Industrial solid waste recycling treatment equipment and method

Abstract

The invention belongs to the field of solid waste resource utilization, and discloses industrial solid waste recycling treatment equipment and method.The industrial solid waste recycling treatment equipment comprises a treatment device, an annular conveying belt, a discharging conveying belt, an interception mechanism, a detection mechanism and a control system.The annular conveying belt and the controllable interception mechanism are introduced, and cooperative control of a photoelectric sensor and the control system is combined; dynamic flow division and variable sequence treatment of solid waste among a plurality of treatment units are achieved, the limitation that a traditional solid waste treatment assembly line is fixed in flow and cannot be adjusted is broken through, different types of solid waste can be flexibly guided into the needed treatment units on the annular conveying belt through flow configuration of a control system, and the treatment efficiency is improved. By means of the dynamic scheduling, complete entering and efficient connection of the solid waste in the treatment process are guaranteed, the efficiency and adaptability of the treatment process are improved, and the technical advancement and the application range of solid waste recycling equipment are remarkably enhanced.

Description

Technical Field

[0001] This invention relates to the field of solid waste resource utilization, and more particularly to equipment and methods for the reuse and treatment of industrial solid waste. Background Technology

[0002] Industrial solid waste refers to waste generated during industrial production processes such as metallurgy, building materials, power generation, coal chemical industry, and processing and manufacturing. Byproducts of production, such as steel slag, fly ash, slag, construction waste, plastic fragments, and wood chips, are used for... To achieve energy conservation, carbon reduction, and resource recycling, existing technologies commonly employ crushing, screening, impurity removal, and washing processes. Processing steps such as drying and mixing transform solid waste into reusable recycled materials.

[0003] Most existing industrial solid waste treatment equipment consists of linearly arranged production lines, with solid waste being processed sequentially in a fixed order. The waste enters each processing unit for processing. While this structure can meet the processing needs of some single types of solid waste, In practical applications, the following shortcomings exist: First, the processing sequence is fixed, making it difficult to adapt to the characteristics of different solid wastes. Flexible adjustments can lead to lower processing efficiency or redundancy in certain steps; secondly, for processes that only require partial processing steps... Solid waste still needs to go through all units, resulting in increased energy consumption and decreased equipment utilization.

[0004] Therefore, there is an urgent need for a new industrial solid waste recycling and treatment equipment and method that can be flexible in process flow. Flexible configuration allows solid waste to be selectively placed into different treatment units based on its type and requirements, thereby improving the efficiency of treatment. Regarding the efficiency of sexual and overall resource utilization. Summary of the Invention

[0005] The present invention aims to provide equipment and methods for the recycling and treatment of industrial solid waste, in order to solve the problems mentioned in the background art. To address the problems encountered, this invention introduces a circular conveyor belt and a controllable interception mechanism, combined with photoelectric sensors and... The coordinated control system enables dynamic diversion and variable sequence processing of solid waste among multiple treatment units. This approach breaks through the limitations of traditional solid waste treatment lines, which are characterized by "fixed processes and no adjustments," enabling different types of waste to be processed simultaneously. Solid waste can be flexibly fed into the required processing units on a circular conveyor belt through process configuration of the control system. This allows for the creation of arbitrary combinations of processing paths, and through this dynamic scheduling, the efficient handling of solid waste during the treatment process is ensured. Complete integration and efficient connection improve the efficiency and adaptability of the treatment process, significantly enhancing the reuse of solid waste. The technological advancement and application scope of the equipment.

