Device for regulating and controlling dynamic proportion of excrement liquid

Abstract

The invention relates to the technical field of industrial mixed liquid devices, and discloses an excrement liquid dynamic proportion regulation and control device which comprises a processor, a protection mechanism is arranged on the inner wall of the processor, a storage mechanism is arranged on the left side of the processor, and the storage mechanism is used for storing collection equipment to avoid pollution. A suction cup is fixedly connected to the bottom of the processor, the protection mechanism comprises a pressing plate, the outer wall of the pressing plate is slidably connected to the right end of the front side of the inner wall of the processor, a trigger is fixedly connected to the inner wall of the pressing plate, and a spring is arranged on the rear side of the pressing plate. According to the protection mechanism, through sliding fit of the pressing plate and the processor, elastic connection of the spring and the first magnet, signal conduction fit of the heated block and the sensor and linkage of a heat dissipation assembly in the first limiting groove, the precise temperature monitoring and active temperature control functions are achieved, the equipment operation reliability is improved, and the application scene range is widened.

Description

Technical Field

[0001] This invention relates to the field of industrial mixing equipment technology, and more particularly to a dynamic ratio control device for sewage slurry. Background Technology

[0002] The dynamic mixing and control device for manure slurry is a key piece of equipment in the fields of agriculture, animal husbandry and environmental protection. It can dynamically mix manure slurry with clean water and chemicals in a preset ratio to generate a mixed liquid suitable for returning to the field, biogas fermentation or sewage treatment. At present, the amount of manure discharged by large-scale animal husbandry has surged, and traditional discharge or composting methods are difficult to meet the requirements of environmental protection and resource recycling. This device can reduce pollution and convert manure into organic fertilizer or fermentation raw materials through precise control of the ratio. It is a core piece of equipment to promote green circular agriculture.

[0003] Early mixing devices consisted of fixed pipes and manual valve adjustment, relying on manual observation or sampling for valve adjustment. This resulted in slow response, difficulty adapting to fluctuations in manure concentration, and a lack of flow monitoring feedback, failing to meet the needs of large-scale farming. Existing devices integrate flow sensors, conductivity meters, intelligent controllers, and variable frequency power pumps. By collecting data in real time and automatically calculating and controlling pump speed, they achieve a closed loop of data acquisition, analysis, and control, solving the shortcomings of manual adjustment. However, existing devices still lack a reliable temperature control system. The heat released from manure fermentation and the heat generated by electronic components can raise the temperature of the mixed liquid inside the device and pipes. This not only destroys the activity of beneficial microorganisms in the mixed liquid and accelerates the aging of seals leading to leaks, but also affects the accuracy of sensors, ultimately resulting in inaccurate mixing and difficulty in stably outputting qualified mixed liquid. Summary of the Invention

[0004] To overcome the above deficiencies, the present invention provides a dynamic ratio control device for fecal wastewater, which aims to improve the problem in the prior art that the lack of a reliable temperature control system leads to the destruction of the activity of beneficial microorganisms in the mixed liquid and makes it difficult to stably output qualified mixed liquid.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a dynamic ratio control device for fecal waste liquid, including a processor, a protective mechanism provided on the inner wall of the processor, a storage mechanism provided on the left side of the processor, the storage mechanism being used to store the collection equipment to prevent contamination, and a suction cup fixedly connected to the bottom of the processor; The protective mechanism includes a pressure plate. The outer wall of the pressure plate is slidably connected to the front right end of the inner wall of the processor. A trigger is fixedly connected to the inner wall of the pressure plate. A spring is provided on the rear side of the pressure plate. A magnet is fixedly connected to the rear end of the spring. A heating block is fixedly connected to the top of the magnet. A sensor is provided on the top of the heating block. A magnet is provided on the rear side of the magnet. A limit groove is formed at the bottom of the magnet. A heat dissipation component is provided on the inner wall of the limit groove.

