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GB/T 30966.6-2022 English PDF

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GB/T 30966.6-2022: Wind energy generation systems - Communications for monitoring and control of wind power plants - Part 6: Logical node classes and data classes for condition monitoring
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GB/T 30966.6: Evolution and historical versions

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GB/T 30966.6-2022English1049 Add to Cart 7 days [Need to translate] Wind energy generation systems - Communications for monitoring and control of wind power plants - Part 6: Logical node classes and data classes for condition monitoring Valid GB/T 30966.6-2022
GB/T 30966.6-2015English1194 Add to Cart 4 days [Need to translate] Wind turbines -- Communications for monitoring and control of wind power plants -- Part 6: Logical node classes and data classes for condition monitoring Obsolete GB/T 30966.6-2015

PDF similar to GB/T 30966.6-2022


Standard similar to GB/T 30966.6-2022

GB/T 25388.1   GB/T 25387.1   GB/T 25389.2   GB/T 30966.4   GB/T 30966.2   GB/T 30966.3   

Basic data

Standard ID GB/T 30966.6-2022 (GB/T30966.6-2022)
Description (Translated English) Wind energy generation systems - Communications for monitoring and control of wind power plants - Part 6: Logical node classes and data classes for condition monitoring
Sector / Industry National Standard (Recommended)
Classification of Chinese Standard F11
Classification of International Standard 27.180
Word Count Estimation 50,577
Date of Issue 2022-10-12
Date of Implementation 2022-10-12
Older Standard (superseded by this standard) GB/T 30966.6-2015
Issuing agency(ies) State Administration for Market Regulation, China National Standardization Administration

GB/T 30966.6-2022: Wind energy generation systems - Communications for monitoring and control of wind power plants - Part 6: Logical node classes and data classes for condition monitoring


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Wind energy generation systems - Communications for monitoring and control of wind power plants - Part 6.Logical node classes and data classes for condition monitoring ICS 27.180 CCSF11 National Standards of People's Republic of China Replace GB/T 30966.6-2015 Wind Turbine Wind Farm Monitoring System Communication Part 6.Logical node classes and data classes for condition monitoring condition monitoring 2022-10-12 release 2022-10-12 implementation State Administration for Market Regulation Released by the National Standardization Management Committee

