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CN107061183A - A kind of automation method for diagnosing faults of offshore wind farm unit - Google Patents

A kind of automation method for diagnosing faults of offshore wind farm unit Download PDF

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Publication number
CN107061183A
CN107061183A CN201710032036.1A CN201710032036A CN107061183A CN 107061183 A CN107061183 A CN 107061183A CN 201710032036 A CN201710032036 A CN 201710032036A CN 107061183 A CN107061183 A CN 107061183A
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signal
analysis
sensor
fault
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黄林冲
梁禹
黄帅
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Sun Yat Sen University
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    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F05INDEXING SCHEMES RELATING TO ENGINES OR PUMPS IN VARIOUS SUBCLASSES OF CLASSES F01-F04
    • F05BINDEXING SCHEME RELATING TO WIND, SPRING, WEIGHT, INERTIA OR LIKE MOTORS, TO MACHINES OR ENGINES FOR LIQUIDS COVERED BY SUBCLASSES F03B, F03D AND F03G
    • F05B2260/00Function
    • F05B2260/80Diagnostics

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Abstract

本发明公开了一种海上风电机组的自动化故障诊断方法,所述方法包括以下步骤:在所要诊断的海上风电机结构安装所要监测项目的传感器;对传感器所提取的信号进行预处理,去除提取信号中含有的无用的或干扰信号;对所述的进行预处理过以后的信号进行具体的数据分析,去伪存真;将信号进行数据分析后所得幅值与数据分析设置的故障阈值进行对比分析,然后确定风电机结构是否处于出现故障;根据故障的情况决定采用相对应的应对措施。本发明能够对海上风电机组运行状态进行即时报警、故障分析和对潜在的故障进行预测报警,对于降低风电机组突发故障、减少不必要的损失等有重要的价值。

The invention discloses an automatic fault diagnosis method for an offshore wind power unit. The method includes the following steps: installing a sensor for a monitoring item on the offshore wind power structure to be diagnosed; performing preprocessing on the signal extracted by the sensor, and removing the extracted signal useless or interfering signals contained in the signal; carry out specific data analysis on the signal after the preprocessing, remove the false and save the true; compare and analyze the amplitude obtained after the data analysis of the signal with the fault threshold set by the data analysis, and then determine Whether the structure of the wind turbine is in failure; according to the situation of the failure, it is decided to take corresponding countermeasures. The invention can perform real-time alarm, fault analysis and potential fault prediction and alarm for the operating state of the offshore wind turbine, and is of great value in reducing sudden failures of the wind turbine and reducing unnecessary losses.

Description

一种海上风电机组的自动化故障诊断方法An automatic fault diagnosis method for offshore wind turbines

技术领域technical field

本发明涉及一种故障诊断方法,尤其涉及一种海上风电机组的自动化故障诊断方法。The invention relates to a fault diagnosis method, in particular to an automatic fault diagnosis method for an offshore wind turbine.

背景技术Background technique

风力发电机组运行时的故障是影响风电运营企业效益的关键之一。一般来说,风电机组运行故障是决定机组能否长期稳定运行的关键因素,其产生机理复杂,涉及因素众多。目前风电场的运行维护主要通过机组主控系统监测和定期巡检的方式来了解机组的运行状态。由于构成附件运行状态的信息量大,运算处理过程复杂,特别是对于高采样频率所获取的海量数据的处理需要一定的时间周期;而事后的故障诊断往往不及挽回故障对风电机组造成的损坏。因此,构建风电机组在线监测、实时报警与故障诊断系统,对于监控运行工况、及时采取适当措施,预防和减少机组故障的发生,以及通过深度数据分析进行故障预警,实现预知性维修,都是十分重要的。Faults during the operation of wind turbines are one of the keys that affect the benefits of wind power operating companies. Generally speaking, the operation failure of wind turbines is the key factor that determines whether the wind turbine can operate stably for a long time, and its mechanism is complex and involves many factors. At present, the operation and maintenance of wind farms mainly use the monitoring of the main control system of the unit and regular inspections to understand the operating status of the unit. Due to the large amount of information that constitutes the operating status of the accessories, the calculation and processing process is complex, especially for the processing of massive data obtained at high sampling frequency, which requires a certain period of time; and the subsequent fault diagnosis is often not enough to restore the damage caused by the fault to the wind turbine. Therefore, building an online monitoring, real-time alarm and fault diagnosis system for wind turbines is essential for monitoring operating conditions, taking appropriate measures in a timely manner, preventing and reducing the occurrence of unit failures, and performing early warning of failures through in-depth data analysis to achieve predictive maintenance. very important.

