Harmless treatment method for carcasses of animals died of illness in livestock farm

Abstract

The invention relates to the technical field of livestock breeding, and discloses a livestock farm dead animal carcass harmless treatment method, which comprises: S1, carrying out primary decomposition treatment by using a biodegradation reactor; s2, performing high-temperature pyrolysis treatment; s3, harmful gas purification; s4, solid residue treatment and resource recovery; s5, automatic monitoring and management; and S6, intelligent optimization and data analysis. According to the invention, by combining biodegradation and high-temperature pyrolysis technologies, the problems of low treatment efficiency, high cost and environmental pollution in a traditional dead animal treatment method are solved. The biodegradation reactor can decompose organic matters in the animal carcasses in a short time, and the high-temperature pyrolysis technology can effectively convert the dead animal carcasses into harmless gas and solid residues, so that the treatment efficiency is greatly improved, and the risk of environmental pollution is reduced.

Description

Technical Field

[0001] The present invention relates to the technical field of animal husbandry, and in particular to a method for harmlessly treating carcasses of dead animals in animal husbandry farms. Background Art

[0002] In modern animal husbandry, animal deaths are unavoidable, especially those caused by disease. With the rapid development of the livestock industry, the number of dead animals has steadily increased. Dead animals often carry pathogens, parasite eggs, viruses, and other harmful substances. If not effectively handled, they not only pollute the environment but can also spread diseases, threatening human and animal health. Therefore, the harmless disposal of dead animals is a pressing task facing the livestock industry.

[0003] Traditional methods for disposing of dead animals include incineration, landfilling, and composting, but these methods have significant shortcomings. While incineration can effectively eliminate pathogens, the resulting waste gas can cause secondary environmental pollution. Landfilling can contaminate groundwater and makes it difficult to eliminate pathogens from carcasses. Composting, on the other hand, requires significant time and resources and is not suitable for all types of dead animals. Furthermore, these traditional methods are generally costly and inefficient, making them unable to meet the large-scale disposal needs of the livestock industry.

[0004] Therefore, designing a more efficient, environmentally friendly, and economical method for the harmless disposal of dead animals has become a key technical challenge that the industry urgently needs to address. Preventing environmental pollution from dead animals, reducing potential health risks, and achieving resource recycling are current research hotspots.

[0005] With the development of science and technology, particularly advances in biotechnology, pyrolysis, and environmental protection technologies, the technical means for the harmless disposal of dead animal carcasses have been significantly improved. Today, many researchers and companies are exploring more scientific and sustainable methods to achieve efficient and harmless disposal of dead animal carcasses without increasing the environmental burden.

[0006] Some existing new technologies such as biodegradation, high-temperature pyrolysis, and harmless treatment have to some extent solved some of the problems in the disposal of dead animal carcasses. However, due to high technical costs and complex operations, they have not yet been widely used in farms.

[0007] To this end, we propose a method for harmless disposal of dead animal carcasses in livestock farms. Summary of the Invention

[0008] The present invention mainly solves the technical problems existing in the above-mentioned prior art and provides a method for harmlessly treating the carcasses of dead animals in livestock farms.

[0009] To achieve the above-mentioned objectives, the present invention adopts the following technical solutions: a method for harmless treatment of dead animal carcasses in livestock farms, comprising the following steps: S1: preliminary decomposition treatment using a biodegradation reactor: the biodegradation reactor is equipped with a temperature control system, a humidity control system, a microbial culture system, etc.; S2: high-temperature pyrolysis treatment; S3: harmful gas purification: the gas composition during the pyrolysis process is monitored in real time by an online gas analyzer to ensure that the gas emissions meet the standards, and the gas purification system includes catalytic oxidation, adsorption devices, flue gas desulfurization and denitrification devices, etc.; S4: solid residue treatment and resource recovery: the solid residue after high-temperature pyrolysis treatment is screened to remove useless impurities and disinfected to ensure that it does not contain pathogenic microorganisms. The solid residue contains rich minerals and can be used as a fertilizer or soil conditioner. The screened residue can be used for agricultural production to promote land fertility. The treated solid residue needs to be stored and transported to agricultural land for use through a transportation system when needed; S5: automated monitoring and management; S6: intelligent optimization and data analysis.