[0006] As a further description of the above technical solution: The storage mechanism includes a storage cabinet, the outer wall of which is slidably connected to the left side of the inner wall of the processor. A pull handle is fixedly connected to the left side of the storage cabinet. A soft pad is fixedly connected to the bottom of the inner wall of the storage cabinet. Sliding grooves are provided on both the left and right sides of the inner wall of the storage cabinet, and hanging plates are slidably connected to the inner walls of both sliding grooves.

[0007] As a further description of the above technical solution: The heat dissipation assembly includes a receiving block, the top of which is fixedly connected to the rear side of the inner wall of the limiting groove one. A transmitter is slidably connected to the front side of the inner wall of the limiting groove one, and a reactor is fixedly connected to the rear side of the transmitter. Multiple ventilation holes are provided on the right side of the reactor. A limiting groove two is provided on the top of the reactor. A cooling fan is provided on the inner wall of the limiting groove two. Corrugated plates are fixedly connected to both the front and rear sides of the inner wall of the reactor.

[0008] As a further description of the above technical solution: The processor has baffles fixedly connected to both the front and rear ends on the right side, and a data window is provided on the top left side of the processor.

[0009] As a further description of the above technical solution: A sliding door is slidably connected to the front side of the rear baffle, and a handle is fixedly connected to the top of the sliding door.

[0010] As a further description of the above technical solution: An analyzer is fixedly connected to the top left side of the processor, a control console is fixedly connected to the top front side of the processor, and a label slot is provided at the left front end of the processor.

[0011] As a further description of the above technical solution: An emergency switch is provided on the front right side of the processor, and multiple heat dissipation holes are provided on the right side of the processor.

[0012] As a further description of the above technical solution: A fixing block is fixedly connected to the top rear side of the processor, and multiple sample collection boxes are fixedly connected to the top of the fixing block. A mixing tank is opened on the top right side of the processor.

[0013] The present invention has the following beneficial effects: 1. In this invention, the protective mechanism achieves accurate temperature monitoring and active temperature control through the sliding cooperation between the pressure plate and the processor, the elastic connection between the spring and magnet one, the signal transmission cooperation between the heated block and the sensor, and the magnetic attraction cooperation between magnet one and magnet two, combined with the linkage of the heat dissipation components in the limiting groove one. This prevents the mixed liquid from destroying the activity of beneficial microorganisms due to high temperature, ensures the accuracy of the mixing ratio, ensures that the device stably outputs qualified mixed liquid, and improves the reliability of equipment operation and the scope of applicable scenarios.

[0014] 2. In this invention, the integrated storage and flexible adaptation functions of the data acquisition device are realized through the sliding cooperation between the storage cabinet and the processor, the fixed connection between the pull handle and the storage cabinet, the adhesion between the soft pad and the inner wall of the storage cabinet, and the sliding cooperation between the hanging plate and the slide groove. This solves the problem that outdoor data acquisition devices may be lost, damaged or contaminated when carried separately in the prior art, improves the safety and ease of use of the data acquisition device, and reduces equipment maintenance costs. Attached Figure Description

[0015] Figure 1 This is a perspective view of a dynamic ratio control device for sewage effluent proposed in this invention; Figure 2 This is a front view of a dynamic ratio control device for sewage effluent proposed in this invention; Figure 3 This is a side view of a dynamic ratio control device for sewage effluent proposed in this invention; Figure 4 This is a schematic diagram of the protective mechanism of a dynamic ratio control device for sewage effluent proposed in this invention; Figure 5 This is a structural exploded view of the protective mechanism of a dynamic ratio control device for sewage effluent proposed in this invention; Figure 6 This is a structural exploded view of the heat dissipation component of a dynamic ratio control device for sewage effluent proposed in this invention; Figure 7 This is a schematic diagram of the storage mechanism of a dynamic ratio control device for sewage effluent proposed in this invention.