table of contents

Preface V Introduction VI 1 Scope 1 2 Normative references 2 3 Terms and Definitions 2 4 Abbreviations 3 5 General 5 5.1 Overview 5 5.2 Condition monitoring information model 6 5.3 The agreed direction and angle of the coordinate system 6 5.4 Concept of running status bin 7 6 Wind turbine condition monitoring logic node 7 6.1 General 7 6.2 Logical node 7 from GB/T 30966.2 6.3 Wind turbine condition monitoring logical node WCON 8 7 Common data types for condition monitoring of wind turbines 9 7.1 Overview 9 7.2 Common data classes defined in GB/T 30966.2 9 7.3 Data attribute contains conditions 9 7.4 Common data class attribute name semantics 10 7.5 Condition Monitoring Chamber (CMB) 10 7.6 Condition Monitoring Measurement (CMM) 11 7.7 Scalar Valued Arrays (SVA) 12 7.8 Complex Measured Value Array (CMVA) 13 8 Common data class CMM attribute definition 14 8.1 Overview 14 8.2 Properties of condition monitoring measurement descriptions 15 Appendix A (informative) recommended measurement type (mxType) value 23 A.1 Overview of tag names and data names of WCON classes 23 A.2 Mapping of measurement tags to measurement types (mxType) 23 A.3 Measurement type (mxType) value 23 Appendix B (Informative) Application of Data Attributes in Condition Monitoring Measurement Description Tag Naming 27 B.1 Overview 27 B.2 Naming principles of common data class CMM data attributes 27 B.3 Example 27 Appendix C (informative) Example of condition monitoring cabin 29 C.1 Example 1.One-dimensional bin 29 C.2 Example 2.Two-dimensional bin 30 C.3 Example 3.Intersecting 2D bins33 Appendix D (Informative) Application Example 35 D.1 Overview of Common Data Classes (CDCs) required for this document 35 D.2 How to apply data to CDC 35 D.3 How to apply the alarm 37 Reference 39 Fig. 1 Condition monitoring with separate functions of TCD/CMD Ⅶ Figure 2 Status monitoring information flow chart 1 Figure 3 Transmission system reference coordinate system 6 Figure 4 Concept of active power bin 7 Figure 5 Angular orientation of the sensor viewed from the rotor end 19 Figure 6 Sensor movement logo 20 Figure 7 Sensor forward and reverse movement 20 Figure 8 Coding Principles for Transmission System Shafts and Bearings 21 Figure B.1 Naming principles for Trd data attributes 27 Figure C.1 Bin configuration example 1 30 Figure C.2 Bin configuration example 2 32 Figure C.3 Bin configuration example 3 34 Figure D.1 Associations between CDCs 35 Table 1 Abbreviations4 Table 2 Coordinate system and characteristics related to wind turbines 6 Table 3 Logical Node. Fan Condition Monitoring Information (WCON) 8 Table 4 Conditions for the existence of data attributes9 Table 5 Common Data Class Attribute Name Semantics 10 Table 6 Common data class. condition monitoring warehouse (CMB) 11 Table 7 Common Data Class. Condition Monitoring Measurement (CMM) 12 Table 8 Common Data Class. Scalar Valued Array (SVA) 13 Table 9 Common Data Class. Array of Complex Measured Values (CMVA) 14 Table 10 Data attributes for measurement description15 Table 11 Sensor identification convention 15 Table 12 Abbreviations used in the description of "Trd"-"Location"16 Table 13 Sensor Type Code 18 Table 14 Sensor measuring axis direction reference code 19 Table 15 Transmission shaft and bearing identification 21 Table A.1 Example of mapping from label to mxType 24 Table B.1 Example of label name and short data name 28 Table C.1 CMB Example 1 29 Table C.2 CMB data object example 1 29 Table C.3 CMB Example 2 31 Table C.4 CMB data object example 2 31 Table C.5 CMB Example 3 33 Table C.6 CMB data object example 3 33 Table D.1 Object overview 36 Table D.2 Nameplate (LPL) 36 Table D.3 CDC Example. Condition Monitoring Measurement (CMM) 36 Table D.4 CDC example. condition monitoring warehouse (CMB) 37 Table D.5 CDC Example. Definition of Alarm (ALM) 38 Table D.6 LN example. alarm container definition 38

foreword

This document is in accordance with the provisions of GB/T 1.1-2020 "Guidelines for Standardization Work Part 1.Structure and Drafting Rules for Standardization Documents" drafting. This document is part 6 of GB/T 30966 "Wind Turbine Wind Farm Monitoring System Communication". GB/T 30966 has The following parts have been published. --- Part 1.Principles and models; --- Part 2.Information model; --- Part 3.Information exchange model; --- Part 4.Mapping to communication protocol; --- Part 5.Conformance testing; --- Part 6.Logical node classes and data classes for status monitoring. This document replaces GB/T 30966.6-2015 "Wind Turbine Wind Farm Monitoring System Communication Part 6.Status Monitoring Logical Node Classes and Data Classes for Testing", compared with GB/T 30966.6-2015, except for structural adjustments and editorial changes, the main technical changes as follows. a) Changed the restructured data model (see 5.1, 7.1, 7.3, 7.4, 7.5, 7.6, 7.7, 7.8, 5.1, 7.1, 7.3, 7.4, 7.5, 7.6, 7.7, 7.8); b) Delete the UFF58 format (see Chapter 9 of the.2015 edition); c) Added reporting and logging functions for data access usage standards (see 6.2, 8.2 of the.2015 edition). This document is equivalent to IEC 61400-25-6.2016 "Wind Turbine Generating Sets Part 25-6.Communication of Wind Farm Monitoring System Logical Node Classes and Data Classes for Condition Monitoring". The following minimal editorial changes have been made to this document. --- In order to coordinate with existing standards, change the name of the standard to "Wind Turbine Wind Farm Monitoring System Communication Part 6. Logical node class and data class for state monitoring"; --- Added examples and application examples of condition monitoring cabins (see Appendix C and Appendix D). Please note that some contents of this document may refer to patents. The issuing agency of this document assumes no responsibility for identifying patents. This document is proposed by China Machinery Industry Federation. This document is under the jurisdiction of the National Wind Power Standardization Technical Committee (SAC/TC50). This document was drafted by. Beijing Goldwind Huineng Technology Co., Ltd., Jiangsu Guoke Smart Electric Co., Ltd., Shanghai Electric Wind Power Group Co., Ltd. Co., Ltd., Beijing Goldwind Science and Technology Wind Power Equipment Co., Ltd., Institute of Electrical Engineering, Chinese Academy of Sciences, Xinjiang Goldwind Science and Technology Co., Ltd., Zhongneng Power Technology Development Co., Ltd., Beijing Jianheng Certification Center Co., Ltd., Longyuan Power Group Co., Ltd., State Power Investment Corporation Guilin Branch of Guangxi Electric Power Co., Ltd., China Nuclear Huineng Co., Ltd., and China Energy Fusion Smart Technology Co., Ltd. The main drafters of this document. Ding Xuejuan, Gan Shiqiang, Wang Chao, Hong Wenzhong, Yan Jiahui, Hu Shuju, Ma Shikuan, Ma Wenyong, Huang Shubang, Cai Yana, Deng Ya, Wei Houyan, Wang Qile, Zhou Xinliang, Liu Junqi, Wang Xiaodong, Liu Yunhua, Zhang Xiping. This document was first published in.2015, and this is the first revision.

