Baffle regulation and control system applied to fishing port

Abstract

The invention provides a baffle regulation and control system applied to a fishing port, and relates to the field of ocean engineering.The system comprises a first sealed cabin and a second sealed cabin which are arranged on the two sides of an adjustable baffle assembly, internally provided with sensor sets and used for collecting basic control data of the fishing port; the main control room is connected with the sensor group and is used for acquiring and analyzing the basic control data, determining the optimal baffle plate angle of the adjustable baffle plate assembly and generating a signal control instruction to control the traction device to adjust the angle of the adjustable baffle plate assembly; the traction device is connected with the adjustable baffle assembly, and the adjustable baffle assembly is used for being adjusted to the optimal baffle angle under the action of the traction device. By applying the system, the hydrodynamic environment of the fishing port can be monitored in real time, the angle of the adjustable baffle assembly is adjusted based on an intelligent algorithm, water flow is accelerated to enter the bottom of the port, the water exchange efficiency is improved, sediment accumulation is reduced, continuous optimization of the hydrodynamic environment of the fishing port is ensured, and good robustness is achieved.

Description

Technical Field

[0001] The present disclosure relates to the field of ocean engineering, and particularly to a baffle control system applied to fishing ports. Background Art

[0002] Affected by tides, changes in hydrodynamic environment and human activities, the water body in fishing ports has poor fluidity and limited hydrodynamic circulation, resulting in problems such as sediment accumulation, water quality degradation and dissolved oxygen reduction, which have an adverse impact on the fishery ecosystem and port operation efficiency. Moreover, with the intensification of global climate change, extreme weather events occur frequently, further exacerbating the instability of the hydrodynamic environment in fishing ports, reducing the frequency of water body exchange in fishing ports, and causing pollutants to remain for a long time, affecting the living environment of aquatic organisms. Existing hydrodynamic monitoring methods, such as fixed buoys and manual measurements, have limitations in spatial coverage, data continuity and real-time performance, and it is difficult to accurately evaluate and dynamically control the flow characteristics; while the optimization and control of fishing port hydrodynamics mainly rely on traditional means such as manual dredging, tidal diversion and mechanical flow augmentation, which have problems such as limited data acquisition, insufficient control ability and high operation cost, and it is difficult to adapt to the complex hydrodynamic environment of fishing ports. Summary of the Invention

[0003] The present disclosure provides a baffle control system applied to fishing ports to at least solve the above technical problems existing in the prior art.

[0004] According to a first aspect of the present disclosure, there is provided a baffle control system applied to fishing ports, the system comprising: a first sealed cabin, a second sealed cabin, a main control room, an adjustable baffle assembly and a traction device; the first sealed cabin and the second sealed cabin are respectively arranged on both sides of the adjustable baffle assembly, and a sensor group is arranged in the first sealed cabin and the second sealed cabin for collecting basic control data of the fishing port; the main control room is configured to obtain the basic control data, analyze the basic control data to determine the optimal baffle angle of the adjustable baffle assembly, generate a corresponding signal control instruction to control the traction device to adjust the angle of the adjustable baffle assembly, and the main control room is connected to the sensor group through an umbilical cable; the traction device is connected to the adjustable baffle assembly for adjusting the angle of the adjustable baffle assembly; the adjustable baffle assembly includes a first movable baffle, a second movable baffle and a middle fixed baffle, the baffle angles of the first movable baffle and the second movable baffle are adjustable, and the adjustable baffle assembly is adjusted to the optimal baffle angle under the traction of the traction device.

[0005] In one possible implementation, the main control room is configured to obtain the basic control data, analyze the basic control data, determine the optimal baffle angle of the adjustable baffle assembly, and generate a corresponding signal control instruction to control the traction device to adjust the angle of the adjustable baffle assembly, including: the main control room obtains the first flow rate data in the basic control data; compares the first flow rate data with a flow rate threshold to obtain a comparison result; if the comparison result indicates that the first flow rate data does not meet the flow rate threshold, generates a signal control instruction to control the traction device to adjust the angle of the first movable baffle; if the comparison result indicates that the first flow rate data meets the flow rate threshold, generates a signal control instruction to control the traction device to adjust the angle of the second movable baffle.

