Energy management and control system based on Internet of Things

Abstract

The invention discloses an energy management and control system based on the Internet of Things, and relates to the technical field of energy management and control systems of the Internet of Things, the energy management and control system comprises a sensing layer, a network transmission layer and an application layer, and the sensing layer is used for object identification and information collection of sensor equipment; wherein the network transmission layer is used for providing communication service between devices; wherein the application layer is used for realizing a corresponding instruction through equipment; the sensing layer comprises an electric energy main control module and a water energy main control module which are used for power failure; the device has the advantages that regional power failure can be selectively achieved, the electric leakage phenomenon is avoided while a fire disaster occurs, the safety of personnel in a fire disaster region is guaranteed, water supply pause in the region can be achieved, a larger fire disaster caused by water is avoided, meanwhile, water supply in the fire disaster range can be increased, and the situation that water supply is insufficient during fire fighting is avoided; the disaster relief progress is improved, and effective management and control of energy are achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of energy management and control systems of the Internet of Things, and in particular to an energy management and control system based on the Internet of Things. Background Art

[0002] The Internet of Things refers to connecting any object to the network through information sensing devices according to agreed protocols. Objects exchange and communicate information through information transmission media to achieve intelligent identification, positioning, tracking, supervision and other functions. In order to improve the rational use of energy, energy is managed and controlled through the Internet of Things, so that reasonable adjustment of energy can be achieved in an intelligent way. Among them, the energy management and control system of the Internet of Things is widely used in industrial parks.

[0003] However, when a fire occurs during the actual application of the existing energy management and control system, it usually causes leakage of electricity in the power equipment in the area. In this way, when people use water to extinguish the fire, water and electricity come into contact, which will increase the degree of danger within the fire range. In special areas, there will be some elements that react violently with water, such as potassium, sodium, magnesium powder, aluminum powder, etc., which will explode after coming into contact with water, thereby causing more serious disasters. At this time, if the water energy supply in the area is not stopped, people within the fire range will use water to extinguish the fire due to lack of knowledge. In areas where water can be used for fire extinguishing, since the conventional water supply in the area is balanced, it is easy to have a tight water supply in the area in an emergency, resulting in the inability to quickly extinguish the fire and poor overall energy management efficiency. Summary of the invention

[0004] The purpose of the present invention is to provide an energy management and control system based on the Internet of Things to solve the problems raised in the above background technology.

[0005] In order to solve the above technical problems, the present invention provides the following technical solutions: an energy management and control system based on the Internet of Things, the energy management and control system includes a perception layer, a network transmission layer, and an application layer.

[0006] The perception layer is used by sensor devices to identify objects and collect information;

[0007] The network transport layer is used to provide communication services between devices;

[0008] The application layer is used to implement corresponding instructions through the device;

[0009] The sensing layer includes a total power control module and a total water energy control module for power outages;

[0010] The total power control module is provided with an indoor unit power control module for controlling the power supply of a single room, a building unit power control module for controlling the power supply inside the entire staircase, and a regional unit power control module for controlling the power supply in the area, and finally a single unit power control module for single unit power supply;

[0011] The overall water energy control module is provided with an indoor unit water energy control module for controlling the water energy supply of a single room, a building unit water energy control module for controlling the water energy supply of the entire building, a regional unit water energy control module for water energy control in the area, and finally a monomer unit water energy control module for a single water energy supply.

[0012] Furthermore, the perception layer also includes an environment monitoring module;

[0013] The environmental monitoring module includes a temperature sensing module, a humidity monitoring module, an acoustic detection module, a dust monitoring module, and a video monitoring module;

[0014] The temperature sensing module is used to detect the temperature in the environment;

[0015] The humidity monitoring module is used to monitor the humidity of the air in the environment;

[0016] The acoustic detection module is used to monitor the noise in the environment;

[0017] The dust monitoring module is used to monitor the amount of dust in the environment;

[0018] The video surveillance module is used to directly monitor the environment in real time.

[0019] Furthermore, the network transmission layer includes a data processing module and an information transmission module;

[0020] The data processing module is used to receive data from the perception layer for analysis and processing;

[0021] The information transmission module is used to transmit information based on the data of the perception layer and the analysis of the data processing module.

