Sort by:
Publication Type:
Open access:
Publication Date:
Periodicals:
Search results
Online since: July 2015
Authors: Meftah Hrairi, A.K.M. Mohiuddin, M. Eshteyah, M.S. Dawood
Dawood, A.K.M Mohiuddin
Department of Mechanical Engineering, International Islamic University Malaysia
Keywords: Clinch process; Mechanical joining; FEM; Sheet metal; Optimization
Abstract.
Spisak, Archives of Civil and Mechanical Engineering, 2011. 11(1): p. 135-148
Spisak, Archives of Civil and Mechanical Engineering, 2011. 11(1): p. 135-148
Online since: August 2009
Authors: Ming Kai Zhou, Bei Xing Li, Fang Xu, Wei Guo Shen
Study on the Toughness Performance of Polypropylene Fiber and SBR
Polymer Latex Modified Cement Mortar
XU Fang1, a
, ZHOU Mingkai1, b, SHEN Weiguo1, c, LI Beixing
1, d
1
Key Laboratory for Silicate Material Science and Engineering of Ministry of Education,
Wuhan University of Technology, Wuhan 430070, China
a
xufang2001@163.com,
b
zhoumingkai@sina.com,
cshenwg@sohu.com,
d
libx@126.com
Key words: cement mortar; polypropylene fiber; SBR polymer latex; flexural toughness
Abstract: In this paper, polypropylene fiber and SBR polymer latex are added into cement mortar to improve the
toughness.
[3] JSCE-SF4,Method of test for flexural strength and flexural toughness of steel fiber reinforced concrete, Concrete Library of JSCE, Japan Society of Civil Engineering, 1984,(3): 58~61 [4] ASTM C1018-89, Standard test method for flexural toughness and first crack strength of fiber reinforced concrete,1991 Book of ASTM Standard, Part 04.02, ASTM, Philadelphia:507~513 [5] Standard of CECS89:13, Test method of Steel fiber reinforced concrete.
[3] JSCE-SF4,Method of test for flexural strength and flexural toughness of steel fiber reinforced concrete, Concrete Library of JSCE, Japan Society of Civil Engineering, 1984,(3): 58~61 [4] ASTM C1018-89, Standard test method for flexural toughness and first crack strength of fiber reinforced concrete,1991 Book of ASTM Standard, Part 04.02, ASTM, Philadelphia:507~513 [5] Standard of CECS89:13, Test method of Steel fiber reinforced concrete.
Online since: November 2011
Authors: Dao Zhen Xu, Xin Zhang, Guo Zhong Zhang
The Impact of Surface Tension on the Oil-Water Stratified Flow
Daozhen Xu1,a , Guozhong Zhang1,b and Xin Zhang1
1School of storage and transportation of oil and gas and civil engineering
China University of Petroleum
The city of Qingdao, China
adaozhenxu@163.com, bgzzhang@upc.edu.cn
Keywords: surface tension, interface curvature, pressure gradient
Abstract.
It is meaningful to work out the impact of the surface tension on the oil—water two—phase flow for the chemistry engineering and petroleum industry.
It is meaningful to work out the impact of the surface tension on the oil—water two—phase flow for the chemistry engineering and petroleum industry.
Online since: January 2012
Authors: Zai Gen Mu, Jian Xiao, Yin Lan Shen, Zhong Fan
Study on the Arc-Cable Supported Long Span Spatial Structure of Erdos Dong-Sheng Stadium
Zaigen MU1, Jian XIAO1, Yinlan SHEN1 and Zhong FAN2
1Department of Civil Engineering, University of Science and Technology Beijing, Beijing 100083, China
2China Architecture Design & Research Group, Beijing 100044, China
e-mail: zgmu@ces.ustb.edu.cn
Keywords— rational arc axis; types of arc axis; arc moment
Abstract.