[0006] In one possible implementation, when the comparison result indicates that the first flow rate data does not meet the flow rate threshold, generating a signal control instruction to control the traction device to adjust the angle of the first movable baffle includes: if the comparison result indicates that the first flow rate data is less than the flow rate threshold, generating a signal control instruction to control the traction device to increase the angle of the first movable baffle; if the comparison result indicates that the first flow rate data is greater than the flow rate threshold, generating a signal control instruction to control the traction device to decrease the angle of the first movable baffle.

[0007] In one possible implementation, the traction device includes a first traction module and a second traction module, and the first traction module and the second traction module are arranged on both sides of the adjustable baffle assembly; the first traction module includes a first pulling rope, a first slide rail, and a first baffle positioner, the first baffle positioner is connected to the first slide rail, one end of the first pulling rope is connected to the first movable baffle, and the other end is connected to the first baffle positioner; the second traction module includes a second pulling rope, a second slide rail, and a second baffle positioner, the second baffle positioner is connected to the second slide rail, one end of the second pulling rope is connected to the second movable baffle, and the other end is connected to the second baffle positioner.

[0008] In one possible implementation, the system further includes a main control room buoy, a first baffle buoy, and a second baffle buoy. The main control room is arranged on the main control room buoy, the main control room buoy is connected to the bottom of the water through an anchor rope, the first baffle buoy is connected to the first movable baffle, and the second baffle buoy is connected to the second movable baffle.

[0009] In an implementable embodiment, the first movable baffle includes a first pull ring, a second pull ring, and a third pull ring, and the second movable baffle includes a fourth pull ring, a fifth pull ring, and a sixth pull ring; the first pull ring is connected to the first baffle buoy, and the fourth pull ring is connected to the second baffle buoy; the second pull ring is connected to the first pull rope, and the fifth pull ring is connected to the second pull rope; the third pull ring is connected to the first baffle locator, and the sixth pull ring is connected to the second baffle locator.

[0010] In an implementable embodiment, the main control room includes a main control module and a lifting control module. The main control module is respectively connected to the sensor group and the lifting control module. The lifting control module is connected to the first sealed cabin and the second sealed cabin. The main control module is configured to receive the basic control data, generate a lifting control signal according to the basic control data, and send the lifting control signal to the lifting control module. The lifting control module is configured to control the up and down movement of the first sealed cabin and the second sealed cabin under the action of the lifting control signal.

[0011] In an implementable embodiment, the system includes a first slider and a second slider. The first slider is slidably mounted on the first movable baffle, and the second slider is slidably mounted on the second movable baffle. The first sealed cabin is connected to the first slider, and the second sealed cabin is connected to the second slider.

[0012] In an implementable embodiment, the main control room includes a feedback learning module. The feedback learning module is configured to optimize the baffle adjustment strategy according to historical data, including: recording the adjustment data during the process of adjusting the adjustable baffle assembly to the optimal baffle angle; judging whether there is a repeated operation in the adjustment process according to the adjustment data; if there is a repeated operation in the adjustment process, performing an optimized control on the adjustment process.

[0013] In an implementable embodiment, the system further includes an energy supply module. The energy supply module includes a solar panel, a wind turbine, a storage battery, a solar controller, and an inverter. The energy supply module is configured to provide energy for the baffle control system.

[0014] A baffle regulation system applied to fishing ports according to the present disclosure includes a first sealed cabin, a second sealed cabin, a main control room, an adjustable baffle assembly, and a traction device; the first sealed cabin and the second sealed cabin are respectively arranged on both sides of the adjustable baffle assembly, and a sensor group is arranged in the first sealed cabin and the second sealed cabin for collecting basic control data of the fishing port; the main control room is used for obtaining the basic control data and analyzing the basic control data to determine the optimal baffle angle of the adjustable baffle assembly, generating corresponding signal control instructions to control the traction device to adjust the angle of the adjustable baffle assembly; the traction device is connected to the adjustable baffle assembly for adjusting the angle of the adjustable baffle assembly; the adjustable baffle assembly includes a first movable baffle, a second movable baffle, and a middle fixed baffle, and the baffle angles of the first movable baffle and the second movable baffle are adjustable. The adjustable baffle assembly is adjusted to the optimal baffle angle under the traction of the traction device.

