Non-water-based mud solid-liquid separation and resource reutilization system
By designing a non-aqueous mud solid-liquid separation and resource reuse system including pretreatment, solid-liquid separation, resource-based deep treatment, solid-phase material resource utilization and intelligent integrated control monitoring module, the problem of poor solid-liquid separation effect and lack of deep purification and automated monitoring in traditional systems is solved, and the solid-liquid separation and resource reuse effect of efficient, resource-based utilization and automated control is achieved.
Patent Information
- Application Number
- CN202411849203.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-16
- Publication Date
- 2025-03-14
AI Technical Summary
The traditional non-aqueous slurry solid-liquid separation system relies on simple physical separation methods, resulting in poor solid-liquid separation effect and lack of devices to deeply purify the liquid phase, resulting in most of the separated liquids and solids that can only be treated as waste, and their resource utilization value is not fully considered. At the same time, it cannot be automated and real-time monitoring of the operating status and key parameters of each module.
A solid-liquid separation and resource reuse system for non-aqueous mud is designed, which includes a pretreatment module, an efficient solid-liquid separation module, a resource-based deep processing module, a solid-phase material resource-based utilization module and an intelligent integrated control and monitoring module. The system uses a vibration screening unit and an ultrasonic auxiliary separation unit for solid-liquid separation, uses a membrane separation treatment unit and an oxidation decomposition unit for deep purification of the liquid phase, and converts the solid phase into valuable carbon materials through a low-temperature carbonization treatment unit. At the same time, the system is automated and real-time monitoring is realized through an intelligent integrated control monitoring module.
Through the combined effect of this system, it is possible to effectively separate solid particles and liquids in non-aqueous-based mud, realize deep purification of the liquid phase, convert solid phase into valuable resources, improve the quality of effluent water, meet environmental protection requirements or reuse standards, and reduce labor costs and energy consumption through automation and intelligent control, and improve the maintenance efficiency and reliability of the system.
Smart Images
Figure CN119620678A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of recycling systems, and in particular to a non-water-based mud solid-liquid separation and resource recycling system. Background Art
[0002] Non-aqueous mud solid-liquid separation refers to the process of removing liquid components from non-aqueous mud containing solid particles by physical or chemical means to separate the solid and liquid parts. Non-aqueous mud usually refers to drilling mud or industrial mud based on oil, synthetic base or other non-aqueous solvents.
[0003] Traditional non-aqueous mud solid-liquid separation systems rely solely on simple physical separation methods, such as sedimentation tanks or simple screening devices. These methods are often difficult to effectively remove tiny particles and soluble pollutants when treating non-aqueous mud, resulting in poor solid-liquid separation effects. There is also a lack of equipment for deep purification of the liquid phase, and it is impossible to effectively remove soluble salts and organic impurities. The effluent quality may not meet environmental protection requirements or reuse standards, resulting in most of the separated liquids and solids having to be treated as waste, without fully considering their resource utilization value, resulting in energy waste. At the same time, the separation process partially relies on manual operation, with a low degree of automation, resulting in unstable processing efficiency and high labor costs. The operating status and key parameters of each module cannot be monitored in real time, making it difficult to discover and solve problems in a timely manner.
[0004] Therefore, in view of the fact that the above-mentioned traditional non-aqueous mud solid-liquid separation system relies on simple physical separation methods, resulting in poor solid-liquid separation effect, and lacks equipment for deep purification of the liquid phase, and cannot effectively remove soluble salts and organic impurities, resulting in most of the separated liquids and solids can only be treated as waste, and their resource utilization value is not fully considered. At the same time, it is impossible to automatically process and monitor the operating status and key parameters of each module in real time. A non-aqueous mud solid-liquid separation and resource recycling system can be designed, which can automatically, intelligently and efficiently separate and recycle resources. Summary of the invention
[0005] In order to overcome the problem that the traditional non-water-based mud solid-liquid separation system relies on simple physical separation methods, resulting in poor solid-liquid separation effect and lack of equipment for deep purification of the liquid phase, most of the separated liquid and solid can only be used as waste. At the same time, it is impossible to automatically process and monitor the operating status and key parameters of each module in real time.
