CN114687930A - Wind turbine generator fault early warning closed-loop management and control system and method - Google Patents
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Abstract
Description
技术领域technical field
本发明涉及风电机组在线故障监测的技术领域,尤其是指一种风电机组故障预警闭环管控系统及方法。The invention relates to the technical field of on-line fault monitoring of wind turbines, in particular to a fault early warning closed-loop management and control system and method for wind turbines.
背景技术Background technique
目前,风电机组的控制系统中给出的绝大多数故障都是已经发生后的,没有真正实现故障预警;而在故障处理方面也没有实现真正的闭环管理,现场缺陷处理完成后,并没有进一步深挖故障是否属于近期频发及其频发次数、其他风场同类机型是否存在相同故障等重要信息。风电机组除SCADA数据以外,还有CMS振动数据,其中应用更多的是利用其幅值变化,并没有通过数据特征来识别其早中期的故障。识别的故障绝大多数是从控制系统中报出的,此类故障均是属于事后的,没有提前预警故障,严重故障的发生除导致机组的停机以外,还会造成设备严重损坏;且当故障发生后,一般都会通过各类在线平台或excel表格等来实现跟踪,一旦故障处理完成关闭后,其数据并未再深入挖掘,深藏在数据库中的价值信息并未有效提炼出来;在故障总体分析的维度上,更多是基于某一个风场基地,并未从宏观的角度对所有风场进行故障分析,尤其是对于同类机型的风电机组,其故障反馈更有价值,由于风电机组数量较多,很多机组在故障解决后依然会出现相同或类似的故障,这说明故障处理并不彻底或者并没有实现根治,此类故障需要现场运维人员重点关注,但在实际运行过程中,由于缺乏相应的技术手段,导致并未引起较高的重视程度;同时对于运维人员来说,在不借用先进技术手段的情况下,人工分析过去1个月甚至过去24小时的运行数据,很难识别和捕捉到其中的异常,而且效率极其低下。At present, most of the faults given in the control system of wind turbines have already occurred, and no real fault warning has been realized; and no real closed-loop management has been implemented in fault handling. After the on-site defect processing is completed, there is no further Important information such as whether the deep digging fault is a recent frequent occurrence and its frequency, and whether other similar models in other wind farms have the same fault. In addition to SCADA data, wind turbines also have CMS vibration data, in which the application uses more of its amplitude changes, and does not identify its early and mid-term failures through data features. Most of the identified faults are reported from the control system. Such faults are after the fact, and there is no early warning of faults. The occurrence of serious faults will not only cause the shutdown of the unit, but also cause serious damage to the equipment; and when the fault occurs After the occurrence, it is generally tracked through various online platforms or excel forms. Once the fault processing is completed and closed, the data is not further excavated, and the value information deeply hidden in the database is not effectively extracted; In the dimension of analysis, it is more based on a certain wind farm base, and does not analyze the faults of all wind farms from a macro perspective, especially for wind turbines of the same type, the fault feedback is more valuable, due to the number of wind turbines. Many units will still have the same or similar faults after the faults are resolved, which indicates that the fault treatment is not complete or has not been completely cured. Such faults require the attention of on-site operation and maintenance personnel. The lack of corresponding technical means has led to a lack of attention. At the same time, it is difficult for operation and maintenance personnel to manually analyze the operation data of the past month or even the past 24 hours without borrowing advanced technical means. Identifying and catching exceptions in it is extremely inefficient.
发明内容SUMMARY OF THE INVENTION
本发明目的在于为为解决现有技术中的不足,提供了一种风电机组故障预警闭环管控系统及方法,当风电机组发生故障早期,通过预警模型检测到其在表征健康状态的特征值上出现异常,进而抓取到异常,从而指导运维人员及时启动干预措施,避免风电机组故障进一步恶化。与此同时,结合CMS振动数据监测,能充分将风电场传输回来的数据运用起来,实现多维度的实现风机故障预警。The purpose of the present invention is to provide a fault early warning closed-loop management and control system and method for wind turbines in order to solve the deficiencies in the prior art. The abnormality is detected, and then the abnormality is captured, so as to guide the operation and maintenance personnel to start the intervention measures in time to avoid the further deterioration of the wind turbine failure. At the same time, combined with CMS vibration data monitoring, the data transmitted from the wind farm can be fully utilized to realize multi-dimensional early warning of wind turbine failures.