[0015] By applying this system, through the sensor group, real-time monitoring of the hydrodynamic environment of the fishing port can be realized. The main control room adaptively adjusts the adjustable baffle assembly through an intelligent algorithm, which can improve the control accuracy; the adjustable baffle assembly is composed of movable baffles and fixed baffles, and can be locally optimized and regulated according to hydrodynamic requirements, accelerating the water flow into the bottom of the port, improving the water body exchange efficiency, reducing sediment accumulation. The adjustable baffle assembly can dynamically adjust the baffle angle and opening ratio, can adapt to complex external environmental changes, the system has good robustness, and can ensure the continuous optimization of the hydrodynamic environment of the fishing port.

[0016] It should be understood that the content described in this part is not intended to identify the key or important features of the embodiments of the present disclosure, nor is it used to limit the scope of the present disclosure. Other features of the present disclosure will become easily understood through the following description. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] By referring to the drawings and reading the following detailed description, the above and other purposes, features, and advantages of the exemplary embodiments of the present disclosure will become easily understood. In the drawings, several embodiments of the present disclosure are shown in an exemplary rather than restrictive manner, where: In the drawings, the same or corresponding reference numerals represent the same or corresponding parts.

[0018] Figure 1 Shows the structural schematic of a baffle regulation system applied to a fishing port according to an embodiment of the present disclosure Figure 1 ; Figure 2 Shows the schematic flow chart of the method for controlling the angle adjustment of the adjustable baffle assembly according to an embodiment of the present disclosure; Figure 3 Shows the structural schematic of a baffle regulation system applied to a fishing port according to an embodiment of the present disclosure Figure 2 ; Figure 4 The structural schematic diagram of a baffle control system applied to a fishing port according to an embodiment of the present disclosure is shown Figure 3 .

[0019] Explanation of reference numerals in the figure: 1. First sealed cabin; 2. Second sealed cabin; 3. Main control room; 41. First movable baffle; 42. Second movable baffle; 43. Middle fixed baffle; 44. Baffle base; 5. Umbilical cable; 6. Mooring cable; 71. First pulling rope; 72. First slide rail; 73. First baffle positioner; 74. Second pulling rope; 75. Second slide rail; 76. Second baffle positioner; 81. Main control room buoy; 82. First baffle buoy; 83. Second baffle buoy; 411. First pulling ring; 412. Second pulling ring; 413. Third pulling ring; 421. Fourth pulling ring; 422. Fifth pulling ring; 423. Sixth pulling ring; 91. First slider; 92. Second slider. Detailed implementation manners

[0020] To make the objectives, features, and advantages of the present disclosure more obvious and understandable, the technical solutions in the embodiments of the present disclosure will be clearly and completely described below in conjunction with the accompanying drawings in the embodiments of the present disclosure. Obviously, the described embodiments are only a part of the embodiments of the present disclosure, rather than all embodiments. Based on the embodiments in the present disclosure, all other embodiments obtained by those skilled in the art without creative efforts fall within the protection scope of the present disclosure.

[0021] Figure 1 The structural schematic diagram of a baffle control system applied to a fishing port according to an embodiment of the present disclosure is shown Figure 1 .

[0022] As Figure 1 shown, the baffle control system applied to a fishing port includes: a first sealed cabin 1, a second sealed cabin 2, a main control room 3, an adjustable baffle assembly, and a traction device. The first sealed cabin 1 and the second sealed cabin 2 are respectively arranged on both sides of the adjustable baffle assembly. Sensor groups are arranged in the first sealed cabin 1 and the second sealed cabin 2. The sensor groups are used to collect the basic control data of the fishing port and monitor the hydrodynamic data of the fishing port in real time. The first sealed cabin 1 and the second sealed cabin 2 are respectively distributed up and down on both sides of the adjustable baffle assembly, and can measure the shallow water body flow velocity and the deep water body flow velocity, solve the data error caused by the existence of the stagnant water area, and improve the accuracy of hydrodynamic monitoring.

[0023] Among them, the sensor group includes a flow velocity sensor, a pressure sensor, a depth sensor, and an angle sensor. The flow velocity sensor is used to detect the flow velocity of the fishing port circulation, the pressure sensor is used to detect the pressure of the water flow on the adjustable baffle assembly, the depth sensor is used to detect the depth of the water flow distribution, and the angle sensor is used to detect the angle of the adjustable baffle assembly.