[0022] Furthermore, the data processing module includes a data collection module, a data analysis module, and a data simulation module;

[0023] The data collection module is used to summarize the actual information data;

[0024] The data analysis module is used to analyze the summarized information;

[0025] The data simulation module is used to simulate the subsequent status based on the currently collected information.

[0026] Furthermore, the information transmission module includes an early warning module and an alarm module;

[0027] The early warning module is used to remind staff of existing problems;

[0028] The alarm module is used to directly remind staff that emergency measures are required.

[0029] Furthermore, the data collection module includes an information collection module for use in the area and a network information collection module;

[0030] The regional information collection module is used to collect data information within the energy management and control system;

[0031] The network information collection module is used to collect data information of the same and similar industry applications collected on the network.

[0032] Furthermore, the perception layer is also provided with a vehicle guidance module, a personnel counting module, and a ground liquid monitoring module;

[0033] The vehicle guidance module is used to guide the moving direction of the vehicle;

[0034] The people counting module is used to count the number of people inside the park;

[0035] The ground liquid monitoring module is used to monitor the liquid depth inside the park.

[0036] Further, the vehicle guidance module includes material transportation, garbage transportation, and conventional transportation;

[0037] Among them, material transportation is used for material delivery and export vehicle guidance within the industrial park;

[0038] Among them, garbage transportation is used to guide vehicles that process garbage generated in industrial parks;

[0039] Conventional transportation is used to guide the movement of people and vehicles within the park.

[0040] Furthermore, the people counting module includes the population inside the park, the population entering the park, and the population leaving the park;

[0041] The internal population of the park is used to count the total number of people in the park;

[0042] The park entry population is used to calculate the number of people entering the park;

[0043] The park outflow population is used to calculate the number of people leaving the park.

[0044] Furthermore, the surface liquid monitoring module includes a liquid depth distribution monitoring module and a liquid flow direction monitoring module;

[0045] The liquid depth distribution monitoring module is used to monitor the distribution status of the ground liquid depth in the park;

[0046] The liquid flow direction monitoring module is used to monitor the flow direction of liquid in the park.

[0047] Compared with the prior art, the beneficial effects achieved by the present invention are: selective regional power outages can be carried out in the event of a fire, thus avoiding leakage at the same time as the fire, ensuring the safety of people in the fire area, and at the same time, depending on the type of fire, the water supply in the area can be suspended to avoid water causing a larger fire. At the same time, the water supply within the fire range can be increased to avoid insufficient water supply during firefighting, thereby improving the progress of disaster relief and achieving effective energy management and control. BRIEF DESCRIPTION OF THE DRAWINGS

[0048] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0049] Figure 1 It is a comprehensive schematic block diagram of an energy management and control system based on the Internet of Things in the patent of this invention;

[0050] Figure 2 This is a schematic block diagram of an environmental monitoring module of an energy management and control system based on the Internet of Things in the present invention;

[0051] Figure 3 This is a schematic block diagram of a data processing module of an energy management and control system based on the Internet of Things in the present invention;

[0052] Figure 4 This is a schematic block diagram of a data collection module of an energy management and control system based on the Internet of Things in the present invention;

[0053] Figure 5 This is a schematic block diagram of an information transmission module of an energy management and control system based on the Internet of Things in the present invention;

[0054] Figure 6 This is a partial schematic block diagram of the perception layer of an energy management and control system based on the Internet of Things in the patent of this invention.

[0055] Markings in the accompanying drawings:

[0056] 1. Energy management and control system; 101. Perception layer; 102. Network transmission layer; 103. Application layer;

[0057] 2. Overall power control module; 201. Indoor unit power control module; 202. Building unit power control module; 203. Regional unit power control module; 204. Monomer unit power control module;

[0058] 3. Water energy overall control module; 301. Indoor unit water energy control module; 302. Building unit water energy control module; 303. Regional unit water energy control module; 304. Monomer unit water energy control module;

[0059] 4. Environmental monitoring module; 401. Temperature sensing module; 402. Humidity monitoring module; 403. Sound detection module; 404. Dust monitoring module; 405. Video monitoring module;

[0060] 5. Data processing module; 501. Data collection module; 5011. Regional information collection module; 5012. Network information collection module; 502. Data analysis module; 503. Data simulation module;