为实现上述目的,本发明所提供的技术方案为:一种风电机组故障预警闭环管控系统,包括:In order to achieve the above purpose, the technical solution provided by the present invention is: a fault early warning closed-loop management and control system for a wind turbine, comprising:
数据接入层,用于将风场中风电机组的SCADA数据和CMS振动数据通过预设数据传输机制接入到预警分析层中;The data access layer is used to connect the SCADA data and CMS vibration data of the wind turbines in the wind farm to the early warning analysis layer through the preset data transmission mechanism;
预警分析层,对接入的SCADA数据进行预处理,将预处理后的SCADA数据通过算法筛选出测点来进行预警模型的建模,通过将风电机组的运行数据输入到预警模型中,得到风电机组的健康状态结论,并输出到故障诊断层中;同时对接入的CMS振动数据进行清洗后提取振动信号特征量,进而通过预分析方式标注正常机组;The early warning analysis layer preprocesses the connected SCADA data, selects the measurement points from the preprocessed SCADA data through an algorithm to model the early warning model, and inputs the operating data of the wind turbine into the early warning model to obtain the wind power The health state conclusion of the unit is output to the fault diagnosis layer; at the same time, the vibration signal characteristic quantity of the vibration signal is extracted after cleaning the connected CMS vibration data, and then the normal unit is marked by pre-analysis;
故障诊断层,对预警分析层输出的结论进行综合诊断分析,输出诊断信息到数据交互层中;The fault diagnosis layer performs comprehensive diagnosis and analysis on the conclusions output by the early warning analysis layer, and outputs the diagnosis information to the data interaction layer;
数据交互层,用于导入数据来优化系统以及导出并展示预警诊断报告。The data interaction layer is used to import data to optimize the system and export and display early warning diagnostic reports.
进一步,所述数据接入层具体执行以下操作:Further, the data access layer specifically performs the following operations:
将风场中的CSV格式的SCADA数据文件录入到MySQL或者Oracle关系型数据库中,将风场中的CMS振动数据通过数据转换工具转换为CSV格式文件或TXT格式文件,再录入到MySQL或者Oracle关系型数据库中。Enter the SCADA data files in CSV format in the wind farm into MySQL or Oracle relational database, convert the CMS vibration data in the wind farm into CSV format files or TXT format files through data conversion tools, and then enter them into MySQL or Oracle relational databases type database.
进一步,所述预警分析层具体执行以下操作:Further, the early warning analysis layer specifically performs the following operations:
将SCADA数据中的异常数据或者无法使用的数据剔除后筛选机组处于正常运行状态的数据,将预处理后的SCADA数据通过筛选出测点进行预警模型的建模,其中测点为能够表征风电机组的性能的参数的组合,预警模型训练完成之后,通过读取其它SCADA数据则能够计算当前时间段的风电机组的健康度,并设定一个健康度临界值;The abnormal data or unusable data in the SCADA data are eliminated and the data that the unit is in normal operation is screened, and the pre-processed SCADA data is filtered through the screening points to model the early warning model, where the measurement points are the ones that can characterize the wind turbine. After the training of the early warning model is completed, the health degree of the wind turbine in the current time period can be calculated by reading other SCADA data, and a critical value of the health degree can be set;
对CMS振动数据进行数据清洗,通过频率重采样生成新的传动链各测点振动信号数据,或是通过剥离无效振动信号数据来对CMS振动数据进行数据清洗;再通过频率扫描算法将振动信号数据中的各部件特征向量及频率成分标注出来,并计算传动链各测点向量及频率成分指标参数,根据振动信号数据中的各部件特征向量及频率成分、传动链各测点向量及频率成分指标通过预分析方式标注正常机组。Clean the CMS vibration data, generate new vibration signal data of each measuring point of the transmission chain through frequency resampling, or clean the CMS vibration data by stripping the invalid vibration signal data; The eigenvectors and frequency components of each component are marked out, and the vector and frequency component index parameters of each measuring point of the transmission chain are calculated. Label the normal units through pre-analysis.
进一步,所述故障诊断层具体执行以下操作:Further, the fault diagnosis layer specifically performs the following operations:
通过分析所有导致风电机组的健康度小于健康度临界值的测点的清单,展示出风电机组存在异常状况的测点以及存在异常的风电机组设备名称,同时分析振动信号特征,结合SCADA工艺参数及根据预警分析层输出的结论,最终输出诊断信息,所述诊断信息包括机组最终诊断的结论、机组故障程度、机组维护建议和故障发展趋势。By analyzing the list of all the measuring points that cause the health of the wind turbine to be less than the critical value of the health, the measuring points of the wind turbine with abnormal conditions and the names of the wind turbine equipment with abnormal conditions are displayed. At the same time, the vibration signal characteristics are analyzed, combined with SCADA process parameters and According to the conclusion output by the early warning analysis layer, the diagnostic information is finally output, and the diagnostic information includes the conclusion of the final diagnosis of the unit, the degree of unit failure, the maintenance suggestion of the unit, and the development trend of the failure.
