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Ceramic Layer Composites in Advanced Automotive Engineering and Biomedical Applications Rainer Gadow Institute for Manufacturing Technologies of Ceramic Components and Composites University of Stuttgart Allmandring 7 b, D-70569 Stuttgart, Germany rainer.gadow@ifkb.uni-stuttgart.de Keywords: light weight engineering, automotive applications, thermal spraying, cylinder liners, residual stresses, bioceramic coatings, tissue engineering Abstract Light weight engineering and composite technologies are key strategies in modern product development in mechanical engineering as well as in biomedical applications, where innovation is driven by novel material concepts and surface functionalities.
By combining the expertise in materials and manufacturing engineering coatings and composites with high performance and reliability can be achieved.
Hypersonic internal coatings for cylinder liners in light weight engines In advanced mechanical engineering and especially in the automotive industry light weight engineering by materials, by design and processing are key requirements for competitive industries.
Summary The improvement of tribological operation behavior of light metal surfaces by protective coating systems is a key to light weight design and engineering.
Niessen, K.; "Ceramic Coatings on Fiber woven Fabrics" Ceramic Engineering and Science Proceedings 23 [3], eds.

Key Engineering Materials Vols. 40-41

Establishment of ‘Urban Tunnels’ in the Major ‘Civil Engineering’ Gang Wei*, Jia-chang Ye, Xin-jiang Wei Department of Civil Engineering, Zhejiang University City College, Hangzhou, 310015, China weig@zucc.edu.cn (*Corresponding author) Key words: civil engineering; urban tunnels; major direction; feasibility Abstract: Urban tunnels mainly include subway tunnels, street-passage tunnels and underground road tunnels etc.
To make full use of existing teaching materials, achieve breakthrough for the construction of Civil Engineering and form their own features and advantages, Department of Civil Engineering puts forward the conception of constructing a new major in July 2007.
Hardware The school has soil engineering laboratories, engineering survey laboratories, structure and component laboratories, building material laboratories and fluid mechanics laboratories.
The major ‘Geotechnical Engineering’ in the Department of Civil Engineering has so strong strength that it was awarded the key subject of Hangzhou City in 2008, included in the list of superior subjects at Zhejiang University City College in 2011 and awarded the key subject of Zhejiang Province in 2012.
Besides, it also makes full preparation for the teaching organization in form of small classroom teaching, including supplement of teaching funds, teaching processes and confirmation of teaching materials.

Key Technologies Research in Incremental Launching Demolition Construction of Beijiang Bridge Lin wen-xi1, a, Xu dao-li1,b, Yang chao1,d , Jia bu-yu 2,e, He zhen-zu 2,f, Chen de-yi 2,g 1Technical Department of second branch of ChangDa Highway Engineering Co.
Key technology research in main up-push remove of Beijiang Bridge can be used for other similar bridge engineering.
Similar engineering and technology research was less at home and abroad.
Railway Engineering. (2012) (In Chinese) [2] Shi.F.Q.
Engineering Blasting.( 2009) (In Chinese) [3] Wang.

Research on Transformation Engineering BOM into Manufacturing BOM Based on BOP H.C.
In the production management as well as in the information technology that supports it, automatically transforming engineering BOM(EBOM) into manufacturing BOM(MBOM) is the key problem of integrating product design system with production planning system.
Thus, EBOM just represents the product structure from the engineering viewpoint, not from the manufacturing viewpoint, and it can't be directly used in the manufacturing requirements planning (MRP) system.
Formal Definitions of EBOM, MBOM and BOP BOM is a hierarchical list of materials (components, subassembles, ingredients) required to produce a product, showing the quantity of each required item.
Other information such as scrap factors may also be included in the BOM for use in materials planning and costing[6].

Engineering includes formulary rules, knowledge-based engineering analysis and application program interface.
It only spent few minutes from inputting product model to outputting mold structure, bill of materials and cost [11].
Applied Materials and Stanford University improved the driving mechanism of magnetron in PVD (Physical Vapor Deposition) and achieved the purpose of improving film uniformity [25, 26].
Key Steps in Application Three main steps are briefly described as follows. 1) Engineering Configuration.
Shan: Rare Metal Materials and Engineering Vol. 36 (2007), p. 583 (In Chinese) [22] Y.K.

