Intelligent slaughter supply chain full-process monitoring and tracing system based on IPv6

Abstract

The invention provides an intelligent slaughter supply chain full-process monitoring and tracing system based on IPv6. The system comprises a data acquisition layer, a data transmission layer, a data processing layer, an IPv6 identification management module, a block chain storage layer and a tracing service layer. According to the invention, independent IPv6 addresses are allocated to each node and product in the supply chain, digital management and accurate tracing of the whole process are realized, and low delay and high reliability of data transmission are ensured in combination with the end-to-end characteristics of an IPv6 network. The system is integrated with a block chain technology, the non-tampering and high credibility of data are guaranteed, and powerful technical support is provided for food safety supervision. And meanwhile, consumers can inquire information of the whole process from cultivation to processing of the products by scanning the traceability two-dimensional codes, so that the transparency of food traceability and the sense of trust of the consumers are greatly improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of food safety and supply chain management, and particularly relates to an intelligent slaughter supply chain whole-process monitoring and tracing system based on IPv6. BACKGROUND

[0002] The slaughter industry is an important link in the food supply chain, and the level of its management and monitoring directly affects food safety and industry efficiency. However, the monitoring method of the traditional slaughter supply chain mainly relies on manual recording and single-point monitoring, which leads to a series of problems. First, the data is scattered and lacks systematicness, making it difficult to monitor and accurately manage the whole process of slaughtering in real time; second, the identification and response of abnormal situations rely on human experience, resulting in low efficiency and easy to miss; in addition, the product tracing ability is limited, which cannot quickly locate the problem link, increasing the risk of food safety.

[0003] Current technologies have introduced some local automated equipment in some slaughterhouses, such as temperature and humidity monitoring devices and equipment operation state recorders, but these devices usually operate independently, and data is difficult to integrate, making it impossible to achieve whole-process monitoring of the supply chain. In addition, some solutions rely on external positioning signals (such as the Global Positioning System GPS) or a large number of terminal devices (such as dedicated readers, displays), which have high deployment costs and limited use scenarios, especially in small and medium-sized slaughterhouses, making it difficult to promote and apply.

[0004] In recent years, the Internet of Things (IoT) and cloud computing technologies based on IPv6 (Internet Protocol version 6) technology have developed rapidly in recent years, providing a new idea for the intelligent management of the slaughter supply chain. IPv6 can assign a unique identifier to each device, batch product or data collection point, and combined with edge computing and cloud computing technologies, it can realize real-time data collection, transmission, analysis and response, effectively solving the problems of data silos and low communication efficiency in traditional systems.

[0005] Under this background, blockchain technology has also gradually become an important means of food tracing. Blockchain, with its decentralization, tamper resistance and transparency, provides a reliable data storage and sharing platform for the slaughter supply chain. By storing key data on the blockchain, the security and traceability of data can be ensured, thereby enhancing consumer trust.

[0006] However, the current IPv6-based system is still in its infancy in the slaughter industry, and there is no mature solution that can cover the whole-process intelligent monitoring from live pigs entering the slaughterhouse to finished products leaving the warehouse. Therefore, it is urgent to develop an intelligent slaughter supply chain whole-process monitoring and tracing system based on IPv6, combining Internet of Things, cloud computing and blockchain technologies, to realize comprehensive monitoring and data tracing of the slaughtering process, in order to improve food safety and industry efficiency. SUMMARY

[0007] Therefore, the present application aims to provide an intelligent slaughter supply chain whole-process monitoring and tracing system based on IPv6, which combines blockchain, Internet of Things and cloud computing technology to realize efficient monitoring, data management and tracing service for the whole process of the slaughter supply chain.

[0008] In a first aspect, the present application provides an intelligent slaughter supply chain whole-process monitoring and tracing system based on IPv6, which comprises a data acquisition layer, a data transmission layer, a data processing layer, an IPv6 identification management module, a blockchain storage layer and a tracing service layer. The data acquisition layer is used to equip Internet of Things devices to collect data of farms, transport vehicles, slaughterhouses and processing plants. The data transmission layer is used to realize the interconnection of data through the IPv6 protocol. The data processing layer is used to perform real-time processing and anomaly detection on data through edge computing and cloud computing platforms. The IPv6 identification management module is used to assign each node and livestock a unique IPv6 address for tracing. The blockchain storage layer is used to ensure the security and non-tamperability of data. The tracing service layer is used to enable consumers to obtain whole-process information of meat products by scanning a two-dimensional code.

[0009] In an optional embodiment of the present application, the data acquisition layer comprises an RFID (Radio Frequency Identification) reader, an environmental sensor, a video monitoring device and a quality detection device. The RFID reader is used to collect livestock identity information. The environmental sensor is used to monitor temperature and humidity and gas concentration. The video monitoring device is used to record the slaughtering and processing process. The quality detection device is used to collect weight, color and humidity quality parameters of meat products.

[0010] In an optional embodiment of the present application, the IPv6 identification management module is used to assign an independent IPv6 address to each livestock and assign the same IPv6 address of the same network segment to the split meat products of the same livestock. The IPv6 identification management module is also used to assign a unique IPv6 address to each slaughter process node, which is used to identify node operation data.

[0011] In an optional embodiment of the present application, the blockchain storage layer is used to record data of livestock sources, quarantine records, slaughtering time, processing process and packaging information. The blockchain storage layer is also used to monitor environmental data and equipment operating status, record operator ID and time stamp. The data recorded by the blockchain storage layer is encrypted through a hash algorithm to ensure the non-tamperability of the data.

[0012] In an optional embodiment of the present application, the traceability service layer described above is used to enable consumers to obtain traceability information by scanning a two-dimensional code; the traceability information includes farm origin, transportation status, slaughtering process, processing record, environmental monitoring data, quality test result, packaging time and logistics tracking information.

[0013] In an optional embodiment of the present application, the monitoring and traceability system described above is integrated with a dynamic monitoring and early warning mechanism; the dynamic monitoring and early warning mechanism includes: real-time monitoring of data in the slaughtering and processing process, triggering an alarm when the data exceeds a preset threshold, and notifying the management personnel through SMS, email or platform; uploading the abnormal record to the blockchain for subsequent tracing.

[0014] In an optional embodiment of the present application, the monitoring and traceability system described above supports a management platform for regulatory departments and enterprise management personnel to query and analyze data; the monitoring and traceability system also supports mobile application access, which is used for real-time monitoring and abnormal notification; the monitoring and traceability system also supports consumer terminal access, which is used to obtain product information by scanning a two-dimensional code.