[0010] Preferably, in S1, the temperature in the reactor should be maintained at 35°C-45°C to ensure the activity and decomposition efficiency of the microorganisms. The humidity should be maintained at 60%-80% during the treatment process to ensure the normal growth of microorganisms. Depending on the type and volume of the animal carcass, the initial decomposition treatment time is 24 hours to 36 hours, and fungi or bacteria are used to efficiently decompose the organic matter in the animal carcasses.

[0011] Preferably, in S2, the temperature of the high-temperature pyrolysis treatment is usually controlled at 400°C-500°C. This temperature range can effectively decompose organic matter in animal carcasses and convert them into harmless gases and solid residues. The high-temperature pyrolysis treatment process lasts for 2 hours, and the specific time is adjusted according to the type and volume of the animal carcasses.

[0012] Preferably, in S2, harmful gases generated during the high-temperature pyrolysis treatment, such as nitrogen oxides, carbon dioxide, chlorides, etc., need to be treated by a gas purification system. The purification system includes a catalytic oxidation device and an activated carbon adsorption device, which can convert these harmful gases into harmless gases. Most of the solid residues after the high-temperature pyrolysis treatment are inorganic substances and contain fewer harmful components. These residues are converted into fertilizers or soil conditioners through screening and disinfection.

[0013] Preferably, in said S3, harmful gases are converted into carbon dioxide and water vapor by catalytic oxidation technology; toxic and harmful gases are removed by an activated carbon adsorption device; and the emission of nitrogen oxides and sulfur oxides is reduced by a flue gas desulfurization and denitrification device. The emitted gases must comply with national environmental protection emission standards to ensure that the air quality is not affected.

[0014] Preferably, in said S5, the temperature and humidity in the treatment equipment are automatically monitored and adjusted to ensure the stability of the biodegradation and pyrolysis processes, the exhaust gas composition generated during the pyrolysis process is monitored in real time to ensure that the gas emissions meet environmental protection standards, each batch of treatment processes is recorded through a data recording system, and the treatment conditions are automatically adjusted according to data feedback to improve the treatment efficiency. Once an equipment failure or abnormal situation occurs, the automatic alarm system will be immediately activated and corresponding emergency treatment will be carried out.

[0015] Preferably, in the S6, through an advanced data analysis system, key parameters such as temperature, humidity, gas composition, etc. during the biodegradation and high-temperature pyrolysis treatment process are collected and analyzed in real time, and big data technology is used to optimize the treatment process. The system can predict the treatment cycle and conditions of different types of animal carcasses based on historical data and treatment effects, and automatically adjust various operating parameters to achieve more accurate and efficient treatment. During this process, artificial intelligence algorithms will continuously optimize gas purification, temperature control and humidity control strategies, reduce energy consumption, and improve treatment efficiency. In addition, the system can also generate detailed treatment reports for management personnel's reference and decision-making, ensuring the traceability and compliance of operations.

[0016] The present invention provides a method for harmlessly treating the carcasses of dead animals in livestock farms.

[0017] Beneficial effects:

[0018] This method for harmlessly disposing of dead animal carcasses from livestock farms combines biodegradation with high-temperature pyrolysis technology, addressing the low efficiency, high cost, and environmental pollution issues inherent in traditional animal carcass disposal methods. The biodegradation reactor quickly decomposes organic matter from the carcasses, while the high-temperature pyrolysis technology effectively converts the carcasses into harmless gases and solid residues, significantly improving treatment efficiency and reducing environmental pollution risks.

[0019] 2. This method for harmlessly disposing of dead animal carcasses in livestock farms can effectively convert harmful gases (such as nitrogen oxides, carbon dioxide, chlorides, etc.) generated during the pyrolysis process into harmless gases through the introduction of a gas purification system, ensuring that gas emissions meet environmental protection standards, thereby reducing the impact of the treatment process of dead animal carcasses on air quality and the environment, and effectively reducing potential health risks.

[0020] 3. This method for harmlessly disposing of dead animal carcasses from livestock farms. The solid residues from high-temperature pyrolysis are rich in minerals. After screening and disinfection, they can be used as fertilizer or soil conditioner in agricultural production, improving soil fertility. This method not only effectively eliminates the problem of disposing of dead animal carcasses, but also achieves resource recycling, in line with the concept of sustainable development.

