Movable green repairing equipment

Abstract

The invention discloses movable green repairing equipment. The equipment comprises an ozone micro-nano bubble water medicament tank, an ozone generator, aeration equipment, a medicament stirring tank, a microorganism stirring tank, a movable filling machine, an electric control cabinet and a solar panel, the ozone micro-nano bubble water medicament tank is respectively connected with the ozone generator, and the ozone micro-nano bubble water medicament tank is respectively connected with the movable filling machine and the microorganism stirring tank; the aeration equipment is respectively connected with the medicament stirring tank and the microorganism stirring tank, and the medicament stirring tank and the microorganism stirring tank are both connected with the movable filling machine; and the microorganism stirring tank and the ozone pipeline are communicated with solar circulating water heated by the solar panel. The repairing equipment can be suitable for multi-point repairing of a site with a large pollution range and single-point repairing of a dangerous / limited space, transportation is convenient, pollution diffusion can be controlled in time, the environmental risk is reduced, and damage to constructors is reduced.

Description

Technical Field

[0001] This invention relates to the field of soil and groundwater remediation technology, and in particular to a mobile green remediation device. Background Technology

[0002] Construction often results in chemical pollution of the soil and groundwater, requiring the application of biochemical agents for remediation. However, the pollution situation at each site is generally quite complex. For example, some sites are contaminated over a large area, while others are contaminated at a single point. Some contaminated sites are hazardous spaces, confined spaces, or sites with special operational requirements.

[0003] In existing technologies, aeration is generally used for site remediation. Ozone is a type of chemical oxidant that is effective, easy to use, and carries a low risk of secondary pollution. Micro-nanobubbles have lower cost and energy consumption, a smaller carbon footprint, and can increase the contact between ozone and pollutants, extending the bubble's residence time in water and improving oxidation efficiency. In other words, the shortcomings of ozone can be compensated for by micro-nanobubble technology. When applied in the form of ozone micro-nanobubbles, they exhibit excellent bactericidal and bacteriostatic effects, reducing the uncertainty of remediation effects caused by competition between exogenous microorganisms and native microbial communities, and avoiding the competitive disadvantage caused by the inability of exogenous microorganisms to adapt. Currently, ozone micro-nanobubbles have achieved significant scale in areas such as sterilization and aseptic environment maintenance in hydroponic nutrient solutions and industrial biochemical wastewater treatment. However, due to the lack of relevant equipment for ozone micro-nanobubble aeration, their use in soil and groundwater remediation is relatively limited.

[0004] In addition, ozone micro-nano bubbles can be used in combination with chemical agents such as Fenton-like agents to enhance their effects, but the combination of ozone micro-nano bubbles and chemical agents is rarely used in practice, and there are also few devices that can support this combination of technologies. Summary of the Invention

[0005] To address the aforementioned issues, this invention provides a mobile green remediation device that is adaptable to different site requirements, easy to transport, and capable of multi-point remediation of contaminated sites with large contamination areas, single-point remediation of hazardous / confined spaces, and direct remediation at the contaminated site. This avoids the complex operations of excavating and transporting pollutants, does not introduce harmful chemicals, reduces secondary pollution, and for enterprises already in operation, remediation has virtually no impact on production while effectively controlling pollution spread, reducing environmental risks, and minimizing harm to construction workers.

[0006] According to one aspect of the present invention, a mobile green remediation device is provided, comprising an ozone micro-nano bubble water reagent tank, an ozone generator, an aeration device, a reagent mixing tank, a microbial mixing tank, a mobile injection machine, an electrical control cabinet, and a solar panel; The ozone micro-nano bubble water reagent tank is connected to the ozone generator and a tap water source, respectively. The ozone micro-nano bubble water reagent tank is also connected to the mobile filling machine and the microbial mixing tank. The aeration equipment is connected to the agent mixing tank and the microbial mixing tank respectively, and both the agent mixing tank and the microbial mixing tank are connected to the mobile filling machine; Both the reagent mixing tank and the microbial mixing tank are connected to another tap water source. The microbial mixing tank and the ozone pipeline are connected to the solar-heated circulating water of the solar panel through two circulating water pipelines.

