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High-level engineering and project management personnel should be trained and transported for the industrial and mining enterprises and engineering construction sectors, particularly state-owned large and medium enterprises to enhance enterprise’s strength and market competitiveness.
Compared with academic master, the training approaches of engineering master should appropriately reduce academic courses, and increase engineering practice courses and practical activities to train students’ professional skills and improve their engineering research capacity by solving actual technical problems in engineering activities.
The score difference indicates that there is bias against the engineering masters' degree, thus the students good at theoretical study are not quite willing to register for the entrance exam of engineering master.
In terms of knowledge structure, the basic and professional knowledge of engineering master is weaker than that of academic master.
When postgraduate comes up with a good idea and need to verify it, they can get access to the appropriate conditions, such as advanced equipment, abundant capital and raw materials and scientific goals.

Study of Production, Teaching and Research Integration in Training of Material Engineering Talents Guo Xiaofei1a, Yin Dalei2, Xu Bin1, Wang Yue1 1School of materials science and engineer, Shandong Jianzhu University, Shandong Jinan, 250101, China 2Coal industry Jinan design & research Co.
Materials science and engineering is the study of material composition and structure, synthesis and preparation, properties and performance, other basic elements, their mutual relations and restrict rules of an engineering science.
How to cultivate high-level, high-quality and practical talents is one of the primary tasks in the current engineering colleges. 1.
Approaches of Integration of Production Study Research in Materials Engineering Talents Training Material engineering personnel training should be accord with the discipline of disciplinary basis, application-oriented and personal training and adjust the professional structure and strengthen integration degree of majors and market demand.
This plan aims to cultivate various types of engineering and technical personnel who have strong ability of innovation and adapt to the economic and social development needs to improve the quality of training of engineering personnel.

Experimental Study on Surface Roughness in Quick-Point Grinding Engineering Ceramics MaLian-jie1,2, a, Gong Ya-dong1, b, Bao Yuan-ji2, c 1School of Mechanical Engineering & Automation, Northeastern University, Shenyang 110819, China. 2School of Control Engineering, Northeastern University at Qinhuangdao, Qinhuangdao 066004, China.
amlj@mail.neu.edu.cn, b gongyd@mail.neu.edu.cn, c baoyuanji@gmail.com Key words: surface roughness; process parameters; quick-point grinding; engineering ceramics Abstract: Through grinding experiment on mica glass ceramic, the mechanism of material removal was analysed, the fracture and removal of engineering ceramics was suitable for Griffith’s fracture strength theory.
Through examination of grinding debris for various brittle materials[3], suggests material removal mainly by brittle fracture.
Results and Discussions Brittleness fracture mechanism of engineering ceramic.
Fig. 5 Deflecting angle affecting surface roughness Conclusions The fracture and removal of engineering ceramics was suitable for Griffith’s fracture strength theory.

Fly Ash-Based Geopolymer: Green Material in Carbon-Constrained Society NGUYEN Hoc Thang1,a* and DANG Thanh Phong1,b 1Faculty of Chemical Engineering, Ho Chi Minh City University of Food Industry, Viet Nam athangnh@hufi.edu.vn, bphongdt@hufi.edu.vn *Corresponding author: thangnh@hufi.edu.vn Keywords: Fly Ash, Geopolymer, Green Material, Carbon-Constrained Society, Engineering and Microstructure Properties.
Engineering properties of the fly ash-based geopolymer Materials Volumetric weight [kg/m3] Water absorption [kg/m3] Compressive strength [MPa] after 28 days 90 days 180 days 270 days 360 days FA-based Geopolymer 1604 121.5 42.8 46.1 48.3 49.6 50.2 Lightweight concrete brick in ASTM C90 < 1680 < 288 > 11.7 - - - - Figure 5.
Nguyen, Effects of Seawater Content in Alkaline Activators to Engineering Properties of Fly Ash-Based Geopolymer Concrete, Sol.
Nguyen, Effect of Alkaline Activators to Engineering Properties of Geopolymer-Based Materials Synthesized from Red Mud, Key Eng.
Pham, Engineering properties of lightweight geopolymer synthesized from coal bottom ash and rice husk ash, AIP Conference Proceedings 1954 (1), 040009

