Search results

Institute of Chemical Engineering, Nan jing University of Science & Technology, Nan jing 210094; 2.
College of Life Sciences and Chemical Engineering, Huai yin Institute of Technology, Huaian 223003 ) a qianghuazhang1234@gmail.com Keywords: particulate matter (PM10); micro-morphology; mineral particle; SEM/EDS Abstract.
Experimental Materials and measurment The sampling site is located at Dachang (Typical industrial zone) and Shanxilu area (Typical business district).
S-rich particles (samples (a), (b)) were corresponds to combination of sulfate and carbonate, for example gypsum, may be from processes of building, construction, or material transportation.
Tiittanen, et al.: European Respiratory Journal, Vol. 17 (2001), p. 428 [12] R.D.Peng, F.

Computer simulation of heat treatment process for support plate of nuclear reactor Xing Liu1, b, Ryuji Mukai2, c, Xiaohu Deng2, d and Dong-Ying Ju1, a 1Department of Electronics and Engineering, Saitama Institute of Technology, Fukaya, 369-0293, Japan 2 High-tech research center of Advanced Science Institute, Saitama Institute of Technology, Fukaya, 369-0293, Japan adyju@sit.ac.jp Keywords: Nuclear reactor, Support plate, Heat treatment, Simulation Abstract.
Ju and Inoue [2−3] recently developed a simulation code called the COmputer Simulation of MAterial Process (COSMAP) to solve a series of complex problems in the heat treatment process.
Modeling of the analysis Material selection.
Standard stainless steel JIS-SUS304 is used as the support plate material.
Inoue, Journal of Material Science Research International, Vol.2, No.1, 18−25(1996).

Acknowledgement This work is funded by National Natural Science Foundation of China (No.10932008) and the 111 project (No.B07050) in China.
Composites Science and Technology Vol. 50 (1994), p. 305 [5] L.Chen, P.G.
Journal of Composite Materials Vol.35 (2001), p.1137 [6] L.Chen, B.V.
Ifju. 44th AIAA/ASME/ASCE/AHS Structures, Structural Dynamics, and Materials Conference 7-10 April 2003, Norfolk, Virginia [7] I.K.

Experiment The experimental setup The material for experiment is 16MnR.
Acknowledgments This research was supported by science and technology fund of Fujian province bureau of quality and technical supervision.
Chinese Journal of Mechanical Engineering.2000,36(5):54~57 [2] N.Ido, H.Hatanaka, T.Arakawa, et al:Examination of Flaw Detection Near the Surface by the Ultrasonic TOFD Method.
Key Engineering Materials. 2004,270-273(1): 378~383 [3] Chi Dazhao:Research on Characterization of Weld Defect Based on Ultrasonic TOFD[D], Harbin Institute of Technology,2007: 38~43
Zhejiang University SCIENCE A 2007 8(1):72-78.

2.1μm Room Temperature Continuous Waves Operation Of InGaAsSb-AlGaAsSb Double-Quantum Well Laser Minghui You1,2,a,Xin Gao1, *b, Zhan guo Li1,Guojun Liu1,Mei Li1, Yong Wang1 and Xiaohua Wang1 1.State Key Laboratory on High Power Semiconductor Lasers, Changchun University of Science and Technology, Changchun 130022, P.
Introduction Semiconductor lasers emitting between 2 and 3μm are of great interest for a variety of important applications in cluding gas sensing,molecular spectroscopy and pollution control.For low coast,high performance diode lasers operating in the continuous wave (CW) regine at room temperature(RT) are required[1,2].A series of Sb-based device results have been obtained owing to the optimal materials growth, structure design and the improved output performance and excellent temperature of high-power lasers.
Fig. 2 The threshold and quantum efficiency as function of the operating temperature Fig.3 shows wavelength-vesus-temperature between 20℃ and 70℃ operating at CW,a ratio of 2.8nm/0C was achieved.The high quality of MBE grown materials using the seperature confinement structure,producing a low loss waveguide and enhance laser internal efficiecy and narrow far-field patterns.
The central peak emission wavelength was ～2.1mm Acknowledgements This work was financially supported by the National Natural Science Foundation of China under Grant Nos 61006039 and 60976056.
[2] T.C.Hasenberg, and L.West ,IEEE Journal of Quantum Electronics,Vol.,33,pp1403-1406,1997

