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Online since: November 2016
Authors: Ann Thomas Jereen, Binu M. Issac, Soumya Anand
Seismic Evaluation of Buildings with Plan Irregularity
Jereen Ann Thomas 1,a *, Soumya Anand2,b , Binu M Issac3,c
1M.Tech Student, Structural Engineering and Construction Management,
Amal Jyothi College of Engineering, Kottayam, Kerala, India
2Assistant Professor, Department of Civil Engineering, Amal Jyothi College of Engineering, Kottayam, Kerala, India
3Structural Engineer, Aalaya Civil Engineering Services, Kottayam, Kerala, India
a jereenann1391@gmail.com, b soumyaanand@amaljyothi.ac.in,
c binumissac@yahoo.com
Keywords: Diaphragms, storey drift, irregular plan
Abstract With the application of modern technologies in Civil Engineering, construction of high rise buildings with irregular plan configuration is increasing very quickly.
References [1] Raúl González Herrera et.al (2008), “Influence of Plan Irregularity of Buildings”, 14th World conference on Earthquake engineering, October 12-17, Beijing, China
Mwafy et.al (2001) “Static pushover versus dynamic collapse analysis of RC buildings” Journal of engineering structures, Elsevier; 23: 407-424 [11] Sandesh N.
Suryawanshi (2014), “Torsional Behaviour of Asymmetrical Buildings in Plan under Seismic Forces”, International journal of emerging engineering research and Technology, Vol.2 (4): 170-176 [12] Yasser Alashker et.al (2015), “Effects of Building Configuration on Seismic Performance of RC Buildings by Pushover Analysis” Open journal of civil engineering , Scientific research publishing , 5(203-213)
Mouzzoun et.al (2013), “Seismic performance assessment of reinforced concrete buildings using pushover analysis”, IOSR Journal of Mechanical and Civil Engineering, Vol.5 (1):44-49 [14] Information on https://en .wikipedia.org/ wiki/Diaphragm (structural_system) [15] Information on https://en.wikipedia.org/ wiki/Seismic_analysis
References [1] Raúl González Herrera et.al (2008), “Influence of Plan Irregularity of Buildings”, 14th World conference on Earthquake engineering, October 12-17, Beijing, China
Mwafy et.al (2001) “Static pushover versus dynamic collapse analysis of RC buildings” Journal of engineering structures, Elsevier; 23: 407-424 [11] Sandesh N.
Suryawanshi (2014), “Torsional Behaviour of Asymmetrical Buildings in Plan under Seismic Forces”, International journal of emerging engineering research and Technology, Vol.2 (4): 170-176 [12] Yasser Alashker et.al (2015), “Effects of Building Configuration on Seismic Performance of RC Buildings by Pushover Analysis” Open journal of civil engineering , Scientific research publishing , 5(203-213)
Mouzzoun et.al (2013), “Seismic performance assessment of reinforced concrete buildings using pushover analysis”, IOSR Journal of Mechanical and Civil Engineering, Vol.5 (1):44-49 [14] Information on https://en .wikipedia.org/ wiki/Diaphragm (structural_system) [15] Information on https://en.wikipedia.org/ wiki/Seismic_analysis
Online since: September 2013
Authors: Lee Kuo Lin, Yueh Ching Wu, Bing Chen Tseng
The civil and construction industry is the basis of industries, it has always been known as the "leading industry" and in such industry the basic material is reinforced concrete.
Even in this 21st century materials science and engineering methods have developed perfectly, reinforced concrete still is the main structure material in civil and construction industry.
Introduction The civil construction industryisthe basisofindustry, it has always beenknown as"LeadingIndustrial"andthebasicmaterialisreinforced concrete.
Chinese institute of civil hydraulic engineering「Reinforced concrete constructionspecification」(Civil 402-70).
[5] Lee-kuo Lin,「Civil Engineering Construction Methods」, Taipei:Technology Library(2010)
Even in this 21st century materials science and engineering methods have developed perfectly, reinforced concrete still is the main structure material in civil and construction industry.
Introduction The civil construction industryisthe basisofindustry, it has always beenknown as"LeadingIndustrial"andthebasicmaterialisreinforced concrete.
Chinese institute of civil hydraulic engineering「Reinforced concrete constructionspecification」(Civil 402-70).
