Microorganism in-situ remediation device

Abstract

The utility model relates to the related technical field of microorganism in-situ remediation, in particular to a microorganism in-situ remediation device which comprises a bottom plate and a combined mechanism, and the combined mechanism is arranged on one side of the surface of the bottom plate. According to the microorganism in-situ remediation device, through the arrangement of the combined mechanism, firstly, a culture solution is put into a reaction tank, the reaction tank is integrally sealed through an integrated plate, corresponding inductors are installed on different first threaded grooves and second threaded grooves, and second sealing covers are installed on the remaining threaded grooves for sealing; the real-time condition of the reaction tank is known through the alarm and the display screen, liquid is added through the first threaded groove and the second threaded groove and stirred through the rotating fan and the motor after arriving at the site if re-culture is needed, and after treatment is completed, the water pump is started, the water pump conveys the liquid through the discharging port, and the liquid is discharged out of the reaction tank. And the air enters the outside and is discharged.

Description

Technical Field

[0001] This utility model relates to the technical field of microbial in-situ remediation, and in particular to a microbial in-situ remediation device. Background Technology

[0002] Microbial in-situ remediation utilizes the natural metabolic processes of microorganisms to degrade, transform, or remove harmful substances at the source of pollutants or on the original site of contaminated areas, thereby achieving environmental restoration. This remediation method does not require the removal of pollutants or the transfer of soil / water bodies to other locations for treatment, and has advantages such as low cost and environmental friendliness. Microbial in-situ remediation is commonly used for the treatment of pollutants such as organic pollutants, heavy metals, and pesticides. It can restore the ecological environment and reduce the long-term harm of environmental pollution to humans and ecosystems. With the continuous development of technology, the requirements for remediation devices are also becoming increasingly higher. Therefore, there is a particular need for a microbial in-situ remediation device.

[0003] However, most existing microbial in-situ remediation devices are set up in laboratories, are large and complex, and lack the ability to perform functional testing on solutions when they are prepared and transported to the site, and cannot repair solutions with poor functionality, thus affecting the actual remediation effect. Utility Model Content

[0004] The purpose of this invention is to provide a microbial in-situ remediation device to solve the problems mentioned in the background art. Most of the existing microbial in-situ remediation devices are set up in laboratories, are large and complex, and when the solution is prepared and transported to the site, the existing devices lack functional testing of the solution and cannot repair solutions with poor functionality, thus affecting the actual remediation effect.

[0005] To achieve the above objectives, the present invention provides the following technical solution: a microbial in-situ remediation device, comprising a base plate and a combination mechanism, wherein the combination mechanism is provided on one side of the surface of the base plate;

[0006] The combined mechanism includes a reaction vessel, a cleaning port, a discharge port, a mounting groove, an integrated plate, a first sealing cover, a water pump, a rotating fan, a first threaded groove, a second threaded groove, an integrated block, a telescopic tube, a motor, a second sealing cover, a sensor, an alarm, and a display screen. The reaction vessel is mounted on one side of the base plate. A cleaning port and a discharge port are located on the side wall of the base plate. A mounting groove is located at one end of the reaction vessel. An integrated plate is threadedly connected to one side of the reaction vessel. A first sealing cover is threadedly connected to the surface of the cleaning port. A water pump is mounted on the other side of the discharge port. A rotating fan is fitted inside the mounting groove. A first and second threaded grooves are located on one side of the integrated plate. An integrated block is mounted at one end of the integrated plate. A telescopic tube is threadedly connected to the other side of the water pump. One side of the rotating fan is connected to the output end of the motor. A second sealing cover and a sensor are threadedly connected inside the first threaded groove. An alarm is mounted on the side wall of the integrated block. A display screen is mounted at one end of the integrated block.

[0007] Preferably, both the cleaning port and the discharge port are located at the bottom of the reaction vessel, and their positions are aligned.

[0008] Preferably, the second threaded groove is disposed inside the first threaded groove, and both the first and second threaded grooves are distributed at equal angles on the integrated plate.

[0009] Preferably, a second sealing cap is connected to the internal thread of the second threaded groove, and a sensor is also connected to the internal thread of the second threaded groove.

[0010] Preferably, the other side of the sensor is connected to an integrated block, and multiple sets of sensors are provided, each with a different model.

