the fraud confirmation system according to claim 2,
    The raw material supplier system includes:
    transmitting to the processor system a predetermined analysis condition for analysis processing that enables extraction of the feature quantity of the shipment spectrum data;
    The processor system is
    A fraud confirmation system that determines whether or not a recycled material-containing material received by the manufacturer is fraudulent, based on specification data analysis data obtained by performing analysis processing under the predetermined analysis conditions on the specification data, and analysis data obtained by performing analysis processing under the predetermined analysis conditions on the shipment spectrum data or the received spectrum data.
  4. 請求項3に記載の不正確認システムにおいて、
     前記解析条件は、スペクトルデータのノイズ成分を除去するためのノイズ除去条件、スペクトルデータのベースラインを補正するためのベースライン補正条件、スペクトルデータのピークを分離及び先鋭化するためのピーク分離・先鋭化条件との少なくとも一つを含む
    不正確認システム。
    In the fraud confirmation system according to claim 3,
    The analysis conditions include at least one of noise removal conditions for removing noise components of spectral data, baseline correction conditions for correcting baselines of spectral data, and peak separation/sharpening conditions for separating and sharpening peaks of spectral data.
  5. 請求項1に記載の不正確認システムにおいて、
     前記製造メーカに設けられる製造メーカシステムをさらに含み、
     前記製造メーカシステムは、
      前記原料サプライヤから受け取った前記リサイクル材含有材の前記受取スペクトルデータを、前記プロセッサシステムに送信する
    不正確認システム。
    In the fraud confirmation system according to claim 1,
    further comprising a manufacturer system provided at the manufacturer;
    The manufacturer system includes:
    A fraud verification system that transmits to the processor system the received spectral data of the recycled material-containing material received from the raw material supplier.
  6. 請求項1に記載の不正確認システムにおいて、
     前記プロセッサシステムは、
     前記製造メーカに設けられる製造メーカシステムである
    不正確認システム。
    In the fraud confirmation system according to claim 1,
    The processor system is
    A fraud confirmation system, which is a manufacturer system provided in the manufacturer.
  7. 請求項6に記載の不正確認システムにおいて、
     前記原料サプライヤに設けられる原料サプライヤシステムをさらに含み、
     前記原料サプライヤシステムは、
      前記製造メーカシステムから、生成すべきリサイクル材含有材の仕様となるスペクトルデータである仕様スペクトルデータを受信し、
      出荷される前記リサイクル材含有材の前記出荷スペクトルデータを取得し、前記出荷スペクトルデータに対して特徴量を抽出可能にする所定の解析条件の解析処理を実行して出荷データ解析データを生成し、
      前記仕様スペクトルデータに対して前記所定の解析条件の解析処理を実行して仕様データ解析データを生成し、
     前記仕様データ解析データと、前記出荷データ解析データとに基づいて、前記リサイクル材含有材の前記原料サプライヤから前記製造メーカへの出荷可否を判定する
    不正確認システム。
    In the fraud confirmation system according to claim 6,
    further comprising a raw material supplier system provided at the raw material supplier;
    The raw material supplier system includes:
    Receiving specification spectrum data, which is spectrum data that is the specification of the recycled material-containing material to be generated, from the manufacturer system;
    Acquiring the shipping spectrum data of the recycled material-containing material to be shipped, executing an analysis process under a predetermined analysis condition that enables extraction of a feature value for the shipping spectrum data, and generating shipping data analysis data;
    generating specification data analysis data by executing analysis processing under the predetermined analysis conditions on the specification spectrum data;
    An unauthorized confirmation system that determines whether or not the material containing the recycled material can be shipped from the raw material supplier to the manufacturer based on the specification data analysis data and the shipping data analysis data.
  8. 請求項7に記載の不正確認システムにおいて、
     前記原料サプライヤシステムは、
      前記所定の解析条件を、前記製造メーカシステムに送信し、
     前記製造メーカシステムは、
      前記仕様データに対して前記所定の解析条件の解析処理を実行した仕様データ解析データと、前記出荷スペクトルデータ又は前記受取スペクトルデータに対して前記所定の解析条件の解析処理を実行した解析データとに基づいて、前記製造メーカに受け取られたリサイクル材含有材についての不正を判定する
    不正確認システム。
    In the fraud confirmation system according to claim 7,
    The raw material supplier system includes:
    transmitting the predetermined analysis conditions to the manufacturer system;
    The manufacturer system includes:
    A fraud confirmation system that determines whether or not a recycled material-containing material received by the manufacturer is fraudulent, based on specification data analysis data obtained by performing analysis processing under the predetermined analysis conditions on the specification data, and analysis data obtained by performing analysis processing under the predetermined analysis conditions on the shipment spectrum data or the received spectrum data.
  9. 請求項1に記載の不正確認システムにおいて、
     前記仕様スペクトルデータと、前記出荷スペクトルデータと、前記受取スペクトルデータとは、800nm以上2500nm以下の波長範囲の少なくとも一部の範囲の分光スペクトルデータである