[5] Lee-kuo Lin,「Civil Engineering Construction Methods」, Taipei:Technology Library(2010)
Online since: December 2010
Authors: Gang Bing Song, Jun Teng, Bin Xu, Bing Li, Qing Huang
Introduction
In recent years, concrete-Filled Steel Tubes (CFSTs) have been widely employed in civil engineering structures, especially in super high-rise buildings.
The development of smart materials has provided new selections for long-term real-time health monitoring of civil engineering structures.
The strong potential of piezoelectric-based approach in the application in civil engineering was shown by describing the piezoelectric ceramic electric-machine coupling characteristics, the interaction model of piezoelectric Lead Zirconate Titanate (PZT) with body structure[4].
Qualitative impedance-based health monitoring of civil infrastructures.
Impedance-based health monitoring of civil structural components.
The development of smart materials has provided new selections for long-term real-time health monitoring of civil engineering structures.
The strong potential of piezoelectric-based approach in the application in civil engineering was shown by describing the piezoelectric ceramic electric-machine coupling characteristics, the interaction model of piezoelectric Lead Zirconate Titanate (PZT) with body structure[4].
Qualitative impedance-based health monitoring of civil infrastructures.
Impedance-based health monitoring of civil structural components.
Online since: June 2015
Edited by: Norbert Jendzelovsky, Alzbeta Grmanova, Olga Ivankova, Lenka Konecna
The 57 papers are grouped as follows:
Chapter 1: Statics and Stability of Civil Structures;
Chapter 2: Dynamics and Wind Engineering; Chapter 3: Problems in Material Engineering Keyword: Static Analysis, Dynamic Analysis, Seismic Behavior of Structures, Wind Engineering, Experimental Measurements, Computational Modeling, Optimization of Structures, Safety of Structures, Bridges, Buildings
Online since: July 2014
Authors: She Liang Wang, Jin Sheng He, Guang Yaun Weng
Application of magnetic control shape memory alloy in structural vibration control
Jinsheng He1,2,a, Sheliang Wang1,b, Guangyuan Weng3,b
1School of Civil Engineering, Xi’an University of Architecture and Technology, Xi’an, Shaanxi, 710055, China
2Academy of Building Research of Shaanxi Provincial, Xi’an, Shaanxi, 710082, China
3Depatmet of Highway Engineering, Shanxi Traffic Vocational School, Xi’an, Shaanxi, 710018, China
ayangtao0604@163.com bwangshel@aliyun.com
Keywords: structure; Vibration control; Magnetic controlled shape memory alloy; Magnetic properties; the constitutive relation
Abstract.
In order to effectively use Magnetically Controlled Shape Memory Alloy (MSMA) for vibration control in civil engineering structure, the deformation mechanism and dynamic characteristics of the MSMA were studied; research methods apply to the constitutive relation of vibration control in civil engineering structure is given.
Based on the study about MSMA vibration controller and its application in structural vibration control in engineering, MSMA in structure vibration control application prospect and development direction are introduced.
Rare Metal Materials and Engineering, 2005, 34(8), 1264-1266
China Civil Engineering Journa, 2004, 37(12): 10-1 6.
In order to effectively use Magnetically Controlled Shape Memory Alloy (MSMA) for vibration control in civil engineering structure, the deformation mechanism and dynamic characteristics of the MSMA were studied; research methods apply to the constitutive relation of vibration control in civil engineering structure is given.
Based on the study about MSMA vibration controller and its application in structural vibration control in engineering, MSMA in structure vibration control application prospect and development direction are introduced.
Rare Metal Materials and Engineering, 2005, 34(8), 1264-1266
China Civil Engineering Journa, 2004, 37(12): 10-1 6.
Online since: December 2010
Authors: Tian Rong Huang, Peng Cheng Wu, Gong Qi Cheng, Peng Jun Yue
Development in Research of Engineering Investigation
for Offshore Wind Farm
Tianrong Huang1, a, Pengcheng Wu2, b, Gongqi Cheng 3, c, PengJun Yue 4, d
1 China Ping an Insurance (Group) Operation Management Centre, China 201201
2 Shanghai International Shipping Service Centre Development Company, China200082
3 College of Civil Engineering, Tongji University China 200092
4College of Civil and Environment, Beijing University of Science and Technology, China100083
atinyo_huang@126.com,bshgjhyfwzx@126.com, cchenggongqi@126.com,dxyuepengjun@126.com
Keywords: offshore wind farm; engineering investigation; site conditions; design bases; experience of investigation.
