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Online since: March 2013
Authors: Xiao Dan Fang, Hong Wei, Guan Xin Chen, Zheng Qin Yao
Results show that the steel bar reinforced high-strength concrete columns are applicable to practical engineering.
l Establishment of a calculating equation for the axial compressive bearing capacity of steel bar reinforced high-strength concrete columns, providing a reference for practical engineering applications.
Yang: World Earthquake Engineering, Vol.23 (2007) NO. 4, p. 13 (In Chinese)
Zhu: China Civil Engineering Journal, Vol.43 (2010) NO.6, p. 53 (In Chinese)
Du, Earthquake Resistant Engineering, Aug. (2004) NO.4, p. 32 (In Chinese).
l Establishment of a calculating equation for the axial compressive bearing capacity of steel bar reinforced high-strength concrete columns, providing a reference for practical engineering applications.
Yang: World Earthquake Engineering, Vol.23 (2007) NO. 4, p. 13 (In Chinese)
Zhu: China Civil Engineering Journal, Vol.43 (2010) NO.6, p. 53 (In Chinese)
Du, Earthquake Resistant Engineering, Aug. (2004) NO.4, p. 32 (In Chinese).
Online since: November 2012
Authors: Hai Tao Wan, Li Li
Performance Comparison of Beams with Different Stirrups
Haitao Wan 1, a, Li Li2,b
1 School of Civil Engineering and Architecture, Henan University, Kaifeng, Henan, 475004, China
2 School of Civil Engineering and Architecture, Henan University, Kaifeng, Henan, 475004, China
awht110119040@163.com, blylylee@163.com
Keywords: Reinforcement, Reinforced concrete beam, Low cyclic loading test, Stirrups
Abstract.
Sheikh:Journal of Structural Engineering, vol. 124(9) (1998), pp.999-1010
Yun: Engineering Structures Journal, vol. 26(1) (2004), pp.1-12
Sheikh:Journal of Structural Engineering, vol. 124(9) (1998), pp.999-1010
Yun: Engineering Structures Journal, vol. 26(1) (2004), pp.1-12
Online since: October 2013
Authors: Jing Li, Bin He, Chen Hao
Introduction
Suspension cable structure is widely used in civil, bridge, power and communication engineering because this structure is easy to devise, reliable to apply and simple to analysis its force (Fig. 1).
Cable bent tower Main cable Vertical sling Trussed beam anchor Fig. 1 The major structure of suspension Cable Bridge Non-linear dynamics of the cables becomes more and more important because they are widely used in the structural and electrical engineering.
The result has important significance for solving the problem of icing suspension cable in engineering mechanics.
Journal of Civil Engineering and Management. 16 (2010) 149-154
Cable bent tower Main cable Vertical sling Trussed beam anchor Fig. 1 The major structure of suspension Cable Bridge Non-linear dynamics of the cables becomes more and more important because they are widely used in the structural and electrical engineering.
The result has important significance for solving the problem of icing suspension cable in engineering mechanics.
Journal of Civil Engineering and Management. 16 (2010) 149-154
Online since: January 2015
Authors: Yan Wei Li, Lin Hai Zhang
Finite element model updating of T beam bridge based on ANSYS
Yanwei Li1, a ,Linhai Zhang2, b
1 Architecture and Civil Engineering,Taiyuan University of Technology,Taiyuan,China
2 Architecture and Civil Engineering,Taiyuan University of Technology,Taiyuan,China
a641816006@qq.com,b1039930998@qq.com
Keywords: bridge; static data; finite element method; optimization; model updating
Abstract.
The static characteristics of the T beam The static load test in the The Third Engineering Huozhou to Yonghe (West) four Corps beam field.
(2) this paper uses the optimization theory of ANSYS makes the theoretical model and actual model similar.It can have important practical significance for engineering in the bridge damage assessment and detection.
The static characteristics of the T beam The static load test in the The Third Engineering Huozhou to Yonghe (West) four Corps beam field.
(2) this paper uses the optimization theory of ANSYS makes the theoretical model and actual model similar.It can have important practical significance for engineering in the bridge damage assessment and detection.
