A method and system for regulating electric energy based on offshore energy demand

Abstract

The present invention discloses a method and system for regulating electric energy based on offshore energy demand, the method comprising: obtaining aquaculture biological information, offshore energy demand information and power generation equipment information; determining a first electric energy demand using offshore energy demand information, determining the activity time of aquaculture biological information based on aquaculture biological information, collecting activity area images according to the activity time and power consumption location information; identifying biological features of the activity area image, calculating a second electric energy demand using biological features and power consumption equipment information; calculating the sum of the first electric energy demand and the second electric energy demand to obtain a total demand, calculating the total power generation using the power consumption time, power consumption location information and power generation equipment information; regulating electric energy according to the total demand and the total power generation. The present invention can regulate electric energy based on power consumption energy demand, which can not only improve the accuracy and reliability of electric energy regulation, but also meet actual application requirements and improve the utilization rate of electric energy resources.

Description

Background Art

[0002] "Marine ranch" is an artificial fishery. Specifically, it refers to a certain sea area that uses large-scale fishery facilities and a systematic management system, and utilizes the natural marine ecological environment to gather artificially released economic marine organisms. Just like grazing cattle and sheep on land, fish, shrimp, shellfish, algae and other marine resources are released at sea in a planned and purposeful manner.

[0003] Since there are many species of organisms cultured in marine ranches, various equipment (culture platforms, underwater monitoring ships, wave-resistant rafts, offshore windmills, monitoring buoys, etc.) need to be installed to assist users in culture in order to reasonably manage marine ranches and maintain the ecological balance of marine ranches. Different equipment has different power consumption. In order to meet the power demand of various equipment at the same time, one of the commonly used power control methods is to collect power consumption information of different equipment, build a power demand prediction model based on the power consumption information, use the prediction model to predict the power consumption in the future, and then perform power control based on the predicted power consumption.

[0004] However, the commonly used methods currently have the following technical problems: different devices have different usage requirements at different times and in different states, and the power generation of power generation equipment on the coast is unstable. If the model is only built through electricity consumption information for prediction and processing, power supply shortages or energy surpluses may occur. The power control accuracy is low and the deviation from the actual situation is large, making it difficult to meet the existing power control needs. Summary of the invention

[0005] The present invention proposes a method and system for regulating electric energy based on offshore energy demand, which can solve one or more of the above-mentioned technical problems.

[0006] A first aspect of an embodiment of the present invention provides a method for regulating electric energy based on offshore energy demand, the method comprising:

[0007] Acquire aquaculture biological information, offshore energy demand information and power generation equipment information respectively, wherein the offshore energy demand information includes: power demand time, power equipment information and power location information;

[0008] After determining the first power demand of the power-consuming equipment using the offshore energy demand information, determining the activity time of the farmed organisms based on the farmed organism information, and collecting activity area images of the organisms according to the activity time and the power consumption location information;

[0009] Calling a preset image recognition model to recognize the biological characteristics of the activity area image, and using the biological characteristics and the electrical equipment information to calculate the second electric energy demand;

[0010] After calculating the sum of the first electric energy demand and the second electric energy demand to obtain a total demand, the total power generation is calculated using the power demand time, the power location information and the power generation equipment information;

[0011] The electric energy proportion value of the electric equipment is determined according to the total demand and the total power generation, and the electric energy is regulated according to the electric energy proportion value.

[0012] In a possible implementation manner of the first aspect, calling a preset image recognition model to identify a biometric feature of the activity area image, and using the biometric feature and the electrical device information to calculate the second electric energy demand includes:

[0013] Calling a preset image recognition model to recognize the activity area image according to the color of the farmed organisms to obtain biological features, wherein the biological features are the biological activity area when feeding the farmed organisms;

[0014] Determine the number of devices required for feeding according to the area value corresponding to the biological feature, and obtain the number of first electrical devices;

[0015] After extracting the first equipment power consumption of the feeding equipment from the power-consuming equipment information according to the color of the farmed organisms, the second electric energy demand is calculated using the number of the first power-consuming equipment and the first equipment power consumption.

[0016] In a possible implementation manner of the first aspect, calling a preset image recognition model to identify a biometric feature of the activity area image, and using the biometric feature and the electrical device information to calculate the second electric energy demand includes:

[0017] Calling a preset image recognition model to recognize the activity area image according to the outline of the farmed organisms to obtain biological features, wherein the biological features are activity tracks when the farmed organisms are captured;

[0018] Calculate the number of devices required for the roundup according to the trajectory distance corresponding to the biological feature to obtain the number of second electrical devices;

[0019] After extracting the second equipment power consumption of the encirclement equipment from the power-consuming equipment information according to the outline of the farmed organisms, the second electric energy demand is calculated using the number of the second power-consuming equipment and the second equipment power consumption.

[0020] In a possible implementation manner of the first aspect, the calculating the total power generation amount by using the power demand time, the power consumption location information, and the power generation equipment information includes:

[0021] Extracting equipment type and unit power generation from the power generation equipment information;

[0022] Based on the device type, a corresponding data list is searched from a preset database, where the data list records the power generation data of the device in the same time period;

[0023] Searching for power generation parameters from the data list according to the power demand time and the power consumption location information;

[0024] The unit power generation and the power generation parameters are used to calculate the total power generation.

[0025] In a possible implementation manner of the first aspect, determining an electric energy proportion value of the electric equipment according to the total demand and the total power generation, and performing electric energy regulation according to the electric energy proportion value, includes:

[0026] If the total amount of power generation is greater than the total demand, a ratio of the first power demand to the total demand is calculated to obtain a power ratio value, and the power corresponding to the total amount of power generation is regulated to the power-consuming equipment according to the power ratio value for use by the power-consuming equipment;

[0027] If the total power generation is less than the total demand, the difference between the total power generation and the total demand is calculated to obtain the power difference, and the ratio of the power difference to the total power generation is calculated to obtain the electric energy ratio. After the power generation of the power generation equipment is increased according to the electric energy ratio, the increased power generation is regulated to the power-consuming equipment according to the total demand for use by the power-consuming equipment.

[0028] In a possible implementation manner of the first aspect, collecting an activity area image of a living being according to the activity time and the electricity usage location information includes:

[0029] If the activity time is daytime, a location coordinate is arbitrarily extracted from the power consumption location information, a first activity area is divided with the location coordinate as the center, and a preset drone is called to take an image of the first activity area to obtain an activity area image;

[0030] If the activity time is night time, the device coordinates of the power-consuming device are determined based on the power consumption location information. After dividing the second activity area with the device coordinates as the center, the external camera of the power-consuming device using the device coordinates is called to capture the image of the second activity area to obtain the activity area image.

