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This document introduces and demonstrates the application of the risk matrix method on the engineering project risk management.
The engineering project life cycle, risk categories, each risk management and the influence of the risk are considered in the project risk management, risk matrix suitable for the engineering project is established.
The Risk Matrix of Civil Engineering Project Risk Management Establishment of Multidimensional Risk Management Matrix.
The application of Multidimensional space risk management in civil engineering projects.
Acknowledgements This work was financially supported by Jilin Institute of Civil Engineering and Architecture Dr.

Key Factor Extraction of Supply Chain Performance Based on Heterogeneous Selective Ensemble PCA Conghui Zhang 1, a, Nan Zhao 2, 3, b, Hongyu Shao3, c 1 Department of Management and Economics, Tianjin Electronic Information Vocational Technology College, Tianjin, China, 2College of Mechanical Engineering, Tianjin University of Technology and Education, Tianjin, China 3Tianjin Key Laboratory of Equipment Design and Manufacturing Technology, Tianjin University, Tianjin, China a13512264859@163.com, bnanzhao1982@163.com, ch4clo4@163.com Keywords: Supply chain performance, Key factors, Selective ensemble, PCA, Fuzzy integral Abstract.
The structure diagram of the algorithm is shown in Fig.1 Fig.1 Heterogeneous PCA Selective Ensemble Learning Algorithm Extracting Key Factor of Supply Chain Performance To approve the reliability of the algorithm, this thesis analyzes the time performance data of supply chain for C Company and extracts its key influencing factors.
The indicators of time performance include the cycle of raw material purchase（A）, average manufacturing cycle（B）, average distribution time（C）, financial decision time (D), time of purchase plan formation （E）and time of production schedule formation （F）.
And the final computed result is shown in Fig.2 Fig.2 Key Factors of Supply Chain Time Performance According to the figure, it is clearly seen that the key factors of supply chain time performance at C Company in 2007 were average manufacturing cycle and main raw material purchase cycle, whose key degree is higher than others, among which the influence of average manufacturing cycle is much higher than other factors, so it is the key object which needs to be monitored in the supply chain.
In order to prove the effectiveness of the algorithm, this thesis adopts K-means cluster to analyze the six indicators of time perforce A~F as well as the original data set of key factors obtained by selective ensemble learning, i.e., the original data set of main raw material purchase cycle （A）, average manufacturing cycle （B）and time of production schedule formation （F）.

The analysis of engineering changes are shown in table 1.
(2) Change of engineering amount.
Effective measurements to control engineering cost Fig.1 is description of invest rules influenced by engineering items on different stages overseas.
Obviously, the key to control engineering cost is in design phase.
Discussion of the Project Cost Control based on the quantities bill valuation[J].China Water Transportation (2011) [4] Xiaoling Liu, The Analysis To Influence of Project Change on Cost Control[J].Economic Review (2011) [5] Dongxia Li,Xueming Tao,Guangpeng Xiao.The Study of Project Change Management based on the quantities bill valuation[J].Sichuan Building Materials (2011) [6] Haiyuan Lu, Jin Sun.Evalution methods of engineering change based on the quantities bill valuation [J].Journal of Engineering Management (2011) [7] Hong Rao.

Study on Integration Architecture of Product Design and Manufacturing Based on Knowledge Engineering Peng Zhang1,a, Xiaowei Xue 2,b, Zhaolin Li3,c 1Construction Institute, South West Petroleum University, Chengdu Sichuan 610500, China; 2School of Mechanical and Electronic Engineering, Southwest Petroleum University, Chengdu Sichuan 610500, China 3Low Permeability Reservoirs E&D National Engineering Laboratory, Xi’an Shanxi 710021, China; azp_swpi@sina.com, bxxw0322@163.com, cxiaozhao_08@163.com Keywords: Knowledge-Based Engineering, Product Lifecycle Management, J2EE Abstract.
Key Technologies in Knowledge Base.
China Mechanical Engineering, Vol. 15 (2005), p. 803-805 [7] Ammar-Khodja S, Perry N, Bernard A: Processing Knowledge to Support Knowledge Based Engineering Systems Specification.
Concurrent Engineering.
Vol.28(2006). p. 77-79 [10] Vander Laan AH: Knowledge Based Engineering Support for aircraft component design.

Reliability Analysis In Performance-Based Earthquake Engineering EL GHOULBZOURI Abdelouafi1, a, EL ALAMI Zakaria1, b, EL HANNOUDI Sabrine1, c 1 National School of Applied Sciences of Al Hoceima, Civil engineering Dept., BP 03, Ajdir Al Hoceima, Morocco ae.abdelouafi@hotmail.fr, b elalami.gc@gmail.com, c sabrina.elhnd@gmail.com Key words: Performance-based engineering, RPS2000, Finite element, Nonlinear analysis, Seismic design, Finite reliability analysis.
Such methods address the key issue in performance-based engineering.
Such measures are valuable in practical engineering design.
Computer methods in applied mechanics and engineering, Vol. 168 (1999), p. 173-183
JOURNAL of Engineering Mechanics, ASCE.