[0016] Legend: 1. Processor; 2. Protective Mechanism; 201. Pressure Plate; 202. Trigger; 203. Spring; 204. Magnet One; 205. Heated Block; 206. Sensor; 207. Magnet Two; 208. Limiting Groove One; 209. Heat Dissipation Assembly; 2091. Receiving Block; 2092. Transmitter; 2093. Reactor; 2094. Ventilation Hole; 2095. Limiting Groove Two; 2096. Cooling Fan; 2097. Corrugated Plate; 3. Storage Mechanism; 301. Storage Cabinet; 302. Pull Handle; 303. Soft Pad; 304. Slide; 305. Hanging Plate; 4. Suction Cup; 5. Baffle; 6. Sliding Door; 7. Handle; 8. Data Window; 9. Analyzer; 10. Control Console; 11. Label Slot; 12. Emergency Switch; 13. Heat Dissipation Hole; 14. Fixing Block; 15. Sample Collection Box; 16. Mixing Tank. Detailed Implementation

[0017] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present invention.

[0018] Reference Figure 1 , Figure 4 and Figure 5 An embodiment of the present invention provides a dynamic ratio control device for fecal waste liquid, including a processor 1, which serves as the core supporting component of the device, integrating various functional mechanisms and providing a working space for adjusting the ratio of fecal waste liquid. The inner wall of the processor 1 is provided with a protective mechanism 2, which is used to realize temperature monitoring and overheat protection of the device. A storage mechanism 3 is provided on the left side of the processor 1, which is used to store the collection equipment to prevent contamination. A suction cup 4 is fixedly connected to the bottom of the processor 1, which is used to enhance the adsorption and fixation effect between the device and the placement surface and prevent the device from shifting when operating outdoors. The protective mechanism 2 includes a pressure plate 201, which transmits the elastic force of the spring 203 and triggers the heat dissipation assembly 209. The outer wall of the pressure plate 201 is slidably connected to the front right end of the inner wall of the processor 1. This sliding connection structure is used to achieve smooth displacement of the pressure plate 201 along the inner wall of the processor 1. A trigger 202 is fixedly connected to the inner wall of the pressure plate 201. The trigger 202 is used to receive the displacement signal of the pressure plate 201 and transmit it to the device control system. A spring 203 is provided on the rear side of the pressure plate 201. The spring 203 is used to provide elastic thrust to drive the pressure plate 201 to slide when the magnetism of magnet 1 204 weakens. Magnet 1 204 is fixedly connected to the rear end of the spring 203. Magnet 1 204 is used to respond to the temperature signal through magnetic changes and achieve magnetic linkage with magnet 2 207. The top of magnet 1 204 is fixedly connected to... There is a heating block 205, which is used to conduct heat from inside the device to magnet 204, so that the magnetism of magnet 204 changes with temperature. A sensor 206 is provided on the top of the heating block 205, which is used to detect the internal temperature of the device in real time and provide a precise signal for temperature control. A magnet 207 is provided on the rear side of magnet 204, which is used to cooperate with magnet 204 to form a magnetic attraction constraint force to control the extension and contraction state of spring 203. A limiting groove 208 is provided at the bottom of magnet 204, which is used to provide installation and limiting space for heat dissipation component 209 to ensure stable operation of heat dissipation component 209. The heat dissipation component 209 is provided on the inner wall of limiting groove 208, which is used to activate heat dissipation when the temperature exceeds the standard to reduce the temperature inside the device and the mixture. Specifically, the processor 1, as the core load-bearing component of the device, integrates various functional mechanisms and provides a working space for adjusting the ratio of sewage sludge. The protective mechanism 2 works with the processor 1 to achieve temperature monitoring and overheat protection. The storage mechanism 3 works with the processor 1 to store the data collection equipment and prevent contamination. The suction cup 4 works with the processor 1 to enhance the adsorption and fixation effect between the device and the placement surface, preventing displacement during outdoor operations. The pressure plate 201 works with the spring 203 to transmit elastic force and trigger the heat dissipation component 209. The pressure plate 201 works with the processor 1 to achieve smooth displacement. The pressure plate 201 works with the trigger 202 to receive displacement signals and transmit them to the device control system. The spring 203 works with the magnet 204 to provide elastic push when the magnet 204's magnetism weakens. Force drives the pressure plate 201 to slide. Magnet 1 204 responds to the temperature signal through magnetic changes and cooperates with magnet 2 207 to form a magnetic attraction linkage. Magnet 1 204 cooperates with the heating block 205 to conduct heat inside the device, causing the magnetism of magnet 1 204 to change with temperature. Heating block 205 cooperates with sensor 206 to detect the internal temperature of the device in real time and provide accurate signals for temperature control. Magnet 2 207 cooperates with magnet 1 204 to form a magnetic attraction constraint force to control the extension and contraction state of spring 203. Magnet 1 204 cooperates with limiting groove 1 208 to provide installation limiting space for heat dissipation component 209 to ensure stable operation. Limiting groove 1 208 cooperates with heat dissipation component 209 to activate heat dissipation and reduce the internal temperature of the device and the mixed liquid when the temperature exceeds the standard.