[0031] In a possible implementation manner of the first aspect, after the step of collecting an activity area image of a living being according to the activity time and the electricity usage location information, the method further includes:

[0032] The activity area image is transmitted to a background terminal, so that the background terminal can display the activity area image to the technician.

[0033] A second aspect of an embodiment of the present invention provides an electric energy control system based on offshore energy demand, the system comprising:

[0034] An information acquisition module is used to respectively acquire information on aquaculture organisms, offshore energy demand information, and power generation equipment information, wherein the offshore energy demand information includes: electricity demand time, electricity equipment information, and electricity location information;

[0035] An image acquisition module is used to determine the first power demand of the power-consuming equipment using the offshore energy demand information, determine the activity time of the farmed organisms based on the farmed organism information, and acquire an activity area image of the organisms according to the activity time and the power consumption location information;

[0036] a demand calculation module, used for calling a preset image recognition model to identify the biological characteristics of the activity area image, and calculating the second electric energy demand using the biological characteristics and the electric device information;

[0037] A module for calculating the total amount of power generation, configured to calculate the sum of the first power demand and the second power demand to obtain the total demand, and then calculate the total amount of power generation using the power demand time, the power location information and the power generation equipment information;

[0038] The electric energy control module is used to determine the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and to perform electric energy control according to the electric energy proportion value.

[0039] In a possible implementation manner of the second aspect, calling a preset image recognition model to identify a biometric feature of the activity area image, and using the biometric feature and the electrical device information to calculate the second electric energy demand includes:

[0040] Calling a preset image recognition model to recognize the activity area image according to the color of the farmed organisms to obtain biological features, wherein the biological features are the biological activity area when feeding the farmed organisms;

[0041] Determine the number of devices required for feeding according to the area value corresponding to the biological feature, and obtain the number of first electrical devices;

[0042] After extracting the first equipment power consumption of the feeding equipment from the power-consuming equipment information according to the color of the farmed organisms, the second electric energy demand is calculated using the number of the first power-consuming equipment and the first equipment power consumption.

[0043] In a possible implementation manner of the second aspect, calling a preset image recognition model to identify a biometric feature of the activity area image, and using the biometric feature and the electrical device information to calculate the second electric energy demand includes:

[0044] Calling a preset image recognition model to recognize the activity area image according to the outline of the farmed organisms to obtain biological features, wherein the biological features are activity tracks when the farmed organisms are captured;

[0045] Calculate the number of devices required for the roundup according to the trajectory distance corresponding to the biological feature to obtain the number of second electrical devices;

[0046] After extracting the second equipment power consumption of the encirclement equipment from the power-consuming equipment information according to the outline of the farmed organisms, the second electric energy demand is calculated using the number of the second power-consuming equipment and the second equipment power consumption.

[0047] In a possible implementation manner of the second aspect, the calculating the total power generation amount by using the power demand time, the power consumption location information, and the power generation equipment information includes:

[0048] Extracting equipment type and unit power generation from the power generation equipment information;

[0049] Based on the device type, a corresponding data list is searched from a preset database, where the data list records the power generation data of the device in the same time period;

[0050] Searching for power generation parameters from the data list according to the power demand time and the power consumption location information;

[0051] The unit power generation and the power generation parameters are used to calculate the total power generation.

[0052] In a possible implementation manner of the second aspect, determining the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and performing electric energy regulation according to the electric energy proportion value, includes:

[0053] If the total amount of power generation is greater than the total demand, a ratio of the first power demand to the total demand is calculated to obtain a power ratio value, and the power corresponding to the total amount of power generation is regulated to the power-consuming equipment according to the power ratio value for use by the power-consuming equipment;

[0054] If the total power generation is less than the total demand, the difference between the total power generation and the total demand is calculated to obtain the power difference, and the ratio of the power difference to the total power generation is calculated to obtain the electric energy ratio. After the power generation of the power generation equipment is increased according to the electric energy ratio, the increased power generation is regulated to the power-consuming equipment according to the total demand for use by the power-consuming equipment.

[0055] In a possible implementation manner of the second aspect, collecting an activity area image of a living being according to the activity time and the electricity usage location information includes:

[0056] If the activity time is daytime, a location coordinate is arbitrarily extracted from the power consumption location information, a first activity area is divided with the location coordinate as the center, and a preset drone is called to take an image of the first activity area to obtain an activity area image;

[0057] If the activity time is night time, the device coordinates of the power-consuming device are determined based on the power consumption location information. After dividing the second activity area with the device coordinates as the center, the external camera of the power-consuming device using the device coordinates is called to capture the image of the second activity area to obtain the activity area image.

[0058] In a possible implementation manner of the second aspect, the system further includes:

[0059] The image transmission module is used to transmit the activity area image to the background terminal so that the background terminal can display the activity area image to the technician.

[0060] Compared with the prior art, the embodiment of the present invention provides a method and system for regulating electric energy based on offshore energy demand, and its beneficial effects are: the present invention can respectively obtain aquaculture biological information, offshore energy demand information and power generation equipment information; calculate the total demand for electric energy through the aquaculture biological information and the offshore energy demand information, and calculate the total power generation through the offshore energy demand information and the power generation equipment information; determine the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and regulate electric energy according to the electric energy proportion value; the present invention can regulate electric energy based on the electric energy demand, which can not only improve the accuracy and reliability of electric energy regulation, but also can meet the actual application needs, and can improve the utilization rate of electric energy resources to meet the electric energy application needs of different users. BRIEF DESCRIPTION OF THE DRAWINGS

[0061] Figure 1 It is a flow chart of a method for regulating electric energy based on offshore energy demand provided by one embodiment of the present invention;

[0062] Figure 2 It is a structural schematic diagram of an electric energy control system based on offshore energy demand provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0063] 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.

[0064] Since there are many species of organisms cultured in marine ranches, various equipment (culture platforms, underwater monitoring ships, wave-resistant rafts, offshore windmills, monitoring buoys, etc.) need to be installed to assist users in culture in order to reasonably manage marine ranches and maintain the ecological balance of marine ranches. Different equipment has different power consumption. In order to meet the power demand of various equipment at the same time, one of the commonly used power control methods is to collect power consumption information of different equipment, build a power demand prediction model based on the power consumption information, use the prediction model to predict the power consumption in the future, and then perform power control based on the predicted power consumption.