发明内容Contents of the invention

本发明的目的在于克服现有技术的缺陷,提供一种海上风电机组的自动化故障诊断方法,利用无线传感数据通信网,结合先进的计算机信息技术,以解决现有技术和系统对实时故障报警不及时的问题,实现对海上风电机组运行状态趋势分析和故障预警。The purpose of the present invention is to overcome the defects of the prior art, and provide an automatic fault diagnosis method for offshore wind turbines, using wireless sensor data communication network, combined with advanced computer information technology, to solve the real-time fault alarm of the prior art and system Untimely problems, realize trend analysis and fault warning of offshore wind turbine operation status.

为了实现上述目的,本发明采用了如下技术方案:In order to achieve the above object, the present invention adopts the following technical solutions:

一种海上风电机组的自动化故障诊断方法,其特征在于,所述诊断方法包括以下步骤:An automatic fault diagnosis method for offshore wind turbines, characterized in that the diagnosis method comprises the following steps:

a、在所要诊断的海上风电机组安装所要监测项目的传感器;a. Install sensors for the monitoring items on the offshore wind turbines to be diagnosed;

b、对传感器所提取的信号进行预处理,去除提取信号中含有的无用的或干扰信号;b. Preprocess the signal extracted by the sensor to remove useless or interference signals contained in the extracted signal;

c、对所述的进行预处理过以后的信号进行具体的数据分析,去伪存真;c. Carry out specific data analysis on the signal after the preprocessing, remove the false and preserve the true;

d、将信号进行数据分析后所得数值与数据分析设置的故障阈值进行对比分析,然后确定风电机组是否处于出现故障;d. Compare and analyze the value obtained after the data analysis of the signal with the failure threshold set by the data analysis, and then determine whether the wind turbine is in failure;

e、如果所得分析数据出现故障即已超过所设的故障阈值,系统进行报警,然后确定风电机出现故障的机理和出现的故障特征,进而确定出现故障的位置,最后进行决策,决策进行停机检修或者是继续监测;如果没有出现故障,则系统不报警,则可以决策继续进行检测;如果所得分析数据中有部分数据显示,可能机器风电机组已经存在轻微的故障或者磨损,则可以根据故障部位和相关部件进行提前预警或是提前保护。e. If the obtained analysis data fails, that is, it has exceeded the set failure threshold, the system will give an alarm, and then determine the mechanism and characteristics of the failure of the wind turbine, and then determine the location of the failure, and finally make a decision, and decide to stop for maintenance Or continue to monitor; if there is no fault, the system will not alarm, and you can decide to continue the detection; if some data in the obtained analysis data shows that there may be a slight fault or wear of the wind turbine of the machine, you can according to the fault location and Relevant components carry out early warning or early protection.

所述步骤a中的传感器包括低频压电加速度传感器,主要用于监测发电机组的主轴和齿轮箱的输入轴承;通用型压电加速度传感器,主要用于监测齿轮箱行星轮系、输出轴和发电机轴承的振动信号;转速传感器,主要用于测量风机主轴的转速和发电机转子的转速,应变传感器和位移传感器,分别用于叶片和塔筒的位移、倾覆等。The sensors in the step a include a low-frequency piezoelectric acceleration sensor, which is mainly used to monitor the main shaft of the generator set and the input bearing of the gearbox; a general-purpose piezoelectric acceleration sensor, which is mainly used to monitor the planetary gear train, output shaft and power generation of the gearbox. The vibration signal of the machine bearing; the speed sensor is mainly used to measure the speed of the fan main shaft and the speed of the generator rotor, the strain sensor and the displacement sensor are used for the displacement and overturning of the blade and the tower respectively.