[0024] The main control room 3 is connected to the sensor group through the umbilical cable 5, receives the basic control data of the fishing port collected by the sensor group, analyzes the basic control data in the main control room 3 to determine the optimal baffle angle of the adjustable baffle assembly, and generates a corresponding signal control instruction. This signal control instruction is used to control the traction device so that the traction device pulls the adjustable baffle assembly for angle adjustment.

[0025] The umbilical cable 5 adopts a composite cable structure, with power lines and signal lines integrated inside, forming a dual-channel for power supply and signal transmission, and can realize power supply and signal transmission between the main control room 3 and the sensor group. Among them, the power line can adopt a low-loss conductive material and a multi-layer insulation protection design, which can stably output the voltage and current adapted to the operation of each sensor group, and provide continuous and reliable power support for the sensor group; the signal line can adopt shielded twisted pair and anti-interference coating technology, so that the data of each sensor collected by the sensor group can be transmitted at high speed and low latency. The main control room 3 is connected to the umbilical cable 5 through a standardized interface, can accurately identify the data signals of each sensor in the sensor group, and perform real-time analysis and processing based on a preset algorithm, so as to realize the intelligent monitoring and precise control of the entire baffle control system, and effectively improve the stability of system operation and the reliability of data interaction.

[0026] The traction device is connected to the adjustable baffle assembly, and is used to receive the signal control instruction from the main control room 3 and adjust the angle of the adjustable baffle assembly according to this signal control instruction.

[0027] The adjustable baffle assembly is an execution unit for realizing water flow regulation. The adjustable baffle assembly includes a first movable baffle 41, a second movable baffle 42 and a middle fixed baffle 43. The baffle angles of the first movable baffle 41 and the second movable baffle 42 are adjustable. The adjustable baffle assembly is adjusted to the optimal baffle angle under the traction of the traction device. The middle fixed baffle 43 is used to form a stable hydrodynamic environment in the fishing port and support the flaring effect to accelerate the water flow into the bottom of the port.

[0028] In an implementable embodiment, the system further includes a baffle base 44, which is connected to the middle fixed baffle 43. The middle fixed baffle 43 is connected to the bottom of the water through a mooring cable 6. The mooring cable 6 and the baffle base 44 can stabilize the middle fixed baffle 43.

[0029] The present application is applied to a baffle control system for fishing ports. The basic control data of the fishing port is obtained through the sensor groups in the first sealed cabin 1 and the second sealed cabin 2. The main control room 3 analyzes the basic control data to determine the optimal baffle angle of the adjustable baffle assembly, generates corresponding signal control instructions, and the signal control instructions control the traction device to adjust the angle of the adjustable baffle assembly so that the adjustable baffle assembly is adjusted to the optimal baffle angle. Each module of the baffle control system of the present application closely cooperates to achieve the intelligent and precise control of the water area environment of the fishing port, ensuring the continuous optimization of the hydrodynamic environment of the fishing port.

[0030] In an implementable embodiment, as Figure 2 shown, the main control room is used to obtain the basic control data, analyze the basic control data, determine the optimal baffle angle of the adjustable baffle assembly, and generate corresponding signal control instructions to control the traction device to adjust the angle of the adjustable baffle assembly, including: Step 201, the main control room obtains the first flow velocity data in the basic control data; Step 202, compare the first flow velocity data with the flow velocity threshold to obtain a comparison result; Step 203, if the comparison result indicates that the first flow velocity data does not meet the flow velocity threshold, generate a signal control instruction to control the traction device to adjust the angle of the first movable baffle; Step 204, if the comparison result indicates that the first flow velocity data meets the flow velocity threshold, generate a signal control instruction to control the traction device to adjust the angle of the second movable baffle.

