Wind resistance regulation and control method for low-carbon building power supply assembly

Abstract

The invention relates to the technical field of regulation and control methods, and discloses a wind resistance regulation and control method for a low-carbon building power supply assembly, and the method comprises the following steps: S1, modeling and evaluating wind energy output characteristics; s2, presetting and determining a monitoring position; s3, performing real-time adjustment by applying an intelligent control system; s4, activating a wind resistance regulation and control mode; s5, pre-judging and preparing operation in a high-wind-speed environment; s6, automatically cutting off power supply output to avoid potential safety hazards; s7, regular maintenance is carried out to ensure long-term efficient operation of the wind resistance regulation and control method for the low-carbon building power supply assembly, the wind energy utilization rate is improved, the rotating speed and posture of the rotor wings of the assembly are reasonably controlled according to the wind speed change through real-time regulation of an intelligent control system, wind energy resources are utilized to the maximum extent, and the conversion efficiency of wind energy is improved; the activation of the wind-resistant regulation and control mode effectively inhibits the influence of wind power on the assembly, and reduces the vibration and swing caused by wind, thereby maintaining the stability and reliability of the power supply system.

Description

Technical Field

[0001] The present invention relates to the technical field of regulation methods, and specifically to a wind resistance regulation method for a low-carbon building power supply component. Background Technique

[0002] This research proposes a wind resistance regulation method aiming to improve the wind energy utilization rate and system stability of low-carbon building power supply components. By modeling and evaluating the wind energy output characteristics, pre-adjusting and determining the monitoring positions, and applying an intelligent control system for real-time adjustment, it effectively addresses the operation challenges in high wind speed environments. This method activates the wind resistance regulation mode, anticipates high wind speed situations, and automatically cuts off the power supply output to ensure safety, enhancing the adaptability and flexibility of the power supply system. At the same time, regular maintenance can improve the long-term efficient operation of the components and reduce maintenance costs.

[0003] However, there are currently some technical problems to be solved:

[0004] 1. There is still room for improvement in the intelligence level and response speed of the control system, and further research and development of algorithms and hardware are needed.

[0005] 2. The high-precision wind speed and wind direction monitoring technology is not yet mature, and more reliable and accurate sensors are needed to obtain real-time wind energy parameters.

[0006] 3. In high wind speed environments, the structural design and material selection of the components still need to be optimized to improve the wind resistance ability and reduce the impact of vibration on the system.

[0007] Solving these technical problems will further enhance the application effect of the wind resistance regulation method in the field of low-carbon building power supply and promote the sustainable development of renewable energy. Summary of the Invention

[0008] (I) Technical Problems to be Solved

[0009] In view of the deficiencies of the prior art, the present invention provides a wind resistance regulation method for a low-carbon building power supply component, which solves the technical problems raised in the above background technique.

[0010] (II) Technical Solutions

[0011] To achieve the above object, the present invention provides the following technical solutions: A wind resistance regulation method for a low-carbon building power supply component, including the following steps:

[0012] S1: Modeling and evaluating the wind energy output characteristics;

[0013] S2: Pre-adjusting and determining the monitoring positions;

[0014] S3: Applying an intelligent control system for real-time adjustment;

[0015] S4: The wind resistance control mode is activated;

[0016] S5: Anticipate and prepare for operation in a high wind speed environment;

[0017] S6: Automatically cut off the power supply output to avoid safety hazards;

[0018] S7: Regular maintenance to ensure long-term efficient operation.

[0019] Preferably, for the step S1 of modeling and evaluating the wind energy output characteristics, first, it is necessary to model the wind energy output of the power supply component of this low-carbon building, analyze its natural frequency and amplitude response step characteristics, and evaluate the wind resistance performance of this component.

[0020] Preferably, for the step S2 of pre-adjusting and determining the monitoring position, before formal installation, it is necessary to pre-adjust the power supply component of this low-carbon building, determine the monitoring position of the wind speed, and adjust the attitude and direction according to the measured results.