[0065] However, the commonly used methods currently have the following technical problems: different devices have different usage requirements at different times and in different states, and the power generation of power generation equipment on the coast is unstable. If the model is only built through electricity consumption information for prediction and processing, power supply shortages or energy surpluses may occur. The power control accuracy is low and the deviation from the actual situation is large, making it difficult to meet the existing power control needs.

[0066] In order to solve the above problems, a method for controlling electric energy based on offshore energy demand provided in an embodiment of the present application will be introduced and explained in detail through the following specific embodiments.

[0067] Reference Figure 1 , showing a flow chart of a method for controlling electric energy based on offshore energy demand provided by an embodiment of the present invention.

[0068] In one embodiment, the electric energy regulation method based on offshore energy demand is applied to the management system of a marine ranch, wherein the marine ranch may be provided with a plurality of breeding platforms, each of which may breed a type of marine organism. At the same time, the marine ranch may also include various electrical equipment, for example, wind and wave raft frames, monitoring platforms, underwater detection robots, unmanned monitoring ships, etc. The marine ranch may also include various power generation equipment, for example, offshore windmills, wave power generators, etc. The management system may be a comprehensive management system arranged on the coast, which may be installed on the computer background or intelligent terminal of the technicians on the coast. Through the management system, various equipment may be managed in real time, and the entire marine ranch may be managed through various equipment to improve the management efficiency of the marine ranch.

[0069] In an actual operation mode, the management system can be connected and communicated with the power consumption equipment and power generation equipment of the ocean ranch respectively. The power consumption and power generation of different equipment are different. In order to reasonably distribute electric energy and improve the utilization rate of electric energy, as an example, the electric energy regulation method based on offshore energy demand may include:

[0070] S11. Acquire aquaculture organism information, offshore energy demand information, and power generation equipment information respectively, wherein the offshore energy demand information includes: electricity demand time, electricity equipment information, and electricity location information.

[0071] In one embodiment, the management system can obtain aquaculture organism information, offshore energy demand information, and power generation equipment information respectively.

[0072] The farmed organism information is information related to various marine organisms farmed in the marine ranch, including: organism type, organism habits, organism species, organism size, organism color, the breeding platform where the organism is located, the number of organisms, the growth cycle of organisms, the feed of organisms, and the time of capture, etc.

[0073] The offshore energy demand information includes: electricity demand time, electricity equipment information, and electricity location information. The electricity demand time refers to the daily usage time, peak electricity consumption time, and low electricity consumption time of various electricity equipment. The electricity equipment information is the relevant information of various electricity equipment, including: equipment model, equipment type, unit power consumption of equipment, equipment power, etc. The electricity location information is the location coordinates of various electricity equipment in the marine ranch.

[0074] The power generation equipment information is the relevant information of various power generation equipment, and may also include: the model of the power generation equipment, the equipment type, the unit power generation of the equipment, the power generation power, the peak time of power generation, the low peak time of power generation, etc.

[0075] The power generation of the power generation equipment of the marine ranch can be evaluated through the above power generation equipment information. At the same time, the power required for the normal daily use of the power equipment of the marine ranch can be evaluated through the offshore energy demand information. Then, the additional power required to call the power equipment to perform various aquaculture operations when aquaculture organisms are cultivated can be evaluated through the farmed organism information. Combining the two types of power and their usage time, the total power required and the usage time can be determined.

[0076] Since the power generation of offshore power generation equipment is unstable, the power required for daily use of electrical equipment and the additional power required to perform various breeding operations are calculated in advance, and then the power is allocated according to time and power to improve the utilization rate of power.

[0077] S12, after determining the first power demand of the electrical equipment using the offshore energy demand information, determining the activity time of the farmed organisms based on the farmed organism information, and collecting activity area images of the organisms according to the activity time and the power consumption location information.

[0078] In one embodiment, after acquiring the offshore energy demand information, the offshore energy demand information may be used to determine a first electric energy demand of the electric equipment, and the first electric energy demand may be the amount of electricity required for the normal operation of the electric equipment.

[0079] For example, the electrical equipment is an underwater inspection robot, the electricity demand time is 10 days, it is used for 5 hours a day, and the power consumption per hour is 5 kilowatts. Then the first power demand of the underwater inspection robot is 5*5=25 kilowatt-hours (kW·h).

[0080] Since the power consumption time and power consumption of each device are different, the first power demand of each power-consuming device can be calculated in the above manner.

[0081] After calculating the first power demand of each electrical device, the activity time of the farmed organisms can be determined based on the farmed organism information. The activity time can be the time for feeding the farmed organisms, capturing the farmed organisms, sampling the farmed organisms, breeding the farmed organisms, or sowing the seedlings of the farmed organisms. This activity time is suitable for operations such as feeding, capturing, or sampling the farmed organisms. At this time, the farmed organisms may carry out a certain biological activity in their area, and at the same time, technicians need to call various electrical devices to perform the above operations. The execution of the above operations requires additional allocation of electrical energy to various electrical devices. In order to accurately calculate the required electrical energy, the activity area image of the organism can be collected at the time node corresponding to the activity time and at the location corresponding to the power consumption location information. The amount of electricity required for various electrical devices to perform the above operations is then determined based on the activity area image.

[0082] In an optional embodiment, the activity time may be during the day or at night. The clarity of the marine ranch is different at different times. It is relatively safe for users to collect images during the day, but it is relatively dangerous at night when visibility is low. In order to facilitate users to perform image capture operations at different times, as an example, collecting images of the activity area of ​​organisms according to the activity time and the power usage location information may include the following sub-steps:

[0083] S121. If the activity time is daytime, a location coordinate is arbitrarily extracted from the electricity usage location information, and a first activity area is divided with the location coordinate as the center, and a preset drone is called to take an image of the first activity area to obtain an activity area image.

[0084] S122. If the activity time is night time, determine the device coordinates of the power-consuming device based on the power consumption location information, divide the second activity area with the device coordinates as the center, and then call the external camera of the power-consuming device using the device coordinates to capture an image of the second activity area to obtain an activity area image.

[0085] Specifically, if the activity time is during the day, the visibility and visual range of the technicians are large, and the technicians can perform shooting operations as needed. Because it is necessary to call electrical equipment to perform the above-mentioned activity operations on the farmed organisms, the farmed organisms may be close to the electrical equipment, just near the electrical equipment. For example, if xx fish needs to be fed, the feeder equipment on the breeding platform needs to be called. The feeding activity time of xx fish can be determined, thereby determining the feeder equipment for feeding xx fish and the location information of the feeder equipment.