[0031] After the main control room 3 obtains the basic control data of the sensor group, it obtains the first flow velocity data therein. The first flow velocity data refers to the flow velocity of the water entering the bottom of the fishing port. The first flow velocity data is compared with the flow velocity threshold to obtain a comparison result. The flow velocity threshold is a reasonable flow velocity interval including the expected flow velocity data, and the flow velocity threshold and the expected flow velocity data can be determined according to the actual situation. If the comparison result indicates that the first flow velocity data does not meet the flow velocity threshold, it means that the first flow velocity data is quite different from the expected flow velocity data. Therefore, the main control room 3 generates a signal control instruction to control the traction device to adjust the angle of the first movable baffle 41 to achieve a rough adjustment of the flow velocity data. If the comparison result indicates that the first flow velocity data meets the flow velocity threshold, it means that the first flow velocity data is quite close to the expected flow velocity data. Therefore, the main control room 3 generates a signal control instruction to control the traction device to adjust the angle of the second movable baffle 42 to achieve a fine adjustment of the flow velocity data.

[0032] When the first flow rate data differs significantly from the desired flow rate data, a relatively large angle adjustment value can be set when adjusting the angle of the first movable baffle 41 through a signal control instruction, so that the adjusted flow rate data can quickly approach the desired flow rate data; when the first flow rate data differs slightly from the desired flow rate data, a relatively small angle adjustment value can be set when adjusting the angle of the second movable baffle 42 through a signal control instruction, so that the adjusted flow rate data can gradually approach the desired flow rate data.

[0033] It can be understood that after each adjustment of the angle of the adjustable baffle assembly, the second flow rate data of the water flowing into the bottom of the fishing port is obtained again until the second flow rate data meets the desired flow rate data, guiding the water flow to form a stable circulation, and recording the adjustment process of the adjustable baffle assembly. The baffle control system can adapt to the change of the tidal environment and adaptively adjust the angle during long-term operation to keep the circulation flow rate at the desired flow rate data.

[0034] In an implementable embodiment, if the comparison result indicates that the first flow rate data does not meet the flow rate threshold, a signal control instruction is generated to control the traction device to adjust the angle of the first movable baffle, including: If the comparison result indicates that the first flow rate data is less than the flow rate threshold, a signal control instruction is generated to control the traction device to increase the angle of the first movable baffle; If the comparison result indicates that the first flow rate data is greater than the flow rate threshold, a signal control instruction is generated to control the traction device to decrease the angle of the first movable baffle.

[0035] When the comparison result indicates that the first flow rate data is less than the flow rate threshold, it indicates that the flow rate of the water flowing into the bottom of the fishing port is low, and it is necessary to increase the flow rate of the water flowing into the bottom of the fishing port. The main control room 3 generates a signal control instruction to control the traction device to increase the angle of the first movable baffle 41 to increase the opening ratio of the adjustable baffle assembly and accelerate the water flow into the bottom of the fishing port. When the comparison result indicates that the first flow rate data is greater than the flow rate threshold, it indicates that the flow rate of the water flowing into the bottom of the fishing port is high, and it is necessary to decrease the flow rate of the water flowing into the bottom of the fishing port. The main control room 3 generates a signal control instruction to control the traction device to decrease the angle of the first movable baffle 41 to decrease the opening ratio of the adjustable baffle assembly and relieve the water flow into the bottom of the fishing port.

[0036] Figure 3 The structure diagram of a baffle control system applied to a fishing port according to an embodiment of the present disclosure is shown Figure 2 。

[0037] In an implementable embodiment, as Figure 3As shown in the figure, the traction device includes a first traction module and a second traction module. The first traction module and the second traction module are arranged on both sides of the adjustable baffle assembly and are used to traction the first movable baffle 41 and the second movable baffle 42 to change the angles of the first movable baffle 41 and the second movable baffle 42. The first traction module includes a first pulling rope 71, a first sliding rail 72 and a first baffle positioner 73. The first baffle positioner 73 is connected to the first sliding rail 72. One end of the first pulling rope 71 is connected to the first movable baffle 41, and the other end is connected to the first baffle positioner 73. The second traction module includes a second pulling rope 74, a second sliding rail 75 and a second baffle positioner 76. The second baffle positioner 76 is connected to the second sliding rail 75. One end of the second pulling rope 74 is connected to the second movable baffle 42, and the other end is connected to the second baffle positioner 76. The first pulling rope 71 and the second pulling rope 74 are used to apply tensile force to the first movable baffle 41 and the second movable baffle 42. When the pulling ropes are pulled, the force is transmitted to the first movable baffle 41 and the second movable baffle 42 through the tension. The first sliding rail 72 and the second sliding rail 75 are used to ensure the stable sliding of the first movable baffle 41 and the second movable baffle 42 along a fixed direction. The first baffle positioner 73 and the second baffle positioner 76 are used to fix the first movable baffle 41 and the second movable baffle 42 at the target positions. The first traction module drives the first baffle positioner 73 to move along the first sliding rail 72 through an angle change control signal, so that the first movable baffle 41 can be flexibly adjusted. The second traction module drives the second baffle positioner 76 to move along the second sliding rail 75 through the angle change control signal, so that the second movable baffle 42 can be flexibly adjusted.