进一步,所述预警诊断报告包括风电机组故障报表、风电机组健康状态、风电机组易发与重发故障统计、重大部件故障报表和重大部件劣化趋势分析曲线。Further, the early warning and diagnosis report includes a report on the failure of the wind turbine, the health status of the wind turbine, the statistics of the wind turbine prone and recurring failures, a report on major component failures, and an analysis curve for the deterioration trend of major components.
本发明所提供的一种风电机组故障预警闭环管控方法,使用了上述的风电机组故障预警闭环管控系统,包括以下步骤:A wind turbine fault early warning closed-loop management and control method provided by the present invention uses the above-mentioned wind turbine fault early warning closed-loop management and control system, including the following steps:
S1、风电机组故障预警闭环管控系统接入风电机组的SCADA数据和CMS振动数据;S1. The wind turbine fault early warning closed-loop management and control system is connected to the SCADA data and CMS vibration data of the wind turbine;
S2、根据步骤S1所接入的数据启动风电机组故障预警闭环管控系统的预警分析,通过运行预警模型计算风电机组的健康度以及根据CMS振动数据识别风电机组的振动异常故障;S2, start the early warning analysis of the wind turbine fault early warning closed-loop management and control system according to the data accessed in step S1, calculate the health degree of the wind turbine by running the early warning model, and identify the abnormal vibration fault of the wind turbine according to the CMS vibration data;
S3、根据识别到的风电机组的故障,确定该故障的严重等级,并在风电机组故障预警闭环管控系统中核查该故障是否在此风电机组上发生过,即是否属于频发故障,若属于频发故障,则需结合上一次检修该频发故障的检修方案来确定本次检修方案;若不属于频发故障,则直接针对不同的严重等级的故障给出相对应的检修方案;S3. According to the identified fault of the wind turbine, determine the severity level of the fault, and check whether the fault has occurred on this wind turbine in the wind turbine fault early warning closed-loop management and control system, that is, whether it is a frequent fault, if it is a frequent fault If a fault occurs, the maintenance scheme for this frequent fault needs to be determined in combination with the previous maintenance scheme for the frequent fault; if it is not a frequent fault, the corresponding maintenance scheme is directly given for the faults of different severity levels;
S4、检修完毕后,在风电机组故障预警闭环管控系统中录入本次故障相关信息进行记录。S4. After the maintenance is completed, enter the relevant information of the fault in the wind turbine fault early warning closed-loop management and control system for recording.
进一步,在步骤S4中,所述故障相关信息包括故障图片、故障原因和实际检修过程更换的备品备件及装配尺寸。Further, in step S4, the failure-related information includes a picture of the failure, the cause of the failure, and the spare parts and assembly dimensions replaced during the actual maintenance process.
本发明与现有技术相比,具有如下优点与有益效果:Compared with the prior art, the present invention has the following advantages and beneficial effects:
本发明能够实现故障的提前预警,减少风场的非计划停机,同时能够实现故障隐藏信息的深入挖掘,且识别频发故障以优化故障检修方案,实现故障闭环管理,形成案例库,提高风电机组全寿命周期健康管理。The invention can realize early warning of faults, reduce unplanned shutdown of wind farms, and at the same time, can realize in-depth excavation of hidden fault information, identify frequent faults to optimize fault maintenance plans, realize fault closed-loop management, form a case database, and improve wind turbine generators. Life-cycle health management.
附图说明Description of drawings
图1为风电机组故障预警闭环管控系统的框架图。Figure 1 is a framework diagram of a closed-loop management and control system for wind turbine fault early warning.
具体实施方式Detailed ways
下面结合具体实施例对本发明作进一步说明。The present invention will be further described below in conjunction with specific embodiments.
参见图1所示,为本实施例所提供的风电机组故障预警闭环管控系统,包括:Referring to Figure 1, the wind turbine fault early warning closed-loop management and control system provided in this embodiment includes:
数据接入层,用于将风场中的SCADA数据和CMS振动数据通过预设数据传输机制接入到预警分析层中,具体执行以下操作:The data access layer is used to connect the SCADA data and CMS vibration data in the wind farm to the early warning analysis layer through the preset data transmission mechanism. Specifically, the following operations are performed:
将风场中的CSV格式的SCADA数据文件录入到MySQL或者Oracle关系型数据库中,将风场中的CMS振动数据通过数据转换工具转换为CSV格式文件或TXT格式文件,再录入到MySQL或者Oracle关系型数据库中。Enter the SCADA data files in CSV format in the wind farm into MySQL or Oracle relational database, convert the CMS vibration data in the wind farm into CSV format files or TXT format files through data conversion tools, and then enter them into MySQL or Oracle relational databases type database.