[0086] Optionally, there may be multiple power-consuming devices that can be called. For example, the breeding platform has four power-consuming devices, and there are four corresponding power-consuming location information. You can select any one of the four power-consuming location information, and then extract its coordinate point from the power-consuming location information to obtain the location coordinate. Then, you can divide an area with the location coordinate as the center and the preset distance as the radius to obtain the first activity area.

[0087] Next, the coordinates of the first activity area may be acquired, and then a preset drone may be called to fly to the coordinates of the first activity area and capture an image of the first activity area to obtain an image of the activity area.

[0088] Optionally, since it is daytime, the coordinates of the first activity area can be obtained and sent to technicians, so that the technicians can control the preset drone to fly and take images according to the coordinates of the first activity area to obtain images of the activity area.

[0089] Specifically, if the activity time is at night, although the distance between the farmed organisms and the electrical equipment may be relatively close, the visibility and visual range of the technicians are relatively low, making it difficult for the technicians to perform shooting operations as needed. For example, if xx shrimps need to be fed at 20:00 in the evening, the feeder equipment on the farming platform needs to be called. The feeding activity time of xx shrimps can be determined, thereby determining the feeder equipment for feeding xx shrimps and the location information of the feeder equipment.

[0090] In order to avoid dangerous operations by technicians at night, cameras or video cameras that can shoot at night can be set up in advance around the called equipment, and then the called electrical equipment can be determined and its coordinate points can be extracted from its electrical location information. After obtaining the equipment coordinates, an area can be divided with the equipment coordinates as the center and a preset distance as the radius to obtain the second activity area. Finally, the external camera of the electrical equipment using the equipment coordinates is called to capture the image of the second activity area to obtain the activity area image.

[0091] The activity area image can not only determine the activities of the farmed organisms, but also view the electrical equipment performing the activities. The two can then be combined to estimate the amount of electricity required for the electrical equipment to perform the operation, which in turn can be used as the amount of electricity required for additional operations of the electrical equipment in addition to daily operations.

[0092] After obtaining the activity area image, the technician may need to evaluate whether the activity area image is usable or appropriate, or may need to view the content of the activity area image. To facilitate the technician to view the activity area image, as an example, after the step of collecting the activity area image of the organism according to the activity time and the power usage location information, the method further includes:

[0093] The activity area image is transmitted to a background terminal, so that the background terminal can display the activity area image to the technician.

[0094] Specifically, after receiving the activity area image, the management system can transmit the activity area image to the background terminal, which can be an intelligent terminal used by technicians or a terminal in a background monitoring room, so that the background terminal can display the activity area image to the technicians.

[0095] S13. Calling a preset image recognition model to recognize biological features of the activity area image, and using the biological features and the electrical equipment information to calculate a second electric energy demand.

[0096] Since the activity area image includes farmed organisms, after acquiring the activity area image, the activity area image can be identified to obtain the biological characteristics of the farmed organisms. The adjustment can be the number of farmed organisms, the location of activities, the activity track, etc. The second power demand can be calculated based on the biological characteristics of the farmed organisms and the electrical equipment information of the electrical equipment required to perform the operation. The second power demand is the power consumption of the equipment performing the operation.

[0097] In one embodiment, the device performing the operation is a device responsible for feeding or spreading feed. For example, an unmanned boat is needed to transport feed from the coast to the breeding platform, and then spread the feed into the breeding platform.

[0098] In order to calculate the power consumption of the electric device performing the operation, as an example, calling a preset image recognition model to identify the biometric features of the activity area image, and using the biometric features and the electric device information to calculate the second power demand may include the following sub-steps:

[0099] S21. Calling a preset image recognition model to recognize the activity area image according to the color of the farmed organisms to obtain biological features, wherein the biological features are the biological activity area when the farmed organisms are fed.

[0100] S22. Determine the number of devices required for feeding according to the area value corresponding to the biological feature, and obtain the first number of electrical devices.

[0101] S23, after extracting the first equipment power consumption of the feeding equipment from the power-consuming equipment information according to the color of the farmed organisms, the second electric energy demand is calculated using the number of the first power-consuming equipment and the first equipment power consumption.

[0102] In one embodiment, since the activity area image may be taken during the day or at night, the clarity of the image is different, so the clarity of each activity area image may be optimized to obtain an optimized activity area image. The clarity optimization process is performed in a conventional manner.

[0103] Next, the preset image recognition model is called to identify the optimized activity area image according to the color of the farmed organisms to obtain the biological characteristics.

[0104] The preset image recognition model may be a CNN model. The user may collect multiple images of farmed organisms in advance, mark the colors of the farmed organisms in the images, and then use the marked images to perform model training to obtain an image recognition model.

[0105] By identifying the image based on the color of the farmed organisms, the position of each organism in the image can be identified. After counting multiple image positions, the area of ​​the organism in the image can be determined, and then the image area of ​​the area can be calculated. After calculating the image area, the image area is converted into the actual area to obtain the biological characteristics.

[0106] Next, the number of devices required for feeding can be determined according to the actual area value corresponding to the biological feature, and the number of first electrical devices can be obtained.

[0107] In an actual operation, feeding feed to farmed organisms may require one or more devices. Users can calculate the relationship between the area and number of devices for different organisms in advance. For example, one device is required for every 100 square meters, and one device is not counted for less than 100 square meters. Assuming that the actual area value corresponding to the biological feature is 250 square meters, two devices are required.

[0108] Next, the power consumption of the feeding device can also be extracted from the power consumption device information according to the color of the farmed organism to obtain. Specifically, the biological type of the farmed organism can be determined by the color of the farmed organism, and then the power consumption device required for feeding the organism can be found in the database according to the biological type, and then the power consumption of the device can be extracted from the power consumption device information according to the power consumption device, and the power consumption is the power required for feeding using the device, and the power consumption of the first device is obtained.

[0109] Finally, the product of the number of first power-consuming devices and the power consumption of the first devices may be calculated to obtain the second power demand.

[0110] In a preferred operating method, the unit power consumption of the equipment can also be extracted from the power-consuming equipment information, and the time required for the equipment to be fed this time can be determined. The power consumption of the first equipment can be calculated based on the required time and the unit power consumption, and then the product of the number of first power-consuming equipment and the power consumption of the first equipment can be calculated to obtain the second power demand.

[0111] In another embodiment, the device performing the operation is a device responsible for encircling or fishing the farmed organisms. For example, an unmanned ship is required to lower a fishing net for capture, an underwater submarine is called to drive the farmed organisms to a fishing net through ultrasonic technology, and then the unmanned ship is called to pull up the net to complete the capture.