Online since: December 2014
Cunha - University of Minho, Portugal
Ulisses Targino Bezerra - Federal Institute of Paraíba, Brazil
Victor Ferreira - University of Aveiro, Portugal
Local organizing committee:
José Aguiar (Chairman) - University of Minho, Portugal
Aires Camões - University of Minho, Portugal
Arman Shasavandi - University of Minho, Portugal
Fernando Pacheco Torgal - University of Minho, Portugal
Mohammad Kheradmand - University of Minho, Portugal
Raphaele Malheiro - University of Minho, Portugal
Raul Fangueiro - University of Minho, Portugal
Rute Eires - University of Minho, Portugal
Sandra Cunha - University of Minho, Portugal
Zahra Abdollahnejad - University of Minho, Portugal
Scientific committee:
Aires Camões - University of Minho, Portugal
Alexandre Vargas - Feevale University, Brazil
Ana Velosa - University of Aveiro, Portugal
António Tadeu - University of Coimbra, Portugal
Arlindo Gonçalves - National Laboratory of Civil
Engineering, Portugal Augusto Gomes - Technical University of Lisbon, Portugal Carlos Moraes - University of Vale do Rio dos Sinos, Brazil Enio Pazini Figueiredo - Federal University of Goiás, Brazil Eugénia Fonseca da Silva - University of Brasilia, Brazil Feliciane Andrade Brehm - University of Vale do Rio dos Sinos, Brazil Fernando G.
Federal University of Santa Maria, Brazil Holmer Savastano Jr. - University of São Paulo, Brazil Humberto Correia Lima Jr. - Federal University of Pernambuco, Brazil Inês Flores-Colen - Technical University of Lisbon, Portugal Isabel Torres - University of Coimbra, Portugal João Castro Gomes - University of Beira Interior, Portugal Jorge de Brito - Technical University of Lisbon, Portugal José Aguiar - University of Minho, Portugal Khosrow Ghavami - PUC - Pontifical Catholic University of Rio de Janeiro, Brazil Luís Juvandes - University of Porto, Portugal Marcos Alyssandro Anjos - Federal Institute of Education, Science and Technology of Rio Grande do Norte, Brazil Mariana Correia - Higher School of Gallaecia, Portugal Normando Perazzo Barbosa - Federal University of Paraiba, Brazil Paulo Lima - State University of Feira de Santana, Brazil Raul Fangueiro - University of Minho, Portugal Rosário Veiga - National Laboratory of Civil
Engineering, Portugal Rute Eires - University of Minho, Portugal Ruy Arini - Paulista University, Brazil Said Jalali - University of Minho, Portugal Ulisses Targino Bezerra - Federal Institute of Paraíba, Brazil Vasco Freitas - University of Porto, Portugal Victor Ferreira - University of Aveiro, Portugal Sponsors: University of Minho, School of Engineering Federal University of Paraiba APFAC - Portuguese Association of Manufacturers of Mortars and ETICS APICER - Portuguese Association of the Ceramics Industry ANIPB - National Association of Precast Concrete Industries ABMTENC - Brazilian Association for Non-Conventional Materials and Technologies ProTerra - Ibero-American Network of Architecture and Construction with Earth Portuguese Sustainable Construction Platform - Sustainable Habitat Cluster Association Centro da Terra Order of Architects Order of Engineers Construção Magazine
Engineering, Portugal Augusto Gomes - Technical University of Lisbon, Portugal Carlos Moraes - University of Vale do Rio dos Sinos, Brazil Enio Pazini Figueiredo - Federal University of Goiás, Brazil Eugénia Fonseca da Silva - University of Brasilia, Brazil Feliciane Andrade Brehm - University of Vale do Rio dos Sinos, Brazil Fernando G.
Federal University of Santa Maria, Brazil Holmer Savastano Jr. - University of São Paulo, Brazil Humberto Correia Lima Jr. - Federal University of Pernambuco, Brazil Inês Flores-Colen - Technical University of Lisbon, Portugal Isabel Torres - University of Coimbra, Portugal João Castro Gomes - University of Beira Interior, Portugal Jorge de Brito - Technical University of Lisbon, Portugal José Aguiar - University of Minho, Portugal Khosrow Ghavami - PUC - Pontifical Catholic University of Rio de Janeiro, Brazil Luís Juvandes - University of Porto, Portugal Marcos Alyssandro Anjos - Federal Institute of Education, Science and Technology of Rio Grande do Norte, Brazil Mariana Correia - Higher School of Gallaecia, Portugal Normando Perazzo Barbosa - Federal University of Paraiba, Brazil Paulo Lima - State University of Feira de Santana, Brazil Raul Fangueiro - University of Minho, Portugal Rosário Veiga - National Laboratory of Civil
Engineering, Portugal Rute Eires - University of Minho, Portugal Ruy Arini - Paulista University, Brazil Said Jalali - University of Minho, Portugal Ulisses Targino Bezerra - Federal Institute of Paraíba, Brazil Vasco Freitas - University of Porto, Portugal Victor Ferreira - University of Aveiro, Portugal Sponsors: University of Minho, School of Engineering Federal University of Paraiba APFAC - Portuguese Association of Manufacturers of Mortars and ETICS APICER - Portuguese Association of the Ceramics Industry ANIPB - National Association of Precast Concrete Industries ABMTENC - Brazilian Association for Non-Conventional Materials and Technologies ProTerra - Ibero-American Network of Architecture and Construction with Earth Portuguese Sustainable Construction Platform - Sustainable Habitat Cluster Association Centro da Terra Order of Architects Order of Engineers Construção Magazine
Online since: May 2012
Authors: Zhi Wei Yu, Sheng Guo Cheng
Contrast Analysis of Data Processing Method Based on the MATLAB in Compaction Test
Zhiwei Yu1, a, Shengguo Cheng2, b
1College of Civil Engineering and Architecture, China Three Gorges University, Yichang, Hubei, 443002, China
2College of Civil Engineering and Architecture, China Three Gorges University, Yichang, Hubei, 443002, China
E-mail: a zwyu88@126.com,b csg@ctgu.edu.cn
Keywords: Optimum moisture content, Maximum dry density, Newton interpolation polynomial, Least-squares fitting, Curve fitting.
