Search results

The Finite Element Simulation Analysis of HPFL Reinforced Concrete Slab-column Structure JIANG Longmina, HE Aibob*, Huang Yan School of Civil Engineering, Hunan University of Technology , Zhuzhou , Hunan, China a527943658@qq.com , b502286885@qq.com, Keywords: HPFL ; reinforcement ; slab-column structure ; finite element ; failure mode Abstract.
Conclusions of the paper are supposed to provide some references for reinforcement design in practical engineering.
It is of good antioxidant performance, durability, fire resistance and high thermal resistance etc. with insignificant increase of the weight and the sectional dimension of members[1].The flexible reinforcement patterns promise it a wide application in structure reinforcement engineering.
This paper attempts to provide an effective reference for reinforcement design of slab-column structure in practical engineering by adopting numerical simulation to analyze mechanical properties of reinforced slab-column members.
The author attempts to provide some references for reinforcement design in practical engineering through the aforesaid analysis

Schedule reliability is essential to successfully achieve EPC (engineering, procurement and constriction) project objectives.
Carr, Knowledge-Based Approach to Construction Project Risk Management, Journal of Computing and Civil Engineering.15 (2001) 170-177
Skitmore, Project Risk Management in the Queensland Engineering Construction Industry: A Survey.
Wang, Modified Failure Mode and Effects Analysis using Approximate Reasoning, Journal of Reliability Engineering and System Safety.79 (2003) 69–85
Pena-Mora, Reliability Buffering for Construction Projects, Journal of Construction Engineering and Management. 130(2004) 626-638

In August, 2008, the project “Basic Research on Underground Logistic Container Transportation System” was completed, which was approved in Shanghai Construction Committee and subsidized by Shanghai Civil Engineering Research Institute and China Postdoctoral Fund.
Risk Index (1) Construction risk: the difficulties and risks in engineering construction differ from one another (such as water seepage and land slip, etc.), because some lines are mainly constructed under the sea, and others in underground tunnel
Journal of Wuhan University of Technology(Transportation Science & Engineering), vol.31, pp.243—246
Journal of Wuhan University of Technology(Transportation Science & Engineering), vol.29, pp. 631—633

Construction Environmental Load and Assessment Research Based on Heilongjiang Province Rui Pan Department of Civil Engineering,Harbin University , Heilongjiang , Harbin, China (736710336@qq.com) Keywords: Heilongjiang;Green construction;Environment load;Environmental control;Assessment Abstract.
Generally speaking,Heilongjiang province's architectural engineering common environment factors has the following several:Air pollution, waste pollution, noise and strong vibration of construction machinery, light pollution, radioactivity pollution, water and electricity consumption,sewage discharge of production and living.Important environmental factor of cnstruction stage is noise pollution,solid waste pollution,air pollutants,light pollution and radioactive pollution.
For air pollutants, water pollutants, soil pollution, radioactive pollution, light pollution and solid waste, noise pollution, energy consumption, etc, we conclude environmental factors important degree values.Thus, we concluded an important environmental factor influence degree model of each construction stage.We use Ⅰ, Ⅱ Ⅲ, Ⅳ, Ⅴ, substitute five connections and one leveling, groundwork and foundation stage, main structure stage, decoration stage and roof engineering stage.
According to operability, scientificalness, hierarchy, practicability and the least principles, we can apply research methods like hierarchy analysis and systems engineering to construct green construction assessment hierarchical model in heilongjiang province as shown in the figure 3.

Stochastic Finite Element Method for Nonlinear Dynamic Problem with Random Parameters Qing Wang1, a, Yang Cao2,b 1, 2 Shipbuilding Engineering College, Harbin Engineering University, Harbin 150001, China awangqing@hrbeu.edu.cn, bcaoyangprincess@163.com Keywords: Nonlinear; Stochastic Finite Element Method; Perturbation Technique Abstract.
Difference in cross-sectional areas along a beam, random mass density and/or Young’s modulus in ship structures, etc. are all examples of inherent characteristics of randomness typical of structural engineering problems.
Spanos (Ed.), Probabilistic Methods in Civil Engineering, ASCE, New York, pp. 164-167(1988)