[0021] 4. This method for harmless disposal of dead animal carcasses in livestock farms introduces an automated monitoring and management system that can monitor and adjust the temperature, humidity, and gas composition in the equipment in real time to ensure the stability and efficiency of the treatment process. The intelligent optimization system optimizes operating parameters through data analysis, reduces energy consumption, improves treatment efficiency, and further enhances the automation and intelligence level of the treatment process.

[0022] 5. This method for harmlessly disposing of dead animal carcasses in livestock farms uses a technical solution that combines a biodegradation reactor with high-temperature pyrolysis treatment. It not only improves the efficiency of disposing of dead animal carcasses, but also makes the operation more convenient by simplifying the operation process. The introduction of an automatic alarm system and a data recording system allows faults in the treatment process to be quickly responded to and handled, reducing the complexity of manual intervention and improving the reliability and treatment efficiency of the system. DETAILED DESCRIPTION

[0023] To make the purpose, features, and advantages of the present invention more obvious and easy to understand, the technical solutions in the embodiments of the present invention are clearly and completely described. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0024] Example 1: A method for harmlessly disposing the carcasses of dead animals in a livestock farm, comprising the following steps: S1: Preliminary decomposition treatment using a biodegradation reactor: The biodegradation reactor is equipped with a temperature control system, a humidity control system, a microbial culture system, etc. The temperature within the reactor should be maintained at 35°C to ensure the activity and decomposition efficiency of the microorganisms. The humidity should be maintained at 60% during the treatment process to ensure the normal growth of the microorganisms. The initial decomposition treatment time is 24 hours depending on the type and volume of the animal carcass. Fungi or bacteria are used to efficiently decompose organic matter in the animal carcasses.

[0025] S2: High-temperature pyrolysis treatment: The temperature of high-temperature pyrolysis treatment is usually controlled at 400°C. This temperature range can effectively decompose the organic matter in the animal carcasses and convert them into harmless gases and solid residues. The high-temperature pyrolysis treatment process lasts for 2 hours, and the specific time is adjusted according to the type and volume of the animal carcasses. Harmful gases generated during the high-temperature pyrolysis treatment, such as nitrogen oxides, carbon dioxide, chlorides, etc., need to be treated by a gas purification system. The purification system includes a catalytic oxidation device and an activated carbon adsorption device, which can convert these harmful gases into harmless gases. The solid residues after high-temperature pyrolysis treatment are mostly inorganic substances and contain fewer harmful components. Through screening and disinfection, these residues can be converted into fertilizers or soil conditioners;

[0026] S3: Harmful gas purification: The gas composition during the pyrolysis process is monitored in real time using an online gas analyzer to ensure that gas emissions meet standards. The gas purification system includes catalytic oxidation, adsorption devices, flue gas desulfurization and denitrification devices, etc. Through catalytic oxidation technology, harmful gases are converted into carbon dioxide and water vapor; activated carbon adsorption devices are used to remove toxic and harmful gases; and flue gas desulfurization and denitrification devices are used to reduce the emission of nitrogen oxides and sulfur oxides. The emitted gases must meet national environmental protection emission standards to ensure that air quality is not affected.

[0027] S4: Solid residue treatment and resource recovery: The solid residue after high-temperature pyrolysis treatment is screened to remove useless impurities and disinfected to ensure that it does not contain pathogenic microorganisms. The solid residue is rich in minerals and can be used as a fertilizer or soil conditioner. The screened residue can be used in agricultural production to promote land fertility. The treated solid residue needs to be stored and transported to agricultural land for use through a transportation system when needed;

[0028] S5: Automated Monitoring and Management: Automatically monitor and adjust the temperature and humidity in the treatment equipment to ensure the stability of the biodegradation and pyrolysis processes. Real-time monitoring of the exhaust gas composition generated during the pyrolysis process ensures that gas emissions meet environmental standards. A data recording system records each batch of treatment processes and automatically adjusts treatment conditions based on data feedback to improve treatment efficiency. In the event of equipment failure or abnormal conditions, the automatic alarm system will immediately activate and implement appropriate emergency measures.