[0019] Reference Figure 1 , Figure 3 and Figure 7The storage mechanism 3 includes a storage cabinet 301, which provides storage space for the data acquisition equipment, preventing it from being exposed and contaminated. The outer wall of the storage cabinet 301 is slidably connected to the left side of the inner wall of the processor 1. This sliding connection structure allows the storage cabinet 301 to be pulled out relative to the processor 1, facilitating the retrieval and placement of the data acquisition equipment. A pull handle 302 is fixedly connected to the left side of the storage cabinet 301, providing a grip for the operator to pull the storage cabinet 301. A soft pad 303 is fixedly connected to the bottom of the inner wall of the storage cabinet 301, cushioning the impact between the data acquisition equipment and the bottom of the storage cabinet 301 to prevent damage to the equipment due to vibration. Slide grooves 304 are provided on both the left and right sides of the inner wall of the storage cabinet 301, providing space for the mounting plate 305. The sliding track allows for height adjustment of the mounting plate 305. The inner walls of both sliding grooves 304 are slidably connected to the mounting plate 305. The mounting plate 305 is used to place the data acquisition equipment in layers to avoid stacking and squeezing multiple data acquisition devices. The front and rear ends of the right side of the processor 1 are fixedly connected to the baffle 5. The baffle 5 is used to prevent outdoor debris from entering the right side of the processor 1 and to protect the components inside the processor 1. The top left side of the processor 1 is provided with a data window 8. The data window 8 is used to intuitively display the operating parameters and data acquisition of the device for easy viewing by the operator. The front side of the rear baffle 5 is slidably connected to the sliding door 6. The sliding door 6 is used to open and close the opening on the right side of the processor 1 to further isolate external pollution and dust. The top of the sliding door 6 is fixedly connected to the handle 7. The handle 7 is used to provide a gripping point so that the operator can push the sliding door 6 to open and close. Specifically, the storage cabinet 301 provides storage space for the data acquisition equipment, preventing it from being exposed and contaminated. The storage cabinet 301, in conjunction with the processor 1, allows for easy pulling and unpulling of the data acquisition equipment. The storage cabinet 301, in conjunction with the handle 302, provides a gripping area for easy pulling and unpulling by the operator. The storage cabinet 301, in conjunction with the soft pad 303, cushions the impact between the data acquisition equipment and the bottom of the storage cabinet 301, preventing damage to the equipment due to vibration. The storage cabinet 301, in conjunction with the slide rail 304, provides a sliding track for the mounting plate 305. The height of the mounting plate 305 is adjustable. The slide rail 304 works with the mounting plate 305 to allow for layered placement of the data acquisition equipment, preventing multiple data acquisition devices from being stacked and squeezed. The processor 1 works with the baffle 5 to prevent outdoor debris from entering the right side of the processor 1 and to protect the components inside the processor 1. The processor 1 works with the data window 8 to intuitively display the operating parameters and data acquisition data of the device, making it convenient for operators to view. The baffle 5 works with the sliding door 6 to open and close the opening on the right side of the processor 1, further isolating external pollution and dust. The sliding door 6 works with the handle 7 to provide a gripping point, making it easy for operators to push the sliding door 6 to open and close.