预警分析层,对接入的SCADA数据进行预处理,将预处理后的SCADA数据通过算法筛选出测点来进行预警模型的建模,通过将风电机组的运行数据输入到预警模型中,得到风电机组的健康状态结论,并输出到故障诊断层中;同时对接入的CMS振动数据进行清洗后提取振动信号特征量,进而通过预分析方式标注正常机组,所述预警分析层包括风机预警分析模块和CMS振动数据分析模块,具体执行以下操作:The early warning analysis layer preprocesses the connected SCADA data, selects the measurement points from the preprocessed SCADA data through an algorithm to model the early warning model, and inputs the operating data of the wind turbine into the early warning model to obtain the wind power The health status conclusion of the unit is output to the fault diagnosis layer; at the same time, the vibration signal characteristic quantity of the vibration signal is extracted after cleaning the connected CMS vibration data, and then the normal unit is marked by pre-analysis. The early-warning analysis layer includes the fan early-warning analysis module And the CMS vibration data analysis module, which does the following:
将SCADA数据中的异常数据或者无法使用的数据剔除后筛选机组处于正常运行状态的数据,将预处理后的SCADA数据通过筛选出测点进行预警模型的建模,其中测点为能够表征风电机组的性能的参数的组合,预警模型训练完成之后,通过读取其它SCADA数据则能够计算当前时间段的风电机组的健康度,并设定一个健康度临界值;The abnormal data or unusable data in the SCADA data are eliminated and the data that the unit is in normal operation is screened, and the pre-processed SCADA data is filtered through the screening points to model the early warning model, where the measurement points are the ones that can characterize the wind turbine. After the training of the early warning model is completed, the health degree of the wind turbine in the current time period can be calculated by reading other SCADA data, and a critical value of the health degree can be set;
对CMS振动数据进行数据清洗,通过频率重采样生成新的传动链各测点振动信号数据,或是通过剥离无效振动信号数据来对CMS振动数据进行数据清洗;再通过频率扫描算法将振动信号数据中的各部件特征向量及频率成分标注出来,并计算传动链各测点向量及频率成分指标参数,根据振动信号数据中的各部件特征向量及频率成分、传动链各测点向量及频率成分指标通过预分析方式标注正常机组。Clean the CMS vibration data, generate new vibration signal data of each measuring point of the transmission chain through frequency resampling, or clean the CMS vibration data by stripping the invalid vibration signal data; The eigenvectors and frequency components of each component are marked out, and the vector and frequency component index parameters of each measuring point of the transmission chain are calculated. Label the normal units through pre-analysis.
故障诊断层,对预警分析层输出的结论进行综合诊断分析,输出诊断信息到数据交互层中,所述故障诊断层包括风机故障诊断模块和CMS诊断模块,具体执行以下操作:The fault diagnosis layer performs comprehensive diagnosis and analysis on the conclusions output by the early warning analysis layer, and outputs the diagnosis information to the data interaction layer. The fault diagnosis layer includes a fan fault diagnosis module and a CMS diagnosis module, and specifically performs the following operations:
通过分析所有导致风电机组的健康度小于健康度临界值的测点的清单,展示出风电机组存在异常状况的测点以及存在异常的风电机组设备名称,同时分析振动信号特征,结合SCADA工艺参数及根据预警分析层输出的结论,最终输出诊断信息,所述诊断信息包括机组最终诊断的结论、机组故障程度、机组维护建议和故障发展趋势。By analyzing the list of all the measuring points that cause the health of the wind turbine to be less than the critical value of the health, the measuring points of the wind turbine with abnormal conditions and the names of the wind turbine equipment with abnormal conditions are displayed. At the same time, the vibration signal characteristics are analyzed, combined with SCADA process parameters and According to the conclusion output by the early warning analysis layer, the diagnostic information is finally output, and the diagnostic information includes the conclusion of the final diagnosis of the unit, the degree of unit failure, the maintenance suggestion of the unit, and the development trend of the failure.