[0006] The technical solution of the present invention is: a non-water-based mud solid-liquid separation and resource recycling system, which includes a pretreatment module, an efficient solid-liquid separation module, a resource deep processing module, a solid phase resource utilization module, and an intelligent integrated control and monitoring module; wherein, The pretreatment module includes a homogenization stirring unit, an intelligent mud monitoring unit and a conveying unit. The intelligent mud monitoring unit uses an intelligent mud flowmeter to monitor the mud flow in real time, provide accurate input data for the system, and support automatic adjustment of the processing volume to achieve the purpose of automatic adjustment. The conveying unit includes a conveying pump; The high-efficiency solid-liquid separation module includes a vibration screening unit, an ultrasonic assisted separation unit and a PLC control unit for effectively separating solid particles from liquid in non-water-based mud. The ultrasonic assisted separation unit includes an ultrasonic generator and an ultrasonic transducer. The vibration screening unit uses a vibrating screen, and the ultrasonic transducer is installed on the screen of the vibrating screen to ensure that the ultrasonic wave evenly covers the surface of the screen. The ultrasonic generator is connected to the ultrasonic transducer through a cable; The resource recovery deep treatment module includes a membrane separation treatment unit and an oxidation decomposition unit. The membrane separation treatment unit includes ultrafiltration equipment and reverse osmosis equipment. The oxidation decomposition unit adopts an electrochemical oxidation device to oxidize and decompose difficult-to-degrade organic matter using electrochemical principles to improve the effluent water quality. The solid phase resource utilization module includes a low-temperature carbonization treatment unit for pyrolyzing the solid phase separated from the high-efficiency solid-liquid separation module at low temperature, a flue gas treatment unit and an automatic packaging and transportation unit. The low-temperature carbonization treatment unit adopts a low-temperature pyrolysis carbonization furnace, and the flue gas treatment unit adopts a bag dust collector or a cyclone dust collector. The automatic packaging and transportation unit includes a briquetting machine (tablet press), an automatic packaging machine, a sorting and conveying device and a transport vehicle; The intelligent integrated control and monitoring module includes a sensor unit for real-time monitoring of the operating status and key parameters of each module, a big data analysis unit and a remote monitoring and diagnosis unit. The big data analysis unit collects and analyzes sensor data, identifies potential problems and makes optimization suggestions, and automatically adjusts and optimizes the system through intelligent algorithms. The remote monitoring and diagnosis unit supports managers to remotely view the system operating status and perform fault diagnosis through mobile devices or computers.
[0007] Preferably, the homogenizing stirring unit includes a mud receiving tank, in which an agitator is installed. The agitator is provided with a variable frequency speed regulating motor to drive a stirring paddle to rotate, thereby stirring the non-aqueous mud inside the mud receiving tank, ensuring that the mud reaches a uniform and stable state before entering the solid-liquid separation module, thereby improving the processing efficiency.
[0008] Preferably, the high-efficiency solid-liquid separation module also includes an intelligent pressure-adjustable filter press, which automatically adjusts the pressure according to the mud properties and separation requirements to optimize the solid-liquid separation effect. It is also equipped with an automatic cleaning system and controlled by a PLC control unit to reduce manual maintenance.
[0009] Preferably, the liquid separated from the high-efficiency solid-liquid separation module passes through a multi-media filter or an activated carbon filter to remove suspended matter and residual chlorine impurities before entering the ultrafiltration equipment, thereby reducing contamination of subsequent ultrafiltration and reverse osmosis membranes.
[0010] Preferably, the purified water in the resource recovery deep processing module enters a water storage tank through a pipeline system for storage, or is directly delivered to users for use.
[0011] Preferably, the solid phase separated from the high-efficiency solid-liquid separation module is fed into the receiving hopper of the low-temperature pyrolysis carbonization furnace via a conveyor belt or a screw feeder, and then enters the interior of the low-temperature pyrolysis carbonization furnace via an air-locking feeder.