Journal of Wuhan university of technology(Transportation science & Engineer-ing), 2001, 25(1):101-10 Fig. 1 The stadium blueprint Fig. 2 XZ plane view circle arch axis quadratic parabola arch axis 8 parabolic arch axis triangular arch axis Fig. 3 Distribution of bending moment Moment distribution under open-roof Moment distribution under closed-roof Fig. 4 The moment distribution of " the arc axis with open-roof " as basic arc axis Moment distribution under closed-roof Moment distribution under open-roof Fig. 5 The moment distribution under " the arc axis with closed-roof " as basic arc axis Moment distribution under envelop forced Moment distribution under close-roof Moment distribution under open-roof Fig. 6 The moment distribution of " the arc axis of envelop forces" as basic arc axis Moment distribution under the mean arc-moment of open and close roof Moment distribution under closed-roof Moment distribution under open-roof Fig. 7 The moment distribution
Journal of Wuhan university of technology(Transportation science & Engineer-ing), 2001, 25(1):101-10 Fig. 1 The stadium blueprint Fig. 2 XZ plane view circle arch axis quadratic parabola arch axis 8 parabolic arch axis triangular arch axis Fig. 3 Distribution of bending moment Moment distribution under open-roof Moment distribution under closed-roof Fig. 4 The moment distribution of " the arc axis with open-roof " as basic arc axis Moment distribution under closed-roof Moment distribution under open-roof Fig. 5 The moment distribution under " the arc axis with closed-roof " as basic arc axis Moment distribution under envelop forced Moment distribution under close-roof Moment distribution under open-roof Fig. 6 The moment distribution of " the arc axis of envelop forces" as basic arc axis Moment distribution under the mean arc-moment of open and close roof Moment distribution under closed-roof Moment distribution under open-roof Fig. 7 The moment distribution
Reinforcement Technology of Space Grid Structure for Reconstruction of Shandong Qufu Xingtan Theater
Online since: May 2011
Authors: Zhen Hua Liu, Xiao Bei Wang, Ming Gong, Lian Fen Weng
Reinforcement Technology of Space Grid Structure for
Reconstruction of Shandong Qufu Xingtan Theater
Lianfen Weng1, a, Ming Gong2,b, Zhenhua Liu1,c and Xiaobei Wang1,d
1College of Civil Engineering, Shandong University, Jinan 250061, China
2Zhejiang GOA Architect Design Co.
References [1] JGJ 7-91, Specification for design and construction of trussed structure (in Chinese) [2] CECS 77:96, Technical specification for strengthening steel structures (in Chinese) [3] Zhang Dehai, Nan bo and Shu Zheng: Journal of Shenyang Jianzhu University (Natural Science) Vol.26 (2010), p.62 (in Chinese) [4] Zhao Haidong, Zhao Ming and Zhou Songye: Building Construction Vol.31 (2009), p.349 (in Chinese) [5] Wu Helin, Yang Jinhua and Chen Zhu: Architectural and Structural Design (2008), p.15 (in Chinese) [6] Lu Yiyan, Chen Li, Gao Zuoping, Fan Zhenzhong and Wu Fan: Industrial Construction Vol.34 (2004), p.83 (in Chinese) [7] Lu Yiyan, Liu Lan, Chen Li and Zhang Haojun: Engineering Journal of Wuhan University Vol.38 (2005), p.112 (in Chinese) [8] GB50017-2003, Code for design of steel structures (in Chinese)
References [1] JGJ 7-91, Specification for design and construction of trussed structure (in Chinese) [2] CECS 77:96, Technical specification for strengthening steel structures (in Chinese) [3] Zhang Dehai, Nan bo and Shu Zheng: Journal of Shenyang Jianzhu University (Natural Science) Vol.26 (2010), p.62 (in Chinese) [4] Zhao Haidong, Zhao Ming and Zhou Songye: Building Construction Vol.31 (2009), p.349 (in Chinese) [5] Wu Helin, Yang Jinhua and Chen Zhu: Architectural and Structural Design (2008), p.15 (in Chinese) [6] Lu Yiyan, Chen Li, Gao Zuoping, Fan Zhenzhong and Wu Fan: Industrial Construction Vol.34 (2004), p.83 (in Chinese) [7] Lu Yiyan, Liu Lan, Chen Li and Zhang Haojun: Engineering Journal of Wuhan University Vol.38 (2005), p.112 (in Chinese) [8] GB50017-2003, Code for design of steel structures (in Chinese)
Online since: May 2012
Authors: Wei Huang, Ya Feng Yue, Dong Zhao
Seismic Experiments for Multi-ribbed Sandwich Insulation Composite Wallboard
Yafeng Yue1,2,a Wei Huang1, b Dong Zhao1,c
1School of Civil Engineering, Xi’an University of Architecture and Technology, Xi’an, 710055, P.R.