[0011] Preferably, the alarm is provided in multiple sets, and the position of each set of alarms is aligned with the position of each set of sensors.

[0012] Preferably, the main body of the motor is supported on the reaction vessel, and the output end of the motor is fitted inside the mounting groove.

[0013] Preferably, the rotating fan is configured to rotate relative to the mounting slot via a motor, and the rotating fan is located on the lower side of the reaction vessel.

[0014] Compared with the prior art, the beneficial effects of this utility model are: the microbial in-situ remediation device, through the setting of the combined mechanism, through the cooperation of simple parts, can detect the state of the solution in real time during the transportation of the solution, and after arriving at the site, it can improve the functionality of the solution through simple adjustments, thereby ensuring the remediation effect and reducing the overall remediation cost. Attached Figure Description

[0015] Figure 1 This is a side view of the appearance structure of this utility model;

[0016] Figure 2 This is a partially exploded cross-sectional view of the combined mechanism of this utility model;

[0017] Figure 3 This utility model Figure 2 Enlarged structural diagram at point A in the middle;

[0018] Figure 4 This utility model Figure 2 Enlarged structural diagram at point B;

[0019] Figure 5 This utility model Figure 2 Enlarged structural diagram at point C.

[0020] In the diagram: 1. Base plate; 2. Assembly mechanism; 201. Reaction tank; 202. Cleaning port; 203. Discharge port; 204. Mounting groove; 205. Integrated plate; 206. First sealing cover; 207. Water pump; 208. Rotating fan; 209. First threaded groove; 210. Second threaded groove; 211. Integrated block; 212. Telescopic tube; 213. Motor; 214. Second sealing cover; 215. Sensor; 216. Alarm; 217. Display screen. Detailed Implementation

[0021] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0022] Please see Figure 1-5 The present invention provides a technical solution: a microbial in-situ remediation device, comprising a base plate 1 and a combination mechanism 2, wherein the combination mechanism 2 is provided on one side of the surface of the base plate 1;

[0023] The combined mechanism 2 includes a reaction tank 201, a cleaning port 202, a discharge port 203, a mounting groove 204, an integrated plate 205, a first sealing cover 206, a water pump 207, a rotating fan 208, a first threaded groove 209, a second threaded groove 210, an integrated block 211, a telescopic tube 212, a motor 213, a second sealing cover 214, a sensor 215, an alarm 216, and a display screen 217. The reaction tank 201 is mounted on one side of the surface of the base plate 1. The side wall of the base plate 1 has a cleaning port 202 and a discharge port 203. One end of the reaction tank 201 has a mounting groove 204. The surface of the reaction tank 201 has a threaded groove 209 and a second threaded groove 210. An integrated plate 205 is connected by threads. A first sealing cap 206 is threadedly connected to the surface of the cleaning port 202. A water pump 207 is installed on the other side of the discharge port 203. A rotating fan 208 is fitted inside the mounting groove 204. A first threaded groove 209 and a second threaded groove 210 are opened on one side of the surface of the integrated plate 205. An integrated block 211 is installed at one end of the integrated plate 205. A telescopic pipe 212 is threadedly connected to the other side of the water pump 207. One side of the rotating fan 208 is connected to the output end of the motor 213. A second sealing cap 214 is threadedly connected inside the first threaded groove 209. The internal threaded connection of the integrated block 211 includes a sensor 215, an alarm 216 is installed on the side wall of the integrated block 211, and a display screen 217 is installed at one end of the integrated block 211. Based on the configuration of the reaction tank 201, cleaning port 202, discharge port 203, mounting groove 204, integrated plate 205, first sealing cover 206, water pump 207, rotating fan 208, first threaded groove 209, second threaded groove 210, integrated block 211, telescopic tube 212, motor 213, second sealing cover 214, sensor 215, alarm 216, and display screen 217, the culture medium is first placed into the reaction tank 201, and the integrated plate 205 is used to align the reaction tank 201. The reactor 201 is sealed, and corresponding sensors 215 are installed on different first thread grooves 209 and second thread grooves 210. The remaining thread grooves are sealed with second sealing caps 214. During transportation, the real-time status of the reactor 201 is monitored through an alarm 216 and a display screen 217. Upon arrival at the site, if re-cultivation is required, liquid is added through the first thread groove 209 and second thread groove 210, and the liquid is stirred by rotating the fan 208 and the motor 213. After the stirring is completed, the water pump 207 is started, and the water pump 207 transports the liquid through the discharge port 203. The liquid is discharged from the reactor 201 and discharged to the outside.