Offshore engineering investigation includes oceanographic engineering survey, oceanographic rock and soil measurement, and oceanographic engineering environment survey.
l Soil stratification and description l Shear strength of soil and deformation characteristic l Site stress condition The lab civil work test should analyze the property variation of site soil stratum in the horizontal direction, satisfying the requirements of construction design.
Requirements of Engineering Investigation.
Journal of Civil Engineering and Management, 2006, 11(6): 189-195
Offshore engineering investigation includes oceanographic engineering survey, oceanographic rock and soil measurement, and oceanographic engineering environment survey.
l Soil stratification and description l Shear strength of soil and deformation characteristic l Site stress condition The lab civil work test should analyze the property variation of site soil stratum in the horizontal direction, satisfying the requirements of construction design.
Requirements of Engineering Investigation.
Journal of Civil Engineering and Management, 2006, 11(6): 189-195
Online since: March 2017
Authors: Svetlana Lvovna Shambina, Sergey Nikolayevich Krivoshapko, Christian A. Bock Hyeng
Later, invention of reinforced plastics gave a possibility to use them in thin-walled shells for civil and industrial buildings.
The engineered structures business unit brings together Gurit’s global capabilities in engineering, materials science, prototyping and manufacturing.
IOSR Journal of Engineering (IOSRJEN), 2013, Vol. 3, Iss. 3, p. 43-53
Gurit Engineered Structures Images: www.flickr.com/photos (2015)
Composite Structures for Civil and Architectural Engineering.
The engineered structures business unit brings together Gurit’s global capabilities in engineering, materials science, prototyping and manufacturing.
IOSR Journal of Engineering (IOSRJEN), 2013, Vol. 3, Iss. 3, p. 43-53
Gurit Engineered Structures Images: www.flickr.com/photos (2015)
Composite Structures for Civil and Architectural Engineering.
Online since: July 2014
Edited by: Guang Fan Li, Chao He Chen, Bi Feng Jiang, Qi Zhong Shen
Collection of selected, peer reviewed papers from the 2014 International Conference on Civil, Architechture and Building Materials (CEABM 2014), May 24-25, 2014, Haikou, China.
The 459 papers are grouped as follows:
Chapter 1: Sustainable City and Regional Development,
Chapter 2: Renewable Energy and Building Energy-Saving Technologies,
Chapter 3: Indoor Environment,
Chapter 4: City Ecological Environment,
Chapter 5: Water Purification and Wastewater Engineering, Treatment Technologies,
Chapter 6: Air Environment Control and Architectural Environment Improvement Techniques,
Chapter 7: Environmental Engineering and Monitoring, Environmental Protection Technologies,
Chapter 8: Road and Railway Engineering,
Chapter 9: Bridge Engineering,
Chapter 10: Transportation Planning and Systems, Routing and Logistics Engineering,
Chapter 11: Traffic and Transportation Control and Applied Information Technology,
Chapter 12: Computer Application Technology and Mathematical Modeling Keyword: Sustainable City and Regional Development; Renewable Energy and Building Energy-Saving Technologies; Indoor Environment
; City Ecological Environment; Water Purification and Wastewater Engineering, Treatment Technologies; Air Environment Control and Architectural Environment Improvement Techniques; Environmental Engineering, Environmental Protection; Road and Railway Engineering; Bridge Engineering; Transportation Planning and Systems
The 459 papers are grouped as follows:
Chapter 1: Sustainable City and Regional Development,
Chapter 2: Renewable Energy and Building Energy-Saving Technologies,
Chapter 3: Indoor Environment,
Chapter 4: City Ecological Environment,
Chapter 5: Water Purification and Wastewater Engineering, Treatment Technologies,
Chapter 6: Air Environment Control and Architectural Environment Improvement Techniques,
Chapter 7: Environmental Engineering and Monitoring, Environmental Protection Technologies,
Chapter 8: Road and Railway Engineering,
Chapter 9: Bridge Engineering,
Chapter 10: Transportation Planning and Systems, Routing and Logistics Engineering,
Chapter 11: Traffic and Transportation Control and Applied Information Technology,
Chapter 12: Computer Application Technology and Mathematical Modeling Keyword: Sustainable City and Regional Development; Renewable Energy and Building Energy-Saving Technologies; Indoor Environment
; City Ecological Environment; Water Purification and Wastewater Engineering, Treatment Technologies; Air Environment Control and Architectural Environment Improvement Techniques; Environmental Engineering, Environmental Protection; Road and Railway Engineering; Bridge Engineering; Transportation Planning and Systems
Online since: July 2014
Authors: Robert Černý, Dana Koňáková, Martin Keppert, Eva Vejmelková, Monika Čáchová
For our research, woods were selected according to frequency of utilization in civil engineering branch.
