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Online since: August 2014
Authors: Janka Beresecka, Jaroslav Kapusniak
Tab. 5 Comparison of fires development
SR/Area/Region
Year
Fires
Difference
2012/2008
Direct material losses (thousand EUR)
Killed persons
Injured persons
SR in total
2008
11 045
43 480.8
68
232
2009
11 991
38 761.4
56
245
2010
9 851
69 148.4
41
244
2011
13 677
33 561.1
56
267
2012
14 413
41 394.5
44
232
1.30
Nitra Region
2008
1 294
4 859.6
6
33
2009
1 247
3 495.4
14
32
2010
900
15 336.4
4
32
2011
1 272
2 586.0
6
35
2012
1 473
2 252.2
6
25
1.13
Source: Database of the Statistical Office of the Slovak Republic
From the data it is clear that the number of fires in the Slovak Republic had become 1.3 fold for the period 2008-2012, while in conditions of Nitra Region is the increase in the number of fires smaller.
Majlingová et al.: Modification of procedure to initiate the solids according to EN 60695-2-10 for materials used in historic buildings.
In European journal of environmental and safety sciences: scientific journal of the European Science and Research Institute and the Association of Fire Engineering. - ISSN 1339-472X. - Vol. 1, Issue 1, 2013, p. 8-12
Ivanovičová: Assessment of fire risk of selected agglomerated wooden materials.
In Research journal of recent sciences.
Majlingová et al.: Modification of procedure to initiate the solids according to EN 60695-2-10 for materials used in historic buildings.
In European journal of environmental and safety sciences: scientific journal of the European Science and Research Institute and the Association of Fire Engineering. - ISSN 1339-472X. - Vol. 1, Issue 1, 2013, p. 8-12
Ivanovičová: Assessment of fire risk of selected agglomerated wooden materials.
In Research journal of recent sciences.
Online since: December 2003
Authors: Masaki Uchida, Ayako Oyane, Atsuo Ito
Journal Citation (to be inserted by the publisher )
Copyright by Trans Tech Publications
Biomimetic Coating of Laminin -Apatite Composite Layer onto
Ethylene-Vinyl Alcohol Copolymer
Ayako Oyane1, Masaki Uchida
2 and Atsuo Ito3
1 Research Center of Macromolecular Technology, National Institute of Advanced Industrial Science
and Technology, 2-41-6 Aomi, Koto-ku, Tokyo, Japan, a-oyane@aist.go.jp
2 Institute for Human Science and Biomedical Engineering, National Institute of Advanced Industrial
Science and Technology, 1-1-1 Higashi, Tsukuba, Ibaraki 305-0046, Japan, uchida-m@aist.go.jp
3 Institute for Human Science and Biomedical Engineering, National Institute of Advanced Industrial
Science and Technology, 1-1-1 Higashi, Tsukuba, Ibaraki 305-0046, Japan, atsuo-ito@aist.go.jp
Keywords: Apatite, laminin, biomimetic method, ethylene-vinyl alcohol copolymer (EVOH) ,
composite, skin terminal
Abstract.
A polymeric material with a laminin-apatite composite layer on its surface should be a promissing candidate as an ideal skin terminal, because apatite provides the material with good biocompatibility [3], whereas laminin, which is a cell adhesion molecule for epithelial cells, provides the material with strong skin-adhesiveness [4].
Title of Publication (to be inserted by the publisher) Materials and Methods Preparation of specimens.
This kind of composite material has great potential as a skin terminal with improved adhesiveness to skin tissue as well as good biocompatibility.
Aoki, Science and medical applications of hydroxyapatite, Takayama Press, Tokyo 1991, pp. 152 [3] M.
A polymeric material with a laminin-apatite composite layer on its surface should be a promissing candidate as an ideal skin terminal, because apatite provides the material with good biocompatibility [3], whereas laminin, which is a cell adhesion molecule for epithelial cells, provides the material with strong skin-adhesiveness [4].
Title of Publication (to be inserted by the publisher) Materials and Methods Preparation of specimens.
This kind of composite material has great potential as a skin terminal with improved adhesiveness to skin tissue as well as good biocompatibility.
Aoki, Science and medical applications of hydroxyapatite, Takayama Press, Tokyo 1991, pp. 152 [3] M.
Online since: July 2013
Authors: Hou Bin Li, Hua Ming Zheng, Yang Cai, Min Zhang
Advance polymer materials acquired by utilizing modification technology have attracted more and more attention.