[0061] 6. Information transmission module; 601. Early warning module; 602. Alarm module;

[0062] 7. Vehicle guidance module; 701. Material transportation; 702. Garbage transportation; 703. Conventional transportation;

[0063] 8. People counting module; 801. Population inside the park; 802. Population entering the park; 803. Population leaving the park;

[0064] 9. Ground liquid monitoring module; 901. Liquid depth distribution monitoring module; 902. Liquid flow direction monitoring module. DETAILED DESCRIPTION

[0065] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0066] See also Figure 1 and Figure 6 The present invention provides a technical solution: an energy management and control system based on the Internet of Things. The energy management and control system 1 includes a perception layer 101, a network transmission layer 102, and an application layer 103.

[0067] The sensing layer 101 is used for sensor devices to perform object recognition and information collection;

[0068] The network transport layer 102 is used to provide communication services between devices;

[0069] The application layer 103 is used to implement corresponding instructions through the device;

[0070] The sensing layer 101 includes a total power control module 2 and a total water energy control module 3 for power outages;

[0071] The total power control module 2 is provided with an indoor unit power control module 201 for controlling power supply to a single room, a building unit power control module 202 for controlling power supply inside the entire staircase, and a regional unit power control module 203 for controlling power supply in the region, and finally a single unit power control module 204 for single power supply, wherein the power equipment that can be used in the total power control module 2 includes intelligent switch gates and power supply equipment in the region;

[0072] The water energy master control module 3 is provided with an indoor unit water energy control module 301 for controlling the water energy supply of a single room, and is also provided with a building unit water energy control module 302 for controlling the water energy supply of the entire building, and is also provided with a regional unit water energy control module 303 for regional water energy control, and finally is also provided with a monomer unit water energy control module 304 for single water energy supply, and the water energy master control module 3 can select an intelligent main water gate and an intelligent water valve;

[0073] When in use: When a fire occurs, the power supply at the location of the fire can be shut down by the total power control module 2 for the location of the fire. The regional unit power control module 203 can be selected as needed, so that the entire park can be powered off. The power of the current building can be shut down by selecting the building unit power control module 202. The power of a single room can be shut down by selecting the indoor unit power control module 201. At the same time, when there are people still in the elevator, the elevator can be powered off by the single unit power control module 204 after the people inside the elevator leave. In this way, when a fire occurs, power control can be selectively performed according to the scope of the fire. This not only maintains the normal supply of power in the fire-free area, but also realizes the power shutdown of the fire area. At the same time, the power supply switch of public power equipment such as elevators can be quickly controlled, so that people who rely on elevators to escape are avoided from being trapped to death. At this time, when the fire comes into contact with the power equipment, since the power supply has been stopped, there is no need to worry about the power supply still existing on the power equipment after the power equipment is damaged. When outside workers come into contact with the power equipment in the fire area, there will be no electric shock.

[0074] During the course of a fire, there will be some scenarios where water cannot be used for fire extinguishing. For example, when there are substances that burn when in contact with water in the fire area, these substances can quickly undergo a chemical reaction to generate hydrogen when in contact with water, releasing a large amount of heat, which can easily cause an explosion. Therefore, the water energy total control module 3 can be used. In this way, according to the location of the current type of fire, the water energy control module 303 of the regional unit, the water energy control module 304 of the monomer unit, the water energy control module 302 of the building unit, and the water energy control module 301 of the indoor unit can be used to selectively shut down the water source. This avoids the use of water to extinguish fires due to lack of professional fire extinguishing knowledge, thereby ensuring safety within the fire range.

[0075] When a fire can be extinguished with water, the water energy master control module 3 can be used to increase the water supply in the fire area to avoid insufficient water supply in the fire area, thereby improving the fire extinguishing effect.

