Intelligent groundwater pumping system

Abstract

The application discloses an underground water intelligent pumping system, and relates to the technical field of water resource collection.The underground water intelligent pumping system comprises an information processing terminal, an underground water pumping subsystem is communicatively connected to one side of the information processing terminal, and an underground water monitoring subsystem is arranged on the other side of the information processing terminal.The underground water monitoring subsystem and the underground water pumping subsystem are arranged to realize real-time monitoring of underground water level and water volume, so that the underground water resource condition can be grasped in time, a reasonable pumping scheme can be made, accurate control of the underground water pumping process can be realized, and the pumping efficiency is improved.Under the action of a water resource scheduling module, intelligent scheduling of the underground water pumping can be realized according to the actual water use condition of the surrounding area, the effective use of water resources is ensured, and meanwhile, in the process of exploitation, the geological condition and the surface river water level condition are detected in real time through a geological detection assembly and a surface water level monitoring assembly, so that environmental problems such as ground subsidence and river cutoff are avoided.

Description

Technical Field

[0001] This invention relates to the field of water resource acquisition technology, specifically to an intelligent groundwater pumping system. Background Technology

[0002] With global climate change and environmental degradation, water scarcity is becoming increasingly serious. Many regions face significant water supply and demand imbalances, making the development and utilization of groundwater resources a key approach to solving this problem. Furthermore, the rapid development of computer, communication, and Internet of Things technologies has led to the widespread application of modern information technology across various industries. Applying these technologies to groundwater pumping holds promise for achieving intelligent management and efficient extraction of groundwater.

[0003] Traditional groundwater pumping methods rely mainly on manual observation and judgment, resulting in low pumping efficiency and serious waste of water resources. In addition, long-term and large-scale groundwater extraction can lead to a drop in the groundwater level, causing a series of environmental problems such as land subsidence and river flow interruption. Summary of the Invention

[0004] This invention provides an intelligent groundwater pumping system to solve the problems mentioned in the background section.

[0005] To solve the above-mentioned technical problems, the technical solution adopted by the present invention is as follows: A groundwater intelligent pumping system includes an information processing terminal. One side of the information processing terminal is communicatively connected to a groundwater extraction subsystem, and the other side of the information processing terminal is equipped with a groundwater monitoring subsystem. The groundwater extraction subsystem includes a deep well drilling module, a groundwater extraction module, and a water resource scheduling module. The groundwater monitoring subsystem includes a front-end real-time detection module, a real-time information processing module, and a real-time image display module.

[0006] A further improvement of the technical solution of the present invention is that: the front-end real-time detection module includes a water temperature detection component, a water level monitoring component, a water quality detection component, and a geological detection component; the water level detection component includes a surface water level monitoring component and a groundwater level monitoring component; the geological detection component includes surface detection, groundwater detection, geological sampling, and geological observation; and the water quality detection component includes pH value detection, hardness detection, organic pollution detection, inorganic pollution detection, and microbial pollution detection.

[0007] A further improvement of the technical solution of the present invention is that: the front-end real-time detection module detects the groundwater level in real time through the groundwater level monitoring module set in the deep well; the water temperature detection component can detect the groundwater temperature change in real time during the mining process; the water quality detection component can detect the pH value, hardness, inorganic pollution, organic pollution, microbial pollution and other water quality conditions of the mined groundwater in real time during the mining process; and the surface detection includes plane measurement and elevation measurement. Planar surveying is used to obtain information such as the location, shape, and size of the Earth's surface. Subsurface surveying primarily obtains information such as the distribution, thickness, dip, and lithology of underground strata. Geological sampling involves collecting samples of underground rocks, soil, and water to conduct physicochemical property tests and laboratory experiments to determine geological structures, lithology, and physical parameters. Geological observation involves real-time monitoring and data recording of phenomena such as groundwater levels, groundwater flow rates, groundwater quality, and crustal deformation to reveal groundwater hydrogeology and crustal movement. Geological detection components can monitor the geological conditions of the space where groundwater is located in real time. Surface water level monitoring components are installed in rivers surrounding the groundwater extraction area to monitor changes in the water level of surrounding rivers in real time during groundwater extraction. Geological detection components can... Real-time monitoring of the geological conditions of the space where groundwater is located is conducted. Surface monitoring includes planar measurement and elevation measurement. Planar measurement is used to obtain information on the location, shape, and size of the surface, while underground measurement is mainly used to obtain information on the distribution, thickness, dip, and lithology of underground strata. Geological sampling involves collecting samples of underground rocks, soil, and water to conduct physicochemical property tests and laboratory experiments to determine geological structure, lithology, and physical property parameters. Geological observation involves real-time monitoring and data recording of phenomena such as groundwater level, groundwater flow velocity, groundwater quality, and crustal deformation to reveal groundwater hydrogeology and crustal movement. Surface water level monitoring components are installed in rivers surrounding the groundwater extraction area to monitor changes in the water level of surrounding rivers in real time during the groundwater extraction process.