[0007] In some embodiments, the ozone micro-nano bubble water reagent tank and the ozone generator are located in an ozone micro-nano bubble water zone, the aeration equipment is located in an aeration zone, the reagent mixing tank and the microbial mixing tank are located in a microorganism and reagent zone, the mobile infusion machine is located in a mobile remediation zone, the electrical control cabinet is located in an electrical control zone, and the solar-heated circulating water is located on top of the remediation equipment. Its advantage lies in dividing the mobile green remediation equipment into different areas, which can be used to house different equipment and for different purposes.

[0008] In some embodiments, the ozone micro-nano bubble water reagent tank is connected to an ozone pipeline, which is equipped with two parallel ozone metering pumps. A first ozone line is connected to the ozone pipeline, and a first ozone solenoid valve is installed on the first ozone line. The ozone pipeline is connected to the mobile filling machine via a second ozone line, which is equipped with a second ozone solenoid valve. The ozone pipeline is connected to the microbial mixing tank via a third ozone line, which is equipped with a third ozone solenoid valve. A fourth ozone line is connected to the ozone generator, and a fourth ozone solenoid valve is installed on the fourth ozone line. The advantage of this embodiment is that it describes the equipment connection details related to the ozone micro-nano bubble water reagent tank.

[0009] In some embodiments, the aeration device is connected to a first aeration line, and a first aeration solenoid valve is installed on the first aeration line; the aeration device is connected to the reagent mixing tank via a second aeration line, and a second aeration solenoid valve is installed on the second aeration line; the aeration device is connected to the microbial mixing tank via a third aeration line, and a third aeration solenoid valve is installed on the third aeration line. The advantage of this method is that it describes the equipment connections related to the aeration device.

[0010] In some embodiments, the reagent mixing tank is connected to a reagent pipeline, on which two parallel reagent metering pumps are installed. A first reagent line is connected to the reagent pipeline, and a first reagent solenoid valve is installed on the first reagent line. The reagent pipeline is connected to the mobile filling machine via a second reagent line, and a second reagent solenoid valve is installed on the second reagent line. A third reagent line is connected to the reagent mixing tank, and a third reagent solenoid valve is installed on the third reagent line. The advantage of this method is that it describes the equipment connections related to the reagent mixing tank.

[0011] In some embodiments, the microbial mixing tank is connected to a microbial pipeline, on which two parallel microbial metering pumps are installed. A first microbial line is connected to the microbial pipeline, and a first microbial solenoid valve is installed on the first microbial line. The microbial pipeline is connected to the mobile filling machine via a second microbial line, which is equipped with a second microbial solenoid valve. A third microbial line is connected to the microbial mixing tank, and a third microbial solenoid valve is installed on the third microbial line. The advantage of this method is that it describes the equipment connections related to the microbial mixing tank.

[0012] In some embodiments, the electrical control cabinet is connected to a remote control device. The advantage of this is that the electrical control cabinet is remotely controlled by the remote control device, enabling real-time monitoring and control of the operation of each mechanism.

[0013] In some embodiments, a first solenoid valve is installed on the pipe connecting the ozone micro-nano bubble water reagent tank to the tap water source, a second solenoid valve is installed on the pipe connecting the reagent mixing tank to the tap water source, and a third solenoid valve is installed on the pipe connecting the microbial mixing tank to the tap water source. The advantage of this is that it describes the connection configuration of equipment related to two tap water sources.