Introduction

GB/T 30966 "Wind Turbine Wind Farm Monitoring System Communication" defines the information model and information exchange of wind farm monitoring. It is possible to switch models, thereby enabling commonality of access between different clients and servers from different manufacturers and suppliers. GB/T 30966 Mainly based on the international document IEC 61400-25, it defines the mapping of wind farm specific information, information exchange mechanism and communication protocol. At this On the one hand, IEC 61400-25 specifies detailed requirements for exchanging available information with wind farm components in a manufacturer-independent environment. These need It is required to give the definition in IEC 61400-25 or refer to other standards. GB/T 30966 (all parts) currently consists of the following 6 parts. --- Part 1.Principles and models. The purpose is to study the general communication between the wind farm SCADA system and the wind turbine sexual demands. --- Part 2.Information Model. The purpose is to specify the summary description of the logical node class, the logical node class of the wind farm to the common logical node class definitions and requirements. --- Part 3.Information exchange model. The purpose is to specify an information exchange model that can be used by clients and servers to access The content and structure of the wind farm information model defined in GB/T 30966.2. --- Part 4.Mapping to the communication protocol. The purpose is to specify a specific mapping oriented to the protocol stack, and provide a link between the client and the remote server. Provide the required information encoding for information exchange between them. --- Part 5.Conformance testing. The purpose is to specify the various components (such as wind turbines) and participants (such as wind turbines) in the wind farm General requirements for communication between SCADA systems), detailing standard techniques for implementing conformance testing, and deterministic Specific measurement techniques applied when parameters are available. --- Part 6.Logical node classes and data classes for status monitoring. Its purpose is to control wind turbine or wind farm components or structures Observe the components for a period of time, evaluate the state and state changes of the components or structural parts, so as to find potential faults early signs. Condition monitoring functions can be realized by different physical devices. Some information may be monitored by the generator set controller (TCD), others Some information may be the responsibility of other Condition Monitoring Devices (CMDs). Each participant can request to exchange data in TCD or CMD. SCADA equipment can request to call information in TCD or CMD; CMD can also request to call TCD information within. Information exchange between participants and equipment in a wind farm requires the use of the information exchange defined in IEC 61400-25-3 Serve. A schematic illustration of the above is shown in Figure 1. Figure 1 Status monitoring with TCD/CMD functions separated from each other Control and condition monitoring applications in the wind power industry use the technical structure of separate devices. For this reason, the information model and information The information exchange model is based on a structure consisting of a TCD and a CMD. The main content of the GB/T 30966.6 document is condition monitoring, which is an extension of the IEC 61400-25 series of documents. Wind Turbine Wind Farm Monitoring System Communication Part 6.Logical node classes and data classes for condition monitoring

1 Scope

This document specifies information models related to condition monitoring of wind farms and information exchange of data values related to these information models. Note. The premise of conforming to the principles of this document is to comply with GB/T 30966.2, GB/T 30966.3 and GB/T 30966.4. Figure 2 shows the information flow of a system that can use the condition monitoring function to complete condition maintenance. This diagram illustrates how to pass The information link centralizes and refines the data, so as to achieve the ultimate goal of state maintenance, that is, to issue work instructions to the maintenance team, and then take Corresponding measures are taken to ensure the good operation of wind farms. Figure 2 Status monitoring information flow chart

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