[0112] In order to calculate the power consumption of the electric device performing the operation, as an example, calling a preset image recognition model to identify the biometric features of the activity area image, and using the biometric features and the electric device information to calculate the second power demand may include the following sub-steps:

[0113] S31. Calling a preset image recognition model to recognize the activity area image according to the outline of the farmed organisms to obtain biological features, wherein the biological features are the activity tracks when the farmed organisms are captured.

[0114] S32. Calculate the number of devices required for the roundup according to the trajectory distance corresponding to the biological feature to obtain the number of second electrical devices.

[0115] S33, after extracting the second equipment power consumption of the encirclement and capture equipment from the power-consuming equipment information according to the outline of the farmed organism, the second power demand is calculated using the number of the second power-consuming equipment and the second equipment power consumption.

[0116] In one embodiment, since the activity area image may be taken during the day or at night, the brightness or clarity of the image is different. Therefore, the clarity optimization and brightness adjustment of each activity area image may be performed to obtain an adjusted activity area image. The clarity optimization and brightness adjustment may also be performed in a conventional manner.

[0117] Next, a preset image recognition model may be called to identify the activity area image according to the outline of the farmed organisms to obtain biological features, which are the activity tracks when the farmed organisms are captured.

[0118] Among them, calling the preset image recognition model can be a conventional recognition model. The user can collect multiple images of farmed organisms in advance, and mark the outlines or organs of the farmed organisms in the images (such as the eyes, mouth, fins, etc. of xx fish), and then use the marked images to train the model to obtain an image recognition model.

[0119] The subsequent model can identify the image according to the outline or organs of the farmed organisms, so as to identify each organism in the image, and then obtain the position coordinates of each organism in the image, and use the position coordinates of the organism and the position coordinates of the capture target to calculate the biological distance, and select the largest distance from multiple biological distances. The position coordinates corresponding to the maximum distance are used as the starting coordinates of the activity trajectory, and the capture target position is used as the end coordinates. According to the two coordinates, the activity trajectory of the unmanned ship at sea is generated, which is also the trajectory of the unmanned ship driving away the biological activities, so as to obtain the biological characteristics.

[0120] It should be noted that after determining the starting coordinates of the activity trajectory and the ending coordinates of the target location, the two coordinates can be displayed on the display screen of the background control room, and then the user can plan the activity trajectory of the unmanned boat and obtain the biological characteristics.

[0121] After determining the biological features of the activity trajectory, the trajectory distance of the activity trajectory may be calculated, and then the number of devices required for the roundup may be calculated according to the trajectory distance corresponding to the biological features to obtain the number of second electrical devices.

[0122] In an actual operation mode, the farmed organisms may scatter when being driven by the unmanned boat. The longer the distance of the activity track, the higher the probability of scattering, and the fewer the organisms that can be captured. Therefore, different track distances may require different numbers of devices, and may require one device or multiple devices.

[0123] In order to increase the number of captured organisms, users can calculate the relationship between the track distance and the number of devices in advance. For example, one device is required for every nautical mile, and one device is required for every nautical mile less than 1 nautical mile. Assuming that the actual area value corresponding to the biological feature is 3.5 nautical miles, 4 devices are required.

[0124] Next, the power consumption of the second device of the trapping equipment can also be extracted from the power equipment information according to the outline of the farmed organism. Specifically, the biological type of the farmed organism can be determined by the outline of the farmed organism, and then the power equipment required to trap the organism can be found in the database according to the biological type. The power consumption of the equipment can then be extracted from the power equipment information according to the power equipment. The power consumption is the power consumption required for trapping using the equipment, and the power consumption of the second device is obtained.

[0125] Finally, the product of the number of second power-consuming devices and the power consumption of the second devices may be calculated to obtain the second power demand.

[0126] In a preferred operating method, the unit power consumption of the equipment can also be extracted from the power-consuming equipment information, and the time required for the equipment to be rounded up can be determined. The power consumption of the second equipment can be calculated based on the required time and the unit power consumption. The product of the number of second power-consuming equipment and the power consumption of the second equipment can then be calculated to obtain the second power demand.

[0127] S14. After calculating the sum of the first electric energy demand and the second electric energy demand to obtain a total demand, the total power generation is calculated using the power demand time, the power location information and the power generation equipment information.

[0128] When calculating the first power demand and the second power demand, the sum of the first power demand and the second power demand can be calculated to obtain the total demand, which is the total value of the required power evaluation. Optionally, if there are multiple power-consuming devices, there are multiple first power demands correspondingly; if multiple power-consuming devices are designed for the subsequent feeding and rounding-up operations, there are also multiple second power demands correspondingly, and the sum of the multiple first power demands and the multiple second power demands can be calculated to obtain the total demand.

[0129] At this time, the total power generation of the power generation equipment can be calculated using the power demand time, power location information and power generation equipment information.

[0130] If there are multiple power generation equipment, the total power generation of the power generation equipment during the power demand time can be calculated. If there are multiple power generation equipment, the power generation of each power generation equipment can be calculated, and then the sum of the power generation can be calculated to obtain the total power generation.

[0131] In an optional embodiment, the power generation equipment may include wind turbine generators, offshore windmills, and wave power generators, and the power generation of the power generation equipment at different locations may also be different. In order to estimate the power generation of each power generation equipment to calculate the total power generation, as an example, the total power generation is calculated using the power demand time, the power location information, and the power generation equipment information, which may include the following sub-steps:

[0132] S141. Extracting equipment type and unit power generation from the power generation equipment information.

[0133] S142. Search a corresponding data list from a preset database based on the device type, wherein the data list records power generation data of the device in the same time period.

[0134] S143, searching for power generation parameters from the data list according to the power demand time and the power consumption location information.

[0135] S144. Calculate the total power generation using the unit power generation and the power generation parameters.

[0136] Specifically, the equipment type and unit power generation can be extracted from the power generation equipment information. For example, if the power generation equipment is an offshore wind turbine, the equipment model of the offshore wind turbine can be extracted to obtain the equipment type, and then the power generation per unit wind speed of the offshore wind turbine can be obtained to obtain the unit power generation. For another example, if the power generation equipment is a wave power generator, the equipment model of the wave power generator can be extracted to obtain the equipment type, and then the power generation per unit wave energy of the wave power generator can be obtained to obtain the unit power generation.

[0137] Then, based on the device model corresponding to the device type, a corresponding data list is searched from a preset database, which records the power generation data of the device in the same time period, for example, the power generation data of the same device at the same location and on the same date one year ago.