[0006] To achieve the above objectives, the present invention provides the following technical solution: Industrial solid waste recycling and treatment equipment includes: The processing device includes multiple processing units such as a crushing unit, a screening unit, a cleaning unit, a drying unit, and a mixing unit. Each processing unit is equipped with a feed inlet and a discharge outlet. A circular conveyor belt is used to circulate and transport solid waste through each processing unit in sequence. Material inlet and discharge outlet; The unloading conveyor belt is positioned below the annular conveyor belt and is used to transport all the materials that have passed through the conveyor belt. Completed solid waste; The interception mechanism includes multiple feeding baffles and one discharging baffle. The discharge baffle is located at the feed inlet position corresponding to each processing unit on the annular conveyor belt. The position on the conveyor belt near the end of the processing device; The testing mechanism includes multiple photoelectric sensors, which are arranged in a... The feed inlets on the circular conveyor belt, corresponding to the feed inlets of each processing unit, are used to detect whether all solid waste has entered the corresponding inlet. Processing unit; The control system, wherein the processing device and the interception mechanism are both electrically connected to the control system, and the control system uses... The operating sequence of the interception mechanism and treatment device is controlled according to the treatment process selected based on the type of solid waste.

[0007] Preferably, the annular conveyor belt is arranged in a closed loop structure along the processing device, and the solid waste passes through... After one processing unit, it can return to the circular conveyor belt and continue to be transported to the next processing unit.

[0008] Preferably, each of the multiple loading and unloading baffles is driven by a separate motor, and each can be [driven by a motor]. The system can switch between horizontal and tilted states, and all of the motors are electrically connected to the control system.

[0009] Preferably, the feeding baffle is capable of intercepting and guiding solid waste on the circular conveyor belt into the inclined state. The solid waste is fed into the inlet of the corresponding processing unit and is allowed to continue to be transported along the circular conveyor belt in a horizontal state.

[0010] Preferably, after the solid waste completes the entire treatment process, the discharge baffle switches from a horizontal state to an inclined state. In an inclined state, it can intercept solid waste on the circular conveyor belt and guide it into the discharge conveyor belt.

[0011] Preferably, the photoelectric sensor in the detection mechanism is electrically connected to the control system, and when the detection signal displays... When not all solid waste enters the feed inlet of the corresponding unit, the control system controls the corresponding feeding baffle to maintain its tilt. The incline continues until all solid waste is incorporated.

[0012] Preferably, the control system sets the processing flow according to the solid waste type input by the user, and the processing flow... The process refers to the combination sequence of multiple treatment devices, and different types of solid waste correspond to different treatment device sequences.

[0013] Preferably, the control system synchronously controls the signals from the detection mechanism and the operating status of each processing unit. The rotation of each feeding baffle and discharging baffle is controlled to ensure that solid waste enters each processing unit sequentially according to the selected processing flow.

[0014] Preferably, the inlet and outlet of each processing unit are connected to the surface of the annular conveyor belt via a flow guiding structure. Face-to-face contact allows solid waste to smoothly enter the corresponding processing unit from the surface of the circular conveyor belt and complete processing. It can then stably fall back to the surface of the circular conveyor belt and continue to be conveyed.

[0015] The method for recycling and treating industrial solid waste includes the following steps: S1: The user inputs the solid waste type into the control system, and the control system automatically generates the corresponding data for that type of solid waste. The target processing flow is a dynamic combination and sequential configuration of multiple processing units; S2: The solid waste is placed on a circular conveyor belt, and the solid waste travels sequentially to each processing unit along the circular conveyor belt. Feeding location; S3: When the solid waste reaches the target processing unit, the control system drives the corresponding feeding baffle to rotate. This ensures that solid waste is only introduced into the treatment unit where it is needed, and continues to be introduced into other treatment units where it is not needed. Continued approval; S4: The testing agency provides real-time feedback on the solid waste entry status. If the test results show that the solid waste has not completely entered the treatment process... In this unit, the control system keeps the feeding baffle in the guiding state until the detection is completed, and switches to [other mode] after confirmation. Release status; S5: After being processed by the target treatment unit, the solid waste falls back onto the surface of the circular conveyor belt from the discharge port, continuing... It moves along the conveyor belt and enters the next set processing unit, realizing the dynamic execution of any combination of processes; S6: After the solid waste completes all target processing steps, the control system controls the feeding baffle to move, allowing the solid waste to... It detaches from the circular conveyor belt and is fed into the unloading conveyor belt, completing the entire processing.

