题名

新竹科學園區1990年代之十層樓鋼構造標準廠房微振動長期監測及耐震能力評估

并列篇名

Long-Term Micro-Vibration Monitoring and Seismic Performance Evaluation of an Existing 10-Story Steel Factory in Hsinchu Science Park

DOI

10.6849/SE.201803_33(1).0001

作者

周中哲(Chung-Che Chou);曾冠霖(Steven Tsuang);凌郁婷(Yu-Ting Ling)

关键词

新竹鋼構造標準廠房 ; 微振動 ; 耐震能力 ; 非韌性抗彎矩接頭 ; Steel factory ; Micro-vibration ; Seismic performance ; Moment connection

期刊名称

結構工程

卷期/出版年月

33卷1期(2018 / 03 / 01)

页次

5 - 27

内容语文

繁體中文

中文摘要

新竹科學園區建立於1979年,為臺灣重要經濟支柱,然而臺灣地震頻繁,平時的微振動影響廠內精密儀器的精度以及製程良率,中小型地震下可能造成儀器損壞;強震則可能造成結構物破壞,危及廠內生命財產。為瞭解各種等級振動對既有廠房的影響,本研究在科技部的補助下以新竹科學園區內於1991年完成設計,1995年完工的第一座鋼構造高層標準廠房進行長期微振動監測以及耐震能力評估;監測系統蒐集該廠房2015年1月至2015年10月的微振動資料,並分析微振動等級及來源,監測期間收集多次中小型地震紀錄,並涵蓋數次的強颱事件(如2015年蘇迪勒及杜鵑颱風),瞭解結構物在地震力及風力擾動下的反應特性。為瞭解廠房是否滿足現行規範的耐震要求,本研究根據1989年臺灣建築技術規則與現行臺灣建築物耐震設計規範(2011)計算地震力,並利用長期監測資料校正廠房的數值分析模型,進行結構物非線性側推分析與設計地震力(DBE)及最大考量地震力(MCE)下的20組非線性地震歷時分析,評估此廠房耐震能力。

英文摘要

The Hsinchu Science Park was opening in 1979 and becomes a very important high-tech area in Taiwan to support the economic growth. This work supported by the MOST, Taiwan focused on the micro-vibration and seismic performance of an existing 10-story steel factory that was designed in 1991 and completed in 1995 in Hsinchu Science Park, Taiwan. A few velocity and acceleration meters were used to monitor the building micro-vibration and performance during earthquakes and typhoons. The monitoring duration is from January to October, 2015 while Typhoons Soudelor and Dujuan and several small earthquakes hit the building. The recorded data was used to (1) evaluate the factory performance in terms of micro-vibration in vertical and longitudinal directions, and (2) adjust the building computer model such as the fundamental period and damping ratio. Then, the nonlinear pushover analysis and time history analyses were conducted on the factory model to obtain seismic demands on design-based and maximum-considered earthquake levels.

主题分类 工程學 > 工程學總論
工程學 > 土木與建築工程
参考文献
  1. 鋼結構極限設計法規範及解說,內政部營建署,中華民國 100 年。
  2. 建築物耐震設計規範與解說,內政部營建署,中華民國 100 年。
  3. 建築技術規則,內政部營建署,中華民國78 年。
  4. Aalami, B. O.(2008).Vibration design of concrete floors for serviceability.CA:ADAPT Corporation.
  5. Amick, H.,Gendreau, M.,Busch, T.,Gordon, C.(2005).Evolving criteria for research facilities: I – Vibration.Proceedings of SPIE Conference,San Diego, California:
  6. ASCE(2013).Minimum design loads for buildings and other structures. ASCE/SEI 7-10.Reston, VA.:
  7. Celebi, M.,Phan, L. T.,Marshall, R. D.(1993).Dynamic characteristic of five tall buildings during strong and low-amplitude motions.Struct. Des. Tall Build.,2(1),1-15.
  8. Chen, C.-C.,Lin, C.-C.(2013).Seismic performance of steel beam-to-column moment connections with tapered beam flanges.Engineering Structures,48,588-601.
  9. Chou, C.-C.,Jao, C.-K.(2010).Seismic rehabilitation of welded steel beam-to-box column connections utilizing internal flange stiffeners.Earthquake Spectra,26(4),927-950.
  10. Chou, C.-C.,Uang, C.-M.(2002).Cyclic performance of a type of steel beam to steel-encased reinforced concrete column moment connections.J. Constructional Steel Research,58,637-663.
  11. Chou, C.-C.,Uang, C.-M.(2007).Effects of continuity plate and transverse reinforcement on cyclic behavior of SRC moment connections.J. Structural Engineering, ASCE,133(1),96-104.
  12. Cruz, C.,Miranda, E.(2017).Evaluation of damping ratios for the seismic analysis of tall buildings.J. Structural Engineering, ASCE,143(1),144–1-144–10.
  13. Gordon, C. G.(1991).Generic Criteria for Vibration Sensitive Equipment, Vibration Control in Microelectronics.SPIE Prod,1619,71-85.
  14. Ibrahim, S. R.(1977).Random Decrement Technique for Modal Identification of Structures.Journal of Spacecraft and Rockets,14,696-700.
  15. Ibrahim, S. R.,Mikulcik, E. C.(1976).A method for the direct identification of vibration parameters from the free responses.Shock and Vibration Bulletin,47(4),183-198.
  16. Lin, B. Z.,Yu, Y. J.,Chuang, M. C.,Tsai, K. C.(2009).PISA3D Standard Edition R3.0 User’s Manual.Taiwan:National Center for Research on Earthquake Engineering.
  17. Loh, C. H.,Chao, S. H.,Weng, J. H.,Wu, T. H.(2015).Application of subspace identification technique to long-term seismic response monitoring of structures.Earthquake Engineering & Structural Dynamics,44(3),385-402.
  18. National Institute of Building Sciences,Building Seismic Safety Council(2012).NEHRP Recommended Provisions: Design Examples. FEMA P-751.
  19. Tsai, K.-C.,Chou, C.-C.,Lin, C.-L.,Chen, P.-C.,Jhang, S.-J.(2008).Seismic self­centering steel bea­to­column moment connections using bolted friction devices.Earthquake Engineering & Structural Dynamics,37(4),627-645.
  20. 周中哲(子計畫主持人)(2014)。科技部整合型計畫(2014-2015)科技部整合型計畫(2014-2015),科技部。
  21. 周中哲,蔡克銓,汪永宇,饒智凱(2010)。鋼造梁柱側板補強接頭耐震設計及行為。中國土木水利工程學刊,22(1),85-97。
  22. 周中哲,羅盛威,劉俊秀(2012)。翼型鋼柱與鋼梁內加勁接頭耐震設計與試驗分析。結構工程,27(4),51-69。
  23. 周中哲,饒智凱(2008)。鋼骨梁柱梁翼內側加勁板補強接頭耐震行為。結構工程,23(4),101-123。
  24. 凌郁婷(2016)。國立臺灣大學土木工程學系。
被引用次数
  1. 鍾秉庭,蔡文璟,周中哲(2019)。鋼造自復位挫屈束制斜撐(SC-SBRB)發展及耐震試驗。結構工程,34(1),57-76。