This article aims to prepare active packaging materials with controlled release of antimicrobial agent, using polymer surface modification technology and drug controlled release technology.
Materials and Methods Materials.
Chen: Journal of Applied Polymer Science, Vol.88 (2003), p.1726-1736 [6] M.H.Kunita, E.M.
Rubira: Brazilian Journal of Chemical Engineering., Vol. 23(2006), p.745-749
This article aims to prepare active packaging materials with controlled release of antimicrobial agent, using polymer surface modification technology and drug controlled release technology.
Materials and Methods Materials.
Chen: Journal of Applied Polymer Science, Vol.88 (2003), p.1726-1736 [6] M.H.Kunita, E.M.
Rubira: Brazilian Journal of Chemical Engineering., Vol. 23(2006), p.745-749
Online since: December 2014
Authors: Wen Ting Jia, Xue Ye Wei, Jun Hong Zhang, Yi Fei Meng
Teik Chan: On the effects of hydrogenation of thin film polycrystalline silicon: A key factor to improve heterojunction solar cells, Solar Energy Materials and Solar Cells, Vol.122 (2014), p.31-39
[4] A.
Khalili: Temperature dependence of InGaN/GaN multiple quantum well based high efficiency solar cell, Solar Energy Materials and Solar Cells, Vol.95 (2011), p.3124-3129 [5] P.
Ravindra: Temperature dependence of solar cell performance—an analysis, Solar Energy Materials and Solar Cells, Vol.101 (2012), p.36-45 [6] M.
Pivac: Effects of low-temperature annealing on polycrystalline silicon for solar cells, Solar Energy Materials and Solar Cells, Vol.95 (2011), p.559-563 [8] S.
Weingaertner: Numerical investigations of solar cell temperature for photovoltaic concentrator system with and without passive cooling arrangements, International Journal of Thermal Sciences, Vol.50 (2011), p.2514-2521 [9] P.
Khalili: Temperature dependence of InGaN/GaN multiple quantum well based high efficiency solar cell, Solar Energy Materials and Solar Cells, Vol.95 (2011), p.3124-3129 [5] P.
Ravindra: Temperature dependence of solar cell performance—an analysis, Solar Energy Materials and Solar Cells, Vol.101 (2012), p.36-45 [6] M.
Pivac: Effects of low-temperature annealing on polycrystalline silicon for solar cells, Solar Energy Materials and Solar Cells, Vol.95 (2011), p.559-563 [8] S.
Weingaertner: Numerical investigations of solar cell temperature for photovoltaic concentrator system with and without passive cooling arrangements, International Journal of Thermal Sciences, Vol.50 (2011), p.2514-2521 [9] P.
Online since: April 2015
Authors: Salmah Husseinsyah, Pei Leng Teh, Vaniespree Govindan, Marliza Mosthapa Zakaria, Faisal Amri Tanjung
Introduction
As the result of greater environmental awareness, the demand for environmentally friendly materials is significantly raised.
Currently, several cellulose solvent systems have been available for the preparation of all cellulose composite materials.
Methodology 2.1 Materials In this research, microcrystalline cellulose (MCC) with particle size of 50µm, Acetone and Sodium Chlorite was supplied by Sigma-Aldrich, USA.
Gatenholm: Journal of applied polymer science.
Conrad: Textile Research Journal.
Currently, several cellulose solvent systems have been available for the preparation of all cellulose composite materials.
Methodology 2.1 Materials In this research, microcrystalline cellulose (MCC) with particle size of 50µm, Acetone and Sodium Chlorite was supplied by Sigma-Aldrich, USA.
Gatenholm: Journal of applied polymer science.
Conrad: Textile Research Journal.
Online since: September 2013
Authors: Hui Liu, Hong Xing Zhang, Yuan Hong Xie, Ting Ting Zhou, Yun Bo Luo, Hui Min Zhou
Materials and Methods
Materials and Medium.
[15] Shen Li: Nankai university college of life science. (2005), p. 31.
(In Chinese) [16] Xiaoyan Z., Zhenya Z. and Yingnan Y.: International Journal of Biology.
[17] Anahita K., Norhani A. and Siew L.L.: Animal Science Journal.
[18] Feng Cao, Beilei Dong and Xiaobing Lu: Science and Technolog.
[15] Shen Li: Nankai university college of life science. (2005), p. 31.
(In Chinese) [16] Xiaoyan Z., Zhenya Z. and Yingnan Y.: International Journal of Biology.