[0076] The perception layer 101 also includes an environment monitoring module 4;

[0077] The environment monitoring module 4 includes a temperature sensing module 401, a humidity monitoring module 402, an acoustic detection module 403, a dust monitoring module 404, and a video monitoring module 405;

[0078] The temperature sensing module 401 is used to detect the temperature in the environment, and a thermometer can be used;

[0079] The humidity monitoring module 402 is used to monitor the humidity of the air in the environment, and a humidity detector can be used;

[0080] The acoustic detection module 403 is used to monitor the noise in the environment, and a decibel detector can be used;

[0081] The dust monitoring module 404 is used to monitor the amount of dust in the environment, and a dust detector may be used;

[0082] The video monitoring module 405 is used to directly monitor the environment in real time, and a monitor can be selected;

[0083] The network transmission layer 102 includes a data processing module 5 and an information transmission module 6;

[0084] The data processing module 5 is used to receive data from the perception layer 101 for analysis and processing;

[0085] The information transmission module 6 is used to transmit information based on the data of the perception layer 101 and the analysis of the data processing module 5;

[0086] The data processing module 5 includes a data collection module 501, a data analysis module 502, and a data simulation module 503;

[0087] The data collection module 501 is used to summarize the actual information data;

[0088] The data analysis module 502 is used to analyze the summarized information;

[0089] The data simulation module 503 is used to simulate the subsequent state for the currently collected information;

[0090] The information transmission module 6 includes an early warning module 601 and an alarm module 602;

[0091] The early warning module 601 is used to remind the staff of existing problems;

[0092] The alarm module 602 is used to directly remind the staff that emergency treatment is required;

[0093] The data collection module 501 includes an information collection module 5011 for use in the area and a network information collection module 5012;

[0094] The regional information collection module 5011 is used to collect data information in the energy management and control system 1;

[0095] The network information collection module 5012 is used to collect data information of the same and similar industry applications collected in the network;

[0096] When in use: the energy management and control system 1 can monitor the environment inside the industrial park through the environmental monitoring module 4 on the perception layer 101. The minimum selection is a single room, and the maximum selection is the entire industrial park. The specific monitoring range is the same as the control range of the water energy total management and control module 3 and the electric energy total management and control module 2. When the temperature sensing module 401 is used, the temperature in the current area can be sensed. In this way, when the temperature in the current area is too high or too low, cooling or heating is required. Strong cooling and heating require a large amount of electricity. Therefore, at this time, according to the demand for electricity in the current environment, the total electric energy management and control module 2 can be used to provide a stable supply of electricity to avoid insufficient power supply;

[0097] The humidity monitoring module 402 is used to monitor the air humidity of the current environment. In this way, when the air humidity is too high in an area with many mechanical equipment in the industrial park, an air drying device can be used to dry the air. Conversely, an air humidifier can be used to humidify the current environment to prevent the air from being too dry. When using these electrical equipment, it is also necessary to increase the power supply according to the current regional location. Therefore, the total power control module 2 is also needed to increase the power supply to the area;

[0098] The sound detection module 403 monitors the sound in the environment through the sound monitoring device, so that when the noise that affects the health of personnel occurs, some of the power equipment that causes noise can be shut down in time through the power total control module 2, thereby playing the role of noise reduction and effectively maintaining the health of the staff in the park;

[0099] The dust monitoring module 404 is used to monitor the dust concentration value generated in the area of ​​the park. When the dust concentration in the area exceeds the standard, the water supply in the area can be increased through the water energy total control module 3, and then the fog cannon and other dust reduction equipment can be used to perform atomization dust reduction, thereby achieving air purification in the park;

[0100] The video monitoring module 405 is used to monitor the overall environment in the park through video. When a safe area appears, the power supply of the safe area can be turned off, thereby saving energy.

[0101] The information obtained by the perception layer 101 can be transmitted to the network transmission layer 102, and the network transmission layer 102 transmits the relevant information to the data processing module 5 and the information transmission module 6;

[0102] The data received by the perception layer 101 can be transmitted to the data collection module 501. The data collection module 501 will collect the information transmitted by the perception layer 101 in the park used by this system through the regional information collection module 5011. At the same time, it can also collect the same or similar information of the relative parks in the network through the networking information collection module 5012. After the information is collected, the data analysis module 502 can be used to perform intelligent analysis on the data inside the data collection module 501 to confirm the distribution status of the energy supply, and then the energy supply optimization in this park can be completed by comparison. At the same time, safety hazards can be checked by analysis and comparison, and the existing data information can be simulated with the help of the data simulation module 503, so as to predict in advance the safety hazards in the future and the optimization methods of energy supply methods;

[0103] The information transmission module 6 determines whether to trigger the early warning module 601 or directly trigger the alarm module 602 based on the information fed back by the data processing module 5. The early warning module 601 and the alarm module 602 can use network notifications and SMS notifications to remind relevant staff, thereby assisting in the optimization of energy management.