[0015] In an optional embodiment of the present application, the monitoring and traceability system described above adopts a hierarchical permission management method based on IPv6 address, which includes: the regulatory department accesses the blockchain record and performs audit, the enterprise real-time monitors the production status, and the consumer verifies the meat product information by scanning the code and feeds back the quality problem.

[0016] In an optional embodiment of the present application, the two-dimensional code is a traceability two-dimensional code supporting dynamic updating; the monitoring and traceability system automatically updates the two-dimensional code information when the product status or logistics information changes, so as to maintain the real-time and accuracy of the information.

[0017] The embodiment of the present application has the following beneficial effects: The embodiment of the present application provides an intelligent slaughtering supply chain whole-process monitoring and traceability system based on IPv6, which realizes digital management and accurate tracing throughout the whole process by assigning independent IPv6 addresses to each node and product in the supply chain, and ensures low delay and high reliability of data transmission by combining the end-to-end characteristics of IPv6 network. The system integrates blockchain technology to ensure the data unalterability and high credibility, and provides strong technical support for food safety supervision. At the same time, consumers can query the whole process information of products from breeding to processing by scanning the traceability two-dimensional code, which greatly improves the transparency of food traceability and the trust of consumers.

[0018] In addition, the system adopts a layered architecture design, supports loose coupling connection of supply chain nodes and a management platform, is convenient for expansion and maintenance, has cross-region and cross-platform data interconnection and intercommunication capability, and realizes intelligent and modern management of the slaughtering supply chain.

[0019] Other features and advantages of the present disclosure will be described in the following description, or can be inferred from the description, or can be determined without doubt, or can be known by implementing the above-mentioned technologies of the present disclosure.

[0020] In order to make the above-mentioned purposes, features and advantages of the present disclosure more obvious and easy to understand, the following preferred embodiments are specifically described, and the accompanying drawings are described in detail as follows. BRIEF DESCRIPTION OF DRAWINGS

[0021] In order to more clearly illustrate the specific embodiments of the present application or the technical solutions in the prior art, the following will briefly introduce the drawings needed to be used in the specific embodiments or the prior art description. Obviously, the drawings in the following description are some embodiments of the present application, and those skilled in the art can obtain other drawings according to these drawings without creative labor.

[0022] Figure 1 A structure schematic diagram of an intelligent slaughtering supply chain whole-process monitoring and tracing system based on IPv6 provided by an embodiment of the present application; Figure 2 A monitoring schematic diagram of an intelligent slaughtering supply chain whole-process monitoring and tracing system based on IPv6 provided by an embodiment of the present application; Figure 3 A structure schematic diagram of another intelligent slaughtering supply chain whole-process monitoring and tracing system based on IPv6 provided by an embodiment of the present application; Figure 4 A connection schematic diagram of internal modules of an intelligent slaughtering supply chain whole-process monitoring and tracing system based on IPv6 provided by an embodiment of the present application; Figure 5 A schematic diagram of an intelligent slaughtering supply chain IPv6 identifier and a two-dimensional code identifier based on the IPv6 identifier provided by an embodiment of the present application; Figure 6 A schematic diagram of a data processing flow of an intelligent slaughtering supply chain whole-process monitoring and tracing system based on IPv6 provided by an embodiment of the present application; Figure 7 A structure schematic diagram of a slaughtering supply chain identifier coding based on an IPv6 address provided by an embodiment of the present application; Figure 8 A schematic diagram of an example of a slaughter supply chain identification coding based on an IPv6 address is provided for the embodiments of the present application. DETAILED DESCRIPTION

[0023] To make the objectives, technical solutions and advantages of the embodiments of the present application clearer, the technical solutions of the present application will be described below in detail with reference to the drawings. Obviously, the described embodiments are some but not all of the embodiments of the present application. Based on the embodiments in the present application, all other embodiments obtained by those of ordinary skill in the art without creative work fall within the scope of protection of the present application.

[0024] Firstly, the existing slaughter supply chain management system mainly adopts a traditional centralized architecture, and generally uses a private network and an isolated database to manage production data. Due to the lack of a unified identification system, the data between various nodes is difficult to share, resulting in a serious information island phenomenon and low traceability efficiency. Once a food safety problem occurs, it is difficult to quickly locate the source of the problem.

[0025] Secondly, in the traditional slaughter management mode, each node mainly relies on manual recording or simple sensing devices to collect data. Due to the lack of real-time and accuracy of data, it is difficult to effectively monitor environmental parameters, production equipment status and quality indicators, which may lead to food quality problems being missed. In addition, the process information such as segmentation, processing and packaging of meat products cannot be fully associated with the source information, and consumers cannot obtain transparent and reliable product traceability information.

[0026] Thirdly, there is no unified slaughter supply chain management and traceability standard at present. Although some regions try to introduce digital monitoring systems, due to the use of IPv4 protocol, the address space is limited, and it is impossible to realize the global management of the entire supply chain. At the same time, there is a lack of independent and open infrastructure to support cross-regional and cross-platform full-process data tracking and management.

[0027] Based on this, the intelligent slaughter supply chain full-process monitoring and traceability system based on IPv6 provided by the embodiments of the present application aims to solve the problems of insufficient transparency, data island and response delay in the traditional slaughter supply chain management. The system adopts a layered system architecture, introduces a unified IPv6 identification system, blockchain storage and Internet of Things technology by using the extensive address space and efficient transmission capability of the IPv6 protocol, and realizes full-process digital monitoring and traceability from breeding to processing, transportation, storage and terminal sales. By using the end-to-end characteristics of IPv6, each node and product in the supply chain can be smoothly connected to the intelligent supply chain system, realizing full-process monitoring and management from animal reception to meat terminal.

[0028] For the convenience of understanding the present embodiment, first, a kind of intelligent slaughter supply chain whole process monitoring and tracing system based on IPv6 disclosed in the present embodiment is introduced in detail.