Research on Dynamic Process of Large-Scale High-Speed Landslide Disasters Yunyun Fan1, a, Xiaoli Liu2, b, Enzhi Wang2, c, and Sijing Wang2, d 1 College of Resources and Civil Engineering, Northeastern University (NEU), China 2 State Key laboratory of Hydroscience and Engineering, Tsinghua University, China afanyunyun@mail.neu.edu.cn, bxiaoli.liu@tsinghua.edu.cn, cnzwang@tsinghua.edu.cn, dwangsijing@tsinghua.edu.cn Key words: Landslide; Large-Scale; High-Speed; Finite Volume; Back Analysis Abstract.
Mangeney: Rock Mechanics and Rock Engineering Vol. 41 (2008), p. 59
[8] Aiguo Xing, Houtian Hu and Ming Yang: Chinese Journal of Rock Mechanics and Engineering Vol.21 (2002), p. 522 (In Chinese).

Fractal approach on quantitative analysis of micro pore structure of isotropic consolidated clay Xiaoxuan Liua , Jiru Zhangb School of Civil Engineering and Architecture, Wuhan University of Technology, Wuhan 430070, China aliuxiaoxuan0701@163.com.cn, bzhangjr@whut.edu.cn Key words: fractal approach, quantitative analysis, micro pore structure, clay, isotropic consolidation Abstract.
The research in soil microstructure has lasted a hundred years which comes through the qualitative and quantitative research stages, and the relationship between the microstructure and engineering properties of soil is gradually studied and analysed.
[3] Bing Shi, Hongtao Jiang, Chinese Journal of Rock Mechanics and Engineering, 20(6), 2001, 864~870.
(In Chinese) [5] Jiru Zhang, Jie Zhu, Journal of Hydraulic Engineering, 39(4), 2008, 394~400.

Ltd, China 2Faculty of Civil Engineering and Architecture, Kunming University of Science and Technology, China 3Kunming Prospecting Design Institute of china Nonferrous Metals Industry, China azhyy.1983@163.com, bfws6407@163.com, clwenl702@sina.com Keywords: seepage field; seismic analysis; safety factors; dynamic stability Abstract: The seepage field of tailings pond is analyzed.
Engineering Background The analysis project is the tailing pond established in 1997.
Stability Analysis of Zhelamujing Tailing Dam under Earthquake , edited by Science technology and engineering, 2010, 10,: 595~2600.
Study on influence of water level on stability of dam , edited by Science technology and engineering ,2010, 10: 2848~2852.

Hydrated Lime Content in Asphalt Mastic Based on High Temperature Performances Jing CHEN1，2, a, Liang ZHOU 3,b, Zenghui YAN4,c 1 Key Laboratory for Special Area Highway Engineering of Ministry of Education, Chang’an University Xi’an, P.R.
China 3Key Laboratory of Road and Traffic Engineering of Ministry of Education, Tongji University Shanghai, P.R.
The softening point of asphalt is measured in the laboratory using the procedure outlined in Standard Test Methods of Bitumen and Bituminous Mixtures for Highway Engineering (JTJ 052-2000).
Journal of Materials in Civil Engineering. 17(2), 207-218

Flame Retardance and Thermal Decomposition of EVA Composites Containing Melamine Phosphate and Dipentaerythritol Zhengzhou Wang1, a, Lin Liu2,b, Ganxin Jie3,c, Pingkai Jiang4,d 1Key Laboratory of Advanced Civil Engineering Materials, Chinese Ministry of Education, Tongji University, Shanghai 200092, China; 2School of Materials Science and Engineering, Tongji University, Shanghai 200092, China; 3State Key Lab of Environmental Adaptability for Industrial Products, China Electric Apparatus Research Institute, Guangzhou 510300 4Shanghai key lab of Electric Insulation and Thermal Aging, School of Chemistry and Chemical Engineering, Shanghai Jiao Tong University, Dongchuan Road 800, Shanghai, 200240, P.
EVA (VA:14%) was purchased by Beijing Organic Chemical Engineering Plant).