[0016] The beneficial effects of this technical solution compared to existing technologies are as follows: This invention introduces a circular conveyor belt and a controllable interception mechanism, and combines photoelectric sensors and a control system. The system's coordinated control enables dynamic diversion and variable-sequence treatment of solid waste across multiple processing units, achieving breakthroughs. It breaks through the limitations of traditional solid waste treatment lines that are "fixed processes and cannot be adjusted," enabling different types of solid waste to be processed. Through process configuration of the control system, the required processing units can be flexibly introduced on the circular conveyor belt, completing... The system allows for arbitrary combinations of processing paths, and this dynamic scheduling ensures the complete progress of solid waste treatment. The efficient integration and seamless connection enhance the efficiency and adaptability of the treatment process, significantly improving the solid waste recycling equipment. Technological advancement and application scope. Attached Figure Description

[0017] Figure 1 is a schematic diagram of the overall production line structure provided by the present invention; Figure 2 is a schematic diagram of the overall production line process provided by the present invention; Figure 3 is a schematic diagram of the control process of the conveyor belt and baffle provided by the present invention; Figure 4 is a schematic diagram of the overall architecture of the control system provided by the present invention; Figure 5 is a schematic diagram of the working logic of the control system provided by the present invention.

[0018] Attached reference numerals: 1. Crushing unit; 2. Screening unit; 3. Impurity removal unit; 4. Washing unit; 5. 6. Drying unit; 7. Mixing unit; 8. Circular conveyor belt; 9. Discharge conveyor belt; 10. Feeding baffle; 11. Feeding baffle; 12. Photoelectric sensor. Detailed Implementation

[0019] The present invention will now be described in further detail with reference to the accompanying drawings and embodiments: Example 1: The industrial solid waste recycling and treatment equipment shown in Figure 1-5 includes a treatment unit, a circular conveyor belt 7, and a treatment unit. The feeding conveyor belt 8, interception mechanism, detection mechanism and control system, and the processing device include crushing unit 1 and screen. The system comprises multiple processing units, including unit 2, impurity removal unit 3, washing unit 4, drying unit 5, and mixing unit 6. Each processing unit is equipped with an inlet and an outlet, and a circular conveyor belt 7 is used for the cyclical transport of solid waste through which it passes in sequence. Through the inlet and outlet of each processing unit, the discharge conveyor belt 8 is positioned below the circular conveyor belt 7 for... The conveyor system for transporting fully processed solid waste includes multiple feeding baffles 9 and one discharging baffle 10. Feed baffle 9 is installed on the circular conveyor belt 7 at the feed inlet position corresponding to each processing unit, and discharge baffle 10 The detection mechanism, located on the circular conveyor belt 7 near the end of the processing unit, includes multiple photoelectric sensors. 11. Multiple photoelectric sensors 11 are arranged on the circular conveyor belt 7 corresponding to the feed inlet positions of each processing unit. Used to detect whether all solid waste has entered the corresponding treatment unit; the treatment device and interception mechanism are both connected to the control system. The electrical connection and control system are used to control the interception mechanism and treatment according to the selected treatment process based on the type of solid waste. The operating sequence of the device.

[0020] In this embodiment, the specific types and working principles of the six main units of the processing device are as follows: Crushing Unit 1: A double-roll crusher is adopted, with fixed rolls and rotating rolls working together, and solid waste is squeezed between the rolls. Compression and shearing crush the material into the target particle size. The crushing roller surface is made of wear-resistant steel, suitable for steel slag and concrete blocks. Hard solid waste, etc.

[0021] Screening Unit 2: Employs a multi-layer vibrating screen with a metal mesh screen surface, capable of classifying materials according to particle size. The motor drives the screen body to vibrate, small particles pass through the screen, and large particles return to the crushing unit.