[0104] The sensing layer 101 is also provided with a vehicle guidance module 7, a personnel counting module 8, and a ground liquid monitoring module 9;

[0105] The vehicle guidance module 7 is used to guide the moving direction of the vehicle;

[0106] The personnel counting module 8 is used to count the number of people inside the park;

[0107] The ground liquid monitoring module 9 is used to monitor the liquid depth inside the park;

[0108] The vehicle guidance module 7 includes material transportation 701, garbage transportation 702, and regular transportation 703;

[0109] Among them, Material Transport 701 is used for material transportation and export vehicle guidance within the industrial park;

[0110] Among them, garbage transport 702 is used to guide vehicles to process garbage generated in industrial parks;

[0111] Among them, conventional transport 703 is used to guide the movement of people and vehicles within the park;

[0112] The people counting module 8 includes the population inside the park 801, the population entering the park 802, and the population leaving the park 803;

[0113] The internal population of the park, 801, is used to count the total number of people in the park;

[0114] The park entry population 802 is used to calculate the number of people entering the park;

[0115] The number of people leaving the park 803 is used to calculate the number of people leaving the park;

[0116] The surface liquid monitoring module 9 includes a liquid depth distribution monitoring module 901 and a liquid flow direction monitoring module 902;

[0117] The liquid depth distribution monitoring module 901 is used to monitor the distribution state of the ground liquid depth in the park;

[0118] The liquid flow direction monitoring module 902 is used to monitor the flow direction of the liquid in the park;

[0119] During use: the vehicle can be guided by the vehicle guidance module 7 on the perception layer 101 on the energy management and control system 1. When it is necessary to transport materials inside the industrial park, the material transportation 701 can be used to guide the position of the relevant vehicles, thereby improving the movement accuracy of the material transportation vehicles, avoiding the phenomenon of movement errors caused by personnel who are not familiar with the internal locations of the park, and improving the accuracy of the material transportation process. The garbage transportation 702 is used to guide the garbage vehicles collected from the outside to go directly to the garbage dumping sites inside the park, avoiding the phenomenon that the garbage disposal vehicles stay in the park for a long time due to the unfamiliar environment, resulting in the air in the park being polluted by the garbage odor inside the garbage disposal vehicles. The conventional transportation 703 is used to guide the movement of vehicles inside the park. In this way, when there are multiple parking lots in the park, the conventional transportation 703 can be used for position guidance, thereby avoiding the congestion caused by people driving vehicles into a certain parking lot when it is full, so as to more reasonably realize the distribution of vehicles inside each parking lot. The vehicle guidance module 7 can also guide the position of new energy vehicles, thereby evenly distributing the new energy parking lots, thereby avoiding the excessive local power output pressure caused by the need to charge a large number of new energy vehicles in a certain parking lot;

[0120] The personnel counting module 8 is used to control the population in the park. The internal population 801 of the park can be used to count the population in the current park, so that the energy supply can be judged by the number of people in the park to ensure the rational use of energy. The park entry population 802 can count the population entering, and the park exit population 803 can control the number of people leaving the park.

[0121] The liquid on the ground inside the park can be monitored through the ground liquid monitoring module 9. Under the control of the liquid depth distribution monitoring module 901, since the ground inside the park has different heights, the liquid depth distribution monitoring module 901 can be used to monitor the ground water depth at various locations in the park. In combination with the vehicle guidance module 7, the position of vehicles in the park can be guided to avoid damage caused by wading, and direct guidance of water treatment vehicles in the park is also achieved. The liquid flow direction monitoring module 902 is used to check the drainage direction in the park. At the same time, it can also detect whether there are problems with the underground drainage system in the park based on the direction of the water flow. In this way, when there are problems with the underground drainage system, emergency repairs can be carried out in time.