Modeling and Numerical Control Machining of the Mould of a Rearview Mirror of a Motorcycle Based on the Reverse Engineering Technology Yongxiang Gao School of Mechanical EngineeringZheJiang Institute of Mechanical and Electrical Engineering Hangzhou，China 99242698@qq.com Keywords: Reverse Engineering; Data Measurement; Reverse Modeling; Mold Splitting; Numerical Control Machining Abstract.
The Reverse Engineering Technology (RET) is extensively employed in the realm of product designing.
The process includes three procedures: data measurement, surface reconstruction and product processing, among which CAD surface construction procedure is a key step but also a bottleneck problem affecting the speed of the Reverse Engineering project.
The flow chart of Reverse Engineering is shown in Fig 1.
Flow Chart of Reverse Engineering This paper, taking the machining and manufacturing of the mould of the rearview mirror of a motorcycle as an example, illustrated the application of UG software in the key technology of Reverse Engineering.

In several fields of engineering the automation of the CFRP production chain is a major issue.
In fiber materials different deformation mechanisms exist.
From these very different materials, three material classes are mostly used by applicants.
For more complex deformations mode, like they exist e.g. in biaxial materials maybe a set of initial test has to be used, to identify the role of the two key modes within such materials.
Middendorf, Identification of forming limits for unidirectional carbon textiles in reality and mesoscopic simulation, Key Engineering Materials Vols. 554-557 (2013) pp 423-432

Application of Prestressed Anchor Composite Soil Nail Wall in Deep Foundation Pit Engineering at Lanzhou Region Tao Hui Gansu Construction Vocational Technical College, Lanzhou Gansu China 730050 8903814@qq.com Keywords: prestressed anchor; soil nail; deep foundation pit; application; monitoring and analysis Abstract:The paper introduces the application of prestressed anchors and soil nails support system in complex soil layer deep foundation pit engineering at Lanzhou region based on the deep foundation pit engineering in Gansu Provincial Hospital of TCM as the background and discusses its key technology.
The experience of engineering is significance for similar engineerings at Lanzhou region. 1.
On the eastern of ground that is spacious can be used as piling up and processing materials.
[3] GB50330—2002 Technical code for building slope engineering[S].
Chinese Journal of Geotechnical Engineering, (2005), 26(8): p.939–943

Quality management research of all handset lithium battery engineering parts Man-Hong Jin1,a ,Jing Chen2,b, Xin Zhong3,c Logistics School Beijing Wuzi University Beijing, China bchenjingsushan@126.com,czhongxin20071102@163.com Key words: lithium ion battery, Quality control points; Quality management Abstract: with the advent of the era of 3 g, mobile phone has become a key factor restricting the development of mobile phone battery, lithium ion battery is still dominant used in mobile phone in the next four or five years.
In this paper，it has been analyzed that lithium ion battery parts, and does quality management of all engineering parts, mainly focus on the quality control of the Angle of the sealing plate, sealing body and the shell, at the same time deeply analyzes the different parts of the common categories .So this paper plays a guiding role in guaranteeing the whole project management of the quality of handset lithium battery.
Li+ are back and forth when charging and discharging, Li back and forth between are aligned .Namely when charging, Li+ changes from low energy materials to high-energy state through electrolyte migration from the positive to the negative terminal; when discharging Li+ are carried out naturally from negative of higher energy to the lower energy positive materials through the electrolyte, at the same time releases energy through external [5].
Currently, three components material of the liquid lithium ion battery that Ni, Co, Mn produces the high capacity battery 4.4 V, positive active material is Li (NiCoMn).
The common adverse categories of product engineering Fatal adverse Safety valve, leakage thickness of relief valve, shell cut; Serious adverse Size error of shell, sealing plate and sealing body, bad air tightness, sealing body deformation of sealing body and deviation, burr, compression, aluminum powder flake of each product, etc.; Slight adverse Play marks, scratches, depression, dirt, grease, watermark, damage to the bad appearance, etc Appearance quality control point of each engineering part in the production process The name of each part of the shell (As shown in Fig,1) The shell common injury: A mark, scratch ─ ─ the shell parts; Deformation ─ ─ open department; Sag ─ ─ positive, shell bottom; Shell cut/U word hurt ─ ─ shell parts; Burr ─ ─ openings.

The use of natural fibers turns engineering work more sustainable, since they are renewable, biodegradable, energy efficient and non-toxic raw materials.
These materials are widely used in numerous engineering projects such as the construction of embankments, roads, airports, reservoirs, canals, embankments and coastal protection works [1].
Synthetic fibers are currently the most used in geotextiles for civil engineering where the physical and chemical properties and durability are key requirements of the applications.
Materials and testing methods Materials.
Anand, “Textiles in civil engineering.