[0008] A further improvement of the technical solution of the present invention is that: the real-time information processing module is communicatively connected to the front-end detection module. After receiving the information collected by the front-end real-time detection module, the module collects and processes the information and calculates the optimal total amount of mining and mining speed based on the geological conditions and the total amount of groundwater.

[0009] A further improvement of the technical solution of the present invention is that: the real-time image display module is communicatively connected to the real-time information processing module, and after receiving the information processed by the real-time information processing module, the water level information and groundwater distribution are displayed in real time through images during the mining process.

[0010] A further improvement of the technical solution of the present invention is that the deep well drilling module can rationally select the best drilling area to drill deep wells based on the water level and geological conditions monitored by the groundwater level monitoring component and the geological detection component.

[0011] A further improvement of the technical solution of the present invention is that: the groundwater extraction module can extract groundwater through the deep well after drilling a deep well, and extract groundwater rationally according to the optimal extraction volume and extraction speed calculated by the real-time information processing module.

[0012] A further improvement of the technical solution of the present invention is that the water resource scheduling module can rationally schedule water resources according to the different water use conditions and water consumption in the surrounding area.

[0013] Due to the adoption of the above technical solution, the technical progress achieved by this invention compared to the prior art is as follows: This invention provides an intelligent groundwater pumping system. Through the establishment of a groundwater monitoring subsystem and a groundwater extraction subsystem, real-time monitoring of groundwater level and volume allows for timely understanding of groundwater resource conditions, development of rational extraction plans, and precise control of the groundwater extraction process. This improves pumping efficiency, reduces water waste, and, with the help of a water resource scheduling module, intelligent scheduling of groundwater extraction is achieved based on the actual water usage in the surrounding area, ensuring the effective utilization of water resources. Simultaneously, during the extraction process, geological detection components and surface water level monitoring components are used to monitor geological conditions and surface river water levels in real time, preventing environmental problems such as land subsidence and river flow interruption. Attached Figure Description

[0014] Figure 1 This is a structural block diagram of the present invention; Figure 2 This is a structural block diagram of the front-end real-time detection module of the present invention; Figure 3 This is a structural block diagram of the geological detection component of the present invention; Figure 4 This is a structural block diagram of the water quality testing component of the present invention. Detailed Implementation

[0015] The present invention will be further described in detail below with reference to embodiments: Example

[0016] like Figure 1-4As shown, this invention provides an intelligent groundwater pumping system, including an information processing terminal. One side of the information processing terminal is communicatively connected to a groundwater extraction subsystem, and the other side is equipped with a groundwater monitoring subsystem. The groundwater extraction subsystem includes a deep well drilling module, a groundwater extraction module, and a water resource scheduling module. The groundwater monitoring subsystem includes a front-end real-time detection module, a real-time information processing module, and a real-time image display module. The front-end real-time detection module includes a water temperature detection component, a water level monitoring component, a water quality detection component, and a geological detection component. The water level detection component includes a surface water level monitoring component and... The groundwater level monitoring component includes a geological detection component comprising surface detection, underground detection, geological sampling, and geological observation. The front-end real-time detection module monitors the groundwater level in real time via a groundwater level monitoring module installed in a deep well. The water temperature detection component monitors groundwater temperature changes in real time during extraction. The water quality detection component monitors the pH value, hardness, inorganic contamination, organic contamination, and microbial contamination of the extracted groundwater in real time during extraction. The geological detection component monitors the geological conditions of the space where the groundwater is located in real time. Surface detection includes planar measurement and elevation measurement. Planar surveying is used to obtain information such as the location, shape, and size of the Earth's surface. Subsurface surveying is mainly used to obtain information such as the distribution, thickness, dip, and lithology of underground strata. Geological sampling involves collecting samples of underground rocks, soil, and water to conduct physicochemical property tests and laboratory experiments to determine geological structures, lithology, and physical property parameters. Geological observation involves real-time monitoring and data recording of phenomena such as groundwater level, groundwater flow velocity, groundwater quality, and crustal deformation to reveal groundwater hydrogeology and crustal movement. Surface water level monitoring components are installed in rivers surrounding the groundwater extraction area to detect changes in the water level of surrounding rivers in real time during the groundwater extraction process.