[0021] Preferably, for the step S3 of applying an intelligent control system for real-time adjustment, after installation, by applying an intelligent control system, according to the local weather forecast and the real-time monitored wind speed data, adjust the rotor speed of the component, and adjust the attitude of the component in real time according to the wind speed change.

[0022] Preferably, for the step S4 of activating the wind resistance control mode, when a large wind speed change is detected, the intelligent control system will activate the wind resistance control mode, and effectively suppress the impact of the wind on the component by quickly adjusting the speed and attitude of the component.

[0023] Preferably, for the step S5 of anticipating and preparing for operation in a high wind speed environment, in addition, this intelligent control system can also anticipate the wind speed in advance according to the local weather forecast, and make preparations for adjusting the component to ensure the reliable operation of the component in a high wind speed environment.

[0024] Preferably, for the step S6 of automatically cutting off the power supply output to avoid safety hazards, in order to ensure the safety performance of the component, when a wind speed exceeding the standard event occurs, the intelligent control system will automatically cut off the power supply output of the component to avoid safety hazards during the operation of the component.

[0025] Preferably, for the step S7 of regular maintenance to ensure long-term efficient operation, finally, it is necessary to carry out regular maintenance, clean, repair and replace aging components of the component to ensure the long-term efficient operation of the component.

[0026] (III) Beneficial effects

[0027] Compared with the prior art, the present invention provides a wind resistance control method for a power supply component of a low-carbon building, and has the following beneficial effects:

[0028] 1. The wind resistance regulation method of the power supply component for the low-carbon building improves the wind energy utilization rate. Through the real-time adjustment of the intelligent control system, it reasonably controls the rotor speed and attitude of the component according to the wind speed change, maximally utilizes the wind energy resources, improves the conversion efficiency of wind energy, and enhances the stability of the power supply system: The activation of the wind resistance regulation mode effectively suppresses the influence of the wind on the component, reduces the vibration and swing caused by the wind, and thus maintains the stability and reliability of the power supply system.

[0029] 2. The wind resistance regulation method of the power supply component for the low-carbon building improves the safety performance. The intelligent control system can predict according to the wind speed and make preparations for component adjustment in advance, avoiding potential safety hazards caused by high wind speed environments. At the same time, when a wind speed exceeding the standard event occurs, it automatically cuts off the power output to ensure safety, enhancing the adaptability and flexibility of the system: By modeling and evaluating the wind energy output characteristics, as well as pre-adjusting and determining the monitoring positions, the component is adjusted and optimized according to the specific situation, improving the adaptability and flexibility of the system., Extend the life of the component and reduce the maintenance cost: Regular maintenance keeps the component in good operating condition and extends the life of the component. At the same time, through the precise adjustment and control of the intelligent control system, the losses and damages caused by wind factors are reduced, and the maintenance cost is lowered. Description of the Drawings

[0030] Figure 1 It is a schematic flow diagram of the present invention;

[0031] Figure 2 It is a schematic diagram of the wind resistance component of the present invention. Detailed Embodiments