数据交互层,用于导入数据来优化系统以及导出并展示预警诊断报告,所述预警诊断报告包括风电机组故障报表、风电机组健康状态、风电机组易发与重发故障统计、重大部件故障报表和重大部件劣化趋势分析曲线。The data interaction layer is used to import data to optimize the system and export and display early warning diagnosis reports, which include wind turbine failure reports, wind turbine health status, wind turbine prone and recurring failure statistics, major component failure reports and Deterioration trend analysis curve of major components.
本实施例公开了风电机组故障预警闭环管控方法,以风场的风电机组#009出现发电机轴承故障为例,使用了上述的风电机组故障预警闭环管控系统,包括以下步骤:This embodiment discloses a wind turbine fault early warning closed-loop management and control method. Taking the generator bearing failure of wind turbine #009 in the wind farm as an example, the above-mentioned wind turbine fault early warning closed-loop management and control system is used, including the following steps:
S1、风电机组故障预警闭环管控系统接入风电机组#009的SCADA数据和CMS振动数据;S1. The wind turbine fault early warning closed-loop management and control system is connected to the SCADA data and CMS vibration data of the wind turbine #009;
S2、根据步骤S1所接入的数据启动风电机组故障预警闭环管控系统的预警分析,通过运行预警模型计算风电机组#009的健康度,识别出风电机组#009的发电机轴承温度偏高,以及根据CMS振动数据识别风电机组#009的振动异常故障,识别出发电机轴承振动幅值和频谱存在异常;S2, start the early warning analysis of the wind turbine fault early warning closed-loop management and control system according to the data accessed in step S1, calculate the health degree of wind turbine #009 by running the early warning model, and identify that the generator bearing temperature of wind turbine #009 is high, and Identify the abnormal vibration fault of wind turbine #009 according to the CMS vibration data, and identify the abnormal vibration amplitude and frequency spectrum of the generator bearing;
S3、根据识别到的风电机组#009的故障,确定该故障的严重等级,如果故障轻微,风电机组#009可以带病等待合适的窗口进行检修;如果故障严重,风电机组#009必须要停机检修,避免故障进一步恶化;并在风电机组故障预警闭环管控系统中核查该故障是否在此风电机组#009上发生过,即是否属于频发故障,若属于频发故障,则需结合上一次检修该频发故障的检修方案来确定本次检修方案;若不属于频发故障,则直接针对不同的严重等级的故障给出相对应的检修方案;S3. Determine the severity of the fault according to the identified fault of wind turbine #009. If the fault is minor, wind turbine #009 can wait for a suitable window for maintenance; if the fault is serious, wind turbine #009 must be shut down for maintenance. , to avoid further deterioration of the fault; and check whether the fault has occurred on this wind turbine #009 in the wind turbine fault early warning closed-loop management and control system, that is, whether it is a frequent fault. The maintenance plan for frequent failures is used to determine this maintenance plan; if it is not a frequent failure, the corresponding maintenance plan is directly given for the failures of different severity levels;
S4、检修完毕后,在风电机组故障预警闭环管控系统中录入本次故障相关信息进行记录;所述故障相关信息包括故障图片、故障原因和实际检修过程更换的备品备件及装配尺寸。通过现场检查发现,导致发电机轴承异常的原因为发电机润滑不良,现场在重新加注完润滑油后,风电机组#009恢复正常运行。S4. After the maintenance is completed, enter the fault-related information in the wind turbine fault early warning closed-loop management and control system for recording; the fault-related information includes the fault picture, the cause of the fault, and the spare parts and assembly dimensions replaced during the actual maintenance process. Through the on-site inspection, it was found that the cause of the abnormality of the generator bearing was the poor lubrication of the generator. After the lubricating oil was refilled on the site, the wind turbine #009 returned to normal operation.
此外,通过该系统核查此类故障是否为频发故障,如果是,则需要开展风场的全面普查工作,同时还可以进一步挖掘分析该故障是否只频发于该机型上,如果是,则有可能导致该故障发生的原因是该机型设计方面的缺陷,从而需要在后续改进该机型。In addition, the system is used to check whether such failures are frequent failures. If so, it is necessary to carry out a comprehensive census of the wind farm. At the same time, it is also possible to further analyze whether the failure occurs frequently only on this model. If so, then It is possible that the cause of this failure is a design defect of the model, which requires subsequent improvements to the model.
以上所述之实施例只为本发明之较佳实施例,并非以此限制本发明的实施范围,故凡依本发明之形状、原理所作的变化,均应涵盖在本发明的保护范围内。The above-mentioned embodiments are only preferred embodiments of the present invention, and are not intended to limit the scope of implementation of the present invention. Therefore, any changes made according to the shape and principle of the present invention should be included within the protection scope of the present invention.
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