[0022] Impurity removal unit 3: consists of a magnetic separator and an airflow separator. The magnetic separator uses a high-intensity magnetic field to adsorb iron. The airflow separator uses airflow to blow out light impurities, thus achieving purification.

[0023] Cleaning Unit 4: Employs a drum scrubbing machine, equipped with rotating spray pipes and brush wheels, using water flow and brush movement... Removes surface dirt from solid waste; the cleaning water can be recycled and filtered.

[0024] Drying Unit 5: A hot air drum dryer is used. Hot air is sent into the drum by a fan, and the drum rotates slowly. This ensures that the material is heated evenly and that moisture evaporates quickly.

[0025] Mixing Unit 6: Employs a horizontal ribbon mixer with internal bidirectional ribbon blades, capable of uniformly mixing different materials. The material is mixed with additives through a spray nozzle to achieve homogeneous mixing.

[0026] The circular conveyor belt 7 uses a closed-loop rubber belt and is driven by a geared motor. It can carry crushed heavy solid waste. Simultaneously ensure stable transport of light solid waste; the feeding conveyor belt 8 is used to receive the processed materials, and the belt speed is adjustable; The loading baffle 9 and the unloading baffle 10 are motor-driven rotating baffles that can switch between horizontal and inclined states. The inclined state intercepts and guides materials into the processing unit or the discharge conveyor belt, while the horizontal state allows materials to continue to be transported. The photoelectric sensor 11 is an infrared through-beam type arranged at the feed inlet of each unit to monitor the solid waste in real time. The full entry unit detects incomplete entry and maintains the baffle tilted to ensure all material enters. Released again; the control system uses a programmable logic controller (PLC) to generate a target based on the user-input solid waste type. The standard processing flow controls the sequential activation of each baffle and processing unit, enabling dynamic processing in any combination sequence.

[0027] Example 2: The circular conveyor belt 7 is arranged in a closed loop structure along the treatment unit. After the solid waste passes through one treatment unit, It can return to the circular conveyor belt 7 and continue to be transported to the next processing unit.

[0028] In this embodiment, the annular conveyor belt 7 is arranged in a closed loop structure along the processing device, consisting of multiple sets of idlers and... Driven by a wheel support, a geared motor rotates the pulley, ensuring that solid waste can be recycled after passing through a processing unit. The material continues to be conveyed to the next processing unit on the conveyor belt surface. The closed-loop structure ensures stable and controllable material circulation. Meanwhile, the belt speed can be adjusted according to the process settings to achieve flexible conveying of different types of solid waste.

[0029] Example 3: Each of the multiple loading baffles 9 and unloading baffles 10 is driven by a separate motor, and all can be operated horizontally and vertically. The system switches between two tilting states for rotation, and multiple motors are electrically connected to the control system.

[0030] In this embodiment, all six loading baffles 9 and one unloading baffle 10 are driven by independent motors. The reducer drives the baffle to rotate, achieving switching between horizontal and tilted states. The motor control interface is connected to the PLC. The system is connected, and the PLC can control the action of each baffle sequentially according to the set process, ensuring that solid waste enters in the set order. Target unit or feeding conveyor belt.

[0031] Example 4: The feeding baffle 9 can intercept and guide the solid waste on the circular conveyor belt 7 into the corresponding location when it is tilted. The feed inlet of the processing unit allows solid waste to continue to be conveyed along the circular conveyor belt 7 in a horizontal state.

[0032] In this embodiment, the feeding baffle 9 forms an inclined surface in an inclined state, crossing the annular conveyor belt 7. The surface intercepts solid waste on the circular conveyor belt 7 and guides it to slide along the inclined surface into the corresponding unit inlet; In a horizontal state, the feeding baffle 9 is located outside and parallel to the circular conveyor belt 7, and does not obstruct the circular conveyor belt 7. Solid waste continues to be transported downstream, ensuring that solid waste only enters the target unit.