[0020] Reference Figure 4 and Figure 6The heat dissipation assembly 209 includes a receiving block 2091, which receives the trigger signal transmitted by the magnet 204, providing a signal basis for the activation of the heat dissipation assembly 209. The top of the receiving block 2091 is fixedly connected to the rear side of the inner wall of the limiting groove 208. This fixed connection method is used to stably fix the receiving block 2091 within the limiting groove 208, ensuring accurate signal reception. A transmitter 2092 is slidably connected to the front side of the inner wall of the limiting groove 208. This sliding connection structure is used to allow the transmitter 2092 to slide with the displacement of the magnet 204, ensuring stable signal transmission. A reactor 2093 is fixedly connected to the rear side of the transmitter 2092. This fixed connection is used to allow the transmitter 2092 to synchronously transmit the signal to the reactor 2093, triggering the reactor 2093 to start the heat dissipation action. Multiple ventilation holes 2094 are provided on the right side of reactor 2093. These ventilation holes 2094 are used to allow the cold air generated by the cooling fan 2096 to diffuse smoothly into the interior of the processor 1 to achieve heat exchange. A limiting groove 2095 is provided on the top of reactor 2093. This limiting groove 2095 is used to provide installation limiting space for the cooling fan 2096 to prevent the cooling fan 2096 from shifting during operation. The cooling fan 2096 is installed on the inner wall of the limiting groove 2095. This cooling fan 2096 is used to generate cold air to cool the interior of the processor 1 and the mixed liquid, so as to avoid the temperature from being too high and affecting the operation of the equipment. Corrugated plates 2097 are fixedly connected to the front and rear sides of the inner wall of reactor 2093. These corrugated plates 2097 are used to increase the contact area between the cold air and the hot air inside the processor 1, improve the heat exchange efficiency, and accelerate the cooling process. Specifically, the receiving block 2091 receives the trigger signal transmitted by magnet 204, providing a signal basis for the activation of the heat dissipation component 209. The receiving block 2091, in conjunction with the limiting groove 208, stably fixes itself to ensure accurate signal reception. The limiting groove 208, in conjunction with the transmitter 2092, allows the transmitter 2092 to slide as magnet 204 moves, ensuring stable signal transmission. The transmitter 2092, in conjunction with the reactor 2093, synchronously transmits the signal to the reactor 2093, triggering the reactor 2093 to begin its heat dissipation action. The reactor 2093, along with the ventilation holes... The reactor 2094, in conjunction with the cooling fan 2096, allows the cold air generated by the cooling fan 2096 to diffuse smoothly into the interior of the processor 1 to achieve heat exchange. The reactor 2093, in conjunction with the limiting groove 2095, provides installation and limiting space for the cooling fan 2096 to prevent it from shifting during operation. The limiting groove 2095, in conjunction with the cooling fan 2096, generates cold air to cool the interior of the processor 1 and the mixed liquid, preventing excessive temperature from affecting equipment operation. The reactor 2093, in conjunction with the corrugated plate 2097, increases the contact area between the cold air and the hot air inside the processor 1, improving the heat exchange efficiency and accelerating the cooling process.