Introduction Soil compaction test is a very important indicator to measure compaction of soil,which is essential in the filling foundation design of engineering construction, like in railways, highways, bridges, airports, and water conservancy (reservoir dam).
Engineering Geology of Computer Applications, 2004, 33 (1): P.22-25.
Introduction Soil compaction test is a very important indicator to measure compaction of soil,which is essential in the filling foundation design of engineering construction, like in railways, highways, bridges, airports, and water conservancy (reservoir dam).
Engineering Geology of Computer Applications, 2004, 33 (1): P.22-25.
Online since: May 2011
Authors: Jun Chang, Yu Meng Wu
Research on Structural Damage Localization by Improved Curvature Method
CHANG Juna, WU Yu-mengb
School of Civil Engineering, University of Science and Technology of Suzhou, Suzhou, 215011
aemail: changjun21@126.com, bemail:wuyumeng@126.com
Keywords: damage localization; frequency index; curvature mode; combination index
Abstract: Damage identification is one of the main contents of structural health condition assessment.
Introduction Structural damage identification, as a part of structural health monitoring system, is becoming a hot research point for the academic and engineer community in recent years.
[4] Chang Jun (2006), “Curvature model based many damage locations identification of reinforced concrete beam”, Journal of Architecture and Civil Engineering, 23 (4): P24-27
[5] Wang ChengQiang, Chen Huaihai, Jiang Shuangyan (2009), “Research on the damage identification based on rotational mode shape curvature”, Journal of Naval Aeronautical Engineering Institute, 24(3): 24-27
Introduction Structural damage identification, as a part of structural health monitoring system, is becoming a hot research point for the academic and engineer community in recent years.
[4] Chang Jun (2006), “Curvature model based many damage locations identification of reinforced concrete beam”, Journal of Architecture and Civil Engineering, 23 (4): P24-27
[5] Wang ChengQiang, Chen Huaihai, Jiang Shuangyan (2009), “Research on the damage identification based on rotational mode shape curvature”, Journal of Naval Aeronautical Engineering Institute, 24(3): 24-27
Online since: October 2011
Authors: Jun Jie Han, Jian Min Yang
Department of Civil Engineering, Tianjin University, Tianjin 300072, China
2.
Key Laboratory of Coast Civil Structure Safety of Ministry of Education, Tianjin University, Tianjin 300072, China 3.
China Tianchen Engineering Corporation, Tianjin 300400, China; ayangjianmin@tju.edu.cn, b hanjunjie2521@cntcc.cn Keywords: drawdown; cone; well; confined aquifer Abstract.
Hydrogeology and engineering geology, 1983, (5):37-38(in Chinese) [2] Liu Tingxi,Liu Xiaoyan, Wang Yajuan, etc.
Comparative Analysis of “ Straight Line Trend Modeling Method” and “Drawdown Cone Method” in Calculation Aquifer Specific Yield, Journal of Inner Mongolia Agricultural University 2002,23(2): 22-25(in Chinese) [3] Shu Tung Chu, Transient radius of influence model, Journal of irrigation and drainage engineering, 1994, 120(5): 964-969 [4] Xue Yuqun, Theory of groundwater hydrodynamics.
Key Laboratory of Coast Civil Structure Safety of Ministry of Education, Tianjin University, Tianjin 300072, China 3.
