Sort by:
Publication Type:
Open access:
Publication Date:
Periodicals:
Search results
Online since: October 2009
Authors: Lee Allen, Paul Hipwood, Barry Houghton
Cast House Challenges
Specifically for the cast house, the client had important design criteria that had to be respected in
the engineering phase.
Cast House Engineering Solios Thermal, was chosen to be part of the clients engineering team because of its extensive experience in cast houses.
The engineering contract was for the preparation and development of the complete cast house layout, water cooling system, basement, casting pit, and building design with sufficient detail to allow local civil engineering contractors and other suppliers to accurately bid for detail civil design work and ancillaries.
Turnkey Contract In addition to involvement in the cast house engineering process, Solios Thermal were contracted to supply key cast house equipment.
Plant Construction From the cast house engineering exercise, sufficient information was given to the civil engineers to start the detail design.
Cast House Engineering Solios Thermal, was chosen to be part of the clients engineering team because of its extensive experience in cast houses.
The engineering contract was for the preparation and development of the complete cast house layout, water cooling system, basement, casting pit, and building design with sufficient detail to allow local civil engineering contractors and other suppliers to accurately bid for detail civil design work and ancillaries.
Turnkey Contract In addition to involvement in the cast house engineering process, Solios Thermal were contracted to supply key cast house equipment.
Plant Construction From the cast house engineering exercise, sufficient information was given to the civil engineers to start the detail design.
Online since: December 2013
Authors: Kang Min Lee, Woo Seok Kim, Chan Jeoung, Jae Ha Lee
Seismic Analysis ofConcreteConicalFoundation for 5 MWWindTurbine
WooSeok Kim1,a, Chan Jeoung1,b,Kangmin Lee2,c, and Jae Ha Lee3,d
1Dept. of Civil Engineering, Chungnam National Univeristy, Daejeon, Republic of Korea
2Dept. of Architectural Engineering, Chungnam National University, Daejeon, Republic of Korea
3Dept. of Civil Engineering, Korea Maritime University, 727 Taejong-ro, Youngdo-gu, Busan, Republic of Korea
awooseok@cnu.ac.kr,btony0946@hanmail.net,cleekm@cnu.ac.kr (corresponding), dleon397@gmail.com
Keywords:seismic event, wind turbine, response spectrum
Abstract.Recently offshore wind turbines have been constructed and planned in Korea.
Numerical Modeling The wind turbine tower and foundation weremodeled using a commercially available finite element analysis tool, Midas/Civil [4].
[4] Midas Information Technology Co.: Midas/Civil 2012 Analysis Reference(Midas Information Technology Co., South Korea, 2012).
Numerical Modeling The wind turbine tower and foundation weremodeled using a commercially available finite element analysis tool, Midas/Civil [4].
[4] Midas Information Technology Co.: Midas/Civil 2012 Analysis Reference(Midas Information Technology Co., South Korea, 2012).
Online since: May 2011
Authors: Ling Chao Kong, Wei Du, Ya Ding Zhao, Xue Ying Li
Influence of variable temperature curing on mechanical properties of
fly ash concrete
Yading Zhaoa ,Xueying Lib,Lingchao Kongc and Wei Dud
School of Civil Engineering, Harbin Institute of Technology, Harbin, 150001, China.
Introduction With the rapid development of civil engineering, construction and applications of mass concrete in winter become increasingly common[1-6].
But the hydration of cement and the change of construction environment have a marked effect on internal concrete and the concomitant property, moreover, which decides the lifetime and using security of civil engineering[7-10].
To simulate practical engineering, it is studied that the mechanical properties including compressive strength, flexural strength and dynamic elastic modulus of concrete with the percentages of fly ash separately being 0,30%,50%.
Journal of Water Resources and Architectural Engineering. 2008(2),p67 [8] T.P.Chen,X.W.Wen,Y.Y.Sun.
Introduction With the rapid development of civil engineering, construction and applications of mass concrete in winter become increasingly common[1-6].
But the hydration of cement and the change of construction environment have a marked effect on internal concrete and the concomitant property, moreover, which decides the lifetime and using security of civil engineering[7-10].
To simulate practical engineering, it is studied that the mechanical properties including compressive strength, flexural strength and dynamic elastic modulus of concrete with the percentages of fly ash separately being 0,30%,50%.
Journal of Water Resources and Architectural Engineering. 2008(2),p67 [8] T.P.Chen,X.W.Wen,Y.Y.Sun.