[0021] Reference Figure 1 , Figure 2 and Figure 3An analyzer 9 is fixedly connected to the top left side of the processor 1. This analyzer 9 is used to analyze and process the sewage parameter data acquired by the collection equipment, providing accurate data support for ratio control. A control console 10 is fixedly connected to the top front side of the processor 1. This control console 10 is used for operators to input ratio parameters, start and stop devices, and adjust operating status, enabling convenient operation of the device. A label slot 11 is provided on the left front side of the processor 1. This label slot 11 is used to place labels indicating device information or operating instructions for easy identification and reference by operators. An emergency switch 12 is provided on the right front side of the processor 1. This emergency switch 12 is used for operators to cut off the power supply in case of abnormally high temperature or other malfunctions, preventing equipment damage. In case of damage or escalation of the accident, multiple heat dissipation holes 13 are provided on the right side of the processor 1. These heat dissipation holes 13 are used in conjunction with the heat dissipation component 209 to dissipate excess heat from inside the processor 1 and improve heat dissipation efficiency. A fixing block 14 is fixedly connected to the top rear side of the processor 1. This fixing block 14 is used to provide a stable mounting carrier for the sample collection box 15 and ensure that the sample collection box 15 is fixedly positioned. Multiple sample collection boxes 15 are fixedly connected to the top of the fixing block 14. These sample collection boxes 15 are used to collect fecal liquid or mixed liquid samples separately for subsequent testing, analysis and data traceability. A mixing tank 16 is provided on the top right side of the processor 1. This mixing tank 16 is used to provide a mixing space for fecal liquid, clean water and reagents to ensure that each component is fully mixed in a preset ratio. Specifically, the processor 1 and analyzer 9 work together to analyze and process the fecal sludge parameter data acquired by the collection equipment, providing accurate data support for ratio control. The processor 1 and control console 10 work together to allow operators to input ratio parameters, start and stop devices, and adjust operating status, enabling convenient operation of the device. The processor 1 and label slot 11 work together to place labels with device information or operating instructions for easy identification and reference by operators. The processor 1 and emergency switch 12 work together to allow operators to cut off the power supply in case of abnormally high temperature or other malfunctions, preventing equipment damage or escalation of accidents. The processor 1 and heat dissipation holes 13 work together with heat dissipation component 209 to dissipate excess heat from inside the processor 1, improving heat dissipation efficiency. The processor 1 and fixing block 14 work together to provide a stable mounting carrier for sample collection box 15, ensuring the fixed position of sample collection box 15. The fixing block 14 and sample collection box 15 work together to collect fecal sludge or mixed liquid samples separately, facilitating subsequent testing, analysis, and data traceability. The processor 1 and mixing tank 16 work together to provide a mixing space for fecal sludge, clean water, and reagents, ensuring that each component is fully mixed according to the preset ratio.

[0022] Working principle: When the processor 1 is running, the mixture reacts in the mixing tank 16. During the process, heat is first conducted to the sensor 206 of the protection mechanism 2. The sensor 206 senses the temperature change in real time and transmits the signal to the heated block 205. At the same time, the heat synchronously affects the magnet 204. When the temperature approaches the rise, the magnetism of the magnet 204 gradually weakens, and its magnetic attraction with the rear magnet 207 decreases. At this time, the spring 203 on the rear side of the pressure plate 201 releases elastic potential energy due to the decrease in magnetic attraction constraint, pushing the pressure plate 201 to slide forward. The receiving block 2091 in the bottom limiting groove 208 contacts the transmitter 2092 and transmits the trigger signal to the reactor 2093 of the heat dissipation component 209. The reactor 2093 immediately starts the top The cooling fan 2096 inside the limiting groove 2095 diffuses the cold air through the ventilation hole 2094 on the right side of the reactor 2093. At the same time, the corrugated plates 2097 on the front and rear sides of the inner wall increase the contact area between the cold air and the air inside the processor 1, accelerating heat exchange. Excess heat is discharged through the heat dissipation hole 13 on the right side of the processor 1, quickly reducing the temperature inside the device and the mixed liquid. If the temperature is abnormally high, the sensor 206 triggers emergency protection, and the emergency switch 12 on the front side of the processor 1 is automatically activated to cut off the power to the core components to prevent damage. The entire process achieves precise temperature control through the combination of magnetic linkage and active heat dissipation, avoiding the destruction of beneficial microbial activity by excessively high mixed liquid temperature, ensuring the accuracy of the proportioning sensor 206, and ensuring that the device stably outputs qualified mixed liquid. Furthermore, when the device needs to be operated outdoors, the operator can hold the handle 302 on the left side of the storage cabinet 301 and slide it out along the left side of the inner wall of the processor 1. Depending on the size of the data acquisition instrument, slide the hanging plate 305 in the sliding groove 304 on the inner wall of the storage cabinet 301. After adjusting the height of the hanging plate 305, place the data acquisition instrument on the hanging plate 305 or at the bottom of the storage cabinet 301. The soft pad 303 at the bottom can cushion vibrations and prevent damage to the data acquisition instrument during transportation. The hanging plate 305 allows for layered storage, preventing multiple data acquisition instruments from being stacked and squeezed. After storage, push the handle 302 to push the storage cabinet 301 back up. The data acquisition device is integrated into the processor 1, preventing loss or contamination when carried separately. During operation, the data acquisition device can be retrieved from the storage cabinet 301 at any time. The detection data is analyzed by the analyzer 9 on the top left side of the processor 1, and the results are displayed synchronously in the data window 8. Operation commands are issued through the control console 10 on the top front side. After use, the data acquisition device can be returned to the storage cabinet 301. In addition, the baffle 5 on the right side of the processor 1 can prevent outdoor debris from entering, and the label slot 11 on the front side can be used to mark the type of data acquisition device, further improving ease of use and ensuring the safety and efficiency of data acquisition device retrieval throughout the process.