[0029] Embodiment one: The embodiment of the application provides a kind of intelligent slaughter supply chain whole process monitoring and tracing system based on IPv6, referring to Figure 1 As shown in the structure diagram of a kind of intelligent slaughter supply chain whole process monitoring and tracing system based on IPv6, the intelligent slaughter supply chain whole process monitoring and tracing system based on IPv6 (can be simply referred to as system) includes: data acquisition layer, data transmission layer, data processing layer, IPv6 identification management module, block chain storage layer and traceability service layer;Data acquisition layer is equipped with Internet of Things equipment to collect the data of breeding farm, transport vehicle, slaughterhouse and processing plant;Data transmission layer is used to realize the interconnection of data through IPv6 protocol;Data processing layer is used for real-time processing and anomaly detection of data through edge computing and cloud computing platform;IPv6 identification management module is used to allocate unique IPv6 address for each node and livestock, to trace;Block chain storage layer is used to ensure the security and non-tamperability of data;Traceability service layer is used to enable consumers to obtain the whole process information of meat products by scanning two-dimensional code.

[0030] The present application provides an intelligent slaughter supply chain whole process monitoring and tracing system based on IPv6, including the following core modules: a unified IPv6 identification management module allocates a globally unique IPv6 address for slaughter process nodes, livestock individuals and segmented meat products in the supply chain, for precise identification and efficient management;Data acquisition module collects production data in real time by deploying sensing devices (such as RFID reader, temperature and humidity sensor and video monitoring device);Data transmission module uses IPv6 network to realize efficient and low-latency data transmission;Data processing and storage module combines edge computing and cloud computing technology to analyze and store data in real time, and ensures the non-tamperability and credibility of data through blockchain technology;Supervision platform provides real-time monitoring, abnormal early warning and data analysis functions;Traceability query module enables consumers to easily query the key information such as breeding source, processing record and quality detection of products by scanning the traceability two-dimensional code on the product. All modules are connected through unified IPv6 network access standard, to ensure the interconnection of each node in the supply chain, and form a complete digital management system.

[0031] The embodiment of the application provides an intelligent slaughter supply chain whole-process monitoring and tracing system based on IPv6, which realizes whole-process digital management and accurate tracing by allocating independent IPv6 addresses for each node and product in the supply chain, and ensures low delay and high reliability of data transmission in combination with the end-to-end characteristics of the IPv6 network. The system integrates blockchain technology to ensure the data unalterability and high credibility, and provides strong technical support for food safety supervision. Meanwhile, consumers can query the whole-process information of products from breeding to processing by scanning the tracing two-dimensional code, thereby greatly improving the transparency of food tracing and the trust of consumers.

[0032] In some embodiments, the data collection layer comprises an RFID reader, an environmental sensor, a video monitoring device and a quality detection device; the RFID reader is used to collect livestock identity information; the environmental sensor is used to monitor temperature and humidity and gas concentration; the video monitoring device is used to record the slaughtering and processing process; and the quality detection device is used to collect the weight, color and humidity quality parameters of meat products.

[0033] The data collection module collects key data in real time through the Internet of Things devices deployed at each node of the supply chain, including the health status and source information of livestock in the breeding farm, the environmental parameters (such as temperature and humidity, gas concentration, etc.) of the transport vehicle, the quarantine, slaughtering and processing production data of the slaughterhouse, and the quality detection data of the cutting, packaging and storage of the processing plant. These data are uploaded in real time to the data processing module through the unified IPv6 network access standard, are bound with the corresponding IPv6 identifier, and form complete and accurate whole-process digital records, thereby providing a reliable data basis for supply chain tracing and supervision.

[0034] In some embodiments, the IPv6 identifier management module is used to allocate an independent IPv6 address for each livestock, and to allocate the same IPv6 address of the same network segment for the cut meat products of the same livestock; and the IPv6 identifier management module is also used to allocate a unique IPv6 address for each slaughtering process node, which is used to identify node operation data.

[0035] The identifier management module based on IPv6 generates a unique IPv6 address for each node, livestock individual and cut meat product in the supply chain. The IPv6 address structure is composed of multiple fields, including a globally unique prefix (identifying the supply chain system), geographical location information of the node (such as the breeding farm and the slaughterhouse), production information of the livestock individual or product, a reserved subnet for identifying specific processes, product information for identifying cut meat products, and an interface ID for facilitating communication and identity verification. The hierarchical design of the IPv6 address realizes accurate identification and dynamic tracking of the supply chain nodes and products. For example, the address 2001:db87:1:100::1 can point to a specific batch and livestock individual in a breeding farm, thereby effectively guaranteeing the uniqueness and accuracy of the tracing system.

[0036] In some embodiments, the blockchain storage layer described above is used to record data of livestock origin, quarantine records, slaughter time, processing process, and packaging information; the blockchain storage layer is also used to monitor environmental data and equipment operating status, record operator ID and timestamp; wherein the data recorded by the blockchain storage layer is encrypted by a hash algorithm to ensure the data's non-tamperability.

[0037] Blockchain technology is used for the core data storage of the supply chain, ensuring the data's non-tamperability and traceability. All key data bound with IPv6 identification (such as quarantine results, slaughter records, segmentation details, etc.) are uploaded to the blockchain network through encryption, forming a trusted digital archive. Blockchain technology provides high security and high transparency technical support for each link of the supply chain, enabling real-time sharing and auditing of supply chain information, and providing a solid technical support for food safety supervision.

[0038] In some embodiments, the traceability service layer described above is used to enable consumers to obtain traceability information by scanning a two-dimensional code; the traceability information includes farm origin, transportation status, slaughter process, processing records, environmental monitoring data, quality test results, packaging time, and logistics tracking information.

[0039] Consumers can obtain detailed product information by scanning the traceability two-dimensional code on meat products, including breeding origin (such as farm name, address, and feeding method), quarantine records (such as quarantine date, results, and tester information), slaughter process (such as slaughter time, equipment status, and operator information), processing information (such as segmentation parts, packaging date, and quality test report), and cold chain transportation information (such as storage temperature, transportation time, and logistics company information). This function greatly improves the transparency of food traceability, enabling consumers to quickly understand the information of the product's whole life cycle, enhancing their trust in food safety, and providing support for the establishment of product brands and the improvement of market competitiveness.

[0040] In some embodiments, the monitoring traceability system integrates a dynamic monitoring and early warning mechanism; the dynamic monitoring and early warning mechanism includes: real-time monitoring of data during the slaughter and processing process, triggering an alarm when the data exceeds the preset threshold, notifying the management personnel through SMS, email, or the platform; uploading the abnormal records to the blockchain for subsequent tracing.

[0041] The monitoring traceability system integrates a dynamic monitoring and early warning mechanism, which monitors key data in the slaughter and processing process in real time and triggers an alarm when the data exceeds the preset threshold, while notifying the relevant management personnel through SMS, email, or the platform. In addition, abnormal records will be uploaded to the blockchain for subsequent tracing.