[0012] Preferably, the low-temperature pyrolysis carbonization furnace in the low-temperature carbonization treatment unit specifically uses any one of a self-heating dry distillation carbonization furnace, an internal heating carbonization furnace and an external heating dry distillation carbonization furnace.
[0013] Preferably, the flue gas treatment unit adopts any one or more combinations of a wet desulfurization tower, a dry desulfurization device, an SCR denitrification device and a spray tower.
[0014] Beneficial effects of the present invention: 1. Through the combined action of the vibration screening unit and the ultrasonic assisted separation unit, this system can effectively separate the solid particles from the liquid in the non-water-based mud, improve the separation efficiency, and reduce the pollution of the non-water-based mud to the environment. The introduction of ultrasound can enhance the separation effect, especially for the removal of tiny particles. The resource-based deep processing module uses a membrane separation processing unit and an oxidation decomposition unit to perform deep purification according to the characteristics of different pollutants, remove soluble salts and organic impurities, improve the effluent water quality, and meet environmental protection requirements or reuse standards; 2. The recycling system utilizes the resource utilization of solid phase to carry out low-temperature carbonization treatment on the separated solid phase, and transforms it into valuable carbon materials or other products, thus realizing the resource utilization of waste, avoiding the problem of waste accumulation and disposal, and improving economic and environmental benefits. In the process of low-temperature carbonization, the recyclable energy that may be generated, including heat energy and combustible gas, can be further utilized, reducing the overall energy consumption of the system; 3. The intelligent mud monitoring unit and conveying unit in the pretreatment module of this system can monitor the mud flow in real time and automatically adjust the processing volume, realizing the automatic operation of the system. The intelligent integrated control monitoring module can monitor the operating status and key parameters of each module in real time, identify potential problems and make optimization suggestions by deploying sensors and big data analysis units. The remote monitoring and diagnosis unit supports managers to remotely view the system operation status and perform fault diagnosis, improving the maintenance efficiency and reliability of the system. The automated and intelligent operation of the system reduces labor costs and energy consumption, while reducing waste and emissions generated during the treatment process. It can also process various types of non-water-based muds and has strong adaptability and flexibility. The system adopts a modular design, and each module is relatively independent, which is convenient for maintenance and upgrading, and also convenient for combining and configuring modules according to different processing requirements. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] Figure 1 What is shown is a schematic diagram of the overall framework structure of a non-water-based mud solid-liquid separation and resource recycling system of the present invention; Figure 2 Shown is a schematic diagram of the framework structure of a pretreatment module in a non-water-based mud solid-liquid separation and resource recycling system of the present invention; Figure 3 Shown is a schematic diagram of the framework structure of a high-efficiency solid-liquid separation module in a non-aqueous mud solid-liquid separation and resource recycling system of the present invention; Figure 4 Shown is a schematic diagram of the framework structure of a resource recovery deep processing module in a non-water-based mud solid-liquid separation and resource recovery and recycling system of the present invention; Figure 5 Shown is a schematic diagram of the framework structure of a solid phase resource utilization module in a non-water-based mud solid-liquid separation and resource recycling system of the present invention; Figure 6 Shown is a schematic diagram of the framework structure of an intelligent integrated control and monitoring module in a non-water-based mud solid-liquid separation and resource recycling system of the present invention. DETAILED DESCRIPTION
[0016] The present invention will be further described below in conjunction with the accompanying drawings and embodiments.