[0138] Then, the power generation parameters are searched from the data list according to the time of the power demand time record and the power consumption location information. The power generation parameters include the data of the renewable energy required by the power generation equipment.

[0139] For example, if the power generation equipment is an offshore wind turbine and the electricity demand time is from August 9 to August 10, 20x1, the wind speed data recorded from August 9 to August 10, 20x0 can be extracted from the data list, including the wind speed size and the duration of each wind speed, etc., to obtain the power generation parameters of the offshore wind turbine.

[0140] Finally, the total power generation can be calculated using unit power generation and power generation parameters. For example, if the power generation equipment is an offshore wind turbine, its wind speed, the duration of each wind speed, and the unit power generation can be used to estimate the power generation of the offshore wind turbine from August 9 to August 10, 20x1. If there is one power generation equipment, the power generation of this power generation equipment can be calculated to get the total power generation. If there are multiple power generation equipment, the power generation of each power generation equipment can be calculated, and then the sum of the multiple power generation can be calculated to get the total power generation.

[0141] S15. Determine the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and perform electric energy regulation according to the electric energy proportion value.

[0142] After calculating the total power generation of the ocean ranch's power generation equipment and the total power demand of the power-consuming equipment, the power proportion value of each power-consuming equipment during the power demand time can be calculated based on the total demand and the total power generation. The power proportion value is the proportion of the power used by the equipment. Finally, power regulation is performed according to the power proportion value. Specifically, the power generated by the power generation equipment can be distributed to each power-consuming equipment according to the power proportion value to improve the utilization and flexibility of electricity.

[0143] In an optional embodiment, the total demand may be greater than the total power generation, or the total demand may be less than the total power generation. In order to adjust the power according to the actual power generation and the power demand, as an example, the power ratio value of the power-consuming equipment is determined according to the total demand and the total power generation, and the power is adjusted according to the power ratio value, which may include the following sub-steps:

[0144] S151. If the total power generation is greater than the total demand, the ratio of the first power demand to the total demand is calculated to obtain an electric energy ratio value, and the electric energy corresponding to the total power generation is regulated to the electric equipment according to the electric energy ratio value for use by the electric equipment.

[0145] S152. If the total power generation is less than the total demand, the difference between the total power generation and the total demand is calculated to obtain the power difference, and the ratio of the power difference to the total power generation is calculated to obtain the electric energy ratio. After the power generation of the power generation equipment is increased according to the electric energy ratio, the increased power generation is regulated to the electric equipment according to the total demand for use by the electric equipment.

[0146] Specifically, the total demand and the total power generation can be compared. If the total power generation is greater than the total demand, it means that the total power generation of the power generation equipment can meet the usage needs of each device, and there is no need to connect to the external network to access the power supply.

[0147] At this time, the amount of electricity required for daily operation of general equipment is greater than the amount of electricity required for the equipment to perform operations, that is, the first power demand is generally greater than the second power demand. The ratio of the first power demand to the total power demand can be calculated, and this ratio is used as the power ratio value. Then, according to the power ratio value, the power corresponding to the total power generation is regulated to the power-consuming equipment for use by the power-consuming equipment.

[0148] Assuming there is device a, the first power demand of device a can be calculated, and then the ratio of the first power demand of device a to the total demand can be calculated to obtain the power proportion value of device a. Then the product of the power proportion value of device a and the total power generation can be calculated to obtain the power that can be allocated to device a. Subsequently, the corresponding power can be allocated to device a for use by device a, and the same applies to other devices.

[0149] It should be noted that the power that may be distributed is greater than the power that device a can bear or the power that device a can use, and there is excess power. Each device has its own battery, and the excess power can be stored in the battery.

[0150] In another optional embodiment, there may be surplus electricity, which can be allocated to energy storage equipment on the coast or regulated for electricity transmission, and the specific adjustments can be made according to actual needs.

[0151] In one embodiment, if the total power generation is less than the total demand, it means that the total power generation of the power generation equipment cannot meet the use requirements of each device. In order to meet the power demand, the difference between the total power generation and the total demand can be calculated to obtain the power difference; then the ratio of the power difference to the total power generation can be calculated to obtain the electric energy ratio value, and then the power generation of each power generation equipment can be increased according to the electric energy ratio value, and finally the increased power generation can be adjusted to the power consumption equipment according to the total demand, so as to meet the power demand.

[0152] It should be noted that the power generation of offshore power generation equipment is unstable, and the power generation equipment may not be able to meet the demand for increasing power generation. Therefore, the required electricity can be connected from the external power grid according to the electricity ratio value, and then adjusted to the power-consuming equipment for use.

[0153] In this embodiment, the embodiment of the present invention provides an electric energy regulation method based on offshore energy demand, and its beneficial effects are: the present invention can respectively obtain aquaculture biological information, offshore energy demand information and power generation equipment information; calculate the total electric energy demand through the aquaculture biological information and the offshore energy demand information, and calculate the total power generation through the offshore energy demand information and the power generation equipment information; determine the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and regulate electric energy according to the electric energy proportion value; the present invention can regulate electric energy based on the electric energy demand, which can not only improve the accuracy and reliability of electric energy regulation, but also can meet the actual application needs, and can improve the utilization rate of electric energy resources to meet the electric energy application needs of different users.

[0154] The embodiment of the present invention also provides an electric energy control system based on offshore energy demand, see Figure 2 , showing a schematic structural diagram of an electric energy control system based on offshore energy demand provided by an embodiment of the present invention.

[0155] Wherein, as an example, the power control system based on offshore energy demand may include:

[0156] The information acquisition module 201 is used to respectively acquire information on aquaculture organisms, offshore energy demand information and power generation equipment information, wherein the offshore energy demand information includes: electricity demand time, electricity equipment information and electricity location information;

[0157] The image acquisition module 202 is used to determine the first power demand of the power-consuming equipment by using the offshore energy demand information, determine the activity time of the farmed organisms based on the farmed organism information, and acquire an activity area image of the organisms according to the activity time and the power consumption location information;

[0158] The demand calculation module 203 is used to call a preset image recognition model to identify the biological characteristics of the activity area image, and calculate the second electric energy demand using the biological characteristics and the electric device information;

[0159] A total power generation calculation module 204 is used to calculate the sum of the first power demand and the second power demand to obtain the total demand, and then calculate the total power generation using the power demand time, the power location information and the power generation equipment information;

[0160] The power control module 205 is used to determine the power proportion value of the power-consuming equipment according to the total demand and the total power generation, and perform power control according to the power proportion value.