[0042] In some embodiments, the above-mentioned monitoring and tracing system supports a management platform for regulatory departments and enterprise managers to query and analyze data; the monitoring and tracing system also supports mobile application access, which is used for real-time monitoring and abnormal notification; the monitoring and tracing system also supports consumer terminal access, which is used to obtain product information through two-dimensional code scanning.

[0043] The monitoring and tracing system supports data access of multiple terminals, including a management platform for regulatory departments and enterprise managers to query and analyze data, mobile application for real-time monitoring and abnormal notification, and consumer terminal for obtaining product information through two-dimensional code scanning.

[0044] In some embodiments, the above-mentioned monitoring and tracing system adopts a hierarchical permission management method based on IPv6 address, which includes: regulatory departments accessing and auditing blockchain records, enterprises monitoring production status in real time, and consumers verifying meat information through scanning and feeding back quality problems.

[0045] The monitoring and tracing system adopts a hierarchical permission management method based on IPv6 address. Regulatory departments can access and audit blockchain records, enterprises can monitor production status in real time, and consumers can verify meat information through scanning and feed back quality problems.

[0046] In some embodiments, the above-mentioned two-dimensional code is a dynamic updating traceability two-dimensional code; the monitoring and tracing system automatically updates the two-dimensional code information when the product status or logistics information changes, to maintain the real-time and accuracy of the information.

[0047] The traceability two-dimensional code supports dynamic updating, and the system will automatically update the two-dimensional code information when the product status or logistics information changes, to maintain the real-time and accuracy of the information.

[0048] The application provides the above-mentioned one kind based on IPv6's intelligent slaughter supply chain whole process monitoring traceability system, combines Internet of Things, block chain, cloud computing and IPv6 technology, realizes the overall monitoring and efficient management to each link of slaughter supply chain. The system allocates the unique IPv6 address for each node of the slaughter process, livestock individual and segmented meat product, establishes a unified identification system. The collected environmental data, operation records and quality test results are uploaded to the cloud in real time through the Internet of Things equipment, and stored in the block chain, to ensure the authenticity and non-tamperability of the data. Consumers can query the detailed traceability information of meat products through the two-dimensional code generated based on the IPv6 address, including breeding source, transportation status, slaughter process, processing record and quality test result. The system integrates dynamic abnormal monitoring and early warning mechanism, supports multi-terminal data display, does not depend on external positioning signal, supports multi-role cooperation, is flexible in deployment, can significantly improve the management efficiency and food safety level of the slaughter industry, reduce operation cost, promote the intelligent transformation of the industry, and is suitable for food safety supervision and supply chain optimization. The application improves the transparency and management efficiency of the slaughter supply chain, and provides reliable guarantee for food safety.

[0049] Embodiment two: The embodiment of the application provides another kind of intelligent slaughter supply chain whole process monitoring traceability system based on IPv6, and the embodiment is realized based on the above-mentioned embodiment, and the monitoring schematic diagram of the intelligent slaughter supply chain whole process monitoring traceability system based on IPv6 is as shown in Figure 1 、 Figure 2 The structure schematic diagram of another kind of intelligent slaughter supply chain whole process monitoring traceability system based on IPv6 is as shown in Figure 3 The intelligent slaughter supply chain whole process monitoring system based on IPv6 network interconnection includes a data acquisition module, a data transmission module, a data processing module, an IPv6 identification management module, a block chain storage module, a traceability service module and the like; in the system, the modules are connected through a unified IPv6 communication protocol, and the overall monitoring and traceability of the slaughter supply chain are realized.

[0050] The structure of the intelligent slaughter supply chain whole process monitoring traceability system based on IPv6 is introduced by referring to the connection schematic diagram of the modules in the intelligent slaughter supply chain whole process monitoring traceability system based on IPv6 as shown in Figure 3 and Figure 4 The structure of the intelligent slaughter supply chain whole process monitoring traceability system based on IPv6 is introduced by referring to the connection schematic diagram of the modules in the intelligent slaughter supply chain whole process monitoring traceability system based on IPv6 as shown in Data acquisition module 401: distributed in the farm, transportation link, slaughterhouse and processing plant, this module collects livestock ear tag information through RFID reader, real-time monitoring of environmental parameters such as temperature and humidity sensor, ammonia concentration sensor, high-definition video monitoring equipment records the operation process, quality testing instruments measure the weight, moisture content, fat content and other quality indicators of meat products. All the collected data are bound to the generated IPv6 address, real-time collection of relevant data and transmission to the cloud. Ensure the accurate identification and management of livestock individuals, operation nodes and segmented products, provide reliable basis for data traceability and supply chain transparency.

[0051] Data transmission module 402: realize efficient and low delay end-to-end data transmission. Through the massive address space of IPv6 network, all devices have a global unique IPv6 address, support direct communication, overcome the address shortage and private network limit of traditional IPv4 network. At the same time, the module integrates IPsec protocol, provides data transmission encryption and authentication, prevents data leakage and tampering, guarantees the integrity and confidentiality of data. In addition, the module supports large-scale concurrent data transmission, provides stable and efficient communication foundation for the interconnection of supply chain nodes.

[0052] Data processing module 403: data processing module combines cloud computing and edge computing technology, carries out multi-level processing and analysis on the collected data. At the edge, the module is responsible for preliminary data cleaning, classification and anomaly detection, reduces transmission delay and alleviates bandwidth pressure; in the cloud, the module performs deep data analysis, including trend prediction, process optimization suggestion, risk assessment and report generation. Through real-time processing and analysis, data processing module supports dynamic optimization and efficient management of supply chain, provides data basis for anomaly early warning and rapid response.

[0053] IPv6 identification management module 404: IPv6 identification management module allocates global unique IPv6 address for each node of supply chain, livestock individuals and segmented meat products. The IPv6 address generated by the module contains prefix, location information, production information, reserved subnet and interface ID fields, ensures the uniqueness, accuracy and cross-platform interworking ability of the identification of each node and product. Through this module, the system can seamlessly track each operation and product in the supply chain, support whole-process traceability and transparent management, and realize efficient communication and cooperation between nodes.

[0054] For example: slaughterhouse address: 2001:db87:: / 32; farm address: 2001:db87:1:: / 48; livestock batch number address: 2001:db87:1:100:: / 64; animal individual address: 2001:db87:1:100:1:: / 80.