[0017] See also Figure 1-Figure 6 The present invention provides an embodiment: the system includes a pretreatment module, an efficient solid-liquid separation module, a resource-based deep processing module, a solid phase resource utilization module, and an intelligent integrated control and monitoring module; wherein, The pretreatment module includes a homogenization stirring unit, an intelligent mud monitoring unit and a conveying unit. The intelligent mud monitoring unit uses an intelligent mud flowmeter to monitor the mud flow in real time, provide accurate input data for the system, and support automatic adjustment of the processing volume to achieve the purpose of automatic adjustment. The conveying unit includes a conveying pump; The high-efficiency solid-liquid separation module includes a vibration screening unit, an ultrasonic assisted separation unit and a PLC control unit for effectively separating solid particles from liquid in non-water-based mud. The ultrasonic assisted separation unit includes an ultrasonic generator and an ultrasonic transducer. The vibration screening unit uses a vibrating screen, and the ultrasonic transducer is installed on the screen of the vibrating screen to ensure that the ultrasonic wave evenly covers the surface of the screen. The ultrasonic generator is connected to the ultrasonic transducer through a cable; The resource recovery deep treatment module includes a membrane separation treatment unit and an oxidation decomposition unit. The membrane separation treatment unit includes ultrafiltration equipment and reverse osmosis equipment. The oxidation decomposition unit adopts an electrochemical oxidation device to oxidize and decompose difficult-to-degrade organic matter using electrochemical principles to improve the effluent water quality. The solid phase resource utilization module includes a low-temperature carbonization treatment unit for pyrolyzing the solid phase separated from the high-efficiency solid-liquid separation module at low temperature, a flue gas treatment unit and an automatic packaging and transportation unit. The low-temperature carbonization treatment unit adopts a low-temperature pyrolysis carbonization furnace, and the flue gas treatment unit adopts a bag dust collector or a cyclone dust collector. The automatic packaging and transportation unit includes a briquetting machine (tablet press), an automatic packaging machine, a sorting and conveying device and a transport vehicle; The intelligent integrated control and monitoring module includes a sensor unit for real-time monitoring of the operating status and key parameters of each module, a big data analysis unit and a remote monitoring and diagnosis unit. The big data analysis unit collects and analyzes sensor data, identifies potential problems and makes optimization suggestions, and automatically adjusts and optimizes the system through intelligent algorithms. The remote monitoring and diagnosis unit supports managers to remotely view the system operating status and perform fault diagnosis through mobile devices or computers.
[0018] Example 1
[0019] The present invention provides an embodiment: the system includes a pretreatment module, an efficient solid-liquid separation module, a resource-based deep processing module, a solid phase resource utilization module, and an intelligent integrated control and monitoring module; wherein, The pretreatment module includes a homogenization stirring unit, an intelligent mud monitoring unit and a conveying unit. The intelligent mud monitoring unit adopts an intelligent mud flowmeter to monitor the flow of mud in real time, provide accurate input data for the system, and support automatic adjustment of the processing volume to achieve the purpose of automatic adjustment. The conveying unit includes a conveying pump, and the homogenization stirring unit includes a mud receiving tank. An agitator is installed inside the mud receiving tank. The agitator is provided with a variable frequency speed regulating motor to drive the agitator to rotate and stir the non-water-based mud inside the mud receiving tank to ensure that the mud reaches a uniform and stable state before entering the solid-liquid separation module, thereby improving the processing efficiency. The high-efficiency solid-liquid separation module includes a vibration screening unit, an ultrasonic assisted separation unit and a PLC control unit for effectively separating solid particles from liquid in non-aqueous mud. The ultrasonic assisted separation unit includes an ultrasonic generator and an ultrasonic transducer. The vibration screening unit adopts a vibration screen, and the ultrasonic transducer is installed on the screen of the vibration screen to ensure that the ultrasonic wave evenly covers the screen surface. The ultrasonic generator is