[0122] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0123] 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 aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or replace some of the technical features therein by equivalents. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An energy management and control system based on the Internet of Things, the energy management and control system (1) comprising a perception layer (101), a network transmission layer (102), and an application layer (103), Features: The perception layer (101) is used by sensor devices to perform object recognition and information collection; The network transport layer (102) is used to provide communication services between devices; The application layer (103) is used to implement corresponding instructions through the device; The sensing layer (101) comprises a total electric energy control module (2) and a total water energy control module (3) for power outages; The total power control module (2) is provided with an indoor unit power control module (201) for controlling power outages in a single room, a building unit power control module (202) for controlling power supply inside the entire staircase, and a regional unit power control module (203) for controlling power supply in the region, and finally a single unit power control module (204) for single unit power supply; The overall water energy control module (3) is provided with an indoor unit water energy control module (301) for controlling the water energy supply of a single room, a building unit water energy control module (302) for controlling the water energy supply of the entire building, and a regional unit water energy control module (303) for controlling water energy within the region, and finally a monomer unit water energy control module (304) for supplying a single water energy.

2. According to the energy management and control system based on the Internet of Things according to claim 1, Features: The perception layer (101) also includes an environment monitoring module (4); The environmental monitoring module (4) includes a temperature sensing module (401), a humidity monitoring module (402), an acoustic detection module (403), a dust monitoring module (404), and a video monitoring module (405); The temperature sensing module (401) is used to detect the temperature in the environment; The humidity monitoring module (402) is used to monitor the humidity of the air in the environment; The sound detection module (403) is used to monitor the noise in the environment; The dust monitoring module (404) is used to monitor the amount of dust in the environment; The video monitoring module (405) is used to directly monitor the environment in real time.

3. According to the energy management and control system based on the Internet of Things according to claim 1, Features: The network transmission layer (102) comprises a data processing module (5) and an information transmission module (6); The data processing module (5) is used to receive data from the perception layer (101) for analysis and processing; The information transmission module (6) is used to transmit information based on the data of the perception layer (101) and the analysis of the data processing module (5).

4. According to the energy management and control system based on the Internet of Things according to claim 3, Features: The data processing module (5) comprises a data collection module (501), a data analysis module (502), and a data simulation module (503); The data collection module (501) is used to summarize the actual information data; The data analysis module (502) is used to analyze the aggregated information; The data simulation module (503) is used to simulate the subsequent state according to the currently collected information.

5. According to the energy management and control system based on the Internet of Things according to claim 3, Features: The information transmission module (6) comprises an early warning module (601) and an alarm module (602); The early warning module (601) is used to remind the staff of existing problems; The alarm module (602) is used to directly remind the staff that emergency measures are required.

6. According to the energy management and control system based on the Internet of Things according to claim 4, Features: The data collection module (501) includes an information collection module (5011) for use in the area and a network information collection module (5012); The regional information collection module (5011) is used to collect data information in the energy management and control system (1); The network information collection module (5012) is used to collect data information of the same and similar industry applications collected in the network.

7. According to the energy management and control system based on the Internet of Things according to claim 1, Features: The sensing layer (101) is further provided with a vehicle guiding module (7), a personnel counting module (8), and a ground liquid monitoring module (9); The vehicle guidance module (7) is used to guide the moving direction of the vehicle; The personnel counting module (8) is used to count the number of people in the park; The ground liquid monitoring module (9) is used to monitor the liquid depth inside the park.

8. According to the energy management and control system based on the Internet of Things according to claim 7, Features: The vehicle guidance module (7) includes material transportation (701), garbage transportation (702), and conventional transportation (703); Material transportation (701) is used for material transportation and export vehicle guidance within the industrial park; The garbage transport (702) is used to guide vehicles to process the garbage generated in the industrial park; Conventional transportation (703) is used to guide the movement of people and vehicles within the park.

9. According to the energy management and control system based on the Internet of Things according to claim 7, Features: The people counting module (8) includes the population inside the park (801), the population entering the park (802), and the population leaving the park (803); The internal population of the park (801) is used to count the total number of people in the park; The park entry population (802) is used to calculate the number of people entering the park; The park leaving population (803) is used to calculate the number of people leaving the park.

10. According to the energy management and control system based on the Internet of Things according to claim 7, Features: The surface liquid monitoring module (9) comprises a liquid depth distribution monitoring module (901) and a liquid flow direction monitoring module (902); The liquid depth distribution monitoring module (901) is used to monitor the distribution state of the ground liquid depth in the park; The liquid flow direction monitoring module (902) is used to monitor the flow direction of the liquid in the park.

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