Introduction Energy intensiveness of structures becomes one of the main aspects in a civil engineering design.
With regard to studied materials, one of the most often used representatives in civil engineering branch of natural materials is indisputably wood.
Since the specific heat capacity is most common in civil engineering, measured volumetric heat capacity were than recalculated.
Studied materials were chosen according its frequency of application in civil engineering branch, and Quercus robur, Larix decidua, Picea abies and Pinus sylvestris were selected timber for needs of this study.
Introduction Energy intensiveness of structures becomes one of the main aspects in a civil engineering design.
With regard to studied materials, one of the most often used representatives in civil engineering branch of natural materials is indisputably wood.
Since the specific heat capacity is most common in civil engineering, measured volumetric heat capacity were than recalculated.
Studied materials were chosen according its frequency of application in civil engineering branch, and Quercus robur, Larix decidua, Picea abies and Pinus sylvestris were selected timber for needs of this study.
Online since: July 2011
Authors: Hui Hong Feng, Jing Si Chen
Talk on the Investment Control of Engineering Project Supervisor in Construction Stage
Huihong Feng1, a, Jingsi Chen2,b
1 School of Civil Engineering and Architecture, Southwest Petroleum University, Chengdu, Sichuan, 610500, China
2 School of Civil Engineering and Architecture, Southwest Petroleum University, Chengdu, Sichuan, 610500, China
afenghh163@163.com, bsummer68123@126.com
Keywords: Engineering Supervision, Construction Stage, Investment Control, Methods.
The Engineering Example of Beforehand Control.
To Handle the Engineering Claims Actively.
The Engineering Example of Afterwards Control.
References [1] Wang Dingshu, Wang Changshan, Construction Cost Control and Management in Engineering Construction,Academic Papers on Architecture and Civil Engineering, 2007(8):800-801 [2] Xu Jiyu, Practical Experience of Engineering Supervision in the Investment Control in the Construction,Project Management, 2006(06):38 [3] Wang Zhenbin,Supervision of the Engineering Construction Stage of Investment to Control of Discussion,Fujian Architecture & Construction, 2010(07):118-124 [4] Li Hongtao, Zhao Tianyu,Investment Control of Construction Crojects,Railway Engineering, 2006(12):103-104 [5] Yu Chengyu, Yu Yong,Engineering Cost Management and Investment Control,Port Engineering Technology, 2007(03):41 [6] Chen Dejian,Investment Control of Supervisor to Building Project Construction Stage, Construction Technology, 2005(12):33-35 [7] Yan Xing,Some Thinking for the Problems of Supervision,Sichuan Building Science, 2006(04):175-177 [8] Zhao Liang, Liu Guangchen,Construction Supervision
The Engineering Example of Beforehand Control.
To Handle the Engineering Claims Actively.
The Engineering Example of Afterwards Control.
References [1] Wang Dingshu, Wang Changshan, Construction Cost Control and Management in Engineering Construction,Academic Papers on Architecture and Civil Engineering, 2007(8):800-801 [2] Xu Jiyu, Practical Experience of Engineering Supervision in the Investment Control in the Construction,Project Management, 2006(06):38 [3] Wang Zhenbin,Supervision of the Engineering Construction Stage of Investment to Control of Discussion,Fujian Architecture & Construction, 2010(07):118-124 [4] Li Hongtao, Zhao Tianyu,Investment Control of Construction Crojects,Railway Engineering, 2006(12):103-104 [5] Yu Chengyu, Yu Yong,Engineering Cost Management and Investment Control,Port Engineering Technology, 2007(03):41 [6] Chen Dejian,Investment Control of Supervisor to Building Project Construction Stage, Construction Technology, 2005(12):33-35 [7] Yan Xing,Some Thinking for the Problems of Supervision,Sichuan Building Science, 2006(04):175-177 [8] Zhao Liang, Liu Guangchen,Construction Supervision