[0014] In some embodiments, the solar-heated circulating water is connected to the microbial mixing tank and the ozone pipeline via circulating water inlet and outlet pipes, forming a circulating water pipeline. A first circulating water inlet solenoid valve is installed on the circulating water inlet pipe connecting the solar-heated circulating water to the microbial mixing tank, and a second circulating water inlet solenoid valve is installed on the circulating water inlet pipe connecting the solar-heated circulating water to the ozone generator. The advantage of this method is that it describes the connection details of the solar panel-related equipment.

[0015] In some embodiments, the repair equipment is also equipped with a door, multiple exhaust fans, and multiple windows. This is advantageous because it facilitates entry and exit as well as ventilation. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the regional structure of a portable green remediation device according to one embodiment of the present invention; Figure 2 for Figure 1 The diagram shows the structure of the ozone generator and the ozone micro-nano bubble water reagent tank. Figure 3 for Figure 1 A schematic diagram of the relevant structures of the aeration equipment shown; Figure 4 for Figure 1 The diagram shows the structural components of the pharmaceutical mixing tank and the microbial mixing tank. Figure 5 for Figure 1 The diagram shows the logic relationship of a portable green remediation device. Figure 6 for Figure 1 A side view of the solar-powered circulating water structure of a portable green remediation device is shown. Figure 7 for Figure 1 The image shows a top view of the solar-powered circulating water structure of a portable green remediation device.

[0017] In the diagram: Ozone micro-nano bubble water zone 100, aeration zone 200, microorganism and reagent zone 300, mobile remediation zone 400, electrical control zone 500, ozone micro-nano bubble water reagent tank 1, ozone generator 2, aeration equipment 3, reagent mixing tank 4, microorganism mixing tank 5, mobile filling machine 6, electrical control cabinet 7, solar panel 8, tap water source 9, ozone pipeline 11, ozone metering pump 12, first ozone pipeline 13, first ozone solenoid valve 14, second ozone pipeline 15, second ozone solenoid valve 16, third ozone pipeline 17, third ozone solenoid valve 18, fourth ozone pipeline 19, fourth ozone solenoid valve 110, first aeration pipeline 31, first aeration solenoid valve 32, second aeration pipeline 33, second aeration solenoid valve 34, third aeration pipeline 35, Third aeration solenoid valve; 36, Chemical pipeline; 41, Chemical metering pump; 42, First chemical pipeline; 43, First chemical solenoid valve; 44, Second chemical pipeline; 45, Second chemical solenoid valve; 46, Third chemical pipeline; 47, Third chemical solenoid valve; 48, Microbial pipeline; 51, Microbial metering pump; 52, First microbial pipeline; 53, First microbial solenoid valve; 54, Second microbial pipeline; 55, Second microbial solenoid valve; 56, Third microbial pipeline; 57, Third microbial solenoid valve; 58, Circulating water inlet pipe; 81, Circulating water outlet pipe; 82, First circulating water inlet solenoid valve; 83, Second circulating water inlet solenoid valve; 84, Door; 85, Exhaust fan; 86, Window; 87, First tap water solenoid valve; 91, Second tap water solenoid valve; 92, Third tap water solenoid valve; 93. Detailed Implementation

[0018] The present invention will now be described in further detail with reference to the accompanying drawings.

[0019] like Figure 1-5 As shown, a portable green remediation device of the present invention includes an ozone micro-nano bubble water zone 100, an aeration zone 200, a microorganism and reagent zone 300, a portable remediation zone 400, and an electrical control zone 500. The ozone micro-nano bubble water zone 100 includes an ozone generator 2 and an ozone micro-nano bubble water reagent tank 1; the aeration zone 200 includes an aeration device 3; the microorganism and reagent zone 300 includes a reagent mixing tank 4 and a microorganism mixing tank 5; the portable remediation zone 400 includes a portable injection machine 6; and the electrical control zone 500 includes an electrical control cabinet 7.