[0032] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0033] A wind resistance regulation method for a low-carbon building power supply component, comprising the following steps: S1: Modeling and evaluating the wind energy output characteristics; S2: Pre-adjusting and determining the monitoring positions; S3: Applying an intelligent control system for real-time adjustment; S4: Activating the wind resistance regulation mode; S5: Anticipating and preparing for operation in a high wind speed environment; S6: Automatically cutting off the power supply output to avoid safety hazards; S7: Regular maintenance to ensure long-term efficient operation. In the step S1 of modeling and evaluating the wind energy output characteristics, first, it is necessary to model the wind energy output of the low-carbon building power supply component, analyze its natural frequency and amplitude response step characteristics, and evaluate the wind resistance performance of the component. In the step S2 of pre-adjusting and determining the monitoring positions, before formal installation, it is necessary to pre-adjust the low-carbon building power supply component, determine the monitoring positions of the wind speed, and adjust the attitude and direction according to the measured results. In the step S3 of applying an intelligent control system for real-time adjustment, after installation, by applying an intelligent control system, according to the local weather forecast and the real-time monitored wind speed data, the rotor speed of the component is adjusted, and the attitude of the component is adjusted in real time according to the wind speed change. In the step S4 of activating the wind resistance regulation mode, when a large wind speed change is detected, the intelligent control system will activate the wind resistance regulation mode, and effectively suppress the impact of the wind on the component by quickly adjusting the speed and attitude of the component. In the step S5 of anticipating and preparing for operation in a high wind speed environment, in addition, the intelligent control system can also make a wind speed prediction in advance according to the local weather forecast and make preparations for the adjustment of the component to ensure the reliable operation of the component in a high wind speed environment. In the step S6 of automatically cutting off the power supply output to avoid safety hazards, in order to ensure the safety performance of the component, when a wind speed over-limit event occurs, the intelligent control system will automatically cut off the power supply output of the component to avoid safety hazards during the operation of the component. In the step S7 of regular maintenance to ensure long-term efficient operation, finally, regular maintenance is required to clean, repair and replace aging components of the component to ensure the long-term efficient operation of the component. The wind resistance regulation method of the low-carbon building power supply component improves the wind energy utilization rate. Through the real-time adjustment of the intelligent control system, the rotor speed and attitude of the component are reasonably controlled according to the wind speed change, maximizing the utilization of wind energy resources and improving the conversion efficiency of wind energy. It enhances the stability of the power supply system: The activation of the wind resistance regulation mode effectively suppresses the impact of the wind on the component, reduces the vibration and swing caused by the wind, and thus maintains the stability and reliability of the power supply system;

[0034] To implement an intelligent control system for a low-carbon building power supply component, the following main components are required: environmental monitoring sensors, actuators, controllers, data processors, and communication devices. Installation of environmental monitoring sensors: Install wind speed and wind direction sensors at appropriate positions around the low-carbon building power supply component. The data collected by the sensors will be used for real-time adjustment and prediction of the intelligent control system. To ensure data accuracy, sensors with high precision, long lifespan, and anti-interference capabilities should be selected, and installation and calibration should be carried out strictly in accordance with the installation instructions. Installation of actuators: Install actuators (such as speed control motors) on the low-carbon building power supply component. One or more actuators can be installed as needed. During installation, strict compliance with the manufacturer's requirements should be ensured, and it should be ensured that the actuators can accurately perform the required operations and adjustments. Installation of the controller and data processor: Install the controller and data processor inside and outside the low-carbon building power supply component respectively. The controller is responsible for real-time monitoring of wind speed and wind direction, as well as the operation and adjustment of the actuators, while the data processor is responsible for processing and analyzing the data collected by the sensors and communicating and coordinating with the controller. During installation, carefully read the instructions for the controller and data processor and make the correct connections and wiring according to the instructions. Installation of communication devices: To enable the intelligent control system to achieve remote monitoring and control, communication devices (such as WIFI modules) need to be installed on the low-carbon building power supply component. During installation, correct installation and configuration should be carried out according to the device's instructions, and the stability and reliability of signal transmission should be ensured.