connected to the ultrasonic transducer through a cable. The high-efficiency solid-liquid separation module also includes an intelligent pressure adjustment filter press, which automatically adjusts the pressure according to the mud properties and separation requirements to optimize the solid-liquid separation effect. At the same time, it is equipped with an automatic cleaning system, which is controlled by the PLC control unit to reduce manual maintenance. Before the liquid separated from the high-efficiency solid-liquid separation module enters the ultrafiltration equipment, it first passes through a multi-media filter to remove suspended matter and residual chlorine impurities to reduce the pollution of subsequent ultrafiltration and reverse osmosis membranes. The solid phase separated from the high-efficiency solid-liquid separation module is sent to the receiving hopper of the low-temperature pyrolysis carbonization furnace through a conveyor belt, and then enters the low-temperature pyrolysis carbonization furnace through a lock air feeder; The resource recovery deep treatment module includes a membrane separation treatment unit and an oxidation decomposition unit. The membrane separation treatment unit includes ultrafiltration equipment and reverse osmosis equipment. The oxidation decomposition unit adopts an electrochemical oxidation device to oxidize and decompose difficult-to-degrade organic matter using electrochemical principles to improve the effluent water quality. The purified water in the resource recovery deep treatment module enters the water storage tank through the pipeline system for storage, or is directly delivered to the supply user for use: The solid phase resource utilization module includes a low-temperature carbonization treatment unit for pyrolyzing the solid phase separated from the high-efficiency solid-liquid separation module at low temperature, a flue gas treatment unit and an automatic packaging and transportation unit. The low-temperature carbonization treatment unit adopts a low-temperature pyrolysis carbonization furnace, and the flue gas treatment unit adopts a bag filter or a cyclone dust collector. The automatic packaging and transportation unit includes a briquetting machine (tablet press), an automatic packaging machine, a sorting and conveying device and a transport vehicle. The low-temperature pyrolysis carbonization furnace in the low-temperature carbonization treatment unit specifically uses a self-heating dry distillation carbonization furnace. The flue gas treatment unit adopts a wet desulfurization tower, and also uses an SCR denitrification device and a spray tower; The intelligent integrated control and monitoring module includes a sensor unit for real-time monitoring of the operating status and key parameters of each module, a big data analysis unit and a remote monitoring and diagnosis unit. The big data analysis unit collects and analyzes sensor data, identifies potential problems and makes optimization suggestions, and automatically adjusts and optimizes the system through intelligent algorithms. The remote monitoring and diagnosis unit supports managers to remotely view the system operating status and perform fault diagnosis through mobile devices or computers.
[0020] Example 2
[0021] The present invention provides an embodiment: the system includes a pretreatment module, an efficient solid-liquid separation module, a resource-based deep processing module, a solid phase resource utilization module, and an intelligent integrated control and monitoring module; wherein, The pretreatment module includes a homogenization stirring unit, an intelligent mud monitoring unit and a conveying unit. The intelligent mud monitoring unit adopts an intelligent mud flowmeter to monitor the flow of mud in real time, provide accurate input data for the system, and support automatic adjustment of the processing volume to achieve the purpose of automatic adjustment. The conveying unit includes a conveying pump, and the homogenization stirring unit includes a mud receiving tank. An agitator is installed inside the mud receiving tank. The agitator is provided with a variable frequency speed regulating motor to drive the agitator to rotate and stir the non-water-based mud inside the mud receiving tank to ensure that the mud reaches a uniform and stable state before entering the solid-liquid separation module, thereby improving the processing efficiency. The high-efficiency solid-liquid separation module includes a vibration screening unit, an ultrasonic assisted separation unit and a PLC control unit for effectively separating solid particles from liquid in non-aqueous mud. The ultrasonic assisted separation unit includes an ultrasonic generator and an ultrasonic transducer. The vibration screening unit adopts a vibration screen, and