The Study on Magnetron Sputtering Rate of Metal Targets Hailang Jua*, Xiaobai Chenb, Ci Zhaoc, Xinglai Ched, Xiong Lie, Jun Gaof, Liangting Caig, Yanan Huh School of Science, Beijing Technology and Business University, Beijing 100048, China a*juhl@th.btbu.edu.cn, bcxiaobai@th.btbu.edu.cn, czci@th.btbu.edu.cn, dxinglc@th.btbu.edu.cn, elxiong@th.btbu.edu.cn, fgjun@th.btbu.edu.cn, gciangting@th.btbu.edu.cn, hhyanan@th.btbu.edu.cn Keywords: Fabrication of thin film, Magnetron sputtering, metal targets, extraordinary hall effect.
It becomes an important means of preparation in thin films and it can deposit any material on the any substrate.
So sputtering plays an increasingly important role in discovery of new materials, new functional applications and new devices produce [2].
It related to the following factors generally: (1) Incident ion energy; (2) Incident ion species; (3) Material of the target type; (4) The incident angle of the ions [6].
He: Journal of Applied Sciences, Vol.11 (1993), p.136- 139

In addition, the dielectric material of discrete capacitor and the detection capacitor are different, so that the zero-bias will change as the temperature changes.
Its fabrication process and parameters are all same as the detection capacitors’, due to the material of the matching capacitor and detection capacitor are also consistent, zero-bias and bias temperature coefficient can obtain simultaneously compensation.
Journal of Changchun University of Techonology, 2010, 31(1): 23 [2] The institute of China science.
Develoing report of inertial technology.Beijing: China Science Press. 2009-2010: 69~74 [3] Y.Yuan, H.J.Cui, X.H.Wang, D.B.Xiao, X.Z.Wu.
A new anodic bonding methed of triple-stack structure．2012 International Conference on Advance Materials Design and Mechanics.

The material attribute was defined according to Table 1.
Material Attribute Material Density(kg/m3) Poisson’s ratio modulus of elasticity(GPa) 35# steel 7800 0.3 206 Fig.2 Finite element model of main shaft Constraints and Loads On the hoist spindle, there are rolling bearing installed on the left end, sliding bearing on the right, friction wheel between two bearings, and rotor fixed on the most right end.
By the material mechanics analytic method, the largest stress lies in the right bearing neck with the value of 26.32MPa.
Acknowledgements This research was financially supported by the National Natural Science Foundation of China (30840032) and the Science Foundation of Hubei University of Technology (BSQD0903).
(in Chinese) [3] Baoming Wang and Chibing Hu: Journal of Lanzhou University of Technology.

Analysis and Research on the Deformation of Flat Wall with Coating in the Tank Bian Peiying1,a 1 Xi’an University of Arts and Science, Xi’an, Shaanxi Province, China, 710065 a banry3@163.com Key words: Pressure tank, Flat wall, Membrane analogy, Superhard films, Simulation Abstract: The flat wall be used in the design of pressure tank, the flat wall is the weakest part in the tank, therefore, the most important is how to improve its stiffness and strength.
In order to solve the above problem, a mechanical analogy analysis way is proposed based on the theory of elastic mechanics films compared in this paper, to analysis deformation of the flat wall pressure vessel, the method is using different spraying material thickness according to the amount of deformation in different positions.
Uneven coating Fig 6 The deformation of the flat wall Figure a is a deformation of the pure Q345 material without coating, the maximum deformation is 0.68mm. b is the simulation of the whole surface of the same external spraying coating, the maximum deformation is 0.21mm. c is the uneven coating in accordance with the analysis, the maximum deformation is 0.09mm.
The next step will continue to analyze the change law of "between the inhomogeneous coating" ratio and length of edges and the material thickness, composition and other factors, it will be better for flat pieces of the application to provide theoretical data.
Journal of University of Science and Technology Beijing.

Experimental Materials and Equipments.
Acknowledgments This work was supported by National Special fund for cleaner production (Ministry of Finance [2011] 430), National Science and technology transformation project (Ministry of Finance [2011] 329), and Doctoral Initiating Project of Liaoning Province Foundation for Natural Sciences (20111069).
Long, C.L.Cui, L .W ,et al: Journal of Cleaner Production.
Ye, et al: Advanced Materials research.