[17] Anahita K., Norhani A. and Siew L.L.: Animal Science Journal.
[18] Feng Cao, Beilei Dong and Xiaobing Lu: Science and Technolog.
Online since: August 2013
Authors: Lei Gang Wang, Xiao Hong Tan, Wen Shen Wang
Optimization of Injection Molding Process Parameters with Material Properties Based on GA and BP
Xiaohong Tan1,2, a, Leigang Wang1,b ,Wenshen Wang1,2,c
1 School of Material Science and Engineering, Jiangsu University, Zhenjiang, Jiangsu, 212013, China
2 Office of Die Teaching and Research, Zhejiang Industry & Trade Polytechnic, Zhejiang, 325003, China
aseafairy@163.com, b lgwang@ujs.edu.cn, chnwzwws@163.com
Keyword: Genetic algorithm (GA);Neural network algorithm (BP);Injection molding process optimization;The axial deformation
Abstract: To obtain optimal injection process parameters, GA was used to optimize BP network structure based on Moldflow simulation results.
Once material and mold structure are determined, the molding process parameters come to be the only factor which affect the quality of plastic parts.
In this paper, using GA, the input variables required by BP are optimized selected, so that the prediction performance of the model can be improved. 1 Experimental Design 1.1 3D modeling of the axial deformation analysis In this study, PP –Globalene 6331 material for deformation are used.
Yamagata, A study on optimal compensation cutting for an aspheric surface using the Taguchi method, CIRP Journal of Manufacturing Science and Technology 3 (2010) 40–48
Once material and mold structure are determined, the molding process parameters come to be the only factor which affect the quality of plastic parts.
In this paper, using GA, the input variables required by BP are optimized selected, so that the prediction performance of the model can be improved. 1 Experimental Design 1.1 3D modeling of the axial deformation analysis In this study, PP –Globalene 6331 material for deformation are used.
Yamagata, A study on optimal compensation cutting for an aspheric surface using the Taguchi method, CIRP Journal of Manufacturing Science and Technology 3 (2010) 40–48
Online since: February 2012
Authors: Li Bin Niu, Zhi Hu Wang, Wan Chang Sun, Jumei Zhang
Influence of solution treatment on atomic diffusion and mechanical properties of AZ80 magnesium alloy
Jumei Zhang 1,a, Zhihu Wang 2,b, Wanchang Sun 1,Libin Niu1
1School of Materials Science and Engineering, Xian University of Science & Technology, Xian 710054,China;
2School of Materials Science and Engineering, Xian University of Technology, Xian 710048,China
afeiyue-zjm@163.com, bzhihu_wang@163.com
Keywords: AZ80 magnesium alloy; solution treatment; atomic diffusion; mechanical property
Abstract.
Experimental The material investigated in the present study had the following chemical composition (wt%):8 Al, 0.2 Zn,0.3 Mn, Mg bal.
Acknowledgements This work was financially supported by the Education Fund of Xian University of Science & Technology of China (200812) and the Doctor Foundation of Xian University of Science & Technology of China(A5030916).
Nonferrous Met.Soc.Vol.13(2003),p. 1253 [3] A.K.Dahle, Y.C.Lee, M.D.Nave, P.L.Schaffer and D.H.Stjohn: Journal of Light Metals.Vol.1 (2001), p.61 [4]J.M.Zhang, B.L.Jiang, Z.H.Wang, S.Yuan, H.Q.Nan and H.B.Luo:China Foundry.
Vol.4 (2007), p.296 [5]W.Huang,D.Li:Transactions of Materials and Heat Treatment.Vol.27(2006),p.37.
Experimental The material investigated in the present study had the following chemical composition (wt%):8 Al, 0.2 Zn,0.3 Mn, Mg bal.
Acknowledgements This work was financially supported by the Education Fund of Xian University of Science & Technology of China (200812) and the Doctor Foundation of Xian University of Science & Technology of China(A5030916).
Nonferrous Met.Soc.Vol.13(2003),p. 1253 [3] A.K.Dahle, Y.C.Lee, M.D.Nave, P.L.Schaffer and D.H.Stjohn: Journal of Light Metals.Vol.1 (2001), p.61 [4]J.M.Zhang, B.L.Jiang, Z.H.Wang, S.Yuan, H.Q.Nan and H.B.Luo:China Foundry.
Vol.4 (2007), p.296 [5]W.Huang,D.Li:Transactions of Materials and Heat Treatment.Vol.27(2006),p.37.