[0161] Optionally, calling a preset image recognition model to recognize a biological feature of the activity area image, and using the biological feature and the electrical equipment information to calculate the second electric energy demand includes:

[0162] Calling a preset image recognition model to recognize the activity area image according to the color of the farmed organisms to obtain biological features, wherein the biological features are the biological activity area when feeding the farmed organisms;

[0163] Determine the number of devices required for feeding according to the area value corresponding to the biological feature, and obtain the number of first electrical devices;

[0164] After extracting the first equipment power consumption of the feeding equipment from the power-consuming equipment information according to the color of the farmed organisms, the second electric energy demand is calculated using the number of the first power-consuming equipment and the first equipment power consumption.

[0165] Optionally, calling a preset image recognition model to recognize a biological feature of the activity area image, and using the biological feature and the electrical equipment information to calculate the second electric energy demand includes:

[0166] Calling a preset image recognition model to recognize the activity area image according to the outline of the farmed organisms to obtain biological features, wherein the biological features are activity tracks when the farmed organisms are captured;

[0167] Calculate the number of devices required for the roundup according to the trajectory distance corresponding to the biological feature to obtain the number of second electrical devices;

[0168] After extracting the second equipment power consumption of the encirclement equipment from the power-consuming equipment information according to the outline of the farmed organisms, the second electric energy demand is calculated using the number of the second power-consuming equipment and the second equipment power consumption.

[0169] Optionally, the calculating the total power generation amount by using the power demand time, the power consumption location information and the power generation equipment information includes:

[0170] Extracting equipment type and unit power generation from the power generation equipment information;

[0171] Based on the device type, a corresponding data list is searched from a preset database, where the data list records the power generation data of the device in the same time period;

[0172] Searching for power generation parameters from the data list according to the power demand time and the power consumption location information;

[0173] The unit power generation and the power generation parameters are used to calculate the total power generation.

[0174] Optionally, determining the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and performing electric energy regulation according to the electric energy proportion value, includes:

[0175] If the total amount of power generation is greater than the total demand, a ratio of the first power demand to the total demand is calculated to obtain a power ratio value, and the power corresponding to the total amount of power generation is regulated to the power-consuming equipment according to the power ratio value for use by the power-consuming equipment;

[0176] If the total power generation is less than the total demand, the difference between the total power generation and the total demand is calculated to obtain the power difference, and the ratio of the power difference to the total power generation is calculated to obtain the electric energy ratio. After the power generation of the power generation equipment is increased according to the electric energy ratio, the increased power generation is regulated to the power-consuming equipment according to the total demand for use by the power-consuming equipment.

[0177] Optionally, collecting an activity area image of a living being according to the activity time and the electricity usage location information includes:

[0178] If the activity time is daytime, a location coordinate is arbitrarily extracted from the power consumption location information, a first activity area is divided with the location coordinate as the center, and a preset drone is called to take an image of the first activity area to obtain an activity area image;

[0179] If the activity time is night time, the device coordinates of the power-consuming device are determined based on the power consumption location information. After dividing the second activity area with the device coordinates as the center, the external camera of the power-consuming device using the device coordinates is called to capture the image of the second activity area to obtain the activity area image.

[0180] Optionally, the system further comprises:

[0181] The image transmission module is used to transmit the activity area image to the background terminal so that the background terminal can display the activity area image to the technician.

[0182] Those skilled in the art can clearly understand that, for the sake of convenience and brevity of description, the specific working process of the system described above can refer to the corresponding process in the aforementioned method embodiment, and will not be repeated here.

[0183] Furthermore, an embodiment of the present application also provides an electronic device, comprising: a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein when the processor executes the program, the method for controlling electric energy based on offshore energy demand as described in the above embodiment is implemented.

[0184] Furthermore, an embodiment of the present application also provides a computer-readable storage medium, which stores a computer-executable program, and the computer-executable program is used to enable a computer to execute the power regulation method based on offshore energy demand as described in the above embodiment.

[0185] It should be noted that the orientation or positional relationship indicated by the terms "upper", "lower", etc. is based on the orientation or positional relationship shown in the accompanying drawings, which is only for the convenience of describing the embodiments of the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation of the present invention. When an element such as a layer, region or substrate is referred to as being "on" or "above" another element, it can be directly on the other element, or there can also be an intermediate element. On the contrary, when an element is referred to as "directly on" or "above" another element, there is no intermediate element. It should also be understood that when an element is referred to as being "under" or "below" another element, it can be directly under or below the other element, or there can also be an intermediate element. On the contrary, when an element is referred to as being "directly under" or "below" another element, there is no intermediate element. Unless otherwise clearly specified and limited, the terms "installed", "connected" and "connected" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0186] Those skilled in the art will appreciate that the embodiments of the present application may also provide computer program products. Therefore, the present application may adopt the form of complete hardware embodiments, complete software embodiments, or embodiments in combination with software and hardware. Moreover, the present application may adopt the form of computer program products implemented on one or more computer-usable storage media (including but not limited to disk storage, CD-ROM, optical storage, etc.) that contain computer-usable program codes.

[0187] The present application is described with reference to the flowcharts and / or block diagrams of the methods, devices (systems), apparatuses, and computer program products according to the embodiments of the present application. It should be understood that each process and / or block in the flowchart and / or block diagram, as well as the combination of the processes and / or blocks in the flowchart and / or block diagram, can be implemented by computer program instructions. These computer program instructions can be provided to a processor of a general-purpose computer, a special-purpose computer, an embedded processor, or other programmable data processing device to generate a machine, so that the instructions executed by the processor of the computer or other programmable data processing device generate instructions for implementing the processes in the flowchart and / or block diagram. Figure 1 A process or multiple processes and / or boxes Figure 1 A device that provides the functions specified in a block or multiple blocks.

[0188] These computer program instructions may also be stored in a computer-readable memory capable of directing a computer or other programmable data processing device to operate in a specific manner, so that the instructions stored in the computer-readable memory produce an article of manufacture comprising an instruction device, which implements the process Figure 1 A process or multiple processes and / or boxes Figure 1 A function specified in one or more boxes.

[0189] These computer program instructions can also be loaded onto a computer or other programmable data processing device so that a series of operating steps are executed on the computer or other programmable device to produce a computer-implemented process, thereby providing instructions for implementing the process. Figure 1 A process or multiple processes and / or boxes Figure 1 The steps for the functions specified in one or more boxes.