[0017] In this embodiment, after drilling a deep well in the mining area, a front-end real-time detection module is installed in the well. Under the action of the water temperature detection component, the water temperature of the groundwater is detected in real time. The groundwater level monitoring component can detect the water level in different areas to calculate the total amount of groundwater. The water quality detection component can detect the degree of pollution of the groundwater from multiple angles to facilitate the treatment of the groundwater after extraction. At the same time, the geological detection component can detect the geological conditions of the space where the groundwater is located. Example

[0018] like Figure 1As shown, based on Embodiment 1, the present invention provides a technical solution: Preferably, the real-time information processing module is communicatively connected to the front-end detection module. After receiving information collected from the front-end real-time detection module, the module collects and processes the information, and calculates the optimal total extraction volume and extraction speed based on geological conditions and the total groundwater volume. The real-time image display module is communicatively connected to the real-time information processing module. After receiving the information processed by the real-time information processing module, the module displays the water level information and groundwater distribution in real time through images during the extraction process. The geological detection component includes surface detection, underground detection, geological sampling, and geological observation. The water quality detection component includes pH value detection, hardness detection, organic pollution detection, inorganic pollution detection, and microbial pollution detection.

[0019] In this embodiment, the real-time information processing module can formulate a rational mining plan based on the detection data from the groundwater level monitoring component and the geological detection component, avoiding ground subsidence during the mining process. At the same time, the surface water level monitoring component can detect changes in river water level in real time during the mining process, so as to adjust the mining plan in a timely manner, avoid river flow interruption, and facilitate ecological environment protection. The real-time image display module can display the real-time changes in groundwater level graphically, making the progress and volume of groundwater mining more intuitive. Example

[0020] like Figure 1 As shown, based on Embodiment 1, the present invention provides a technical solution: Preferably, the deep well drilling module can rationally select the optimal drilling area for drilling deep wells based on the water level and geological conditions monitored by the groundwater level monitoring component and the geological detection component. The groundwater extraction module can extract groundwater through the deep well after drilling, and rationally extract groundwater based on the optimal extraction volume and extraction speed calculated by the real-time information processing module. The water resource scheduling module can rationally schedule water resources based on the different water use conditions and water consumption in the surrounding area. The geological detection component can perform real-time detection of the geological conditions of the space where the groundwater is located, and the surface detection includes plane measurement and elevation measurement. Planar surveying is used to obtain information on the location, shape, and size of the Earth's surface. Subsurface surveying is mainly used to obtain information on the distribution, thickness, dip, and lithology of underground strata. Geological sampling involves collecting samples of underground rocks, soil, and water to conduct physicochemical property tests and laboratory experiments to determine geological structures, lithology, and physical property parameters. Geological observation involves real-time monitoring and data recording of phenomena such as groundwater level, groundwater flow velocity, groundwater quality, and crustal deformation to reveal groundwater hydrogeology and crustal movement. Surface water level monitoring components are installed in rivers surrounding the groundwater extraction area to detect changes in the water level of surrounding rivers in real time during the groundwater extraction process.

[0021] In this embodiment, the deep well drilling module can select the optimal drilling location based on the distribution of groundwater and geological conditions, reducing the number of deep wells drilled during the extraction process and thus lowering extraction costs. The groundwater extraction module can extract groundwater according to the rational extraction plan formulated by the real-time information processing module, avoiding environmental problems such as ground subsidence caused by excessively rapid groundwater extraction. The water resource scheduling module can rationally schedule water resources based on the water usage of different surrounding areas, making water resource utilization more efficient and helping to solve the problem of water shortage.

[0022] The working principle of this intelligent groundwater pumping system will be explained in detail below.

[0023] like Figure 1 As shown, during groundwater extraction, a deep well is first drilled in the extraction area. A real-time monitoring module is then installed in the well. With the help of a water temperature monitoring component, the groundwater temperature is monitored in real time. A groundwater level monitoring component can monitor the water level in different areas to calculate the total groundwater volume. A water quality monitoring component can detect the degree of groundwater pollution from multiple angles to facilitate post-extraction treatment. Simultaneously, a geological monitoring component can detect the geological conditions of the area where the groundwater is located. A real-time information processing module can formulate a rational extraction plan based on the data from the groundwater level and geological monitoring components to prevent ground subsidence during extraction. Additionally, a surface water level monitoring component monitors river water level changes in real time during the extraction process. The system includes several modules: a monitoring module for timely adjustments to the extraction plan to prevent river flow interruption and promote ecological protection; a real-time image display module that graphically shows real-time changes in groundwater levels, providing a more intuitive view of extraction progress and volume; a deep well drilling module that selects optimal drilling locations based on groundwater distribution and geological conditions, reducing the number of deep wells required and lowering extraction costs; a groundwater extraction module that uses a rational extraction plan developed by the real-time information processing module to avoid environmental problems such as land subsidence caused by excessively rapid extraction; and a water resource allocation module that rationally allocates water resources based on the water usage of different surrounding areas, resulting in higher water resource utilization and contributing to solving water shortage problems.