[0033] Example 5: After the solid waste completes the entire treatment process, the discharge baffle 10 switches from a horizontal state to an inclined state, which can... Solid waste on the circular conveyor belt 7 is intercepted and diverted to the unloading conveyor belt 8.

[0034] In this embodiment, after the solid waste completes all target processing units, the control system drives the discharge baffle 10 to... The conveyor belt switches from a horizontal to an inclined position, forming a guide surface that directs solid waste from the circular conveyor belt to the discharge conveyor belt 8. Ensure that materials are fed intact and stably to prevent solid waste from scattering or accumulating during transportation.

[0035] Example 6: The photoelectric sensor 11 in the detection mechanism is electrically connected to the control system. When the detection signal indicates that solid waste is not fully processed... When the part enters the feed inlet of the corresponding unit, the control system controls the corresponding feed baffle 9 to maintain its tilted state until... All solid waste is disposed of.

[0036] In this embodiment, the photoelectric sensor 11 detects in real time whether there is solid waste at the feed inlet of each processing unit. The sensor signal is fed back to the control system. If the solid waste has not completely entered, the PLC controls the corresponding feeding baffle 9 to maintain its position. The container is initially tilted until all solid waste has entered, then switched to a horizontal position to ensure complete material entry and prevent spillage. Leaks or blockages.

[0037] Example 7: The control system sets the treatment process based on the solid waste type input by the user, and the treatment process consists of multiple treatment devices. The combination order varies depending on the type of solid waste and the corresponding sequence of treatment devices.

[0038] In this embodiment, the control system generates a target processing flow based on the solid waste type input by the user on the PLC. The process is a dynamic combination of six major units; for example, steel slag is processed according to the sequence of "crushing → screening → impurity removal → mixing". The wood is processed sequentially in the order of "impurity removal → crushing → washing → drying → mixing," and the control system is based on... The input type allows for flexible control over the order of baffles and processing units, enabling dynamic process configuration.

[0039] Example 8: The control system synchronously controls the rotation of each feeding baffle 9 and discharging baffle 10 based on the signals from the detection mechanism and the operating status of each processing unit, so that solid waste enters each processing unit in sequence according to the selected processing flow.

[0040] In this embodiment, the control system synchronously controls the feeding based on photoelectric sensor signals and the operating status of each unit. Baffle 9 and discharge baffle 10 ensure that solid waste enters each processing unit sequentially according to a set process; for example, when solid waste... After the waste is processed by the crushing unit and returned to the circular conveyor belt, the control system drives the next processing unit to the corresponding upper part. Material baffle 9 opens, guiding solid waste into the next unit, enabling dynamic execution of any combination sequence.

[0041] Example 9: The inlet and outlet of each processing unit are connected to the surface of the annular conveyor belt 7 through a flow guiding structure, so that... Solid waste can smoothly enter the corresponding processing unit from the surface of the circular conveyor belt 7, and can be stably processed after completion. It will fall back to the surface of the circular conveyor belt 7 and continue to be conveyed.

[0042] In this embodiment, the feed inlet and discharge outlet of each processing unit are connected to the annular conveyor via a guide chute and a guide plate. The conveyor belt has 7 surface mating joints to ensure that materials smoothly enter the unit for processing and stably fall back to the conveyor belt surface after processing. The material continues to be conveyed without affecting the normal operation of the circular conveyor belt 7, preventing material from falling or shifting. Ensure the integrity and sequential control of materials entering the unit.

