Sort by:
Publication Type:
Open access:
Publication Date:
Periodicals:
Search results
Online since: October 2007
Authors: Kinichi Masuda-Jindo, M. Menon, Vu Van Hung
We
investigate the mechanical properties of nanoscale materials like carbon nanotubes (CNT), graphens
and nanowires in comparison with those of corresponding bulk materials.
We will show that the thermodynamic and strength properties of the nanoscale materials are quite different from those of the corresponding bulk materials. 1.
We have found that the thermodynamic and electronic properties of nanoscale materials depend sensitively on their geometrical structures and different from those of the bulk materials.
[2] "Nanoscale Materials", ed.
Menon, International Journal of Fracture 125, (2006) 1
We will show that the thermodynamic and strength properties of the nanoscale materials are quite different from those of the corresponding bulk materials. 1.
We have found that the thermodynamic and electronic properties of nanoscale materials depend sensitively on their geometrical structures and different from those of the bulk materials.
[2] "Nanoscale Materials", ed.
Menon, International Journal of Fracture 125, (2006) 1
Online since: July 2012
Authors: Shao Jian Lin, Jiao Jiao Shang, Ya Ni Li, Wen He, Xia Huang, Jian Wu Lan, Si Chen
Experimental
Materials.
Lin: Advanced Materials Research Vols. 332-334 (2011), p. 223-226
Turturro: Journal of Applied Polymer Science Vol. 10 (2008), p. 3963-3972
Argyropoulos: Journal of Applied Polymer Science Vol. 113 (2009), p. 839-844
Tak: Journal of Applied Polymer Science Vol. 73 (1999), p. 907-918
Lin: Advanced Materials Research Vols. 332-334 (2011), p. 223-226
Turturro: Journal of Applied Polymer Science Vol. 10 (2008), p. 3963-3972
Argyropoulos: Journal of Applied Polymer Science Vol. 113 (2009), p. 839-844
Tak: Journal of Applied Polymer Science Vol. 73 (1999), p. 907-918
Online since: March 2011
Authors: Mahmoud Farzin, Reza Jafari Nedoushan, Mohammad Mashayekhi
Wang: Journal of Materials Processing Technology, Vol. 151 (2004), p. 196
Krajewski: Materials Science and Engineering: A, Vol. 504 (2009), p. 175
Taleff: Materials Science and Engineering: A, Vol. 494 (2008), p. 86
Lee: Materials Science and Engineering: A, Vol. 435-436 (2006), p. 687
Cocks: Computational Materials Science, Vol. 1 (1993), p. 95
Krajewski: Materials Science and Engineering: A, Vol. 504 (2009), p. 175
Taleff: Materials Science and Engineering: A, Vol. 494 (2008), p. 86
Lee: Materials Science and Engineering: A, Vol. 435-436 (2006), p. 687
Cocks: Computational Materials Science, Vol. 1 (1993), p. 95
Online since: August 2013
Authors: Yan Wang
Research on Welding Deformation of Thick Plate Duralumin Alloy
under A-TIG
Yan Wang
Material Engineering Institute , College of Mechanical & Material Engineering,China Three Gorges Univ.
Acknowledgements This work is supported by the Hubei Yichang Science and Technology Key Projeot(A08303-06) References [1] E.Cicala, G.
Andrzejewski: submitted to Journal of Materials Science and Engineering (2005) [2] A.F.
Prangnell: submitted to Journal of Materials Science and Engineering (1999) [3] T.Senthil Kumar, V.Balasubramanian and M.Y.Sanavullah: submitted to Journal of Materials and Design (2007) [4] Lucas W and Howes D S: submitted to Journal of Welding and Metal Fabrication (1996)
Acknowledgements This work is supported by the Hubei Yichang Science and Technology Key Projeot(A08303-06) References [1] E.Cicala, G.
Andrzejewski: submitted to Journal of Materials Science and Engineering (2005) [2] A.F.
Prangnell: submitted to Journal of Materials Science and Engineering (1999) [3] T.Senthil Kumar, V.Balasubramanian and M.Y.Sanavullah: submitted to Journal of Materials and Design (2007) [4] Lucas W and Howes D S: submitted to Journal of Welding and Metal Fabrication (1996)
Online since: December 2010
Authors: Yi Xin Liu, Yu Kun Dou, Lin Tian, Qing Bin Yang
Experimental
Materials. 1.67dtex×38mm soybean protein-PVA fibers; wool .
The index to denote the combustibility of the textile material is limiting oxygen index that is the lowest volume percent of oxygen to maintain the materials burning in the air.The larger the limiting oxygen index the higher the percent of oxygen to maintain burning[1].This shows that the materials are difficult to burn.Tab.5 shows the limiting oxygen index of soybean protein fiber, wool and silk.
References [1] Xu-W. , Thermal analysis of ultrafine wool powder [J], Journal of applied polymer science, vol .87(2003), p.2372-2376
[2] Zhang-H: Thermal properties of bombyx mori silk fibers[J].Journal of applied polymer science,vol.86(2002),p.1817-1820
[3] De-Clerck-K,Rahier-H and Van-Mele-B,et al., Thermal properties relevant to the processing of PET fibers [J], Journal of Applied Polymer Science,vol.89(2003),p. 3840-3849
The index to denote the combustibility of the textile material is limiting oxygen index that is the lowest volume percent of oxygen to maintain the materials burning in the air.The larger the limiting oxygen index the higher the percent of oxygen to maintain burning[1].This shows that the materials are difficult to burn.Tab.5 shows the limiting oxygen index of soybean protein fiber, wool and silk.