[0020] The ozone micro-nano bubble water zone 100 is used for soil and groundwater remediation. In this zone, the ozone micro-nano bubble water agent is connected to the ozone generator 2, and the ozone micro-nano bubble water agent tank 1 is also connected to a tap water source 9 through a pipe. A first tap water solenoid valve 91 is installed on the connecting pipe. The ozone generated by the ozone generator 2 and the tap water from the tap water source 9 mix in the ozone micro-nano bubble water agent tank 1 to produce ozone micro-nano bubble water.

[0021] The ozone micro-nano bubble water dispenser 1 is connected to an ozone pipeline 11, which is equipped with two parallel ozone metering pumps 12 (only one is turned on during use, the other is a backup). The connection method of the ozone micro-nano bubble water dispenser 1 is as follows: 1. A first ozone pipeline 13 is connected to the ozone pipeline 11, and a first ozone solenoid valve 14 is installed on the first ozone pipeline 13. The first ozone pipeline 13 can be connected to the repair well group. After the ozone metering pump 12 and the first ozone solenoid valve 14 are started, ozone micro-nano bubble water is sent to the repair well group for single-point or area repair. 2. The ozone pipeline 11 is connected to the mobile injection machine 6 via a second ozone pipeline 15, and a second ozone solenoid valve 16 is installed on the second ozone pipeline 15. After the ozone metering pump 12 and the second ozone solenoid valve 16 are started, ozone micro-nano bubble water can be introduced into the mobile injection machine 6 through the second ozone pipeline 15 for single-point repair of hazardous work spaces. 3. The ozone pipeline 11 is connected to the microbial mixing tank 5 via a third ozone pipeline 17, and a third ozone solenoid valve 18 is installed on the third ozone pipeline 17. After the ozone metering pump 12 and the third ozone solenoid valve 18 are started, ozone micro-nano bubble water can be introduced into the microbial mixing tank 5 through the second ozone pipeline 15 to sterilize and disinfect the microbial mixing tank 5 and provide a clean growth environment for the microorganisms.

[0022] In addition, a fourth ozone pipeline 19 is connected to the ozone generator 2, and a fourth ozone solenoid valve 110 is installed on the fourth ozone pipeline 19. The fourth ozone pipeline 19 can be connected to the repair well group, and ozone can be introduced for large-area repair after the fourth ozone solenoid valve 110 is activated.

[0023] Aeration zone 200 can be used to remediate volatile organic compounds, such as petroleum hydrocarbons (gasoline, diesel), benzene, toluene, xylene, naphthalene, solvents (such as trichloroethylene), etc. The connection methods for aeration equipment 3 in this zone are as follows: 1. The aeration device 3 is connected to a first aeration pipeline 31, and a first aeration solenoid valve 32 is installed on the first aeration pipeline 31. The first aeration pipeline 31 can be connected to the repair well group, and after the first aeration solenoid valve 32 is activated, compressed air is introduced into the repair well group for single-point or area repair. 2. The aeration device 3 is connected to the chemical mixing tank 4 through a second aeration pipeline 33, and a second aeration solenoid valve 34 is installed on the second aeration pipeline 33. After the second aeration solenoid valve 34 is activated, compressed air can be introduced into the chemical mixing tank 4 to aerate and clean the chemical mixing tank 4. 3. The aeration device 3 is connected to the microbial mixing tank 5 through a third aeration pipeline 35, and a third aeration solenoid valve 36 is installed on the third aeration pipeline 35. After the third aeration solenoid valve 36 is activated, compressed air can be introduced into the microbial mixing tank 5 to aerate the microbial agent and provide an aerobic environment for the microorganisms.

[0024] The microbial and chemical agent area 300 is mainly used for the preparation and storage of microorganisms and chemicals required for contaminated sites, and can also monitor the activity status of microorganisms. In this area, both the chemical agent mixing tank 4 and the microbial mixing tank 5 are connected to another tap water source 9 through pipes. A second tap water solenoid valve 92 is installed on the connecting pipe between the tap water source 9 and the chemical agent mixing tank 4, and a third tap water solenoid valve 93 is installed on the connecting pipe between the tap water source 9 and the microbial mixing tank 5. The tap water source 9 can supply tap water to the chemical agent mixing tank 4 and the microbial mixing tank 5.