在所述的传感器既有的数字接口和通信协议加装自组网通信模块。An ad hoc network communication module is added to the existing digital interface and communication protocol of the sensor.

所述诊断方法采用的无线数据采集系统包括数据采集装置和短距离无线接收发射装置,所述数据采集装置内置符合IEEE 802.15.4无线协议的ZigBee模块,能够对所采集的数据进行预处理,剔除大量的无用的或是干扰数据,并将处理数据传输给短距离无线接收发射装置。所述的无线发射接收装置与传感器中加装的自组网通信模块通过数据采集装置逐一配置,形成一对多点的无线分布式通信网,所述的无线分布式通信网系统可定时或随时实现对测点实时数据的自动采集,所述的数据采集装置具有休眠和后台唤醒功能,能够通过现场配置或数据管理端原先加载接口协议,实时执行后台采集和发送指令,无线发射接收装置收到数据采集装置发来的数据后通过WCDMA传输给用户数据分析平台。The wireless data acquisition system adopted by the diagnostic method includes a data acquisition device and a short-distance wireless receiving and transmitting device. The data acquisition device has a built-in ZigBee module conforming to the IEEE 802.15.4 wireless protocol, which can preprocess the collected data and eliminate A large amount of useless or interference data, and transmit the processing data to the short-distance wireless receiving and transmitting device. The wireless transmitting and receiving device and the ad hoc network communication module installed in the sensor are configured one by one through the data acquisition device to form a one-to-multipoint wireless distributed communication network. The wireless distributed communication network system can be scheduled or at any time Realize the automatic collection of real-time data of the measuring point. The data collection device has the functions of dormancy and background wake-up. It can be configured on-site or the data management terminal originally loads the interface protocol to execute background collection and send instructions in real time. The wireless transmitting and receiving device receives The data sent by the data acquisition device is transmitted to the user data analysis platform through WCDMA.

所述诊断步骤c中的数据分析处理系统是基于LabVIEW的数据分析平台。The data analysis and processing system in the diagnosis step c is a data analysis platform based on LabVIEW.

所述的数据分析平台方法包括:振动时域参数分析包括信号的幅域分析和信号的时域分析;振动信号频域分析包括信号的FFT频谱分析、信号的倒频谱分析和信号的功率谱分析;信号阶频谱分析;信号小波分析。The data analysis platform method includes: vibration time domain parameter analysis includes amplitude domain analysis of signal and time domain analysis of signal; frequency domain analysis of vibration signal includes FFT spectrum analysis of signal, cepstrum analysis of signal and power spectrum analysis of signal ; Signal order spectrum analysis; Signal wavelet analysis.

本发明提供的风电机组的自动化故障诊断方法可在线实时监测风电机组的运行状态,并能在故障发生时即时报警,避免了因故障报警不及时带来的严重后果;同时,通过所述数据分析与故障诊断模块对风电机组运行状态进行预判,诊断出已经存在或即将产生的风电机组运行或零部件故障,及时提醒相关单位进行维修保养,提高风电机组运行寿命、降低风电机组运行的故障率,减少因风电机组故障带来的经济损失。The automatic fault diagnosis method for wind turbines provided by the present invention can monitor the operating status of wind turbines in real time online, and can give an alarm immediately when a fault occurs, avoiding serious consequences caused by untimely fault alarms; at the same time, through the data analysis Predict the operating status of wind turbines with the fault diagnosis module, diagnose existing or upcoming wind turbine operation or component failures, and promptly remind relevant units to carry out maintenance, improve the operating life of wind turbines, and reduce the failure rate of wind turbines , to reduce the economic loss caused by wind turbine failure.

