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GB/T 14124-2024 English PDF

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GB/T 14124-2024: Mechanical vibration and shock - Vibration of fixed structures - Guidelines for the measurement of vibrations and evaluation of their effects on structures
Status: Valid

GB/T 14124: Historical versions

Standard IDUSDBUY PDFLead-DaysStandard Title (Description)Status
GB/T 14124-2024834 Add to Cart 6 days Mechanical vibration and shock - Vibration of fixed structures - Guidelines for the measurement of vibrations and evaluation of their effects on structures Valid
GB/T 14124-2009634 Add to Cart 4 days Vibration measuring mechanical vibration and shock of the building and its impact on building evaluation guidelines Valid
GB/T 14124-1993679 Add to Cart 5 days Mechanical vibration and shock-Measurement and evaluation of vibration effects on buildings-Guidelines for the use of basic standard methods Obsolete

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Basic data

Standard ID: GB/T 14124-2024 (GB/T14124-2024)
Description (Translated English): Mechanical vibration and shock - Vibration of fixed structures - Guidelines for the measurement of vibrations and evaluation of their effects on structures
Sector / Industry: National Standard (Recommended)
Classification of Chinese Standard: J04
Classification of International Standard: 17.160
Word Count Estimation: 42,414
Date of Issue: 2024-12-31
Date of Implementation: 2025-07-01
Older Standard (superseded by this standard): GB/T 14124-2009
Issuing agency(ies): State Administration for Market Regulation, China National Standardization Administration

GB/T 14124-2024: Mechanical vibration and shock - Vibration of fixed structures - Guidelines for the measurement of vibrations and evaluation of their effects on structures


---This is a DRAFT version for illustration, not a final translation. Full copy of true-PDF in English version (including equations, symbols, images, flow-chart, tables, and figures etc.) will be manually/carefully translated upon your order.
ICS 17.160 CCSJ04 National Standard of the People's Republic of China Replace GB/T 14124-2009 Mechanical vibration and shock Vibration of fixed building structures Guide for the measurement of vibrations and the assessment of their effects on structures (ISO 4866.2010, IDT) Released on 2024-12-31 2025-07-01 Implementation State Administration for Market Regulation The National Standardization Administration issued

Table of Contents

Preface III Introduction V 1 Scope 1 2 Normative references 1 3 Terms and Definitions 1 4 Vibration source related factors to be considered 2 4.1 General 2 4.2 Classification of events according to duration 2 4.3 Classification of events based on changes in amplitude over time 3 4.4 Classification by vibration source signal type 3 5 Structural factors to consider 3 5.1 General 3 5.2 Structural types and boundary conditions 3 5.3 Natural frequency and damping 3 5.4 Structural dimensions 3 5.5 Impact of site conditions 4 6 Measurement 4 7 Frequency range and amplitude 4 8 Instruments 4 8.1 General requirements 4 8.2 Sensor selection 5 8.3 Signal-to-Noise Ratio 5 8.4 Instrument classification 5 9 Sensor location and installation 6 9.1 Location, number and orientation of sensors 6 9.2 Sensor Installation 7 10 Data collection, analysis and evaluation 8 10.1 General 8 10.2 Data Description 8 10.3 Measurement duration 9 11 Measurement methods and reporting 10 11.1 General 10 11.2 Engineering Analysis 10 11.3 On-site monitoring 10 11.4 Report Contents 10 12 Vibration response evaluation 11 12.1 Prediction Evaluation 11 12.2 Vibration Assessment of Existing Structures 11 12.3 Motion as an indicator of structural vibration intensity 11 12.4 Probabilistic evaluation method 11 12.5 Fatigue Factors 12 12.6 Description of injury 12 Appendix A (Informative) Structural Response Values 13 Appendix B (Informative) Classification of Buildings 16 B.1 General 16 B.2 Included structures 17 B.3 Definition of categories17 B.4 Classification of structures 18 B.5 Basic classification 19 B.6 Soil classification 19 Appendix C (Informative) Random Data 20 C.1 General 20 C.2 Frequency domain 20 C.3 Time Domain 20 Appendix D (Informative) Prediction of Natural Frequency and Damping of Buildings 21 D.1 Overview 21 D.2 Prediction of natural frequencies of high-rise buildings using empirical methods 21 D.3 Prediction of natural frequencies of high-rise buildings using computer methods 22 D.4 Prediction of damping value of high-rise buildings 22 D.5 Natural frequencies and damping values of low buildings 23 D.6 Nonlinear Behavior 24 D.7 Description 24 Appendix E (Informative) Vibration interaction between structure foundation and soil 25 E.1 General 25 E.2 Theoretical considerations 25 E.3 Relationship between ground vibration and foundation vibration (soil-structure interaction transfer function) 27 E.4 Practical considerations 28 Reference 30