References [1] Xu-W. , Thermal analysis of ultrafine wool powder [J], Journal of applied polymer science, vol .87(2003), p.2372-2376
[2] Zhang-H: Thermal properties of bombyx mori silk fibers[J].Journal of applied polymer science,vol.86(2002),p.1817-1820
[3] De-Clerck-K,Rahier-H and Van-Mele-B,et al., Thermal properties relevant to the processing of PET fibers [J], Journal of Applied Polymer Science,vol.89(2003),p. 3840-3849
Online since: November 2021
Authors: Jun Feng Ma, Tian Qing Cui, Qun Si Wang, Qi Zhou, Dong Bin Tang
In addition, the photocatalytic performance of single semiconductor photocatalyst also can be improved by preparing composite photocatalyst such as loading single photocatalyst on supporting materials having some special characteristics.
Materials Science and Engineering: B. 2019;242:83-9
Applied Surface Science. 2020;504
Materials Research Bulletin. 2016;77:253-7
Journal of Environmental Sciences. 2020;89:206-17
Materials Science and Engineering: B. 2019;242:83-9
Applied Surface Science. 2020;504
Materials Research Bulletin. 2016;77:253-7
Journal of Environmental Sciences. 2020;89:206-17
Online since: October 2010
Authors: Khuanmar Kulyakorn, Thoungshone Satawat, Somboot Pattakamol
Materials and Methods
Preparation and Characterization of burned rice husk.
It is worth to note that some of the materials can be used as adsorbents such as coir pith, bagasse and corn hull.
Journal of Environmental Management, 2009. 90(8): p. 2313-2342
Advances in Colloid and Interface Science, 2009. 152(1-2): p. 39-47
Journal of Thermal Analysis and Calorimetry, 2008. 93(2): p. 387-396
It is worth to note that some of the materials can be used as adsorbents such as coir pith, bagasse and corn hull.
Journal of Environmental Management, 2009. 90(8): p. 2313-2342
Advances in Colloid and Interface Science, 2009. 152(1-2): p. 39-47
Journal of Thermal Analysis and Calorimetry, 2008. 93(2): p. 387-396
Online since: April 2011
Authors: Yan Fei Ma, Xue Dong Feng
Red mud as environmental restoration materials has the characteristics of low cost, simple process and controlling waste by waste.
The goal is to controlling waste by waste, turning waste into wealth and the best use of the materials, at last to achieve the zero pollution release of red mud.
[2] Claudia Brunlri,Carlo Cremisini,Paolo Massanisso,etal: Joumal of Hazardous Materials B,Vol. 117(2005), pp. 55-63
[19] Laura Santona, Paola Castaldi, Pietro Melis: Journal of Hazardous Materials B.
[21] Friesl W, Lombi E: Journal of Plant Nutrition and Soil Science.
The goal is to controlling waste by waste, turning waste into wealth and the best use of the materials, at last to achieve the zero pollution release of red mud.
[2] Claudia Brunlri,Carlo Cremisini,Paolo Massanisso,etal: Joumal of Hazardous Materials B,Vol. 117(2005), pp. 55-63
[19] Laura Santona, Paola Castaldi, Pietro Melis: Journal of Hazardous Materials B.
[21] Friesl W, Lombi E: Journal of Plant Nutrition and Soil Science.
Online since: October 2017
Authors: Yu Lung Lo, Yu Bin Chen, Chih Ling Huang
Chitosan, β-glycerophosphate, and glycerol are all biocompatible materials for biomedical application.
It can be developed as an injectable material for tissue regeneration.
Material ans Methods Figure 1 shows the chemical structures of CS, β-GP, and glycerol.
Gurny: European Journal of Pharmaceutics and Biopharmaceutics, vol. 57 (2004), p. 19 [3] J.
Ma: International Journal of Pharmaceutics, vol. 315 (2006), p. 1 [4] Z.
It can be developed as an injectable material for tissue regeneration.
Material ans Methods Figure 1 shows the chemical structures of CS, β-GP, and glycerol.
Gurny: European Journal of Pharmaceutics and Biopharmaceutics, vol. 57 (2004), p. 19 [3] J.
Ma: International Journal of Pharmaceutics, vol. 315 (2006), p. 1 [4] Z.
Online since: December 2025
Authors: Taichi Nakamura, Helmut Takahiro Uchida, Makoto Ryo Harada, Tomohiro Hayashi
The technique using the investigated material affected by ion flux can also be applied to visualize the surface voltage distribution of textile materials.
Surface voltage is a parameter introduced to describe the electrical properties of textile materials.
The results of this study are useful for interpreting experimental data and characterizing textile materials, and can be used to evaluate the withstand voltage and half-life as indicators for various materials.
In: Nanotube Superfiber Materials, Elsevier 2019 pp. 263–311
[7] Stankutė, R., Grinevičiūtė, D., Gutauskas, M., Žebrauskas, S., Varnaitė, S, Evaluation of Electrostatic Properties of Fiber-forming, Polymers Materials Science 16 (1) (2010) 72–75
Surface voltage is a parameter introduced to describe the electrical properties of textile materials.
The results of this study are useful for interpreting experimental data and characterizing textile materials, and can be used to evaluate the withstand voltage and half-life as indicators for various materials.
In: Nanotube Superfiber Materials, Elsevier 2019 pp. 263–311
[7] Stankutė, R., Grinevičiūtė, D., Gutauskas, M., Žebrauskas, S., Varnaitė, S, Evaluation of Electrostatic Properties of Fiber-forming, Polymers Materials Science 16 (1) (2010) 72–75