[0023] Finally, it should be noted that the above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A dynamic proportioning control device for fecal sewage liquid, comprising a processor (1), characterized in that: The inner wall of the processing machine (1) is provided with a protection mechanism (2), the left side of the processing machine (1) is provided with a storage mechanism (3), the storage mechanism (3) is used for storing collection equipment to avoid pollution, and the bottom of the processing machine (1) is fixedly connected with a suction cup (4); The protection mechanism (2) comprises a pressing plate (201), the outer wall of the pressing plate (201) is slidably connected to the front side right end of the inner wall of the processing machine (1), the inner wall of the pressing plate (201) is fixedly connected with a trigger (202), the rear side of the pressing plate (201) is provided with a spring (203), the rear end of the spring (203) is fixedly connected with a magnet (204), the top of the magnet (204) is fixedly connected with a heated block (205), the top of the heated block (205) is provided with a sensor (206), the rear side of the magnet (204) is provided with a magnet (207), and the bottom of the magnet (204) is provided with a limiting groove (208).

2. The device according to claim 1, characterized in that: The storage mechanism (3) comprises a storage cabinet (301), the outer wall of the storage cabinet (301) is slidably connected to the left side of the inner wall of the processing machine (1), the left side of the storage cabinet (301) is fixedly connected with a pull handle (302), the inner wall of the storage cabinet (301) is fixedly connected with a soft pad (303), and the inner wall of the storage cabinet (301) is provided with a sliding groove (304) on the left side.

3. The device according to claim 1, characterized in that: The heat dissipation assembly (209) comprises a receiving block (2091), the top of the receiving block (2091) is fixedly connected to the inner wall of the limiting groove (208), the inner wall of the limiting groove (208) is slidably connected with a transmitter (2092), the rear side of the transmitter (2092) is fixedly connected with a reactor (2093), a plurality of ventilation holes (2094) are formed in the right side of the reactor (2093), a limiting groove (2095) is formed in the top of the reactor (2093), and a refrigeration fan (2096) is arranged on the inner wall of the limiting groove (2095).

4. The device according to claim 1, characterized in that: The right side of the processing machine (1) is fixedly connected with a baffle (5), and the left side of the processing machine (1) is provided with a data window (8).

5. The dynamic proportioning control device for fecal sewage liquid according to claim 4, characterized in that: The front side of the baffle (5) is slidably connected with a sliding door (6), and the top of the sliding door (6) is fixedly connected with a handle (7).

6. The device according to claim 1, characterized in that: The left side of the processing machine (1) is fixedly connected with an analyzer (9), the front side of the processing machine (1) is fixedly connected with a control console (10), and the front side of the processing machine (1) is provided with a label slot (11).

7. The device according to claim 1, characterized in that: The front side of the processing machine (1) is provided with an emergency switch (12), and the right side of the processing machine (1) is provided with a plurality of heat dissipation holes (13).

8. The device according to claim 1, characterized in that: The rear top of the processing machine (1) is fixedly connected with a fixed block (14), the top of the fixed block (14) is fixedly connected with a plurality of sample collection boxes (15), and the top right side of the processing machine (1) is provided with a mixing groove (16).

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