[0055] The blockchain storage module 405: the key data of each link of the supply chain (such as quarantine records, slaughter process parameters, transportation trajectories, processing information, etc.) is encrypted and uploaded to the blockchain network, and the distributed storage and tamper-proof characteristics of the blockchain are used to ensure the authenticity and security of the data. The module supports a multi-node verification mechanism to form a transparent and reliable digital archive, providing reliable evidence for supervision, traceability and responsibility tracing, while enhancing the sharing and collaboration capabilities of data among the parties in the supply chain.

[0056] The traceability service module 406: by generating a two-dimensional code containing an IPv6 identifier, the whole-process traceability from breeding to terminal consumption is realized. Consumers can query the breeding source, quarantine records, slaughter time, processing information and transportation status of the product by scanning the two-dimensional code, while the regulatory authorities can monitor the operation of each node in the supply chain in real time, including equipment status, environmental parameters and operation records, etc., to enhance the trust of consumers.

[0057] The abnormal alarm module 407: by dynamically monitoring the environmental parameters, equipment status and operation process of each link in the supply chain, it identifies and handles abnormal situations in real time. The module combines edge computing and big data analysis technology to compare the collected real-time data with the system's preset standard values and threshold values. Once an abnormality is found (such as excessive transportation temperature, equipment failure, process parameter deviation, etc.), the system immediately triggers the alarm mechanism, including audible and visual alarms, platform pop-up prompts, SMS or email notifications to relevant management personnel. The alarm information includes the time, location, type and detailed parameters of the abnormality, facilitating quick identification of the problem source and taking remedial measures. At the same time, the module binds the abnormal information with the corresponding IPv6 identifier and uploads it to the blockchain network to form a traceable abnormal handling record, ensuring the continuous optimization and efficient operation of the supply chain.

[0058] The embodiment realizes the whole-process transparent monitoring of the slaughtering process, ensures food safety, improves the management efficiency of the supply chain, and provides more detailed product traceability information for consumers, thus building a safe and reliable food supply chain environment.

[0059] Embodiment three The embodiment provides another intelligent slaughtering supply chain whole-process monitoring and traceability system based on IPv6. The embodiment is realized based on the above-mentioned embodiment, and focuses on describing the actual application process of the intelligent slaughtering supply chain whole-process monitoring and traceability system based on IPv6, and focuses on showing the data processing process and specific application of the identification coding system based on the IPv6 address in the supply chain management, covering the whole process from livestock reception to terminal traceability. Through the collaborative work of each module of the system, the transparent, intelligent and efficient management of the supply chain is realized, and a strong technical guarantee is provided for food safety.

[0060] The following describes Figure 5 An IPv6-based intelligent slaughter supply chain IPv6 identification and a two-dimensional code identification based on the IPv6 identification are shown in the schematic diagram and Figure 6 An IPv6-based intelligent slaughter supply chain whole-process monitoring and tracing system data processing flow is shown in the schematic diagram, and the application of the IPv6 address identification coding system in the data processing flow in the supply chain management is introduced: Livestock reception 601: In the reception area, RFID readers, camera equipment, weight sensors and other equipment are installed. When the livestock enters the reception area, the RFID reader automatically collects the livestock ear tag information, and through multiple scanning and verification algorithms, the accuracy of data reading is ensured, and the missed reading or misreading caused by signal interference is avoided. If the ear tag is damaged or cannot be normally read, the standby handheld RFID device can provide manual intervention means, and the damaged ear tag can be replaced on site to ensure the integrity of the information. The weight sensor accurately records the livestock weight data, and the camera equipment clearly collects the livestock appearance state image. The collected information is uploaded to the system in real time through the IPv6 network, and the system IPv6 identification management module generates an independent IPv6 identification for each batch of livestock, which will serve as the starting point of the whole traceability chain.

[0061] IPv6 identification management 602: The IPv6 address in the whole system is uniformly managed and allocated through the IPv6 identification management module. This module is responsible for the generation, allocation, update and recovery of IPv6 addresses, etc., to ensure that each link, each livestock, each meat product and each transport vehicle, etc. have a unique and effective IPv6 address. At the same time, the use of IPv6 addresses is monitored and analyzed in real time, providing data support for the optimization and expansion of the system, and ensuring the normal operation and efficient management of the whole IPv6-based intelligent slaughter supply chain whole-process monitoring and tracing system.

[0062] IPv6 identification allocation 603: The system allocates an IPv6 address to each livestock through the IPv6 identification management module 502.

[0063] Binding breeding information 604: The system accurately binds the relevant information of the livestock in the breeding stage, such as breeding site, breeding period, feed information, epidemic prevention record, etc., with the IPv6 address generated in the livestock reception stage. These breeding information may come from the management system of the breeding farm, and is transmitted to the slaughter supply chain system through the IPv6 network, to ensure the comprehensiveness and coherence of the traceability information.

[0064] Pre-slaughter quarantine 605: After the livestock enters the quarantine area, the quarantine personnel conduct pre-slaughter quarantine operations according to the standard process, including but not limited to appearance inspection, body temperature detection, disease screening, etc. During the quarantine process, the data generated by the quarantine equipment used (such as thermometers, test kits, etc.) and the records and judgments of the quarantine personnel are uploaded in real time to the system through the IPv6 network. These quarantine result data will serve as key node data, preparing for possible writing to the blockchain, and also available for real-time query and monitoring by relevant personnel.

[0065] Pre-treatment area livestock physiological state monitoring 606: In the pre-treatment area, Internet of Things devices such as temperature and humidity sensors, ammonia concentration sensors, etc. are deployed. These devices collect environmental data in the pre-treatment area in real time through the IPv6 protocol, including temperature, humidity, ammonia concentration, etc., and also monitor related data of the physiological state of livestock. The collected data is uploaded to the system in real time for subsequent analysis and processing to ensure that the pre-treatment environment meets the physiological needs of livestock and prepares for subsequent processes.

[0066] IPv6-based identification-generated two-dimensional code 607: Data from various stages such as IPv6 identification, livestock reception, breeding information binding, quarantine, slaughter, processing, etc. are uploaded to the blockchain through encryption, and a traceability two-dimensional code is generated based on the IPv6 address, which is used in each link of livestock slaughter and deep processing.