[0029] S6: Intelligent Optimization and Data Analysis: Through an advanced data analysis system, key parameters such as temperature, humidity, and gas composition during the biodegradation and high-temperature pyrolysis processes are collected and analyzed in real time, and big data technology is used to optimize the treatment process. The system can predict the treatment cycle and conditions of different types of animal carcasses based on historical data and treatment effects, and automatically adjust various operating parameters to achieve more accurate and efficient treatment. During this process, artificial intelligence algorithms will continuously optimize gas purification, temperature control, and humidity control strategies to reduce energy consumption and improve treatment efficiency. In addition, the system can also generate detailed treatment reports for management personnel's reference and decision-making, ensuring the traceability and compliance of operations.

[0030] Example 2: A method for harmlessly disposing of dead animal carcasses in a livestock farm, comprising the following steps: S1: Preliminary decomposition treatment using a biodegradation reactor: The biodegradation reactor is equipped with a temperature control system, a humidity control system, a microbial culture system, etc. The temperature within the reactor should be maintained at 40°C to ensure the activity and decomposition efficiency of the microorganisms. The humidity should be maintained at 70% during the treatment process to ensure normal growth of the microorganisms. The initial decomposition treatment time is 30 hours depending on the type and volume of the animal carcass. Fungi or bacteria are used to efficiently decompose organic matter in the animal carcasses.

[0031] S2: High-temperature pyrolysis treatment: The temperature of high-temperature pyrolysis treatment is usually controlled at 450°C. This temperature range can effectively decompose the organic matter in the animal carcasses and convert them into harmless gases and solid residues. The high-temperature pyrolysis treatment process lasts for 2 hours, and the specific time is adjusted according to the type and volume of the animal carcasses. Harmful gases generated during the high-temperature pyrolysis treatment, such as nitrogen oxides, carbon dioxide, chlorides, etc., need to be treated by a gas purification system. The purification system includes a catalytic oxidation device and an activated carbon adsorption device, which can convert these harmful gases into harmless gases. The solid residues after high-temperature pyrolysis treatment are mostly inorganic substances and contain fewer harmful components. Through screening and disinfection, these residues can be converted into fertilizers or soil conditioners;

[0032] S3: Harmful gas purification: The gas composition during the pyrolysis process is monitored in real time using an online gas analyzer to ensure that gas emissions meet standards. The gas purification system includes catalytic oxidation, adsorption devices, flue gas desulfurization and denitrification devices, etc. Through catalytic oxidation technology, harmful gases are converted into carbon dioxide and water vapor; activated carbon adsorption devices are used to remove toxic and harmful gases; and flue gas desulfurization and denitrification devices are used to reduce the emission of nitrogen oxides and sulfur oxides. The emitted gases must meet national environmental protection emission standards to ensure that air quality is not affected.

[0033] S4: Solid residue treatment and resource recovery: The solid residue after high-temperature pyrolysis treatment is screened to remove useless impurities and disinfected to ensure that it does not contain pathogenic microorganisms. The solid residue is rich in minerals and can be used as a fertilizer or soil conditioner. The screened residue can be used in agricultural production to promote land fertility. The treated solid residue needs to be stored and transported to agricultural land for use through a transportation system when needed;

[0034] S5: Automated Monitoring and Management: Automatically monitor and adjust the temperature and humidity in the treatment equipment to ensure the stability of the biodegradation and pyrolysis processes. Real-time monitoring of the exhaust gas composition generated during the pyrolysis process ensures that gas emissions meet environmental standards. A data recording system records each batch of treatment processes and automatically adjusts treatment conditions based on data feedback to improve treatment efficiency. In the event of equipment failure or abnormal conditions, the automatic alarm system will immediately activate and implement appropriate emergency measures.

[0035] S6: Intelligent Optimization and Data Analysis: Through an advanced data analysis system, key parameters such as temperature, humidity, and gas composition during the biodegradation and high-temperature pyrolysis processes are collected and analyzed in real time, and big data technology is used to optimize the treatment process. The system can predict the treatment cycle and conditions of different types of animal carcasses based on historical data and treatment effects, and automatically adjust various operating parameters to achieve more accurate and efficient treatment. During this process, artificial intelligence algorithms will continuously optimize gas purification, temperature control, and humidity control strategies to reduce energy consumption and improve treatment efficiency. In addition, the system can also generate detailed treatment reports for management personnel's reference and decision-making, ensuring the traceability and compliance of operations.