[0190] The above is only a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the technical principles of the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. A method for regulating electric energy based on offshore energy demand, characterized in that: The method comprises: Acquire aquaculture biological information, offshore energy demand information and power generation equipment information respectively, wherein the offshore energy demand information includes: power demand time, power equipment information and power location information; After determining the first power demand of the power-consuming equipment using the offshore energy demand information, determining the activity time of the farmed organisms based on the farmed organism information, and collecting activity area images of the organisms according to the activity time and the power consumption location information; Calling a preset image recognition model to recognize the biological characteristics of the activity area image, and using the biological characteristics and the electrical equipment information to calculate the second electric energy demand; After calculating the sum of the first electric energy demand and the second electric energy demand to obtain a total demand, the total power generation is calculated using the power demand time, the power location information and the power generation equipment information; Determine the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and perform electric energy regulation according to the electric energy proportion value; The calling of a preset image recognition model to recognize the biological features of the activity area image, and using the biological features and the electrical equipment information to calculate the second electric energy demand, includes: Calling a preset image recognition model to recognize the activity area image according to the color of the farmed organisms to obtain biological features, wherein the biological features are the biological activity area when feeding the farmed organisms; Determine the number of devices required for feeding according to the area value corresponding to the biological feature, and obtain the number of first electrical devices; After extracting the first device power consumption of the feeding equipment from the power consumption equipment information according to the color of the farmed organisms, the second power demand is calculated using the number of the first power consumption equipment and the first device power consumption; or; The calling of a preset image recognition model to recognize the biological features of the activity area image, and using the biological features and the electrical equipment information to calculate the second electric energy demand, includes: Calling a preset image recognition model to recognize the activity area image according to the outline of the farmed organisms to obtain biological features, wherein the biological features are activity tracks when the farmed organisms are captured; Calculate the number of devices required for the roundup according to the trajectory distance corresponding to the biological feature to obtain the number of second electrical devices; After extracting the second equipment power consumption of the encirclement equipment from the power-consuming equipment information according to the outline of the farmed organisms, the second electric energy demand is calculated using the number of the second power-consuming equipment and the second equipment power consumption.

2. The method for regulating electric energy based on offshore energy demand according to claim 1, characterized in that: The calculating the total power generation amount by using the power demand time, the power location information and the power generation equipment information includes: Extracting equipment type and unit power generation from the power generation equipment information; Based on the device type, a corresponding data list is searched from a preset database, where the data list records the power generation data of the device in the same time period; Searching for power generation parameters from the data list according to the power demand time and the power consumption location information; The unit power generation and the power generation parameters are used to calculate the total power generation.

3. The method for regulating electric energy based on offshore energy demand according to claim 1, characterized in that: The step of determining the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and performing electric energy regulation according to the electric energy proportion value, includes: If the total amount of power generation is greater than the total demand, a ratio of the first power demand to the total demand is calculated to obtain a power ratio value, and the power corresponding to the total amount of power generation is regulated to the power-consuming equipment according to the power ratio value for use by the power-consuming equipment; If the total power generation is less than the total demand, the difference between the total power generation and the total demand is calculated to obtain the power difference, and the ratio of the power difference to the total power generation is calculated to obtain the electric energy ratio. After the power generation of the power generation equipment is increased according to the electric energy ratio, the increased power generation is regulated to the power-consuming equipment according to the total demand for use by the power-consuming equipment.

4. The method for regulating electric energy based on offshore energy demand according to claim 1, characterized in that: The collecting of the activity area image of the organism according to the activity time and the electricity usage location information comprises: If the activity time is daytime, a location coordinate is arbitrarily extracted from the power consumption location information, a first activity area is divided with the location coordinate as the center, and a preset drone is called to take an image of the first activity area to obtain an activity area image; If the activity time is night time, the device coordinates of the power-consuming device are determined based on the power consumption location information. After dividing the second activity area with the device coordinates as the center, the external camera of the power-consuming device using the device coordinates is called to capture the image of the second activity area to obtain the activity area image.

5. The method for regulating electric energy based on offshore energy demand according to any one of claims 1 to 3, characterized in that: After the step of collecting an image of an activity area of ​​a living being according to the activity time and the electricity usage location information, the method further includes: The activity area image is transmitted to a background terminal, so that the background terminal can display the activity area image to the technician.

6. An electric energy control system based on offshore energy demand, characterized in that: The system comprises: An information acquisition module is used to respectively acquire information on aquaculture organisms, offshore energy demand information, and power generation equipment information, wherein the offshore energy demand information includes: electricity demand time, electricity equipment information, and electricity location information; An image acquisition module is used to determine the first power demand of the power-consuming equipment using the offshore energy demand information, determine the activity time of the farmed organisms based on the farmed organism information, and acquire an activity area image of the organisms according to the activity time and the power consumption location information; a demand calculation module, used for calling a preset image recognition model to identify the biological characteristics of the activity area image, and calculating the second electric energy demand using the biological characteristics and the electric device information; A module for calculating the total amount of power generation, configured to calculate the sum of the first power demand and the second power demand to obtain the total demand, and then calculate the total amount of power generation using the power demand time, the power location information and the power generation equipment information; An electric energy control module, used to determine the electric energy proportion value of the electric equipment according to the total demand and the total power generation, and perform electric energy control according to the electric energy proportion value; The calling of a preset image recognition model to recognize the biological features of the activity area image, and using the biological features and the electrical equipment information to calculate the second electric energy demand, includes: Calling a preset image recognition model to recognize the activity area image according to the color of the farmed organisms to obtain biological features, wherein the biological features are the biological activity area when feeding the farmed organisms; Determine the number of devices required for feeding according to the area value corresponding to the biological feature, and obtain the number of first electrical devices; After extracting the first device power consumption of the feeding equipment from the power consumption equipment information according to the color of the farmed organisms, the second power demand is calculated using the number of the first power consumption equipment and the first device power consumption; or; The calling of a preset image recognition model to recognize the biological features of the activity area image, and using the biological features and the electrical equipment information to calculate the second electric energy demand, includes: Calling a preset image recognition model to recognize the activity area image according to the outline of the farmed organisms to obtain biological features, wherein the biological features are activity tracks when the farmed organisms are captured; Calculate the number of devices required for the roundup according to the trajectory distance corresponding to the biological feature to obtain the number of second electrical devices; After extracting the second equipment power consumption of the encirclement equipment from the power-consuming equipment information according to the outline of the farmed organisms, the second electric energy demand is calculated using the number of the second power-consuming equipment and the second equipment power consumption.

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