[0067] Livestock slaughter 608: In the slaughter area, each key node of the slaughter line is assigned a unique IPv6 address, such as livestock entry, slaughter station, bleeding station, dehairing station, and cutting station. Through the installation of intelligent sensors (such as high-speed vibration sensors to monitor the cutting state of the knife, infrared temperature sensors to monitor the environment and livestock body temperature, and industrial-grade precision sensors to monitor the running speed of the line), the operation status, environmental parameters (such as temperature, humidity, air quality, etc.), and process data (such as slaughter time, knife usage frequency, dehairing duration, etc.) are recorded in real time using the IPv6 protocol. Real-time collection and upload of these data provide detailed basis for monitoring and tracing the slaughter process.

[0068] Livestock deep processing 609: In the livestock deep processing stage, IPv6 network is used to connect various processing equipment and monitoring equipment. For example, the running parameters (such as temperature, time, speed, etc.) of processing equipment (such as curing machines, smoking machines, etc.), the detection data of quality detection equipment (such as meat quality detectors, moisture detectors, etc.), and the operation records of operators are collected and uploaded in real time to the system through the IPv6 network. These data help monitor the quality and efficiency of the deep processing process to ensure that the products meet the standards.

[0069] Slaughter area process monitoring 610: Through the IPv6 addresses allocated by each node, the system conducts comprehensive and real-time monitoring of the entire slaughter area process. The monitoring content includes but is not limited to the running status of each device (such as whether it is running normally, whether there are hidden faults, etc.), the operation process of the operating personnel (whether it conforms to the standard operation specification), the connection between each process (whether it is smooth, whether there is delay, etc.), and environmental parameters (such as temperature, humidity, sanitary condition, etc.). Once any non-standard situation is found, the system will immediately issue a warning prompt to ensure the standardization and standardization of the slaughtering process.

[0070] Segmentation and packaging 611: In the segmentation and packaging area, a sub-IPv6 address is generated for each piece of segmented meat product. During the segmentation process, quality detection equipment (such as weight detection instrument, size detection instrument, etc.) detects each piece of meat product, and binds the detection data (such as weight, size, fat content, etc.) and packaging information (such as packaging material, packaging time, packaging personnel, etc.) to the corresponding sub-IPv6 address. At the same time, the identification printing device on the packaging equipment prints a two-dimensional code containing the IPv6 address information on the packaging, so as to facilitate subsequent traceability inquiry.

[0071] Waste disposal 612: In the waste disposal area, waste weighing equipment, treatment state monitor and video monitoring equipment are equipped. The waste is first classified, and then the weight data of each type of waste is recorded by the weighing equipment. The treatment state monitor monitors various parameters in the waste treatment process in real time, such as treatment temperature, treatment time, treatment method, etc. The video monitoring equipment records the whole process of waste treatment, ensuring that the treatment process meets the environmental protection and health requirements. These treatment process data are transmitted and stored in real time through the IPv6 network, providing traceability basis for the compliance of waste treatment.

[0072] Cold chain storage and transportation 613: For the cold chain storage and transportation link, IPv6 network segment is used to identify the transportation vehicles, so that they have unique identification in the entire supply chain network. Temperature and humidity sensors, GPS positioning devices and other Internet of Things devices are deployed on the transportation vehicles. The temperature and humidity sensors monitor the temperature and humidity data in the vehicle compartment in real time, ensuring that the storage environment of meat products during transportation meets the requirements; the GPS positioning device records the vehicle's driving track, speed and other information in real time. These data are uploaded to the cloud in real time through the IPv6 network, facilitating the real-time monitoring of the transportation status by the management personnel, ensuring the product quality and transportation safety.

[0073] Data upload blockchain 614: The key data generated in each link of livestock reception, pretreatment, pre-slaughter quarantine, slaughter, deep processing, cold chain storage and transportation, cutting and packaging, slaughter area process monitoring, waste disposal, etc., such as livestock information, quarantine results, slaughter process parameters, processing data, transportation trajectory, packaging information, waste disposal records, etc., are uploaded to the blockchain. The distributed storage and multi-node verification mechanism of the blockchain ensures the non-tamperability and transparency of these data, forming a complete traceability chain. Each data block contains the hash value of the previous data block, forming a chain structure, further enhancing the security and reliability of the data.

[0074] Traceability query 615: Based on the IPv6 address generated in each link, the system generates a traceability QR code and prints it on the product packaging or provides it to the consumer. Consumers or relevant regulatory personnel can query the full-process information of the product from the breeding source (farming information, breeding process, etc.), transportation status (transportation vehicle information, transportation route, temperature and humidity changes, etc.), slaughter process (slaughter time, slaughter process, operator, etc.), processing records (deep processing process, quality detection results, etc.) to quality detection results (various detection indexes, detection personnel, etc.) by scanning the QR code. This transparent traceability method enhances consumers' trust in food safety and facilitates regulatory departments to supervise and manage.

[0075] Dynamic monitoring and abnormal early warning 616: The system performs real-time dynamic monitoring on the environmental data (such as temperature, humidity, air quality, etc.) and process parameters (such as equipment operation parameters, operation time, etc.) collected in each link. Compare real-time data with preset standard values and threshold values. Once the data is found to be outside the normal range, such as excessively high or low temperature, equipment operation anomaly, process parameters not meeting standards, etc., the system will immediately trigger an abnormal alarm mechanism. The alarm methods include but are not limited to on-site sound and light alarm, management platform pop-up prompt, SMS or email notification to relevant responsible persons, etc. At the same time, the system will automatically record detailed information such as the time, place, type of abnormal occurrence, etc. for subsequent analysis and processing, quickly locate the problem source, take appropriate measures to solve it, and ensure the normal operation of the supply chain and the safety of product quality.

[0076] Example four: The embodiment of the present application provides another intelligent slaughter supply chain whole-process monitoring and tracing system based on IPv6, and the embodiment is based on the above-mentioned embodiment and focuses on the design and application of a slaughter supply chain identification code based on an IPv6 address. The system allocates a unique IPv6 address to each node of the slaughter process, livestock individuals and segmented meat products, constructs a data identification structure with global uniqueness and cross-platform interconnection capability, and has IPv6 unified access, blockchain tamper-proofing and real-time communication capability of tracing data, so that each node and product in the supply chain has an independent and legal communication identity, supports cross-platform data interconnection and sharing, and truly realizes whole-process tracing and information transparency of the slaughter supply chain.