[0036] Example 3: A method for harmlessly disposing of dead animal carcasses from a livestock farm, comprising the following steps: S1: Preliminary decomposition treatment using a biodegradation reactor: The biodegradation reactor is equipped with a temperature control system, a humidity control system, a microbial culture system, etc. The temperature within the reactor should be maintained at 45°C to ensure the activity and decomposition efficiency of the microorganisms. The humidity should be maintained at 80% during the treatment process to ensure normal growth of the microorganisms. The initial decomposition treatment time is 36 hours, depending on the type and volume of the animal carcasses. Fungi or bacteria are used to efficiently decompose organic matter in the animal carcasses.

[0037] S2: High-temperature pyrolysis treatment: The temperature of high-temperature pyrolysis treatment is usually controlled at 500°C. This temperature range can effectively decompose the organic matter in the animal carcasses and convert them into harmless gases and solid residues. The high-temperature pyrolysis treatment process lasts for 2 hours, and the specific time is adjusted according to the type and volume of the animal carcasses. Harmful gases generated during the high-temperature pyrolysis treatment, such as nitrogen oxides, carbon dioxide, chlorides, etc., need to be treated by a gas purification system. The purification system includes a catalytic oxidation device and an activated carbon adsorption device, which can convert these harmful gases into harmless gases. The solid residues after high-temperature pyrolysis treatment are mostly inorganic substances and contain fewer harmful components. Through screening and disinfection, these residues can be converted into fertilizers or soil conditioners;

[0038] S3: Harmful gas purification: The gas composition during the pyrolysis process is monitored in real time using an online gas analyzer to ensure that gas emissions meet standards. The gas purification system includes catalytic oxidation, adsorption devices, flue gas desulfurization and denitrification devices, etc. Through catalytic oxidation technology, harmful gases are converted into carbon dioxide and water vapor; activated carbon adsorption devices are used to remove toxic and harmful gases; and flue gas desulfurization and denitrification devices are used to reduce the emission of nitrogen oxides and sulfur oxides. The emitted gases must meet national environmental protection emission standards to ensure that air quality is not affected.

[0039] S4: Solid residue treatment and resource recovery: The solid residue after high-temperature pyrolysis treatment is screened to remove useless impurities and disinfected to ensure that it does not contain pathogenic microorganisms. The solid residue is rich in minerals and can be used as a fertilizer or soil conditioner. The screened residue can be used in agricultural production to promote land fertility. The treated solid residue needs to be stored and transported to agricultural land for use through a transportation system when needed;

[0040] S5: Automated Monitoring and Management: Automatically monitor and adjust the temperature and humidity in the treatment equipment to ensure the stability of the biodegradation and pyrolysis processes. Real-time monitoring of the exhaust gas composition generated during the pyrolysis process ensures that gas emissions meet environmental standards. A data recording system records each batch of treatment processes and automatically adjusts treatment conditions based on data feedback to improve treatment efficiency. In the event of equipment failure or abnormal conditions, the automatic alarm system will immediately activate and implement appropriate emergency measures.

[0041] S6: Intelligent Optimization and Data Analysis: Through an advanced data analysis system, key parameters such as temperature, humidity, and gas composition during the biodegradation and high-temperature pyrolysis processes are collected and analyzed in real time, and big data technology is used to optimize the treatment process. The system can predict the treatment cycle and conditions of different types of animal carcasses based on historical data and treatment effects, and automatically adjust various operating parameters to achieve more accurate and efficient treatment. During this process, artificial intelligence algorithms will continuously optimize gas purification, temperature control, and humidity control strategies to reduce energy consumption and improve treatment efficiency. In addition, the system can also generate detailed treatment reports for management personnel's reference and decision-making, ensuring the traceability and compliance of operations.