Claims

1. A groundwater intelligent pumping system, comprising an information processing terminal, characterized in that: One side of the information processing terminal is connected to a groundwater extraction subsystem, and the other side is equipped with a groundwater monitoring subsystem. The groundwater extraction subsystem includes a deep well drilling module, a groundwater extraction module, and a water resource scheduling module. The groundwater monitoring subsystem includes a front-end real-time detection module, a real-time information processing module, and a real-time image display module. The front-end real-time detection module monitors the groundwater level in real time through a groundwater level monitoring module installed in the deep well. The water temperature detection component monitors the groundwater temperature changes in real time during the extraction process. The water quality detection component monitors the pH value, hardness, inorganic pollution, organic pollution, and microbial pollution of the extracted groundwater in real time during the extraction process. The geological detection component can monitor the geological conditions of the space where the groundwater is located in real time. Surface detection includes planar measurement and elevation measurement.

2. The intelligent groundwater pumping system according to claim 1, characterized in that: The front-end real-time detection module includes a water temperature detection component, a water level monitoring component, a water quality detection component, and a geological detection component. The water level detection component includes a surface water level monitoring component and a groundwater level monitoring component. The geological detection component includes surface detection, groundwater detection, geological sampling, and geological observation. The water quality detection component includes pH value detection, hardness detection, organic pollution detection, inorganic pollution detection, and microbial pollution detection.

3. The intelligent groundwater pumping system according to claim 1, characterized in that: The planar surveying is used to obtain information such as the location, shape, and size of the Earth's surface. Subsurface surveying is mainly used to obtain information on the distribution, thickness, dip, and lithology of underground strata. Geological sampling involves collecting samples of underground rocks, soil, and water for physicochemical property testing and laboratory experiments to determine geological structure, lithology, and physical property parameters. Geological observation involves real-time monitoring and data recording of groundwater levels, flow rates, water quality, and crustal deformation phenomena to reveal groundwater hydrogeology and crustal movement. Surface water level monitoring components are installed in rivers surrounding the groundwater extraction area to monitor changes in river levels in real time during groundwater extraction. Geological detection components can provide real-time geological information on the geological conditions of the space where the groundwater is located. Real-time detection includes surface detection, which comprises planar measurement and elevation measurement. Planar measurement is used to obtain information on the location, shape, and size of the surface, while subsurface measurement is mainly used to obtain information on the distribution, thickness, dip, and lithology of underground strata. Geological sampling involves collecting samples of underground rocks, soil, and water to conduct physicochemical property tests and laboratory experiments to determine geological structures, lithology, and physical property parameters. Geological observation involves real-time monitoring and data recording of phenomena such as groundwater level, groundwater flow velocity, groundwater quality, and crustal deformation to reveal groundwater hydrogeology and crustal movement. Surface water level monitoring components are installed in rivers surrounding the groundwater extraction area to detect changes in the water level of surrounding rivers in real time during the groundwater extraction process.

4. The intelligent groundwater pumping system according to claim 1, characterized in that: The real-time information processing module is connected to the front-end detection module. After receiving the information collected by the front-end real-time detection module, it collects and processes the information and calculates the optimal total amount of mining and mining speed based on the geological conditions and the total amount of groundwater.

5. The intelligent groundwater pumping system according to claim 1, characterized in that: The real-time image display module is communicatively connected to the real-time information processing module. After receiving the information processed by the real-time information processing module, the water level information and groundwater distribution are displayed in real time through images during the mining process.

6. The intelligent groundwater pumping system according to claim 1, characterized in that: The deep well drilling module can rationally select the optimal drilling area to drill deep wells based on the water level and geological conditions monitored by the groundwater level monitoring component and the geological detection component.

7. The intelligent groundwater pumping system according to claim 1, characterized in that: The groundwater extraction module can extract groundwater through the deep well after drilling, and rationally extract groundwater based on the optimal extraction volume and extraction speed calculated by the real-time information processing module.

8. The intelligent groundwater pumping system according to claim 1, characterized in that: The water resource scheduling module can rationally schedule water resources based on the different water usage conditions and water consumption in the surrounding areas.

Images