    不正確認システム。
    In the fraud confirmation system according to claim 1,
    The fraud confirmation system, wherein the specification spectrum data, the shipment spectrum data, and the receipt spectrum data are spectrum data in at least a part of a wavelength range of 800 nm or more and 2500 nm or less.
  10.  1以上のプロセッサを含むプロセッサシステムを有する不正確認システムによる不正確認方法であって、
     前記プロセッサシステムは、
      リサイクル材を含むリサイクル材含有材を使用して製造又は加工を行う製造メーカの製造メーカシステムから、生成すべきリサイクル材含有材の仕様を示す仕様データを含む生成要求を受信し、
      前記生成要求に基づいて原料サプライヤで生成されたリサイクル材含有材のスペクトルデータである出荷スペクトルデータを取得し、
     前記仕様データと、前記出荷スペクトルデータとに基づいて判定される、前記リサイクル材含有材の前記製造メーカへの出荷可否の判定結果を出力する
    不正確認方法。
    A fraud confirmation method by a fraud confirmation system having a processor system including one or more processors,
    The processor system is
    Receive a production request including specification data indicating the specifications of the recycled material-containing material to be produced from the manufacturer system of the manufacturer that manufactures or processes using the recycled material-containing material including the recycled material,
    Acquiring shipment spectrum data, which is spectrum data of a recycled material-containing material generated by a raw material supplier based on the generation request;
    An unauthorized confirmation method for outputting a determination result as to whether or not the material containing the recycled material can be shipped to the manufacturer, which is determined based on the specification data and the shipment spectrum data.
  11. 請求項10に記載の不正確認方法において、
     前記不正確認システムは、
      判定システムをさらに有し、
      前記判定システムは、
       前記仕様データと、前記出荷スペクトルデータとに基づいて、前記リサイクル材含有材の前記原料サプライヤから前記製造メーカへの出荷可否を判定し、判定結果を前記プロセッサシステムに送信する
    不正確認方法。
    In the fraud confirmation method according to claim 10,
    The fraud confirmation system
    further having a judgment system;
    The determination system is
    An unauthorized confirmation method for determining whether or not the material containing recycled material can be shipped from the raw material supplier to the manufacturer based on the specification data and the shipment spectrum data, and transmitting the determination result to the processor system.
  12. 請求項10に記載の不正確認方法において、
     前記プロセッサシステムは、
      前記仕様データと、前記出荷スペクトルデータとに基づいて、前記リサイクル材含有材の前記原料サプライヤから前記製造メーカへの出荷可否を判定する
    不正確認方法。
    In the fraud confirmation method according to claim 10,
    The processor system is
    An unauthorized confirmation method for determining whether or not the material containing the recycled material can be shipped from the raw material supplier to the manufacturer based on the specification data and the shipment spectrum data.
  13.  1以上のプロセッサと、記憶資源とを有するプロセッサシステムを有する不正確認システムであって、
     前記記憶資源は、
      リサイクル材含有材を用いて製造又は加工を行う製造メーカにおいて、リサイクル材含有材を生成する原料サプライヤから受け取ったリサイクル材含有材のスペクトルデータである受取スペクトルデータ又は受取スペクトルデータに特徴量を抽出可能にする所定の解析条件に従う解析処理を行った受取データ解析データを格納し、
     前記プロセッサは、
      前記原料サプライヤから出荷されるリサイクル材含有材のスペクトルデータである出荷スペクトルデータを取得し、
      前記出荷スペクトルデータと、前記受取スペクトルデータ又は前記受取データ解析データとに基づいて、前記製造メーカに受け取られたリサイクル材含有材についての不正を判定する
    不正確認システム。
    An fraud verification system having a processor system having one or more processors and storage resources,
    The storage resource is
    In a manufacturer that manufactures or processes using materials containing recycled materials, receive spectrum data that is spectral data of materials containing recycled materials received from raw material suppliers that generate materials containing recycled materials, or received data analysis data that has undergone analysis processing according to predetermined analysis conditions that enable extraction of feature amounts from the received spectrum data, is stored;
    The processor
    Acquiring shipment spectrum data, which is spectrum data of the recycled material-containing material shipped from the raw material supplier,
    A fraud confirmation system that determines whether or not the recycled material-containing material received by the manufacturer is fraudulent, based on the shipped spectrum data and the received spectrum data or the received data analysis data.
  14. 請求項13に記載の不正確認システムにおいて、
     前記プロセッサは、前記製造メーカのプロセッサシステムから、前記受取スペクトルデータを取得し、前記記憶資源に格納する
    不正確認システム。
    In the fraud confirmation system according to claim 13,
    The fraud confirmation system, wherein the processor acquires the received spectrum data from the manufacturer's processor system and stores it in the storage resource.
  15. 請求項13に記載の不正確認システムにおいて、
     前記プロセッサは、
      前記受取データ解析データと、前記出荷スペクトルデータに対して前記所定の解析条件の解析処理を実行した受取データ解析データと、に基づいて、前記製造メーカに受け取られたリサイクル材含有材についての不正を判定する
    不正確認システム。
     