Online since: March 2013
Authors: Yi Qiang Xiang, Li Chang Zhang, Qiang Qiang Wu
Behaviour Analysis of Prestressed Concrete Deck-Tied Arch Bridge
Yiqiang Xiang1,a ,Lichang Zhang1,b and Qiangqiang Wu1,c
1College of Civil Engineering and Architecture, Zhejiang University, Hangzhou 310058, China
aemail: xiangyiq@zju.edu.cn, b* email: zhanglichang6626@126.com, c.wuqiang_qiang@126.com
Keywords: Bridge engineering, Prestressed Concrete, Deck-tied arch bridges, behaviour, Analysis
Abstract.
Taking Yingbin Bridge as engineering background, the reasonable analysis model was established and behaviour of the bridge under design load was analyzed.
Huang S.A. used Midas/Civil analyzing the tied arch bridge with steel box arch and studied the bridge’ behaviour during construction and operation[2].
This article takes the urban bridge -Yingbin Bridge as an example of engineering background, the static behavior was analyzed by combining with its structure design.
Engineering Background Design Parameters of Bridge.
Taking Yingbin Bridge as engineering background, the reasonable analysis model was established and behaviour of the bridge under design load was analyzed.
Huang S.A. used Midas/Civil analyzing the tied arch bridge with steel box arch and studied the bridge’ behaviour during construction and operation[2].
This article takes the urban bridge -Yingbin Bridge as an example of engineering background, the static behavior was analyzed by combining with its structure design.
Engineering Background Design Parameters of Bridge.
Online since: November 2012
Authors: Zhang Lin Guo, Hua Zhang
Study of Natural Disasters Contract Conditions Based on
the FIDIC Criteria
Zhanglin Guo1,a and Hua Zhang2,b
1Department of civil engineering, North China Institute of Science and Technology, Beijing 101601, China
2Hebei University of Engineering, Handan 056038, China
agg_zz_ll@163.com, b316080624@qq.com
Keywords: construction; FIDIC; natural disaster; contract condition; risk responsibility.
But the effect of bad weather on engineering geology and humanistic geology can be prevented or avoided to some extent.
Force majeure is an exception clause in Contract law and FIDIC civil engineering construction contract conditions.
Exception clause is described from item 19.1 to item 19.7 in FIDIC civil engineering construction contract conditions.
Dai, Engineering Risk Analysis Techniques, Chemical Industry Press, Beijing, 2007
But the effect of bad weather on engineering geology and humanistic geology can be prevented or avoided to some extent.
Force majeure is an exception clause in Contract law and FIDIC civil engineering construction contract conditions.
Exception clause is described from item 19.1 to item 19.7 in FIDIC civil engineering construction contract conditions.
Dai, Engineering Risk Analysis Techniques, Chemical Industry Press, Beijing, 2007
Online since: February 2018
Authors: A Hyma, P. Pradeep Kumar, R. Sandhya Rani, K. Ravi Shekar
., Department of Civil Engineering, MVSR Engineering College, Hyderabad, India
3Assistant Prof., Department of Civil Engineering, Matrusri Engineering College, Hyderabad, India
4Associate Prof., Department of Civil Engineering, MLR Institute of Technology and Management, India
asandhyaupendar@gmail.com, bhymakurella@gmail.com, crskatru73@gmail.com, dppkumar1985@gmail.com
Keywords: CBR (California Bearing Ratio), clay soil, Geotextiles
Abstract: Geo-textiles are polymers of high tensile strength, and they are flexible in nature.
They are widely used in a variety of engineering applications including soil reinforcement.
Geo-synthetics are human-made materials made from various types of polymers used to enhance, augment and make possible cost effective Environmental, Transportation and Geotechnical engineering construction projects.
S. (1990), “Engineering with Geo-synthetics”, Tata MaGraw-Hill Publishing Company Limited, New Delhi
[3] Hausmann, R Manfred (1990), “Engineering Principles of Ground Modification”, McGraw-Hill Publishing Company
They are widely used in a variety of engineering applications including soil reinforcement.
Geo-synthetics are human-made materials made from various types of polymers used to enhance, augment and make possible cost effective Environmental, Transportation and Geotechnical engineering construction projects.
S. (1990), “Engineering with Geo-synthetics”, Tata MaGraw-Hill Publishing Company Limited, New Delhi
[3] Hausmann, R Manfred (1990), “Engineering Principles of Ground Modification”, McGraw-Hill Publishing Company
Online since: October 2011
Authors: S.T. Agusril, Mohamed Yusof Alias, Abdullah Shohaimi, Norazman Mohamad Nor, Ahmad Mujahid Ahmad Zaidi
Heffernan “FRP for structures in support of construction engineers of the Canadian Forces”.