[0025] Open the second water supply solenoid valve 92, add tap water to the reagent mixing tank 4 according to the liquid level, then add the specified dosage of reagent to the reagent mixing tank 4, turn on the stirring equipment and stir evenly to prepare the reagent of the required concentration. Commonly used reagents include oxidants such as hydrogen peroxide, potassium permanganate, and Fenton's solution, which can degrade organic pollutants; and reducing agents such as ferrous oxide, sodium bisulfite, ferrous oxide, sodium metabisulfite, and ferrous sulfate, which can degrade chlorinated hydrocarbons and heavy metals.

[0026] The reagent mixing tank 4 is connected to a reagent pipeline 41, which is equipped with two parallel reagent metering pumps 42 (only one is turned on during use, the other is a standby). The relevant connections of the reagent mixing tank 4 are as follows: 1. A first chemical pipeline 43 is connected to the chemical pipeline 41, and a first chemical solenoid valve 44 is installed on the first chemical pipeline 43. The first chemical pipeline 43 can be connected to the repair well group, and after starting the chemical metering pump 42 and the first chemical solenoid valve 44, the prepared chemical can be sent to the repair well group for single point or area repair. 2. The agent pipeline 41 is connected to the mobile injection machine 6 via a second agent pipeline 45, and a second agent solenoid valve 46 is installed on the second agent pipeline 45. After the agent metering pump 42 and the second agent solenoid valve 46 are started, the prepared agent can be introduced into the mobile injection machine 6 through the second agent pipeline 45 for single-point repair of hazardous work spaces.

[0027] 3. A third agent pipeline 47 is also connected to the agent mixing tank 4, and a third agent solenoid valve 48 is installed on the third agent pipeline 47. When the third agent solenoid valve 48 is opened, the waste liquid in the agent mixing tank 4 can be discharged through the third agent pipeline 47.

[0028] Open the third tap water solenoid valve 93 and the first circulating water inlet solenoid valve to let tap water flow into the microbial mixing tank 5. After adjusting the water temperature to the appropriate temperature for microbial growth, add the microbial agent into the microbial mixing tank 5, turn on the mixing equipment to mix evenly, and monitor the microbial activity in real time.

[0029] The microbial mixing tank 5 is connected to a microbial pipeline 51, which is equipped with two parallel microbial metering pumps 52 (only one is turned on during use, the other is a standby). The relevant connections of the microbial mixing tank 5 are as follows: 1. A first microbial pipeline 53 is connected to the microbial pipeline 51, and a first microbial solenoid valve 54 is installed on the first microbial pipeline 53. The first microbial pipeline 53 can be connected to the repair well group, and after starting the microbial metering pump 52 and the first microbial solenoid valve 54, the microorganisms are sent to the repair well group for single-point or area repair. 2. The microbial pipeline 51 is connected to the mobile infusion machine 6 via a second microbial pipeline 55, and a second microbial solenoid valve 56 is installed on the second microbial pipeline 55. After the microbial metering pump 52 and the second microbial solenoid valve 56 are started, microorganisms can be introduced into the mobile infusion machine 6 through the second microbial pipeline 55 for single-point repair of hazardous work spaces.

[0030] 3. A third microbial pipeline 57 is also connected to the microbial mixing tank 5, and a third microbial solenoid valve 58 is installed on the third microbial pipeline 57. When the third microbial solenoid valve 58 is opened, the waste liquid in the microbial mixing tank 5 can be discharged through the third microbial pipeline 57.

[0031] The mobile remediation zone 400 is used for hazardous sites or areas requiring single-point remediation. The mobile injection machine 6 can inject ozone micro-nano bubble water or the required chemical agents or microorganisms during the drilling process to remediate contaminated soil or groundwater.