[0043] Example 10: The method for recycling and treating industrial solid waste includes the following steps: S1: The user inputs the solid waste type into the control system, and the control system automatically generates the corresponding data for that type of solid waste. The target processing flow is a dynamic combination and sequential configuration of multiple processing units; S2: The solid waste is placed on the circular conveyor belt 7, and the solid waste is sequentially transported to each processing unit by the circular conveyor belt 7. The feeding position of the unit; S3: When the solid waste reaches the target processing unit, the control system drives the corresponding feeding baffle 9 to rotate. This ensures that solid waste is only introduced into the treatment unit where it is needed, and continues to be introduced into other treatment units where it is not needed. Continued approval; S4: The testing agency provides real-time feedback on the solid waste entry status. If the test results show that the solid waste has not completely entered the treatment process... In this unit, the control system keeps the feeding baffle 9 in the guiding state until the detection is completed, and switches to the correct position after confirmation. The passage is now open. S5: After being processed by the target treatment unit, the solid waste falls back onto the surface of the circular conveyor belt 7 from the discharge port. It continues to run along the conveyor belt and enters the next set processing unit, realizing the dynamic execution of any combination of processes; S6: After the solid waste completes all target treatment processes, the control system controls the discharge baffle 10 to move, so that... Solid waste is detached from the circular conveyor belt 7 and fed into the unloading conveyor belt 8, completing the entire processing. To more clearly illustrate the application and flexibility of the industrial solid waste recycling and treatment method of this invention, the following... The specific embodiments illustrate the treatment process of different types of solid waste in this method, and explain the reasons for selecting this process: Example A: Mixed solid waste of metals (such as steel slag and aluminum shavings) Target processing flow: Crushing unit 1 → Impurity removal unit 3 → Screening unit 2 → Mixing unit 6 Reason for selection: First, large pieces of steel slag are crushed to facilitate subsequent processing; the impurity removal unit is used to remove non-metallic impurities. The screening unit classifies particles by size, and the final mixing unit performs homogenization to prepare them for reuse or recycling processes.

[0044] Example B: Organic lightweight waste (such as wood, plastic, foam) Target processing flow: Impurity removal unit 3 → Primary screening unit 2 → Crushing unit 1 → Washing unit 4 → Drying unit Unit 5 → Hybrid Unit 6 Reason for selection: First, remove large debris to avoid damage to the crusher; primary screening and separation can control the amount of debris entering the crusher. The crusher crushes the material to a suitable size using its crushing unit, followed by cleaning to remove surface contaminants. The drying unit dries the materials, and the final mixing unit homogenizes and mixes them.

[0045] Example C: Powdered solid waste (such as fly ash and stone powder) Target processing flow: Impurity removal unit 3 → Cleaning unit 4 → Screening unit 2 → Mixing unit 6 Reason for selection: Powdered solid waste does not require crushing; impurities are removed directly through cleaning and sieving, and the screening unit classifies the particles. The final mixing unit ensures homogeneous mixing for subsequent use.

[0046] The above descriptions are merely embodiments of the present invention, and the specific technical solutions and / or characteristics known in the solutions may vary. Common sense is not described in detail here. It should be noted that, for those skilled in the art, without departing from the scope of this invention... Under the premise of the clearly defined technical solution, several modifications and improvements can be made, and these should also be considered as protections of this invention. The scope of protection, however, will not affect the effectiveness of the invention or the practicality of the patent. The protection claimed in this application... The scope should be determined by the content of its claims, and the specific embodiments described in the specification can be used to interpret the contents. Explain the content of the claims.

Claims

1. An industrial solid waste recycling and treatment equipment, characterized in that, include: The processing device comprises a crushing unit (1), a screening unit (2), and a separator arranged in sequence. It consists of a mixing unit (3), a cleaning unit (4), a drying unit (5), and a mixing unit (6), each of which... Each processing unit is equipped with a feed inlet and a discharge outlet; A circular conveyor belt (7), which is a closed loop structure, is used for processing each unit. Solid waste is transported back and forth between units; A feeding conveyor belt (8) is installed below the annular conveyor belt (7) for use with... For transporting solid waste that has undergone complete treatment; The interception mechanism includes multiple feeding baffles (9) disposed at each feed inlet position to... and the discharge baffle (10) located at the end of the circular conveyor belt (7), each baffle can be in horizontal or inclined states. Switching between time zones; The testing mechanism includes multiple photoelectric sensors (11), and the multiple photoelectric sensors (11) Installed on the circular conveyor belt (7) at each feed inlet position to detect whether solid waste has entered the feed inlet. Corresponding processing unit; The control system, electrically connected to the processing device, the interception mechanism, and the detection mechanism, is used to control... Select and implement solid waste treatment processes.