China Tianchen Engineering Corporation, Tianjin 300400, China; ayangjianmin@tju.edu.cn, b hanjunjie2521@cntcc.cn Keywords: drawdown; cone; well; confined aquifer Abstract.
Hydrogeology and engineering geology, 1983, (5):37-38(in Chinese) [2] Liu Tingxi,Liu Xiaoyan, Wang Yajuan, etc.
Comparative Analysis of “ Straight Line Trend Modeling Method” and “Drawdown Cone Method” in Calculation Aquifer Specific Yield, Journal of Inner Mongolia Agricultural University 2002,23(2): 22-25(in Chinese) [3] Shu Tung Chu, Transient radius of influence model, Journal of irrigation and drainage engineering, 1994, 120(5): 964-969 [4] Xue Yuqun, Theory of groundwater hydrodynamics.
Online since: June 2016
Authors: Norbert Jendzelovsky, Lubomír Baláž
The Effects of Earthquake on the Cylindrical Tanks
JENDZELOVSKY Norbert 1,a* and BALAZ Lubomir 1,b
1Slovak University of Technology, Faculty of Civil Engineering, Radlinskeho 11,
810 05 Bratislava, Slovak Republic
anorbert.jendzelovsky@stuba.sk, blubomir.balaz@stuba.sk
Keywords: cylindrical tank, internal forces, earthquake, deformation, finite element method
Abstract.
Knowledge transfer between scientific research and engineering practice enabled by company Biogas Budca Ltd., Elektrarenska 1, Bratislava 831 04, Slovakia.
Grajciar, Analysis of hydrodynamic pressures in water filled rectangular container considering slightness γ = 1 exposed to the earthquake, Civil and environmental engineering Vol. 5, No. 2 (2009) 079-087.
Bratka, Contemporary approaches to seismic analysis of tank with fluid, in: Engineering mechanics, National conference with international participation, May 11-14, 2009, Svratka, Czech Rep., pp. 186-187.
Knowledge transfer between scientific research and engineering practice enabled by company Biogas Budca Ltd., Elektrarenska 1, Bratislava 831 04, Slovakia.
Grajciar, Analysis of hydrodynamic pressures in water filled rectangular container considering slightness γ = 1 exposed to the earthquake, Civil and environmental engineering Vol. 5, No. 2 (2009) 079-087.
Bratka, Contemporary approaches to seismic analysis of tank with fluid, in: Engineering mechanics, National conference with international participation, May 11-14, 2009, Svratka, Czech Rep., pp. 186-187.
Online since: December 2014
Authors: Er Wei Guo, Ying Xin Qian, Chen Guang Li, Gang Xu, Jin Dong Gao
The Application of Building Information Model in the Deepen Design of Prestressed Concrete Structures
Erwei GUO1,2,3,a,Yingxin QIAN3,b,Gang XU3,c,Jindong GAO3,d, Chenguang LI3,e
1Beijing Construction Engineering Group Co., Ltd.
Its purpose is as follows[2]: 1) According construction methods, practices and processes, process arrangements, construction drawings were optimized; them can be implemented fully equipped to meet the stringent requirements for prestressed concrete structures. 2) Detailed construction plans and sections were optimized, which not included the previous design drawings. 3) Deepen design include distinguishing other professional construction of civil engineering, plumbing and electricity, clearing construction content crossed each other, creating favorable conditions for the professional construction. 4) Deepen design of prestressed concrete structures includes tendons graphs, floor plans, and detail drawings of beams end-haunched, and deepen cross-sectional drawings.
AK201404); Project supported by Beijing Construction Engineering Group co., Ltd.
The Application of BIM Technology in The Structural Design[J] Journal of Information Technology in Civil Engineering and Architecture. 2010,4 [4] He Guanpei,Wang Yiqun, Ying Yugen.
Its purpose is as follows[2]: 1) According construction methods, practices and processes, process arrangements, construction drawings were optimized; them can be implemented fully equipped to meet the stringent requirements for prestressed concrete structures. 2) Detailed construction plans and sections were optimized, which not included the previous design drawings. 3) Deepen design include distinguishing other professional construction of civil engineering, plumbing and electricity, clearing construction content crossed each other, creating favorable conditions for the professional construction. 4) Deepen design of prestressed concrete structures includes tendons graphs, floor plans, and detail drawings of beams end-haunched, and deepen cross-sectional drawings.
AK201404); Project supported by Beijing Construction Engineering Group co., Ltd.
The Application of BIM Technology in The Structural Design[J] Journal of Information Technology in Civil Engineering and Architecture. 2010,4 [4] He Guanpei,Wang Yiqun, Ying Yugen.