[0032] The electrical control cabinet 7 is connected to and remotely controlled by a remote control device (such as a computer). It can monitor the liquid level of each mixing tank in real time, control the solenoid valves of each pipeline, start and stop of ozone generator 2 and ozone concentration, micro-nano bubble pore size, start and stop of ozone metering pump 12, start and stop of aeration equipment 3 and pressure, gas volume, start and stop of chemical mixing, chemical preparation, start and stop of chemical metering pump 42, microbial preparation, microbial activity monitoring, start and stop of microbial metering pump 52, etc.

[0033] like Figure 6-7 As shown, the repair equipment also includes a solar panel 8, which can generate solar-powered circulating water and is located on top of the repair equipment. The solar-powered circulating water heated by the solar panel 8 is connected to the microbial mixing tank 5 and the ozone pipe 11 through a circulating water inlet pipe 81 and a circulating water outlet pipe 82, thus forming two circulating water pipes.

[0034] Among them, a first circulating water inlet solenoid valve 83 is installed on the circulating water inlet pipe 81 that connects the solar circulating water heated by the solar panel 8 to the microbial stirring tank 5. Opening the first circulating water inlet solenoid valve 83 can allow the solar circulating water to be introduced into the microbial stirring tank 5, providing a suitable growth temperature for microbial growth. A second circulation water inlet solenoid valve 84 is installed on the circulation water inlet pipe 81 that connects the solar circulating water heated by the solar panel 8 to the ozone generator 2. Opening the second circulation water inlet solenoid valve 84 allows the solar circulating water to be introduced into the ozone pipe 11, protecting the ozone pipe 11 and preventing ozone leakage.

[0035] In addition, the repair equipment is equipped with a door 85, multiple exhaust fans 86 and multiple windows 87, which can be used to facilitate entry and exit and ventilation.

[0036] The above descriptions are merely some embodiments of the present invention. Those skilled in the art can make various modifications and improvements without departing from the inventive concept of the present invention, and these all fall within the scope of protection of the present invention.

Claims

1. A mobile green remediation apparatus, characterized by: It includes an ozone micro-nano bubble water reagent tank (1), an ozone generator (2), an aeration device (3), a reagent mixing tank (4), a microbial mixing tank (5), a mobile filling machine (6), an electrical control cabinet (7), and a solar panel (8). The ozone micro-nano bubble water reagent tank (1) is connected to the ozone generator (2) and a tap water source (9) respectively. The ozone micro-nano bubble water reagent tank (1) is connected to the mobile injection machine (6) and the microbial mixing tank (5) respectively. The aeration device (3) is connected to the agent mixing tank (4) and the microbial mixing tank (5) respectively, and the agent mixing tank (4) and the microbial mixing tank (5) are both connected to the mobile injection machine (6); Both the reagent mixing tank (4) and the microbial mixing tank (5) are connected to another tap water source (9). The microbial mixing tank (5) and the ozone pipe (11) are connected to the solar circulating water heated by the solar panel (8) through two circulating water pipes.

2. The mobile green remediation device of claim 1, wherein: The ozone micro-nano bubble water reagent tank (1) and the ozone generator (2) are located in an ozone micro-nano bubble water zone (100), the aeration device (3) is located in an aeration zone (200), the reagent mixing tank (4) and the microbial mixing tank (5) are located in a microbial and reagent zone (300), the mobile injection machine (6) is located in a mobile repair zone (400), the electrical control cabinet (7) is located in an electrical control zone (500), and the solar circulating water heated by the solar panel (8) is located on top of the repair equipment.