2. The industrial solid waste recycling and treatment equipment as described in claim 1, characterized in that: The ring The conveyor belt (7) is arranged in a closed loop along multiple processing units, so that solid waste can be processed in one unit. It then falls back onto the surface of the conveyor belt (7) and continues to be conveyed.

3. The industrial solid waste recycling and treatment equipment as described in claim 1, characterized in that: The feeding The baffle (9) and the discharge baffle (10) are each driven by an independent motor, which drives the baffle to move horizontally. It rotates between two angles, tilting and rotating, to facilitate the introduction and release of solid waste.

4. The industrial solid waste recycling and treatment equipment as described in claim 3, characterized in that: The feeding When the baffle (9) is tilted, it forms a flow channel with the feed inlet of the corresponding processing unit; when it is horizontal... Parallel to the circular conveyor belt (7) for releasing solid waste.

5. The industrial solid waste recycling and treatment equipment as described in claim 3, characterized in that: The feeding The baffle (10) guides the solid waste on the circular conveyor belt (7) to the unloading conveyor belt (8) in an inclined state. In a horizontal state, solid waste is allowed to continue circulating with the conveyor belt.

6. The industrial solid waste recycling and treatment equipment as described in claim 1, characterized in that: The photoelectric sensor (11) is located on one side of the solid waste inlet of each processing unit and is connected to the control system. This is used to generate a light-blocking signal when solid waste enters, thereby ensuring that the solid waste enters the processing unit smoothly.

7. The industrial solid waste recycling and treatment equipment as described in claim 1, characterized in that: The various places The feed inlet and discharge outlet of the processing unit are both connected to the surface of the circular conveyor belt (7) via inclined guide plates to ensure solidification. Smooth transition of waste when entering and leaving the processing unit.

8. The industrial solid waste recycling and treatment equipment as described in claim 1, characterized in that: The control The system includes an input module, a control module, and an execution module. The input module is used to receive user input. For waste types, the control module is used to match the corresponding processing flow, and the execution module is used to drive each baffle. and processing unit.

9. The method for industrial solid waste recycling and treatment according to claims 1-8, characterized in that, Bag Including the following steps: S1: The user inputs the solid waste type into the control system, and the control system automatically generates the corresponding data for that type of solid waste. The target processing flow is a dynamic combination and sequential configuration of multiple processing units; S2: Place the solid waste on the circular conveyor belt (7), and the solid waste will move sequentially to each of the circular conveyor belts (7). The feeding position of the processing unit; S3: When the solid waste reaches the target processing unit, the control system drives the corresponding feeding baffle (9). The rotation ensures that solid waste is only introduced into the treatment units where it is needed, and not into the treatment units where it is not needed. The location continues to be traversed; S4: The testing agency provides real-time feedback on the solid waste entry status. If the test results show that the solid waste has not completely entered the treatment process... In the unit, the control system keeps the feeding baffle (9) in the guiding state until the detection is completed, and after confirmation... Switch to allow passage status; S5: After being processed by the target treatment unit, the solid waste falls back onto the surface of the circular conveyor belt (7) from the discharge port. It continues to run along the conveyor belt and enters the next designated processing unit, realizing dynamic execution of any combination of processes. OK; S6: After the solid waste completes all the target processing steps, the control system controls the feeding baffle (10) to move. The solid waste is removed from the circular conveyor belt (7) and fed into the discharge conveyor belt (8) to complete the entire processing.

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