The subject of ecological environment functional materials (EEFMS) is the certain combination of materials science and engineering and environment science and engineering, which mainly concerns on the research and development of environment pollution and control functional materials and micro-environment control functional materials [1-2].
The environment mineral materials is the interaction, infiltration and amalgamation of quite many of subjects involved in environment science, mineral science, materials science, engineering science, physics and chemistry.
Table 1 Primary Universities Engaged in EEFMS Research NO Universities Departments, Institutes 1 Hebei University of Technology Institute of Power Source & Ecomaterials Science 2 Tsinghua University Department of Materials Science and Engineering 3 China University of Mining And Technology Institute of Ecological and Functional Materials 4 Zhongshan University Institute of Energy & Environment Materials 5 Shanghai Jiao Tong University Institute of Ecological and Environmental Materials 6 Nanjing University of Technology Institute of Ecomaterials 7 Beijing University of Technology College of Materials Science and Engineering 8 Yancheng Institute of Technology School of Materials Engineering 9 Lanzhou University College of Chemistry and Chemical Engineering 10 Beijing Institute of Petrochemical Technology Research Center of Ecomaterial 11 Peking University Research Center of Mineral Materials and Environment 12 Tianjin University of Science and Technology
College of Marine Science and Engineering 13 Nanjing University Research Center of Ecomaterial and Renewable Energy 14 Beihang University Research Center of Materials Physics and Chemistry 15 Dalian University of Technology Department of Materials Engineering 16 Wuhan University of Technology School of Materials Science and Engineering 17 China University of Geosciences School of Materials 18 Southwest University of Science and Technology Analytical and Testing Center 19 Shanghai Second Polytechnic University Department of Environment Engineering 20 Yantai University School of Environment and Materials Engineering 21 Zhe Jiang Forestry University Institute of Ecological Environment Materials 22 Xi'an University of Architecture and Technology Institute of Ecological Environment Materials Table 2 Primary Laboratory Engaged in EEFMS Research NO.
Laboratories Approval Departments 1 Key Laboratory of Ecological Environment and Information Functional Materials (Hebei University of Technology) Ministry of Education, China 2 Key Laboratory of Macromolecule Materials on Eco-Environment (Northwest Normal University) Ministry of Education, China 3 Key Instruction Laboratory of Eco-environment Materials (Yancheng Institute of Technology) Jiangsu Province, China 4 State Key Laboratory of Green Building Materials (China Building Materials Academy) Ministry of Science and Technology, China 5 Key Laboratory of Environment Materials (Yantai University) Shandong Province, China 6 Laboratory of Eco-functional Materials (Lanzhou University) Lanzhou University, China 7 Key Laboratory of Advanced Building Materials (Southwest University of Science and Technology) Sichuan Province, China 8 Key Laboratory of Advanced Ecomaterials Chinese Academy of Sciences, China Table 3 Primary Academies Engaged in

Study on processing technique in engineering tests of Mg-7.1Gd-4.6Y-1.3Nd-0.5Zr Alloy Yongjun Lia, Kui Zhangb State Key Lab for Processes and Non-ferrous Metals, General Research Institute for Non-ferrous Metals, Beijing, China alyj@grinm.com, bzhkui@grinm.com Keywords: magnesium alloy, engineering test, homogenization treatment, plastic deformation, aging treatment Abstract.
Engineering tests using the actual production equipment and industrial production raw materials were close to the industry production.
Because the engineering test and practical engineering production was very close that the results got from engineering test could be directly applied to practical production.
So it had very important practical significance to develop engineering test that also was key step for the laboratory research results transfer to practical engineering production.
Experimental Procedure The pure metals of magnesium, yttrium, neodymium and gadolinium, and Mg-30Zr master alloys were used as rough materials.

College of Mechano-Electronic Engineering, Lan zhou Univ. of tech.
Aiming at the key problem of tool choice presented at high speed machining, this paper analyses the characteristic of existing materials of high speed machining tool from three aspects of mechanics, physics and chemistry, and sums up the cutting property of work materials combining with some experimental results and literatures.
Introduction Cutting tool material is one of the keys for performing high speed machining(HSM).
Further more, with the development of science and technology, requirements for engineering materials is getting higher and higher, and the materials are widely used in aeronautics and aviation, nuclear energy, composite, biology, function, nano-material, thulium, metal or nonmetal and so on,.
Journal of mechanical engineering. 2002, 38(4)：40-45

In the test of raw materials, the test of fly ash is involved, and fly ash is a material widely used in concrete.
Guangdong Building Materials, 2011 (1)
Analysis on the Mass Concrete Construction Technology Application to Water Conservancy Engineering [J].
Engineering Technology, 2012 (15)
Engineering Technology, 2012 (10)

Defects and diffusion are key concepts at the description of nuclear materials behavior at thermal and radiation impacts.
The evolution of various defects (such as point defects, dislocations, grain boundaries) determines changes of the materials properties under operating conditions.
The present issue contains new and relevant data about the diffusion and defects in nuclear fuel (uranium alloys, oxide and nitride fuel) and structural materials (steel and non-ferrous metals).
We hope that this special issue will be useful for researchers and engineers working in the field of material science and nuclear engineering.

Because knowledge-based engineering is an effective intelligent design method, the paper systematically introduced the application and development of knowledge representation, knowledge reasoning, knowledge acquisition and other key technologies of knowledge engineering technology used in mold design field.
Knowledge-based engineering (KBE) is an important technology of promoting the engineering design intelligent and rapid.
Journal of Materials Processing Technology. 139, 81--89 (2003) [7] Chao Luo.: Research on Intelligent Design System for Aluminum Extrusion and the Key Technologies.
Journal of Materials Processing Technology. 63, 458--462(1997) [15] Ruisong Jiang, Dinghua Zhang, Wenhu Wang.: Framework of Intelligent Design System for Knowledge-Based Investment Casting Die of Aeroengine Turbo Blade.
Shanghai Jiao Tong University Press, Shanghai. (2000) [20] Jun Chen, Xiaoxiang Shi, Zhen Zhao.: Key technologies of Knowledge-Based Engineering and its application into modern intelligent die design.