附图说明Description of drawings

下面结合附图和具体实施方式对本发明作进一步详细说明。The present invention will be described in further detail below in conjunction with the accompanying drawings and specific embodiments.

图1为本发明海上风电机组的自动化故障诊断方法的主要原理图;Fig. 1 is the main schematic diagram of the automatic fault diagnosis method of the offshore wind turbine of the present invention;

图2为本发明海上风电机组的自动化故障诊断方法的结构示意图。Fig. 2 is a structural schematic diagram of an automatic fault diagnosis method for an offshore wind turbine according to the present invention.

具体实施方式detailed description

本发明所揭示的一种海上风电机组的自动化故障诊断方法,利用无线传感数据通信网,结合先进的计算机信息技术,以解决现有技术和系统对实时故障报警不及时的问题,实现对海上风电机组运行状态趋势分析和故障预警。An automatic fault diagnosis method for offshore wind turbines disclosed by the present invention uses a wireless sensor data communication network and combines advanced computer information technology to solve the problem that existing technologies and systems do not provide timely alarms for real-time faults, and realizes fault diagnosis at sea. Wind turbine operating status trend analysis and fault warning.

如图1所示,本发明所揭示的一种海上风电机组的自动化故障诊断方法,所述方法的主要步骤包括:As shown in Figure 1, an automatic fault diagnosis method for offshore wind turbines disclosed by the present invention, the main steps of the method include:

a、在所要诊断的海上风电机组安装所要监测项目的传感器;a. Install sensors for the monitoring items on the offshore wind turbines to be diagnosed;

b、对传感器所提取的信号进行预处理,去除提取信号中含有的无用的或干扰信号;b. Preprocess the signal extracted by the sensor to remove useless or interference signals contained in the extracted signal;

c、对所述的进行预处理过以后的信号进行具体的数据分析,去伪存真;c. Carry out specific data analysis on the signal after the preprocessing, remove the false and preserve the true;

d、将信号进行数据分析后所得幅值与数据分析设置的故障阈值进行对比分析,然后确定风电机组是否处于出现故障;d. Compare and analyze the amplitude obtained after the data analysis of the signal with the failure threshold set by the data analysis, and then determine whether the wind turbine is in failure;

e、如果所得分析数据出现故障即已超过所设的故障阈值,系统进行报警,然后确定风电机出现故障的机理和出现的故障特征,进而确定出现故障的位置,最后进行决策,决策进行停机检修或者是继续监测;如果没有出现故障,则系统不报警,则可以决策继续进行检测;如果所得分析数据中有部分数据显示,可能机器风电机组已经存在轻微的故障或者磨损,则可以根据故障部位和相关部件进行提前预警或是提前保护。e. If the obtained analysis data fails, that is, it has exceeded the set failure threshold, the system will give an alarm, and then determine the mechanism and characteristics of the failure of the wind turbine, and then determine the location of the failure, and finally make a decision, and decide to stop for maintenance Or continue to monitor; if there is no fault, the system will not alarm, and you can decide to continue the detection; if some data in the obtained analysis data shows that there may be a slight fault or wear of the wind turbine of the machine, you can according to the fault location and Relevant components carry out early warning or early protection.

如图2所示,本发明所揭示的一种海上风电机组的自动化故障诊断方法的具体实施例,首先将所要监测的部件安装好相应的传感器,如将低频压电加速度传感器安装在发电机组的主轴和齿轮箱的输入轴承处,将通用型压电加速度传感器安装在齿轮箱行星轮系、输出轴和发电机轴承处,将转速传感器安装在风机主轴和发电机转子处,将应变传感器安装与叶片的尖部、中部和根部,将位移传感器分别安装在塔筒的垂直方向和水平方向;在上述传感器既有的数字接口和通信协议加装自组网通信模块。As shown in Figure 2, a specific embodiment of an automatic fault diagnosis method for an offshore wind turbine disclosed by the present invention firstly installs corresponding sensors on the components to be monitored, such as installing a low-frequency piezoelectric acceleration sensor on the generator set At the input bearing of the main shaft and the gearbox, install the universal piezoelectric acceleration sensor at the planetary gear train of the gearbox, the output shaft and the bearing of the generator, install the speed sensor at the main shaft of the fan and the rotor of the generator, and install the strain sensor with the At the tip, middle and root of the blade, displacement sensors are installed in the vertical and horizontal directions of the tower respectively; an ad hoc network communication module is added to the existing digital interface and communication protocol of the above sensors.