[0038] In an implementable embodiment, as Figure 3 shown, the system further includes a main control room buoy 81, a first baffle buoy 82 and a second baffle buoy 83. The main control room buoy 81, the first baffle buoy 82 and the second baffle buoy 83 are all arranged on the water surface and can provide support, stability and identification for the baffle control system to form a water area control support system. The main control room buoy 81 is connected to the bottom of the water through an anchor rope. The anchor rope has the characteristics of anti-tensile and anti-corrosion to effectively resist the impact of water flow and tidal changes. The main control room 3 is arranged on the main control room buoy 81 to ensure the stable suspension of the main control room 3 on the water surface. The first baffle buoy 82 is connected to the first movable baffle 41 through a connecting piece, and the second baffle buoy 83 is connected to the second movable baffle 42 through a connecting piece.

[0039] In an implementable embodiment, as Figure 3As shown in the figure, the first movable baffle 41 includes a first pull ring 411, a second pull ring 412, and a third pull ring 413, and the second movable baffle 42 includes a fourth pull ring 421, a fifth pull ring 422, and a sixth pull ring 423; the first pull ring 411 is connected to the first baffle buoy 82, and the fourth pull ring 421 is connected to the second baffle buoy 83; the second pull ring 412 is connected to the first pull rope 71, and the fifth pull ring 422 is connected to the second pull rope 74; the third pull ring 413 is connected to the first baffle positioner 73, and the sixth pull ring 423 is connected to the second baffle positioner 76. One end of the first pull rope 71 is connected to the second pull ring 412, and the other end is connected to the first baffle positioner 73, for applying a pulling force to the first movable baffle 41. One end of the second pull rope 74 is connected to the fifth pull ring 422, and the other end is connected to the second baffle positioner 76, for applying a pulling force to the second movable baffle 42.

[0040] In an implementable embodiment, the main control room 3 includes a main control module and a lifting control module. The main control module is respectively connected to the sensor group and the lifting control module, and the lifting control module is connected to the first sealed cabin 1 and the second sealed cabin 2. The main control module is used to receive basic control data, generate a lifting control signal according to the basic control data, and send the lifting control signal to the lifting control module. The lifting control module is used to control the up and down movement of the first sealed cabin 1 and the second sealed cabin 2 under the action of the lifting control signal, so as to measure the flow velocity of the shallow water layer and the flow velocity of the deep water layer on the side of the first movable baffle 41 and the side of the second movable baffle 42 at different times. The lifting control module can be an electric winch, and the electric winch is connected to the first sealed cabin 1 and the second sealed cabin 2 through a winch rope.

[0041] Figure 4 The figure shows a schematic structure of a baffle regulation system according to an embodiment of the present disclosure applied to a fishing port Figure 3 。

[0042] In an implementable embodiment, as Figure 4 shown in the figure, the system includes a first slider 91 and a second slider 92. The first slider 91 is slidably installed on the first movable baffle 41, and the second slider 92 is slidably installed on the second movable baffle 42. The first sealed cabin 1 is connected to the first slider 91, and the second sealed cabin 2 is connected to the second slider 92. Through the first slider 91, the first sealed cabin 1 can move up and down along the first movable baffle 41. Through the second slider 92, the second sealed cabin 2 can move up and down along the second movable baffle 42.

[0043] In an implementable embodiment, the main control room 3 includes a feedback learning module. The feedback learning module is used to optimize the baffle adjustment strategy according to historical data, including: Recording the adjustment data during the process of adjusting the adjustable baffle assembly to the optimal baffle angle; Judge whether there is a repeated operation in the adjustment process according to the adjustment data; If there is a repeated operation in the adjustment process, optimize the control of the adjustment process.