Proc., Advanced Composites Materials in Bridges and Structures, Canadian Society for Civil Engineering, Montreal. pp. 435-444, 1992
Proc., Advanced Composites Materials in Bridges and Structures, Canadian Society for Civil Engineering, Montreal. pp. 975-982, 1996
Journal of Bridge Engineering, © ASCE / Jul/Aug. pp. 489-498, 2006
M.Sc Thesis, Faculty of Engineering, UPNM, 2010
Proc., Advanced Composites Materials in Bridges and Structures, Canadian Society for Civil Engineering, Montreal. pp. 435-444, 1992
Proc., Advanced Composites Materials in Bridges and Structures, Canadian Society for Civil Engineering, Montreal. pp. 975-982, 1996
Journal of Bridge Engineering, © ASCE / Jul/Aug. pp. 489-498, 2006
M.Sc Thesis, Faculty of Engineering, UPNM, 2010
Online since: March 2014
Authors: Carmen Couto Ribeiro, Paula Bamberg, Joana Darc da Silva Pinto, Cristina Durães de Godoy, Tadeu Starling
Belo Horizonte, MG, Brazil.
2 Dept. of Civil Engineering, Pontifícia Universidade Católica de Minas Gerais, PUC-Minas - Av.
Belo Horizonte, MG, Brazil. 5 Dept. of Civil Engineering, Pontifícia Universidade Católica de Minas Gerais, PUC-Minas.
Based on a general assessment of the coatings being adopted by civil engineers as a function of the aggressive agents, Almusallam et al. (2003) classified protective concrete coatings [7].
An important contribution to research into concrete durability has thus been made, increasing the interaction among diverse applications, especially the engineering of materials and civil engineering.
Materiais de Construção Civil. 3ª ed.
Belo Horizonte, MG, Brazil. 5 Dept. of Civil Engineering, Pontifícia Universidade Católica de Minas Gerais, PUC-Minas.
Based on a general assessment of the coatings being adopted by civil engineers as a function of the aggressive agents, Almusallam et al. (2003) classified protective concrete coatings [7].
An important contribution to research into concrete durability has thus been made, increasing the interaction among diverse applications, especially the engineering of materials and civil engineering.
Materiais de Construção Civil. 3ª ed.
Online since: January 2012
Authors: Yan Bing Liu, Hui He
Analysis of numerical simulation of micropiles reinforcing shallow landslide
Hui He 1,a, Yanbing Liu 2,b
1College of Civil Engineering, Xi’an technological university, Xi’an, Shanxi 710036, China
2 College of Civil Engineering, Xi’an technological university, Xi’an, Shanxi 710036, China
ahehui710032@163.com, bwc200303@163.com
Keywords: micropiles, landslide, numerical simulation, FLAC3D.
Ground Engineering May. 1989, 22(1): 41-47
Chinese Journal of Rock Mechanics and Engineering, 2005, 24(2): 5459-5463.
Geotechnical Engineering Technique, 2004, 18(l): 47-50.
Science Technology and Engineering, 2010, 33.
Ground Engineering May. 1989, 22(1): 41-47
Chinese Journal of Rock Mechanics and Engineering, 2005, 24(2): 5459-5463.
Geotechnical Engineering Technique, 2004, 18(l): 47-50.
Science Technology and Engineering, 2010, 33.
Online since: November 2010
Authors: Wei Bing Hu, Hai Pin Yu
The Application of Neural Networks in the Reliability Evaluation of
Structures
Hu Weibing1,a, Yu Haipin1,b
1
School of Civil Engineering Xi'an Univ. of Arch. & Tech.
According to the Chinese Structure Code and engineering experience, the factors affecting the reliability of structures are properly qualified as input parameters; this paper mainly researches the application of neural networks in the reliability evaluation of structures.
In civil engineering, Flood, Wong, Garrett, deliver up appropriate in construction scheme optimization, earthquake prediction and structure of the classification of evaluation applications in artificial neural network technology and good results were obtained.
Actual engineering were selected 10, 9 cases, judge success rate of 1, determine 90%, having high success rate of network.
Conclusion Using the artificial neural network method to evaluate the reliability of existing structures, after the appraisal of engineering examples, the inference is reliable.
According to the Chinese Structure Code and engineering experience, the factors affecting the reliability of structures are properly qualified as input parameters; this paper mainly researches the application of neural networks in the reliability evaluation of structures.
In civil engineering, Flood, Wong, Garrett, deliver up appropriate in construction scheme optimization, earthquake prediction and structure of the classification of evaluation applications in artificial neural network technology and good results were obtained.
Actual engineering were selected 10, 9 cases, judge success rate of 1, determine 90%, having high success rate of network.
Conclusion Using the artificial neural network method to evaluate the reliability of existing structures, after the appraisal of engineering examples, the inference is reliable.