传感器将监测所得的数据传输给无线数据采集系统。The sensor transmits the monitored data to the wireless data acquisition system.

无线数据采集系统对接收的数据进行预处理,剔除大量的无用的或者干扰数据,并将数据传输给短距离无线接收发射装置。The wireless data acquisition system preprocesses the received data, eliminates a large amount of useless or interference data, and transmits the data to the short-distance wireless receiving and transmitting device.

上述的无线数据采集系统包括数据采集装置和短距离无线接收发射装置,所述数据采集装置内置符合IEEE 802.15.4无线协议的ZigBee模块,无线发射接收装置与传感器中加装的自组网通信模块通过数据采集装置逐一配置,形成一对多点的无线分布式通信网,无线分布式通信网系统可定时或随时实现对测点实时数据的自动采集,数据采集装置具有休眠和后台唤醒功能,能够通过现场配置或数据管理端原先加载接口协议,实时执行后台采集和发送指令,无线发射接收装置收到数据采集装置发来的数据后通过WCDMA远程传输给用户数据分析平台。The above-mentioned wireless data acquisition system includes a data acquisition device and a short-distance wireless receiving and transmitting device. The data acquisition device has a built-in ZigBee module conforming to the IEEE 802.15.4 wireless protocol, and the ad hoc network communication module installed in the wireless transmitting and receiving device and the sensor Through the configuration of data acquisition devices one by one, a one-to-multipoint wireless distributed communication network is formed. The wireless distributed communication network system can realize automatic collection of real-time data of measuring points at regular intervals or at any time. The data acquisition device has sleep and background wake-up functions, which can Through the on-site configuration or the data management terminal originally loaded the interface protocol, real-time execution of background collection and sending instructions, the wireless transmitting and receiving device receives the data sent by the data collection device and transmits it to the user data analysis platform remotely through WCDMA.

上述的用户数据分析平台是基于LabVIEW的数据分析平台,可以对收到的数据进行存储、查询和分析, LabVIEW数据分析系统经过包括时域分析、频域分析和其他分析方法对数据进行分析以后得到所需的数字与系统本身设定的风电机组的故障阈值进行对比分析,然后确定风电机组是否有故障。The above-mentioned user data analysis platform is a data analysis platform based on LabVIEW, which can store, query and analyze the received data. After analyzing the data, the LabVIEW data analysis system includes time domain analysis, frequency domain analysis and other analysis methods to obtain The required number is compared and analyzed with the fault threshold of the wind turbine set by the system itself, and then it is determined whether the wind turbine is faulty.

当有故障时,启动故障报警系统,工作人员则可根据系统所提供的报警系统的数据得知风电机组发射故障的特征及其具体原因和位置,来决定采取相应的应对措施来修复故障;当无故障时,而工作人员也可以根据分析系统的数据判断风电机组是否有轻微磨损或异常,进而采取相应的提前保护和应对措施;当无故障且各项数据均在正常范围内,则可以采取让系统继续监测的决策。When there is a fault, start the fault alarm system, and the staff can know the characteristics of the wind turbine emission fault and its specific cause and location according to the data of the alarm system provided by the system, and decide to take corresponding countermeasures to repair the fault; When there is no fault, the staff can also judge whether the wind turbine has slight wear or abnormality according to the data of the analysis system, and then take corresponding early protection and countermeasures; when there is no fault and all data are within the normal range, you can take The decision to let the system continue to monitor.