[0042] The basic principles, main features, and advantages of the present invention are shown and described above. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely illustrative of the principles of the present invention. Various changes and modifications may be made to the present invention without departing from the spirit and scope of the present invention. Such changes and modifications are intended to fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A method for harmlessly disposing the carcasses of dead animals in livestock farms, characterized by: The following steps are involved: S1: Use biodegradation reactor for preliminary decomposition treatment: biodegradation reactor is equipped with temperature control system, humidity control system, microbial culture system, etc. S2: High-temperature pyrolysis treatment: S3: Harmful gas purification: The gas composition during the pyrolysis process is monitored in real time through an online gas analyzer to ensure that the gas emissions meet the standards. The gas purification system includes catalytic oxidation, adsorption equipment, flue gas desulfurization and denitrification equipment, etc.; S4: Solid residue treatment and resource recovery: The solid residue after high-temperature pyrolysis treatment is screened to remove useless impurities and disinfected to ensure that it does not contain pathogenic microorganisms. The solid residue is rich in minerals and can be used as a fertilizer or soil conditioner. The screened residue can be used for agricultural production to promote land fertility. The treated solid residue needs to be stored and transported to agricultural land for use through a transportation system when needed; S5: Automated monitoring and management; S6: Intelligent optimization and data analysis.

2. The method for harmlessly disposing the carcasses of dead animals in livestock farms according to claim 1, characterized in that: In S1, the temperature in the reactor should be maintained at 35°C-45°C to ensure the activity and decomposition efficiency of the microorganisms. The humidity should be maintained at 60%-80% during the treatment process to ensure the normal growth of the microorganisms. Depending on the type and volume of the animal carcass, the initial decomposition treatment time is 24 hours to 36 hours, and fungi or bacteria are used to efficiently decompose the organic matter in the animal carcasses.

3. The method for harmlessly disposing the carcasses of dead animals in livestock farms according to claim 1, characterized in that: In S2, the temperature of the high-temperature pyrolysis treatment is usually controlled at 400°C-500°C. This temperature range can effectively decompose the organic matter in the animal carcass and convert it into harmless gas and solid residue. The high-temperature pyrolysis treatment process lasts for 2 hours, and the specific time is adjusted according to the type and volume of the animal carcass.

4. The method for harmlessly disposing the carcasses of dead animals in livestock farms according to claim 1, characterized in that: In S2, harmful gases generated during the high-temperature pyrolysis treatment, such as nitrogen oxides, carbon dioxide, chlorides, etc., need to be treated by a gas purification system. The purification system includes a catalytic oxidation device and an activated carbon adsorption device, which can convert these harmful gases into harmless gases. Most of the solid residues after the high-temperature pyrolysis treatment are inorganic substances and contain fewer harmful components. Through screening and disinfection, these residues are converted into fertilizers or soil conditioners.

5. The method for harmlessly disposing the carcasses of dead animals in livestock farms according to claim 1, characterized in that: In the S3, harmful gases are converted into carbon dioxide and water vapor through catalytic oxidation technology; toxic and harmful gases are removed through an activated carbon adsorption device; and the emission of nitrogen oxides and sulfur oxides is reduced through a flue gas desulfurization and denitrification device. The emitted gases must comply with national environmental protection emission standards to ensure that the air quality is not affected.

6. The method for harmlessly disposing the carcasses of dead animals in livestock farms according to claim 1, characterized in that: In S5, the temperature and humidity in the treatment equipment are automatically monitored and adjusted to ensure the stability of the biodegradation and pyrolysis processes. The exhaust gas composition generated during the pyrolysis process is monitored in real time to ensure that the gas emissions meet environmental protection standards. The data recording system records each batch of treatment processes and automatically adjusts the treatment conditions based on data feedback to improve treatment efficiency. In the event of equipment failure or abnormal conditions, the automatic alarm system will be immediately activated and corresponding emergency treatment will be carried out.

7. The method for harmlessly disposing the carcasses of dead animals in livestock farms according to claim 1, characterized in that: In the S6, an advanced data analysis system is used to collect and analyze key parameters such as temperature, humidity, and gas composition during the biodegradation and high-temperature pyrolysis processes in real time, and big data technology is used to optimize the processing process. The system can predict the processing cycles and conditions of different types of animal carcasses based on historical data and processing effects, and automatically adjust various operating parameters to achieve more accurate and efficient processing. During this process, artificial intelligence algorithms will continuously optimize gas purification, temperature control, and humidity control strategies to reduce energy consumption and improve processing efficiency. In addition, the system can also generate detailed processing reports for management personnel's reference and decision-making, ensuring the traceability and compliance of operations.