[0044] During the process of adjusting the adjustable baffle assembly to make the adjustable baffle assembly adjust to the optimal baffle angle, record the adjustment data of the adjustment process. The adjustment data includes the detected flow rate data and the corresponding angle of the adjustable baffle assembly. According to this adjustment data, it can be judged whether there is a repeated operation in the adjustment process. For example, when the first flow rate data is less than the flow rate threshold, the angle of the first movable baffle 41 needs to be increased. After the angle of the first movable baffle 41 is increased for the first time, if the first flow rate data is still less than the flow rate threshold, the angle of the first movable baffle 41 needs to be increased for the second time. Then, according to the above adjustment process, when adjusting the angle of the first movable baffle 41, the adjustment angle value of a single adjustment can be appropriately increased to reduce the number of adjustments. The feedback learning module learns according to a large amount of adjustment data, and when adjusting the angle of the adjustable baffle assembly later, a better adjustment strategy can be selected.

[0045] In an implementable manner, the system further includes an energy supply module. The energy supply module includes a solar panel, a wind turbine, a storage battery, a solar controller, and an inverter. The energy supply module is used to provide energy for the baffle control system.

[0046] The energy supply module is used to provide energy for the baffle control system to ensure the long-term stable operation of the baffle control system. The solar energy and the wind turbine are used to provide renewable energy to supply power to the system. The storage battery and the solar controller are used to ensure that the system can still be stably powered in a non-light environment. The inverter is used to convert electrical energy to adapt to the power supply requirements of different modules.

[0047] The energy supply module, as the core guarantee for stable operation, is composed of a solar panel, a wind turbine, a storage battery, a solar controller, and an inverter working together. The solar panel converts solar energy into electrical energy through the photovoltaic effect and generates electricity efficiently when the light is sufficient. The wind turbine captures wind energy through the wind wheel and converts the wind energy into electrical energy. The two provide clean renewable energy for the system. The solar controller can monitor the output voltage and current of the solar panel in real time, avoid overcharging and over-discharging phenomena, optimize the charging efficiency, and ensure the safe and stable storage of electrical energy in the storage battery. The storage battery, as the energy storage center, stores excess electrical energy during the day when the light and wind conditions are good, and continuously releases electrical energy at night or when the light is insufficient and the wind is weak in bad weather to ensure the continuous operation of the system in a non-light condition. The inverter is used to convert electrical energy, so that both the precise monitoring of the sensor and the operation of the baffle control system can obtain a stable and adapted energy supply, thereby ensuring the long-term reliable operation of the entire baffle control system.

[0048] It should be understood that the various forms of processes shown above can be used, with steps reordered, added, or deleted. For example, the steps described in this disclosure can be executed in parallel, sequentially, or in a different order, as long as the desired results of the technical solutions disclosed in this disclosure can be achieved, and this is not limited herein.

[0049] In addition, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the quantity of the indicated technical features. Thus, features defined with "first" and "second" may explicitly or implicitly include at least one of such features. In the description of this disclosure, "a plurality of" means two or more, unless otherwise specifically defined.

[0050] As described above, the above are only specific embodiments of this disclosure, but the protection scope of this disclosure is not limited thereto. Any person skilled in the art within the technical scope disclosed in this disclosure can easily think of changes or substitutions, which should all be covered within the protection scope of this disclosure. Therefore, the protection scope of this disclosure should be subject to the protection scope of the claims.

Claims

1. A baffle control device applied to a fishing port, characterized in that The device includes: a first sealed cabin, a second sealed cabin, a main control room, an adjustable baffle assembly, and a traction device; The first sealed cabin and the second sealed cabin are respectively arranged on both sides of the adjustable baffle assembly. Sensor groups are arranged in the first sealed cabin and the second sealed cabin for collecting basic control data of the fishing port; The main control room is used to obtain the basic control data, analyze the basic control data, determine the optimal baffle angle of the adjustable baffle assembly, generate corresponding signal control instructions to control the traction device to adjust the angle of the adjustable baffle assembly. The main control room is connected to the sensor group through an umbilical cable; The traction device is connected to the adjustable baffle assembly for adjusting the angle of the adjustable baffle assembly; The adjustable baffle assembly includes a first movable baffle, a second movable baffle, and a middle fixed baffle. The baffle angles of the first movable baffle and the second movable baffle are adjustable. The adjustable baffle assembly is adjusted to the optimal baffle angle under the traction of the traction device.