the ultrasonic transducer is installed on the screen of the vibration screen to ensure that the ultrasonic wave evenly covers the screen surface. The ultrasonic generator is connected to the ultrasonic transducer through a cable. The high-efficiency solid-liquid separation module also includes an intelligent pressure adjustment filter press, which automatically adjusts the pressure according to the mud properties and separation requirements to optimize the solid-liquid separation effect. At the same time, it is equipped with an automatic cleaning system, which is controlled by the PLC control unit to reduce manual maintenance. Before the liquid separated from the high-efficiency solid-liquid separation module enters the ultrafiltration equipment, it first passes through a multi-media filter or an activated carbon filter to remove suspended matter and residual chlorine impurities, thereby reducing the pollution of subsequent ultrafiltration and reverse osmosis membranes. The solid phase separated from the high-efficiency solid-liquid separation module is fed into the receiving hopper of the low-temperature pyrolysis carbonization furnace through a screw feeder, and then enters the low-temperature pyrolysis carbonization furnace through an air lock feeder; The resource recovery deep treatment module includes a membrane separation treatment unit and an oxidation decomposition unit. The membrane separation treatment unit includes ultrafiltration equipment and reverse osmosis equipment. The oxidation decomposition unit adopts an electrochemical oxidation device to oxidize and decompose difficult-to-degrade organic matter using electrochemical principles to improve the effluent water quality. The purified water in the resource recovery deep treatment module enters the water storage tank through the pipeline system for storage, or is directly delivered to the supply user for use: The solid phase resource utilization module includes a low-temperature carbonization treatment unit for pyrolyzing the solid phase separated from the high-efficiency solid-liquid separation module at low temperature, a flue gas treatment unit and an automatic packaging and transportation unit. The low-temperature carbonization treatment unit adopts a low-temperature pyrolysis carbonization furnace, and the flue gas treatment unit adopts a bag filter or a cyclone dust collector. The automatic packaging and transportation unit includes a briquetting machine (tablet press), an automatic packaging machine, a sorting and conveying device and a transport vehicle. The low-temperature pyrolysis carbonization furnace in the low-temperature carbonization treatment unit specifically uses an internal heating carbonization furnace, and the flue gas treatment unit adopts a dry desulfurization device, and uses an SCR denitrification device and a spray tower at the same time; The intelligent integrated control and monitoring module includes a sensor unit for real-time monitoring of the operating status and key parameters of each module, a big data analysis unit and a remote monitoring and diagnosis unit. The big data analysis unit collects and analyzes sensor data, identifies potential problems and makes optimization suggestions, and automatically adjusts and optimizes the system through intelligent algorithms. The remote monitoring and diagnosis unit supports managers to remotely view the system operating status and perform fault diagnosis through mobile devices or computers.
[0022] Through the above steps, the recycling system utilizes the resource utilization of solid phase to carry out low-temperature carbonization treatment on the separated solid phase, and converts it into valuable carbon material or other products, thereby realizing the resource utilization of waste, avoiding the accumulation and disposal of waste, and improving economic and environmental benefits. In the low-temperature carbonization process, recyclable energy that may be generated, including heat energy and combustible gas, can be further utilized, reducing the overall energy consumption of the system, so as to solve the problem that the traditional non-aqueous mud solid-liquid separation system relies on simple physical separation methods, resulting in poor solid-liquid separation effect, and lacks equipment for deep purification of the liquid phase, resulting in most of the separated liquid and solid can only be used as waste, and at the same time cannot be automatically processed and the operating status and key parameters of each module cannot be monitored in real time.
[0023] The embodiments of the present invention are described in detail above with reference to the accompanying drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge scope of those skilled in the art without departing from the spirit of the present invention.