[0024] Furthermore, both the cleaning port 202 and the discharge port 203 are located at the bottom of the reaction vessel 201. The positions of the cleaning port 202 and the discharge port 203 are relatively aligned. Through the setting of the cleaning port 202 and the discharge port 203, the cleaning port 202 is located on the side wall of the reaction vessel 201 for cleaning the inside of the reaction vessel 201. Since the reaction process may leave residues or deposits, the design of the cleaning port 202 allows users to perform internal cleaning when needed, maintaining the hygiene and performance of the reaction vessel 201. At the same time, the discharge port 203 is located at the bottom of the reaction vessel 201 and is mainly used to discharge the liquid, gas or solid substances after reaction or treatment from the reaction vessel 201. Through the discharge port 203, the products of the reaction process can be transported to the subsequent treatment system or directly discharged.

[0025] Furthermore, the second threaded groove 210 is disposed inside the first threaded groove 209. The first threaded groove 209 and the second threaded groove 210 are both distributed at equal angles on the integrated plate 205. Through the arrangement of the first threaded groove 209 and the second threaded groove 210, the first threaded groove 209 and the second threaded groove 210 are mainly used to securely install the sensor 215 and the second sealing cover 214, ensuring the accurate position of the sensor 215 and providing good sealing performance. At the same time, the first threaded groove 209 and the second threaded groove 210 at different positions allow the sensor 215 to perform multi-point measurement, thereby improving the stability of the material.

[0026] Furthermore, a second sealing cover 214 is internally threaded into the second threaded groove 210, and a sensor 215 is also internally threaded into the second threaded groove 210. The second sealing cover 214 is installed inside the second threaded groove 210 and fixed to the integrated plate 205 by a threaded connection. Its main function is to ensure the sealing of the reaction vessel 201 and related components, and to prevent leakage of gas or liquid that may be generated during the reaction. Since high temperature, high pressure or chemical substances may be generated during the reaction, the second sealing cover 214 provides effective isolation for these potential risks and ensures the safety of the equipment during operation.

[0027] Furthermore, the other side of the sensor 215 is connected to an integrated circuit 211. There are multiple sets of sensors 215, each with a different model. By setting up multiple sets of sensors 215 with different models, the system can collect data from multiple angles in different environments, ensuring more precise monitoring and avoiding blind spots that may be caused by a single sensor 215. Each set of sensors 215 corresponds to a set of alarms 216, ensuring accurate and timely feedback of abnormal data.

[0028] Furthermore, the alarm 216 is equipped with multiple sets, and the positions of each set of alarm 216 and each set of sensors 215 are aligned one-to-one. Through the configuration of the alarm 216, the alarm 216 and the sensors 215 work together. The sensors 215 continuously monitor the environmental parameters (such as temperature, pressure, etc.) inside the reaction vessel 201. When the sensors 215 detect abnormal values ​​(such as temperature or pressure exceeding the safe range), the data is transmitted to the integrated circuit 211 and triggers the alarm function of the alarm 216.

[0029] Furthermore, the main body of the motor 213 is supported on the reaction vessel 201, and the output end of the motor 213 is fitted inside the mounting groove 204. Through the setting of the motor 213, the main body of the motor 213 is fixed on the reaction vessel 201 by the support structure, and its output end is embedded in the mounting groove 204 and tightly connected with the rotating fan 208. This structural design ensures efficient cooperation between the motor 213 and the rotating fan 208. The motor 213 can stably drive the rotating fan 208 to rotate efficiently, while reducing vibration and friction during operation.

[0030] Furthermore, the rotating fan 208 forms a mutually rotating structure with the mounting groove 204 via the motor 213. The rotating fan 208 is located on the lower side of the reaction vessel 201. Through the rotation of the rotating fan 208, the airflow or flow generated by the rotating fan 208 helps to uniformly mix the substances inside the reaction vessel 201. During the reaction process, especially when reacting liquids or suspended substances, the substances may stratify or react too quickly in some areas. The rotating fan 208 can effectively break up this unevenness, ensure sufficient contact and reaction of the reactants, and thus improve the reaction efficiency.