[0035] The intelligent control system collects real-time wind speed and wind direction data through environmental monitoring sensors, and then inputs this data into the controller for processing. According to the preset algorithms and control strategies, the controller can automatically adjust the operating states of the power supply components of the low-carbon building, including rotor speed, attitude, output power, etc. In a high-wind-speed environment, the controller can automatically adjust the rotor speed and attitude of the components according to the real-time wind speed and wind direction data to offset the influence of the wind on the components, thus maintaining the stability and reliability of the components. Additionally, in a low-wind-speed environment, the controller can dynamically adjust the rotor speed and angle according to the real-time data to maximize the utilization of wind energy resources. Through the real-time adjustment and prediction of the intelligent control system, the adaptability, flexibility, and intelligence of the power supply components of the low-carbon building can be achieved, maximizing the wind energy conversion efficiency and the stability and safety of the system; the wind resistance regulation method of the power supply components of the low-carbon building improves the safety performance. The intelligent control system can anticipate according to the wind speed, make preparations for component adjustment in advance, avoid potential safety hazards caused by high-wind-speed environments, and at the same time, automatically cut off the power output to ensure safety when a wind speed over-limit event occurs, enhancing the adaptability and flexibility of the system: By modeling and evaluating the wind energy output characteristics, as well as pre-adjusting and determining the monitoring positions, the components are adjusted and optimized according to specific situations, improving the adaptability and flexibility of the system., extending the lifespan of the components and reducing the maintenance cost: Regular maintenance keeps the components in good operating condition, extending the lifespan of the components. At the same time, through the precise adjustment and control of the intelligent control system, the losses and damages caused by wind factors are reduced, and the maintenance cost is lowered.

[0036] Although the embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A wind resistance regulation method for a low-carbon building power supply component, characterized in that, It includes the following steps: S1: Model and evaluate the wind energy output characteristics; S2: Pre-tune and determine the monitoring positions; S3: Apply an intelligent control system for real-time adjustment; S4: Activate the wind resistance control mode; S5: Anticipate and prepare for operation in high wind speed environments; S6: Automatically cut off the power supply output to avoid safety hazards; S7: Conduct regular maintenance to ensure long-term efficient operation.

2. The wind resistance regulation method of a low-carbon building power supply component according to claim 1, characterized in that, For the step S1 of modeling and evaluating the wind energy output characteristics, first, it is necessary to model the wind energy output of the power supply components of this low-carbon building, analyze its natural frequency and amplitude response step characteristics, and evaluate the wind resistance performance of this component.

3. The wind resistance regulation method of a low-carbon building power supply component according to claim 1, characterized in that, For the step S2 of pre-tuning and determining the monitoring positions, before formal installation, it is necessary to pre-tune the power supply components of this low-carbon building, determine the monitoring positions of the wind speed, and adjust the attitude and direction according to the measured results.

4. A wind resistance regulation method for a low-carbon building power supply component according to claim 1, characterized in that For the step S3 of applying an intelligent control system for real-time adjustment, after installation, by applying an intelligent control system, according to the local weather forecast and the real-time monitored wind speed data, adjust the rotor speed of the component, and adjust the attitude of the component in real time according to the wind speed change.

5. A wind resistance regulation method for a low-carbon building power supply component according to claim 1, characterized in that, For the step S4 of activating the wind resistance control mode, when a large wind speed change is detected, the intelligent control system will activate the wind resistance control mode, and effectively suppress the impact of the wind force on the component by quickly adjusting the speed and attitude of the component.

6. The wind resistance regulation method of a low-carbon building power supply component according to claim 1, characterized in that, For the step S5 of anticipating and preparing for operation in high wind speed environments, in addition, this intelligent control system can also anticipate the wind speed in advance according to the local weather forecast, and make preparations for adjusting the component to ensure the reliable operation of the component in high wind speed environments.

7. A wind resistance regulation method for a low-carbon building power supply component according to claim 1, characterized in that For the step S6 of automatically cutting off the power supply output to avoid safety hazards, in order to ensure the safety performance of the component, when a wind speed over-limit event occurs, the intelligent control system will automatically cut off the power supply output of the component to avoid safety hazards during the operation of the component.

8. The wind resistance regulation method of a low-carbon building power supply component according to claim 1, characterized in that, For the step S7 of conducting regular maintenance to ensure long-term efficient operation, finally, it is necessary to conduct regular maintenance, clean, repair and replace aging components of the component to ensure the long-term efficient operation of the component.

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