3. The mobile green remediation device of claim 1, wherein: The ozone micro-nano bubble water reagent tank (1) is connected to an ozone pipeline (11). Two ozone metering pumps (12) are installed on the ozone pipeline (11) in parallel. A first ozone line (13) is connected to the ozone pipeline (11), and a first ozone solenoid valve (14) is installed on the first ozone line (13). The ozone pipeline (11) is connected to the mobile filling machine (6) through a second ozone line (15), and a second ozone solenoid valve (16) is installed on the second ozone line (15). The ozone pipeline (11) is connected to the microbial mixing tank (5) through a third ozone line (17), and a third ozone solenoid valve (18) is installed on the third ozone line (17). A fourth ozone line (19) is connected to the ozone generator (11), and a fourth ozone solenoid valve (110) is installed on the fourth ozone line (19).

4. The mobile green remediation apparatus of claim 1, wherein: The aeration device (3) is connected to a first aeration pipeline (31), and a first aeration solenoid valve (32) is installed on the first aeration pipeline (31); the aeration device (3) is connected to the agent mixing tank (4) through a second aeration pipeline (33), and a second aeration solenoid valve (34) is installed on the second aeration pipeline (33); the aeration device (3) is connected to the microbial mixing tank (5) through a third aeration pipeline (35), and a third aeration solenoid valve (36) is installed on the third aeration pipeline (35).

5. The portable green remediation device according to claim 1, characterized in that: The mixing tank (4) is connected to a pharmaceutical pipeline (41), which is equipped with two parallel pharmaceutical metering pumps (42). A first pharmaceutical line (43) is connected to the pharmaceutical pipeline (41), and a first pharmaceutical solenoid valve (44) is installed on the first pharmaceutical line (43). The pharmaceutical pipeline (41) is connected to the mobile injection machine (6) through a second pharmaceutical line (45), which is equipped with a second pharmaceutical solenoid valve (46). A third pharmaceutical line (47) is connected to the mixing tank (4), and a third pharmaceutical solenoid valve (48) is installed on the third pharmaceutical line (47).

6. The portable green remediation device according to claim 1, characterized in that: The microbial mixing tank (5) is connected to a microbial pipeline (51), and two parallel microbial metering pumps (52) are installed on the microbial pipeline (51). A first microbial pipeline (53) is connected to the microbial pipeline (51), and a first microbial solenoid valve (54) is installed on the first microbial pipeline (53). The microbial pipeline (51) is connected to the mobile filling machine (6) through a second microbial pipeline (55), and a second microbial solenoid valve (56) is installed on the second microbial pipeline (55). A third microbial pipeline (57) is connected to the microbial mixing tank (5), and a third microbial solenoid valve (58) is installed on the third microbial pipeline (57).

7. A portable green remediation device according to claim 1, characterized in that: The electrical control cabinet (7) is connected to a remote control device.

8. The portable green remediation device according to claim 1, characterized in that: The ozone micro-nano bubble water reagent tank (1) is equipped with a first water solenoid valve (91) on the pipe connecting it to the tap water source (9), the reagent mixing tank (4) is equipped with a second water solenoid valve (92) on the pipe connecting it to the tap water source (9), and the microbial mixing tank (5) is equipped with a third water solenoid valve (93) on the pipe connecting it to the tap water source (9).

9. A portable green remediation device according to claim 1, characterized in that: The solar circulating water heated by the solar panel (8) is connected to the microbial stirring tank (5) and the ozone pipeline (11) through a circulating water inlet pipe (81) and a circulating water outlet pipe (82) to form a circulating water pipeline. A first circulating water inlet solenoid valve (83) is provided on the circulating water inlet pipe (81) that connects the solar circulating water heated by the solar panel (8) to the microbial stirring tank (5), and a second circulating water inlet solenoid valve (84) is provided on the circulating water inlet pipe (81) that connects the solar circulating water heated by the solar panel (8) to the ozone generator (2).

10. A portable green remediation device according to claim 1, characterized in that: The repair equipment is also equipped with a door (85), multiple exhaust fans (86) and multiple windows (87).

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