[0031] Working principle: First, the culture medium is placed into the reaction tank 201. The reaction tank 201 is sealed as a whole by the integrated plate 205. Corresponding sensors 215 are installed on different first threaded grooves 209 and second threaded grooves 210. The remaining threaded grooves are sealed with second sealing caps 214. During transportation, the real-time status of the reaction tank 201 is monitored by the alarm 216 and the display screen 217. After arriving at the site, if it is necessary to re-culture, liquid is added through the first threaded groove 209 and the second threaded groove 210. The liquid is stirred by rotating the fan 208 and the motor 213. After the stirring is completed, the water pump 207 is started. The water pump 207 delivers the liquid through the discharge port 203. The liquid is discharged from the reaction tank 201 and discharged to the outside.

[0032] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A microbial in-situ remediation device, comprising a base plate (1) and a combined mechanism (2), characterized in that: A combination mechanism (2) is provided on one side of the surface of the base plate (1); The combined mechanism (2) includes a reaction tank (201), a cleaning port (202), a discharge port (203), a mounting groove (204), an integrated plate (205), a first sealing cover (206), a water pump (207), a rotating fan (208), a first threaded groove (209), a second threaded groove (210), an integrated block (211), a telescopic tube (212), a motor (213), a second sealing cover (214), a sensor (215), an alarm (216), and a display screen (217). The reaction tank (201) is mounted on one side of the surface of the base plate (1). The cleaning port (202) and the discharge port (203) are opened on the side wall of the base plate (1). The mounting groove (204) is opened at one end of the reaction tank (201). An integrated plate (205) is threadedly connected to one side of the surface of the reaction tank (201). The surface of the cleaning port (202) is threadedly connected to... A first sealing cover (206) is provided. A water pump (207) is installed on the other side of the discharge port (203). A rotating fan (208) is fitted inside the mounting groove (204). A first threaded groove (209) is provided on one side of the surface of the integrated plate (205). A second threaded groove (210) is provided on one side of the surface of the integrated plate (205). An integrated block (211) is installed at one end of the integrated plate (205). A telescopic pipe (212) is threadedly connected to the other side of the water pump (207). One side of the rotating fan (208) is connected to the output end of the motor (213). A second sealing cover (214) is threadedly connected inside the first threaded groove (209). A sensor (215) is threadedly connected inside the first threaded groove (209). An alarm (216) is installed on the side wall of the integrated block (211). A display screen (217) is installed at one end of the integrated block (211).

2. The microbial in-situ remediation device according to claim 1, characterized in that: The cleaning port (202) and the discharge port (203) are both located at the bottom of the reaction vessel (201), and the positions of the cleaning port (202) and the discharge port (203) are opposite to each other.

3. The microbial in-situ remediation device according to claim 1, characterized in that: The second threaded groove (210) is located inside the first threaded groove (209), and the first threaded groove (209) and the second threaded groove (210) are both distributed at equal angles on the integrated plate (205).

4. The microbial in-situ remediation device according to claim 1, characterized in that: The second threaded groove (210) is internally threaded with a second sealing cap (214), and the second threaded groove (210) is internally threaded with a sensor (215).

5. The microbial in-situ remediation device according to claim 1, characterized in that: The other side of the sensor (215) is connected to an integrated block (211). The sensor (215) is provided in multiple sets, and the models are different.

6. The microbial in-situ remediation device according to claim 1, characterized in that: The alarm (216) is provided in multiple sets, and the position of each set of alarms (216) is aligned with the position of each set of sensors (215).

7. The microbial in-situ remediation device according to claim 1, characterized in that: The main body of the motor (213) is supported on the reaction vessel (201), and the output end of the motor (213) is fitted inside the mounting groove (204).

8. The microbial in-situ remediation device according to claim 1, characterized in that: The rotating fan (208) is connected to the mounting slot (204) via a motor (213) to form a mutually rotating structure. The rotating fan (208) is located on the lower side of the reaction vessel (201).

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