[0077] The IPv6 digital identity identifier is an IPv6 address; the IPv6 address comprises a prefix, location information, production information, a reserved subnet, product information and an interface ID.

[0078] The prefix is an address prefix obtained from an address allocation unit and is used for identification of the supply chain system and external communication; the location information is used for identification of the specific geographic location of nodes such as farms, slaughterhouses and processing plants; the production information is used for identification of batches and sources of livestock; the reserved subnet is used for identification of operation link nodes of the slaughter process; the product information is used for identification of segmented meat products; and the interface ID is a unique device or product number automatically generated by the system and is used for communication and identity verification.

[0079] Referring to Figure 7 The present application discloses a method for using an IPv6 address as a digital identity identifier of a slaughter supply chain node and product, and aims to ensure unified coding of the slaughter supply chain system. The IPv6 address space is 6^168, and the massive address space is sufficient to support the digital identity identification system in the supply chain. Using the IPv6 address as the digital identity identifier of the node and the product makes the identification code unique, universal and convenient, not only has the function of information bearing, but also supports direct communication capability.

[0080] The following Figure 7 and Figure 8 The present application discloses a method for using an IPv6 address as a digital identity identifier of a slaughter supply chain node and product, and aims to ensure unified coding of the slaughter supply chain system. The IPv6 address space is 6^168, and the massive address space is sufficient to support the digital identity identification system in the supply chain. Using the IPv6 address as the digital identity identifier of the node and the product makes the identification code unique, universal and convenient, not only has the function of information bearing, but also supports direct communication capability. The IPv6 address is 168 bits, which is expressed in 8 groups in hexadecimal form, and each group is separated by ":". By establishing, maintaining and using the catalog of slaughter supply chain nodes and products, a high-quality database is established by using IPv6 technology, so that the IPv6 address correctly describes each node and product in the supply chain, guarantees its consistency and uniqueness, and makes information exchange more efficient and transparent.

[0081] Prefix 701: address prefix obtained from the address allocation mechanism, used for external communication of the supply chain node (slaughterhouse) and product. For example, 2001:db87:: / 32.

[0082] Location information 702: identifies the specific geographic location of the node, such as the farm. For example, 2001:db87:1:: / 48.

[0083] Production information 703: used to identify the batch and source of livestock. For example, 2001:db87:1:100:: / 64.

[0084] Reserved subnet 704: used to display the operating links of the slaughtering process and the individual number of the livestock. For example, quarantine node 2001:db87:1:100:2:: / 80, livestock individual number 2001:db87:1:100:1:: / 80.

[0085] Product information 705: used to identify the segmented meat products. For example, front leg meat 2001:db87:1:100:1::1, further segmented products of front leg meat 2001:db87:1:100:1::1.

[0086] Interface ID: used to obtain a unique number of the system for the identity verification of the equipment or product.

[0087] In summary, the embodiments of the present application mainly provide the following contents: 1. An IPv6 digital identity identification system is adopted, and a unique IPv6 address is allocated to each node (such as quarantine, slaughtering, segmentation, and packaging) of the slaughtering supply chain and the livestock individual and segmented meat products, so as to realize global unique identification of the whole process. The IPv6 identification is independent of the network location, and the livestock and product information can be tracked and managed throughout life, facilitating automatic networking and distributed management of the system. At the same time, the traditional identification system does not have communication capability, and through the identification analysis system based on the IPv6 address, the identification allocation, registration, and analysis service can be realized in the enterprise, and external communication can be carried out, so as to solve the information island problem.

[0088] 6. A hierarchical structure is adopted, and the present application adopts a hierarchical architecture design, and realizes separation of supply chain construction and operation through introduction of an intelligent slaughtering supply chain whole-process monitoring and tracing system based on IPv6. The third-party developers are allowed to develop characteristic application programs based on different nodes (such as farms, slaughterhouses, and processing plants), and cross-regional and cross-platform management is supported. The consumer end application can be connected to multiple supply chain nodes at the same time, facilitating user query of product tracing information. At the same time, the entire supply chain system is allowed to be centrally supervised in units of regions, and food safety hidden dangers are completely eliminated.

[0089] 3. IPv6 single-stack networking is adopted, each node and product has an independent and legal IPv6 address on the Internet, thereby breaking through the limitations of the existing IPv4 private network. The data of each node can be directly connected with the supervision platform or the supply chain management system, and even can be connected to the map service platform, so as to realize transparent management.

[0090] In summary, the above-mentioned content provided by the embodiment of the application mainly has the following advantages: Global unique identification, improve management transparency. The application realizes full-process digital identification and global unique management by assigning independent and legal IPv6 digital space identity to each node and product in the slaughtering process. Combined with the unified access and analysis function of IPv6, the information integrity and consistency of each link in the supply chain are guaranteed, and the problems of data dispersion and different standards in traditional systems are effectively eliminated.

[0091] Hierarchical architecture design, improve operation flexibility. The application realizes the hierarchical architecture of slaughtering supply chain management by specifying the interface standards between the supply chain nodes and the access platform, the access platform and the supervision system. The farms, slaughterhouses, processing plants and logistics nodes can be independently invested, constructed and operated, while the access platform and system application can be developed and deployed respectively, forming a loosely coupled architecture, supporting flexible docking of supply chain nodes and platform, greatly improving operation flexibility and efficiency.

[0092] Support consumer traceability query, enhance user trust. Through the identification analysis function based on IPv6, consumers only need to scan the two-dimensional code on the package through any traceability application program in the system, and can query all information in the slaughtering supply chain (including breeding source, quarantine result, slaughtering time and processing technology). Greatly improve the trust of consumers to the product, and promote the transparency of food safety.

[0093] Combined with blockchain technology, guarantee data security. The application configures IPv6 communication chips for each node in the supply chain, the chips integrate and package IPv6 digital identity, combined with blockchain storage technology, realizes the data unalterable and high credibility. Through the third-party supervision platform, the system can uniformly monitor all node and product information in the supply chain in real time, greatly improve the food safety supervision ability, and protect the privacy of user data at the same time.

[0094] Support cross-platform docking, improve resource sharing efficiency. The system allows all supply chain nodes including farms, slaughterhouses and processing plants to dock multiple supervision and operation platforms, and truly realizes the sharing economy mode. Through independent IPv6 digital identity, the data exchange between nodes is more direct and efficient, supports the interconnection of different manufacturers and operators, and promotes the efficient use of resources.