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 replaces GB/T 14124-2009 "Mechanical vibration and shock - Vibration measurement of buildings and its impact on buildings" Evaluation Guidelines. Compared with GB/T 14124-2009, in addition to structural adjustments and editorial changes, the main technical changes of this document are as follows. --- Changed the scope of application (see Chapter 1, Chapter 1 of the.2009 edition); --- Added "Terms and Definitions" (see Chapter 3); --- Changed the classification and requirements of vibration source related factors to be considered (see Chapter 4, Chapter 3 of the.2009 edition); --- Changed the requirements for the impact of site conditions (see 5.5, 4.4 of the.2009 edition); --- Added the basic requirements for measuring peak quantities in "Measurement Quantities" (see Chapter 6); ---Changed the sensor selection when measuring low-frequency and small-amplitude signals (see 8.2, 6.2 of the.2009 edition), instrument signal-to-noise ratio correction The provisions on the following aspects (see 8.3, 6.3 of the.2009 edition) have been added, and the requirements for different categories and parameters of instruments and meters have been added (see 8.4); --- Changed the provisions on the number of sensors in buildings of different heights and lengths (see 9.1.3, 7.1.1 of the.2009 edition), as well as the measurement equipment Requirements for mass relative to the structure being measured (see 9.2.2, 7.2.1 of the.2009 edition); --- Deleted the provisions on data analysis methods (see 8.3 of the.2009 edition); --- Added the requirements for measurement duration (see 10.3); --- Deleted the requirements for preliminary assessment and preliminary detection (see 9.2.1 and 9.2.2 of the.2009 edition); --- Changed the provisions for the test frequency and damping accuracy of the measurement system (see 11.2, 9.2.4 of the.2009 edition), as well as the requirements for on-site monitoring Relevant requirements (see 11.3, 9.2.3 of the.2009 edition). This document is equivalent to ISO 4866.2010 "Mechanical vibration and shock - Measurement of vibration of fixed structures and their effects on structures". Guidelines for impact assessment. Please note that some of the contents of this document may involve patents. The issuing organization of this document does not assume the responsibility for identifying patents. This document was proposed and coordinated by the National Technical Committee for Standardization of Mechanical Vibration, Shock and Condition Monitoring (SAC/TC53). This document was drafted by. Railway Construction Research Institute of China Academy of Railway Sciences Group Co., Ltd., Zhengzhou Machinery Research Institute Co., Ltd., Guangdong Huanda Engineering Testing Co., Ltd., China Nonferrous Metals Industry Sixth Metallurgical Construction Co., Ltd., Zhongcheng Jiaofa Engineering Consulting Group Co., Ltd. China Railway 20th Bureau Group Fourth Engineering Co., Ltd., China Railway 21st Bureau Group Co., Ltd., China Railway Construction Greater Bay Area Construction Co., Ltd., China Railway 23rd Bureau Group Third Engineering Co., Ltd., China Communications (Guangzhou) Construction Co., Ltd., China Construction Fourth Bureau Guizhou Investment and Construction Co., Ltd., China Railway No. 2 15th Bureau Group Co., Ltd., CCCC First Navigation Engineering Bureau Co., Ltd., China Construction Eighth Bureau South China Construction Co., Ltd., Kashgar Xinlong Construction (Group) China Railway Group) Co., Ltd., China Railway 19th Bureau Group Co., Ltd., China Railway 7th Bureau Group Wuhan Engineering Co., Ltd., China Railway 23rd Bureau Group Second Engineering Co., Ltd., Jinhua Chuangji Construction Co., Ltd., China Construction Sixth Engineering Bureau Civil Engineering Co., Ltd., China Railway Eighth Bureau Group Third Engineering Co., Ltd. Company, China Railway 24th Bureau Group Anhui Engineering Co., Ltd., Guangdong Hesheng Construction Engineering Co., Ltd., Tangshan Fengrun District Transportation Bureau, Emergency National Natural Disaster Prevention and Control Research Institute of the Ministry of Management, Zhejiang Geotechnical Foundation Co., Ltd., Guangdong Yuechuang Construction Co., Ltd., Huazhong University of Science and Technology, Jimunai County Housing and Urban-Rural Development Bureau, Hubei Provincial Construction Engineering Quality Supervision, Inspection and Testing Center Co., Ltd., Kunming Architectural Design Institute Co., Ltd., PowerChina Chongqing Engineering Co., Ltd., China Railway Construction Bridge Engineering Bureau Group Co., Ltd., China Railway Seventh Bureau Group Co., Ltd. An Railway Engineering Co., Ltd., China Railway 22nd Bureau Group Rail Engineering Co., Ltd., China Railway Construction Bridge Engineering Bureau Group Jingjiang Heavy Industry Co., Ltd. Co., Ltd., China Railway Construction Urban Construction and Transportation Development Co., Ltd., China Communications Construction Road and Bridge Construction Co., Ltd., and China Railway Seventh Bureau Group Third Engineering Co., Ltd. The main drafters of this document are. Yang Yiqian, Meng Xin, Yin Jing, Wang Yugang, Mao Hongtao, Ma Weiping, Chai Wei, Zhang Lijun, Geng Qingjun, Liu Penghui, Feng Jianjun, Wang Wei, Dong Zhensheng, Wang Yigan, Zhao Jianye, Zhou Zheng, Li Rui, Guo Jianfei, Chen Wenping, Liang Liang, Yu Qingru, Liu Haiyong, Luo Jie, Li Kejun, Liu Aimin, Cai Qingjun, Xue Xinhu, Guan Zhenxiang, Wang Xueqiang, Liu De, Wang Rongqi, Wu Hui, Cao Huoyong, Zhu Yunzhe, Zheng Xiangsheng, Shi Yaowen, Lou Lihong, Huang Shuai, Guan Renqiu, Wang Jinming, Liu Xiaocan, Liu Zhenqing, Hao Pengfei, Chen Qingmin, Dong Yiqiao, He Jianlin, Wang Qi, Cai Weifang, Zhang Yaohong, Huang Yi, Qihua Deng, Yawei Wang, Wenjun Zhang, Yinhao Sun, Longji Li, Bing Xiao, Pan Liu, Heng Wang, Chengguo Sun, Xin Zhang, Xiaochun Li, Zhuang Jin. The previous versions of this document and the documents it replaces are as follows. ---First published in.1993 as GB/T 14124-1993 "Basis for measurement and evaluation of the effects of mechanical vibration and shock on building vibration" This method and guidelines for use"; ---First revised in.2009 as GB/T 14124-2009 "Mechanical vibration and shock - Vibration measurement of buildings and their application" "Guidelines for the Assessment of Impacts on Buildings"; ---This is the second revision.