     
    In the fraud confirmation system according to claim 13,
    The processor
    A fraud confirmation system that determines whether or not the recycled material-containing material received by the manufacturer is fraudulent based on the received data analysis data and the received data analysis data obtained by executing the analysis processing of the predetermined analysis conditions on the shipment spectrum data.

PCT/JP2022/033879 2022-01-24 2022-09-09 Fraud checking system and fraud checking method WO2023139840A1 (en)

Applications Claiming Priority (2)

Application Number Priority Date Filing Date Title
JP2022-008818 2022-01-24
JP2022008818A JP2023107561A (en) 2022-01-24 2022-01-24 Fraud checking system and fraud checking method

Publications (1)

Publication Number Publication Date
WO2023139840A1 true WO2023139840A1 (en) 2023-07-27

Family

ID=87348550

Family Applications (1)

Application Number Title Priority Date Filing Date
PCT/JP2022/033879 WO2023139840A1 (en) 2022-01-24 2022-09-09 Fraud checking system and fraud checking method

Country Status (2)

Country Link
JP (1) JP2023107561A (en)
WO (1) WO2023139840A1 (en)

Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20060161788A1 (en) * 2004-11-01 2006-07-20 Ken Turpin Full color spectrum object authentication methods and systems
US20080133389A1 (en) * 2006-07-31 2008-06-05 Schowengerdt Brian T Method, apparatus, and article to facilitate distributed evaluation of objects using electromagnetic energy
US20100089804A1 (en) * 2002-10-29 2010-04-15 Claude Lambert Method for identifying a substance or object using a plurality of excitation vectors
JP2017505901A (en) * 2014-01-03 2017-02-23 ベリフード, リミテッドVerifood, Ltd. Spectroscopic system, method and application
US20190234799A1 (en) * 2016-06-30 2019-08-01 Sicpa Holding Sa Systems, methods, and computer programs for generating a measure of authenticity of an object
WO2021002284A1 (en) * 2019-07-02 2021-01-07 長瀬産業株式会社 Management device, management system, management method, management program, and recording medium

Patent Citations (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US20100089804A1 (en) * 2002-10-29 2010-04-15 Claude Lambert Method for identifying a substance or object using a plurality of excitation vectors
US20060161788A1 (en) * 2004-11-01 2006-07-20 Ken Turpin Full color spectrum object authentication methods and systems
US20080133389A1 (en) * 2006-07-31 2008-06-05 Schowengerdt Brian T Method, apparatus, and article to facilitate distributed evaluation of objects using electromagnetic energy
JP2017505901A (en) * 2014-01-03 2017-02-23 ベリフード, リミテッドVerifood, Ltd. Spectroscopic system, method and application
US20190234799A1 (en) * 2016-06-30 2019-08-01 Sicpa Holding Sa Systems, methods, and computer programs for generating a measure of authenticity of an object
WO2021002284A1 (en) * 2019-07-02 2021-01-07 長瀬産業株式会社 Management device, management system, management method, management program, and recording medium

Also Published As

Publication number Publication date
JP2023107561A (en) 2023-08-03

Similar Documents

Publication Publication Date Title
US9990606B2 (en) Systems and methods for measuring and tracking radio-frequency identification tags
CN114175015A (en) Block chain tracking of carbon credits for materials with sequestered carbon
WO2019175878A1 (en) Systems and methods for supply chain management and integrity verification via blockchain
US11621973B2 (en) Blockchain cybersecurity audit platform
US20080306761A1 (en) System and Method of Performing Remote Verification of a Prescription in Combination with a Patient Access Terminal
CN114008970A (en) Supply chain management method, supply chain management program, supply chain management system, and transaction record display program
US20090030722A1 (en) System and method for performing a remote verification of a pharmacy fill utilizing an image to image comparison
KR102120051B1 (en) Original certification system and method using numericalized physical feature information with surface fingerprint and blockchain
CN103309768A (en) Method and device for repairing system files
US20100106784A1 (en) Electronic device with automatic software update function and method thereof
JP2018169764A (en) Article processing management system and article processing management method
CN106681854B (en) Information verification method, device and system
CN101084515A (en) Verification system
US20200356640A1 (en) Encoding images on physical objects to trace specifications for a manufacturing process
WO2023139840A1 (en) Fraud checking system and fraud checking method
KR101474323B1 (en) Quality control record and data processing system for creating and maintaining same
CN202758396U (en) Radio frequency identification apparatus and grain purchasing system
US20050236113A1 (en) Label issuing apparatus
US9599491B2 (en) Techniques for use with test qualification protocols
US9740728B2 (en) System and method for tracking the conversion of non-destructive evaluation (NDE) data to electronic format
CN114936914A (en) Financial accounting intelligent service system and method and electronic equipment
JP6106628B2 (en) Payment management system, payment management method and payment management program
RU2787276C1 (en) Software-implemented method for assessing the compliance of an object with set requirements
CN117809325B (en) Full invoice checking authentication management method and system
CN117474531B (en) Renewable resource industry service system based on block chain

Legal Events

Date Code Title Description
121 Ep: the epo has been informed by wipo that ep was designated in this application

Ref document number: 22921993

Country of ref document: EP

Kind code of ref document: A1