本发明的技术内容及技术特征已揭示如上,熟悉本领域的技术人员仍可能基于本发明的教示而作出不背离本发明实质的替换及修饰,因此,本发明保护范围不限于实施例所揭示的内容,也包括各种不背离本发明实质的替换及修饰。The technical content and technical characteristics of the present invention have been disclosed above, and those skilled in the art may still make replacements and modifications that do not deviate from the essence of the present invention based on the teachings of the present invention. Therefore, the protection scope of the present invention is not limited to those disclosed in the embodiments. The content also includes various substitutions and modifications that do not depart from the essence of the present invention.

Claims (6)

1. a kind of automation method for diagnosing faults of offshore wind farm unit, it is characterised in that the diagnostic method includes following step Suddenly:
A, the sensor for wanting in the offshore wind farm units' installation to be diagnosed monitoring project;
B, the signal extracted to sensor are pre-processed, and remove the useless or interference signal extracted and contained in signal;
C, specific data analysis is carried out to the pretreated later signal of described progress, eliminated the false and retained the true;
D, the fault threshold for setting institute's value and data analysis after signal progress data analysis are analyzed, then really Whether Wind turbines are determined in failure;
If e, income analysis data break down exceedes set fault threshold, system is alarmed, it is then determined that wind Mechanism and the fault signature of appearance that motor breaks down, and then determine location of fault occur, decision-making is finally carried out, decision-making is entered Row maintenance down is to continue with monitoring;If do not broken down, system is not alarmed, then can proceed inspection with decision-making Survey;If having partial data to show in income analysis data, there is slight failure or mill in possible machine Wind turbines Damage, then can be given warning in advance or protected in advance according to trouble location and associated components.
2. automation method for diagnosing faults according to claim 1, it is characterised in that:Sensor bag in the step a Low frequency piezoelectric acceleration sensor is included, is mainly used in monitoring the main shaft of generating set and the input shaft bearing of gear-box;Universal pressure Electric acceleration transducer, is mainly used in monitoring the vibration signal of gearbox planetary train, output shaft and dynamo bearing;Rotating speed is passed Sensor, is mainly used in monitoring the rotating speed of blower fan main shaft and the rotating speed of generator amature;Strain transducer and displacement transducer, respectively Displacement for blade and tower, topple.
3. automation method for diagnosing faults according to claim 2, it is characterised in that:In the existing number of described sensor Word interface and communication protocol install self-organized network communication module additional.
4. automation method for diagnosing faults according to claim 1, it is characterised in that:It is wireless that the diagnostic method is used Data collecting system includes data acquisition device and short-distance wireless receiving and transmitting unit, meets built in the data acquisition device The data gathered can be pre-processed by the ZigBee module of IEEE 802.15.4 wireless protocols, be rejected substantial amounts of useless Or interference data, and processing data is transferred to short-distance wireless receiving and transmitting unit;Described wireless transmitter receiver dress Put and configured one by one by data acquisition device with the self-organized network communication module installed additional in sensor, form wireless point of a pair of multiple spots Cloth communication network, described wireless distributed network system can timing or realize at any time the automatic of measuring point real time data is adopted Collection, described data acquisition device has dormancy and backstage arousal function, can be original by situ configuration or data management end Loading interface agreement, performs background acquisition and sends instruction, wireless transmitting and receiving device receives data acquisition device and sent in real time Data after Users'Data Analysis platform is transferred to by WCDMA.
5. automation method for diagnosing faults according to claim 1, it is characterised in that:Data in the diagnosis algorithm c Analysis process system is the Data Analysis Platform based on LabVIEW.
6. method for diagnosing faults is automated according to claim 1 or 5, it is characterised in that:Described Data Analysis Platform Method includes:Vibration time domain parameter analysis includes the time-domain analysis of the amplitude domain analysis and signal of signal;Vibration signal frequency-domain analysis The power spectrumanalysis of FFT spectrum analysis, the cepstrum analysis of signal and signal including signal;Signal rank spectrum analysis;Signal Wavelet analysis.
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