Introduction

The necessity of structures to withstand vibration has become a consensus, and structural integrity, reliability, and environmental compatibility need to be considered in the design. and the protection of historic buildings. Vibration measurements on structures are performed for a variety of purposes. a) Problem identification. Vibration levels in the structure have been reported to be causing problems for occupants and equipment, so it is necessary to determine whether Note the structural integrity. b) Control Monitoring. An organization has determined the maximum allowable vibration levels, which should be measured and reported. c) Documentation. Dynamic loads are determined in the design, and measurements are made to verify the predicted response and provide new design parameters (using Environmental excitation or imposed loads. For example, strong motion sensors can be installed to indicate whether the earthquake response will affect the usability of the structure). d) Diagnostics. Where it has been determined that vibration levels require further investigation, measurements are taken to provide information for vibration reduction measures (another This diagnostic method determines the structural state through the response to environmental excitation or external loads. For example, under severe loads such as earthquakes, after). Based on these different purposes, various measurement systems of varying complexity need to be deployed in different types of surveys. Many interested parties require technical guidance on the best methods for measuring, describing and evaluating the effects of vibration on structures. It is applicable to existing structures that are exposed to different types of excitations, and also to new structures built in environments where vibration sources may be significant. The effects of vibrations can also be determined analytically. Although this document can be used to evaluate the relative severity of structural vibrations, it cannot be considered as acceptable or unacceptable levels. Nor is economic and social aspects considered, which are left to the discretion of national regulators. Mechanical vibration and shock Vibration of fixed building structures Guide for the measurement of vibrations and the assessment of their effects on structures

1 Scope

This document specifies the principles for vibration measurement and data processing when evaluating the effects of vibration on structures. This document does not cover vibration excitation. The source of excitation determines the dynamic range, frequency or other relevant parameters. The structural vibration impact assessment is mainly based on the structural response, using appropriate The frequency, duration and amplitude are determined by appropriate analytical methods. This document applies only to the measurement of structural vibrations and does not include air sound pressure and other pressure The measurement of force fluctuations takes into account the response to these excitations. This document applies to all structures built above or below ground. These structures, whether in use or maintained, include buildings, structures of high value (cultural heritage), bridges, tunnels, gas and liquid facilities (including pipelines), geotechnical structures (such as dams and embankments) and fixed sea Offshore structures (such as piers and docks). This document is not applicable to certain special structures, including nuclear power plants and dams. The response of the structure is related to the vibration source. This document specifies the vibration measurement method under the excitation of the vibration source, that is, the frequency, duration, amplitude of the excitation Etc. The main vibration sources are earthquakes, strong winds, blasting, wind loads, airborne sound, sonic booms, internal machinery, transportation, and construction.

2 Normative references

The contents of the following documents constitute essential clauses of the document through normative references in this text. Only the version corresponding to that date applies to this document; for undated referenced documents, the latest version (including all amendments) applies to this document. document. ring-Vocabulary) Note. GB/T 2298-2010 Mechanical vibration, shock and condition monitoring vocabulary (ISO 2041.2009, IDT).

3 Terms and definitions

For the purposes of this document, the terms and definitions defined in ISO 2041 and the following apply. 3.1 Vibration source Simple or complex solids, liquids or gases, etc. that cause vibrations in the environment. [Source. ISO 14964.20001)[8],3.10] 3.2 vibrationevent Changes in existing ambient vibrations caused by one or more sources. 3.3 Vibration receiver Any structure or structural element that responds to vibration energy from an internal or external source. [Source. ISO 14964.20001)[8],3.11]
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