Online since: June 2007
Authors: Hong Quang Nguyen, Jeung Soo Huh, Gi Hong Rue, Shao Lin Zhang
Characteristics of Gas Sensors based on Single-walled Carbon
Nanotube Bundles Treated by Acid Stirring
Hong-Quang Nguyen1,a), Shao-Lin Zhang1, Gi-Hong Rue2
and Jeung-Soo Huh1,a)
1
Department of Materials Science and Metallurgy, Kyungpook National University,
1370 Sangyuk-dong, Bukgu, Daegu 702-701, South Korea
2
School of Electronic Engineering & Computer Science, Kyungpook National University,
1370 Sangyuk-dong, Bukgu, Daegu 702-701, South Korea
a)
Corresponding author: jshuh@knu.ac.kr , quang_nh2002@yahoo.com
Keywords: Acid treatment, Carbon nanotube, Characteristics, Gas sensor, Sensitivity.
Yamadab: Materials Science and Engineering B, Vol.108 (2004), p. 143 [2] Jun Li, Hou Tee Ng: Encyclopedia of Nanoscience and Nanotechnology (Ed.
Dai: Science, Vol. 287 (2000) p. 622 [4] J.
Materials Science.
Pietrass: Journal of Physical Chemistry B, Vol. 109, (2005) p. 4455 [10] M.
Yamadab: Materials Science and Engineering B, Vol.108 (2004), p. 143 [2] Jun Li, Hou Tee Ng: Encyclopedia of Nanoscience and Nanotechnology (Ed.
Dai: Science, Vol. 287 (2000) p. 622 [4] J.
Materials Science.
Pietrass: Journal of Physical Chemistry B, Vol. 109, (2005) p. 4455 [10] M.
Online since: August 2013
Authors: Ran Zhou Hao, Fei Yang Yun, Jiao Liu Xiao
Preparation of waterborne epoxy resin emulsion
Hao Ran-Zhou1,a, Yun Fei-Yang2,b, Xiao Jiao-Liu3,c
1,2,3The College of Materials Science and Engineering, Harbin University of Science and Technology, Harbin Linyuan road 4, 150040, China
ahaoran1963@hotmail.com
by40703837@163.com
cliuxiaojiao1021@126.com
Key words: Maleic anhydride; Self emulsifying; Waterborne epoxy resin
Abstract: The hydrophilic carboxylic group was induced into the main chain of the bisphenol-A-type epoxy resin via alcoholysis reaction between the maleic anhydride and he secondary hydroxyl group of the bisphenol-A-type epoxy resin.
Experimental Materials Epoxy resin E-44:Lan Xing New Material Wuxi Resin Corporation; Maleic anhydride: Tian Jin Guang Fu fine chemicals Co.LTD; anhydrous ethanol: Tian Jin FuYu fine chemicals Co.LTD; butyl acetate: Tian Jin FuYu fine chemicals Co.LTD; Dibutyltin dilaurate(DBTL): Tian Jin Guang Fu fine chemicals Co.LTD; Ammonia water: Tian Jin Guang Fu fine chemicals Co.LTD;acetone: Tian Jin Guang Fu fine chemicals Co.LTD.
Journal of Applied Polymer Science[J], 2001, 81(1):128-133 [2] E.
Progress in Polymer Science[J], 1997, 22: 207~222 [4] ZHOU Hua, CAO Rui-jun, LIU Li-xin.
Polymer Materials Science and Engineering, 2010, 26(2): 1-3 [5] CHENG Ping, LIU Sheng-ping.
Experimental Materials Epoxy resin E-44:Lan Xing New Material Wuxi Resin Corporation; Maleic anhydride: Tian Jin Guang Fu fine chemicals Co.LTD; anhydrous ethanol: Tian Jin FuYu fine chemicals Co.LTD; butyl acetate: Tian Jin FuYu fine chemicals Co.LTD; Dibutyltin dilaurate(DBTL): Tian Jin Guang Fu fine chemicals Co.LTD; Ammonia water: Tian Jin Guang Fu fine chemicals Co.LTD;acetone: Tian Jin Guang Fu fine chemicals Co.LTD.
Journal of Applied Polymer Science[J], 2001, 81(1):128-133 [2] E.
Progress in Polymer Science[J], 1997, 22: 207~222 [4] ZHOU Hua, CAO Rui-jun, LIU Li-xin.
Polymer Materials Science and Engineering, 2010, 26(2): 1-3 [5] CHENG Ping, LIU Sheng-ping.