Claims
1. A non-aqueous mud solid-liquid separation and resource recycling system, the system includes a pretreatment module, an efficient solid-liquid separation module, a resource deep processing module, a solid phase resource utilization module, and an intelligent integrated control and monitoring module; characterized in that: The pretreatment module includes a homogenization stirring unit, an intelligent mud monitoring unit and a conveying unit. The intelligent mud monitoring unit uses an intelligent mud flowmeter to monitor the mud flow in real time, provide accurate input data for the system, and support automatic adjustment of the processing volume to achieve the purpose of automatic adjustment. The conveying unit includes a conveying pump; The high-efficiency solid-liquid separation module includes a vibration screening unit, an ultrasonic assisted separation unit and a PLC control unit for effectively separating solid particles from liquid in non-water-based mud. The ultrasonic assisted separation unit includes an ultrasonic generator and an ultrasonic transducer. The vibration screening unit uses a vibrating screen, and the ultrasonic transducer is installed on the screen of the vibrating screen to ensure that the ultrasonic wave evenly covers the surface of the screen. The ultrasonic generator is connected to the ultrasonic transducer through a cable; The resource recovery deep treatment module includes a membrane separation treatment unit and an oxidation decomposition unit. The membrane separation treatment unit includes ultrafiltration equipment and reverse osmosis equipment. The oxidation decomposition unit adopts an electrochemical oxidation device to oxidize and decompose difficult-to-degrade organic matter using electrochemical principles to improve the effluent water quality. The solid phase resource utilization module includes a low-temperature carbonization treatment unit for pyrolyzing the solid phase separated from the high-efficiency solid-liquid separation module at low temperature, a flue gas treatment unit and an automatic packaging and transportation unit. The low-temperature carbonization treatment unit adopts a low-temperature pyrolysis carbonization furnace, and the flue gas treatment unit adopts a bag dust collector or a cyclone dust collector. The automatic packaging and transportation unit includes a briquetting machine (tablet press), an automatic packaging machine, a sorting and conveying device and a transport vehicle; The intelligent integrated control and monitoring module includes a sensor unit for real-time monitoring of the operating status and key parameters of each module, a big data analysis unit and a remote monitoring and diagnosis unit. The big data analysis unit collects and analyzes sensor data, identifies potential problems and makes optimization suggestions, and automatically adjusts and optimizes the system through intelligent algorithms. The remote monitoring and diagnosis unit supports managers to remotely view the system operating status and perform fault diagnosis through mobile devices or computers.
2. A non-aqueous slurry solid-liquid separation and resource recycling system according to claim 1, characterized in that: The homogenizing stirring unit includes a mud receiving tank, in which an agitator is installed. The agitator is provided with a variable frequency speed regulating motor to drive a stirring paddle to rotate, thereby stirring the non-aqueous mud in the mud receiving tank, ensuring that the mud reaches a uniform and stable state before entering the solid-liquid separation module, thereby improving the processing efficiency.
3. The non-aqueous slurry solid-liquid separation and resource recycling system according to claim 1 is characterized by: The high-efficiency solid-liquid separation module also includes an intelligent pressure-adjusting filter press, which automatically adjusts the pressure according to the mud properties and separation requirements to optimize the solid-liquid separation effect. It is also equipped with an automatic cleaning system, which is controlled by a PLC control unit to reduce manual maintenance.
4. The non-aqueous slurry solid-liquid separation and resource recycling system according to claim 1 is characterized by: Before entering the ultrafiltration equipment, the liquid separated from the high-efficiency solid-liquid separation module passes through a multi-media filter or an activated carbon filter to remove suspended matter and residual chlorine impurities, thereby reducing contamination of subsequent ultrafiltration and reverse osmosis membranes.
5. The non-aqueous slurry solid-liquid separation and resource recycling system according to claim 1 is characterized by: The purified water in the resource recovery deep processing module enters the water storage tank through the pipeline system for storage, or is directly delivered to the user for use.
6. The non-aqueous slurry solid-liquid separation and resource recycling system according to claim 1 is characterized by: The solid phase separated from the high-efficiency solid-liquid separation module is sent to the receiving hopper of the low-temperature pyrolysis carbonization furnace through a conveyor belt or a screw feeder, and then enters the interior of the low-temperature pyrolysis carbonization furnace through an air-locking feeder.
7. The non-aqueous slurry solid-liquid separation and resource recycling system according to claim 1, characterized in that: The low-temperature pyrolysis carbonization furnace in the low-temperature carbonization treatment unit specifically uses any one of a self-heating dry distillation carbonization furnace, an internal heating carbonization furnace, and an external heating dry distillation carbonization furnace.
8. The non-aqueous slurry solid-liquid separation and resource recycling system according to claim 1, characterized in that: The flue gas treatment unit adopts any one or more combinations of a wet desulfurization tower, a dry desulfurization device, an SCR denitrification device and a spray tower.