2. The device according to claim 1, characterized in that The main control room is used to obtain the basic control data, analyze the basic control data, determine the optimal baffle angle of the adjustable baffle assembly, and generate corresponding signal control instructions to control the traction device to adjust the angle of the adjustable baffle assembly, including: The main control room obtains the first flow rate data in the basic control data; Compare the first flow rate data with a flow rate threshold to obtain a comparison result; If the comparison result indicates that the first flow rate data does not meet the flow rate threshold, generate a signal control instruction to control the traction device to adjust the angle of the first movable baffle; If the comparison result indicates that the first flow rate data meets the flow rate threshold, generate a signal control instruction to control the traction device to adjust the angle of the second movable baffle.

3. The device according to claim 2, characterized in that, The step that if the comparison result indicates that the first flow rate data does not meet the flow rate threshold, generate a signal control instruction to control the traction device to adjust the angle of the first movable baffle, includes: If the comparison result indicates that the first flow rate data is less than the flow rate threshold, generate a signal control instruction to control the traction device to increase the angle of the first movable baffle; If the comparison result indicates that the first flow rate data is greater than the flow rate threshold, generate a signal control instruction to control the traction device to decrease the angle of the first movable baffle.

4. The device according to claim 1, characterized in that, The traction device includes a first traction module and a second traction module. The first traction module and the second traction module are arranged on both sides of the adjustable baffle assembly; The first traction module includes a first pulling rope, a first slide rail, and a first baffle positioner. The first baffle positioner is connected to the first slide rail. One end of the first pulling rope is connected to the first movable baffle, and the other end is connected to the first baffle positioner; The second traction module includes a second pulling rope, a second slide rail, and a second baffle positioner. The second baffle positioner is connected to the second slide rail. One end of the second pulling rope is connected to the second movable baffle, and the other end is connected to the second baffle positioner.

5. The device according to claim 4, characterized in that, The device further includes a main control room buoy, a first baffle buoy, and a second baffle buoy. The main control room is arranged on the main control room buoy. The main control room buoy is connected to the bottom of the water through an anchor rope. The first baffle buoy is connected to the first movable baffle, and the second baffle buoy is connected to the second movable baffle.

6. The device according to claim 5, characterized in that, The first movable baffle includes a first pull ring, a second pull ring, and a third pull ring. The second movable baffle includes a fourth pull ring, a fifth pull ring, and a sixth pull ring. The first pull ring is connected to the first baffle buoy, and the fourth pull ring is connected to the second baffle buoy. The second pull ring is connected to the first pulling rope, and the fifth pull ring is connected to the second pulling rope. The third pull ring is connected to the first baffle positioner, and the sixth pull ring is connected to the second baffle positioner.

7. The device according to claim 1, characterized in that The main control room includes a main control module and a lifting control module. The main control module is respectively connected to the sensor group and the lifting control module. The lifting control module is connected to the first sealed cabin and the second sealed cabin. The main control module is configured to receive the basic control data, generate a lifting control signal according to the basic control data, and send the lifting control signal to the lifting control module. The lifting control module is configured to control the up and down movement of the first sealed cabin and the second sealed cabin under the action of the lifting control signal.

8. The device according to claim 1, characterized in that, The device includes a first slider and a second slider. The first slider is slidably installed on the first movable baffle, and the second slider is slidably installed on the second movable baffle. The first sealed cabin is connected to the first slider, and the second sealed cabin is connected to the second slider.

9. The device according to claim 1, wherein The main control room includes a feedback learning module. The feedback learning module is configured to optimize the baffle adjustment strategy according to historical data, including: Recording the adjustment data during the process of adjusting the adjustable baffle assembly to the optimal baffle angle; Judging whether there are repeated operations in the adjustment process according to the adjustment data; If there are repeated operations in the adjustment process, performing optimized control on the adjustment process.

10. The device according to claim 1, characterized in that, The device further includes an energy supply module. The energy supply module includes a solar panel, a wind turbine generator, a storage battery, a solar controller, and an inverter. The energy supply module is configured to provide energy for the baffle control device.

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