Journal of Structure Engineering, 2004, 115(9):2204-2225.
Journal of Structure Engineering, 2004, 115(9):2204-2225.
Online since: December 2010
Authors: Shu Ying Qu, Guo Dong Zhang, Hao Liu, Jia Zhang
The Research on the Stress Concentration Factor of T-Joints
Subjected to Axial load
Jia Zhang 1, a, Shuying Qu 1, b, Guodong Zhang 2, c and Hao Liu 1, d
1Department of Civil Engineering, Yantai University, Yantai, Shandong 264005, China
2Yantai CIMC Raffles Offshore Limited, China
azhangjia.lily0535@yahoo.com.cn, b qsy_qu@163.com, czgd-dog@163.com, dliuhao0603@yahoo.com.cn
Key Words: Tubular T-Joint; Stress Concentration Factor; Weld Modeling; Geometric Parameter; SCF Distribution Equation
Abstract.
(4) The parametric equations presented by this paper have relatively high precision and these parametric equations will be applicable in practical engineering.
(4) The parametric equations presented by this paper have relatively high precision and these parametric equations will be applicable in practical engineering.
Online since: August 2012
Authors: Jian Wei Zhang, Xiu Li Du, Cedrick Mbang Matamb
Research on Compression Failure and Size Effect in High Strength Eccentric Reinforced Concrete Column
Mabang (Cedrick Mbang Matamb), Du xiuli, Zhang jianwei
China, Beijing University of Technology, college of architecture and Civil Engineering, Beijing 100124
cedmbangu@yahoo.fr, duxiuli@bjut.edu.cn, zhangjw@bjut.edu.cn
Keywords: Reinforced concrete failure characteristics; Eccentric compression; size effect experiment research.
Journal of Structural Engineering, 2004, 130 (4): 662-670
Journal of Structural Engineering, 2004, 130 (4): 662-670
Online since: November 2012
Authors: He Nian Zhang, Guang Jun Sun, Qi Yun Sun
Simulation And Analysis For Environment Vibration Induced By Urban Rail Transit With Ground Line
He Nian Zhang1, Qi Yun Sun2, Guang Jun Sun3
1School of Architecture, Southeast University, Nanjing 210096, China
2College of Transportation Science & Engineering,
Nanjing University of Technology, 210009, China
3College of Civil Engineering, Nanjing University of Technology, 210009, China
1zhanghn_001@163.com
Keywords: Urban rail transit; Ground line; Environment vibration; Simulation; Analysis
Abstract: The environment vibration induced by urban rail transit becomes one of the severe environmental hazards and attracted great attention for researcher at home and abroad.
Online since: January 2013
Authors: Yong Yao, Xiao Ling Liu, Chao Wu Pei, Ting Lei
In-situ test of cohesive strength on the interface zone between mortar and aggregate in concrete
Xiao-ling Liua, Ting Lei, Chaowu Pei and YongYaob
School of Civil Engineering and Architecture, Southwest University of Science and Technology,
Mianyang, Sichuan, China
aliuxl-swjtu@163.com, byy001221@163.com
Keywords: interfacial transition zone; cohesive strength; in-situ test
Abstract.
Scientific and Technological Innovation Herald Engineering No.20 (2009): p.60
Scientific and Technological Innovation Herald Engineering No.20 (2009): p.60