Design, Materials and Processing for the Summer Olympic Torches *ZHANG Jian Bin1, 2, a, YU Dong Mei1, b, YIN Xiao Qiang1 and JIA Jian Gang1 1State Key Laboratory of Gansu Advanced Non-ferrous Metal Materials, Lanzhou University of Technology, Lanzhou 730050, China 2Key Laboratory of Non-ferrous Metal Alloys and Processing of Ministry of Education, Lanzhou University of Technology, Lanzhou 730050, China ajbzhangjb@gmail.com, bbjyudongmei@gmail.com (*Corresponding author) Keywords: Olympic torch, design, materials, processing Abstract: Olympic torches are the fantastic combination of successful design, appropriate materials and optimum processing which are the basic concept concepts in the major of Materials science and engineering.
This paper will review how materials are specified for the Olympic torches and which material properties/factors one must consider for the application.
Materials selection A variety of other materials have been used over the years – from various woods, including birch, maple and pecan, to the more exotic silver, copper and bronze alloys, with even leather featuring for some of the handles [2].
What will the future bring to materials/or materials related processing?
Vol.214 (2013), p. 19-29 [7] Stewart Bland: Olympic class materials, Materials Today.

Approach for Setting Project Buffer with Engineering Materials Based on the Theory of Unascertained Rational Number Wanqing Li1, Zhe Zhao 1 Lingyu Meng 2 1 Hebei University of Engineering. 056038,Handan,China 2 Hebei University of Engineering. 056038,Handan,China yiyayiyo@yahoo.com.cn Key words: CCM; unascertained rational numbers; buffer size,Engineering materials Abstract.
Even though this article develops the critical chain method, the new idea and method of critical chain method still has some immature places, such as the identification/selection of the key chain and multiple resource-constrained determination of the next buffer size.
The author: Wanqing Li (1954-), male , Ph.d., professor, Hebei University of Engineering, engaged in the research of engineering project management .
Journal of Industrial Engineering and Engineering Management. 72--75 (2002) [4] Mi-yuan Shan, Ying Long: An approach for improving buffer of critical chain management and its application.
Journal of Jiangsu University of Science and Technology(Natural Science Edition). 75--78 (2009) [7] Wan-qing Li, Wen-qing Meng, technology of engineering network design.

Study on the Design of Project Controlling Information Management System for Large-scale Hydraulic Engineering Qingyan Shuai a, Yabo He b School of Civil Engineering, Wuhan University, Wuhan, China aqingyan_shuai@163.com, bhyb5610@163.com Keywords: Information management system, Large-scale hydraulic engineering, Project controlling, System structure.
Structure Design of PCIMS for Large-scale Hydraulic Engineering According to the general design goal of PCIMS for large-scale hydraulic engineering, the system structure can be established, which is shown in Fig.1.
This subsystem is equipped with the management function from engineering archives to company information, including the receiving, distribution, storage, borrowing and return of relevant materials[6].
Key Technologies in the Process of Developing PCIMS for Large-scale Hydraulic Engineering Technology of Data Warehouse.
Paulson: Journal of Construction Engineering and Management, October 1998

Manufacturing Evaluation Model Based on Multi-attribute Making Engineering Peng Ye and Zhongwen Chen Huanggang Normal University Huanggang438000, Hubei Province, China e-mail: zwchen88@foxmail.com Keywords Key Discipline Evaluation, Fuzzy Multi-Attribute Decision Making, Optimum Membership Degree Abstract In this paper, the problem of evaluating the key discipline level of university is studied.
Strengthen the evaluation of key disciplines can create a landmark high-level and high-quality scientific research results, and can achieve the optimal allocation of human, financial, and material resources.
Experts situation includes three level-three indexes, the numbers of Chinese Academy of Sciences and Chinese Academy of Engineering (M13), the numbers of Changjiang Scholars and the National Outstanding Youth Foundation Winners (M14), and the numbers of the first and two levels enrolled candidates of Millions of Talents Project, the cross-century talents of the Ministry of Education, and the New Century Excellent Talents (M15).
(2) Scientific research This level-one index includes four level-two indexes, scientific research foundation, patent award, papers and monographs, and research projects, where scientific research foundation includes the numbers of national key disciplines, state key laboratory of national key laboratory, national engineering research centre, national engineering research centre, humanities and social bases of Ministry of Education (M21), and the numbers of provincial and ministerial level key disciplines, provincial and ministerial key laboratories, and provincial humanities and social sciences bases (M22).
Systems Engineering and Electronics 27:2057–2059 [8] Cordón O (2002) Linguistic modeling by hierarchical systems of linguistic rules.