[0095] Promote the modernization of food safety supervision. The application establishes a supply chain whole-process traceability system through IPv6 address identification, and the supervision platform can view the production data and running state of each node in real time. The supervision party can dynamically track the source, processing technology and environmental monitoring data of each batch of products, quickly respond to abnormal situations, and comprehensively improve the modernization level of food safety supervision.

[0096] Promote industrial standardization and improve supply chain efficiency. The application discloses an encoding method of supply chain nodes and products based on IPv6 address, which guarantees the consistency and international universality of supply chain identification coding. Through IPv6 single-stack networking, the system eliminates the address conversion problem in traditional IPv4 network, and improves the data transmission efficiency and overall management level of the supply chain.

[0097] Therefore, the application solves the problems of data island, low traceability efficiency and non-uniform standards in traditional slaughter supply chain management by constructing an identification management system based on IPv6 and a whole-process traceability architecture, using Internet of Things, blockchain and other technical means, and provides an innovative solution for food safety management.

[0098] Those skilled in the art can clearly understand that, for the convenience and brevity of description, the specific working process of the above-described system and / or device can refer to the corresponding process in the foregoing embodiments, which will not be described here.

[0099] In addition, in the description of the embodiments of the application, unless otherwise explicitly specified and limited, the terms "mounting", "connection" and "connection" should be understood broadly, for example, it can be fixed connection, or detachable connection, or integral connection; it can be mechanical connection, or electrical connection; it can be direct connection, or indirect connection through an intermediate medium, or internal communication of two elements. For those skilled in the art, the specific meaning of the above terms in the application can be understood according to the specific circumstances.

[0100] If the functions are realized in the form of software function units and sold or used as independent products, they can be stored in a computer readable storage medium. Based on such understanding, the technical solutions of the application or the part of the application that essentially contributes to the prior art or the part of the technical solutions can be embodied in the form of software products, which are stored in a storage medium and include a plurality of instructions for causing a computer device (which can be a personal computer, a server, or a network device, etc.) to execute all or part of the steps of the embodiments of the application. The foregoing storage medium includes: U disk, mobile hard disk, read-only memory (ROM, Read-Only Memory), random access memory (RAM, Random Access Memory), magnetic disk or optical disk and various program code storage media.

[0101] In the description of the present application, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer" and the like indicate the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the device or element referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation on the present application. In addition, the terms "first", "second", "third" are only for the purpose of description, and cannot be understood as indicating or implying relative importance.

[0102] Finally, it should be noted that the above examples are only specific embodiments of the present application, which are used to illustrate the technical solutions of the present application, and are not limited thereto. Although the present application has been described in detail with reference to the foregoing examples, those skilled in the art should understand that any person skilled in the art can modify or easily think of changes to the technical solutions recorded in the foregoing examples within the technical range disclosed by the present application, or make equivalent substitutions for some of the technical features; and these modifications, changes or substitutions do not cause the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present application, and should be covered within the protection scope of the present application. Therefore, the protection scope of the present application should be subject to the protection scope of the claims.

Claims

1. An IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system, characterized in that, The monitoring traceability system comprises a data acquisition layer, a data transmission layer, a data processing layer, an IPv6 identification management module, a blockchain storage layer and a traceability service layer; The data acquisition layer is configured with Internet of Things devices to collect data of breeding farms, transport vehicles, slaughterhouses and processing plants; The data transmission layer is used to realize the interconnection of the data through the IPv6 protocol; The data processing layer is used to perform real-time processing and anomaly detection on the data through edge computing and cloud computing platforms; The IPv6 identification management module is used to assign each node and livestock a unique IPv6 address for traceability; The blockchain storage layer is used to ensure the security and tamper resistance of the data; The traceability service layer is used to enable consumers to obtain full-process information of meat products by scanning a two-dimensional code. 2.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to claim 1, wherein, The data acquisition layer comprises an RFID reader, an environmental sensor, a video monitoring device and a quality detection device; The RFID reader is used to collect livestock identity information; The environmental sensor is used to monitor temperature, humidity and gas concentration; The video monitoring device is used to record the slaughtering and processing processes; The quality detection device is used to collect quality parameters such as weight, color and humidity of meat products. 3.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to claim 1, wherein, The IPv6 identification management module is used to assign each livestock an independent IPv6 address, and assign the same IPv6 addresses of the same livestock to the split meat products in the same network segment; The IPv6 identification management module is also used to assign each slaughtering process node a unique IPv6 address, which is used to identify node operation data. 4.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to any one of claims 1-3, characterized in that, The blockchain storage layer is used to record data such as livestock source, quarantine record, slaughtering time, processing process and packaging information; The blockchain storage layer is also used to monitor environmental data and equipment operating status, and record operator ID and time stamp; wherein the data recorded by the blockchain storage layer is encrypted by hash to ensure the tamper resistance of the data. 5.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to any one of claims 1-3, characterized in that, The traceability service layer is used to enable consumers to obtain traceability information by scanning a two-dimensional code; the traceability information includes breeding farm source, transport status, slaughtering process, processing record, environmental monitoring data, quality detection result, packaging time and logistics tracking information. 6.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to any one of claims 1-3, characterized in that, The monitoring traceability system integrates a dynamic monitoring and early warning mechanism; The dynamic monitoring and early warning mechanism comprises real-time monitoring of data during slaughtering and processing, triggering an alarm when the data exceeds a preset threshold, and notifying the management personnel through SMS, email or platform; Upload the anomaly record to the blockchain for subsequent traceability. 7.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to any one of claims 1-3, characterized in that, The monitoring traceability system supports a management platform for regulatory authorities and enterprise management personnel to query and analyze data; The monitoring traceability system also supports mobile application access, which is used for real-time monitoring and anomaly notification; The monitoring traceability system also supports consumer terminal access, which is used to obtain product information by scanning a two-dimensional code. 8.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to claim 7, wherein, The monitoring traceability system adopts a hierarchical permission management mode based on an IPv6 address, the hierarchical permission management mode comprises that a regulatory department accesses a blockchain record and performs auditing, an enterprise monitors a production state in real time, and a consumer verifies meat product information by scanning a code and feeds back quality problems. 9.The IPv6-based intelligent slaughtering supply chain whole-process monitoring and tracing system according to any one of claims 1-3, characterized in that, The two-dimensional code is a traceability two-dimensional code supporting dynamic updating; the monitoring traceability system automatically updates two-dimensional code information when product state or logistics information changes, so as to maintain real-time and accuracy of information.

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