Search results

The virtual materials in animations are designed according to the real materials.
A world that does not even exist can be created, where virtual materials give viewers a feeling of living the reality, for example, the series of Hollywood's science fiction and disaster blockbusters.
The characteristics of the materials are the reason why virtual materials seem real in the animation.
Virtual materials are mostly used in modeling, and choosing materials and textures.
References [1] Sun Cong, in: Materials as Form--On the Formative Styles of the Cartoon Materials and the Materialized Cartoons, Journal of Beijing Film Academy, Mar. 2004, pp. 39-40 [2] Zhang Jingdong, in: Future of 3D Animation and the Latest Technology of Maya, Journal of Chifeng University: Natural Science Edition, Feb. 2008, pp48-49 [3] Huang Shengwei, in: Study on the Maya Technology in 3D Animation Production, Software Guide, Vol. 2 (2010) [4] Huang Long, in: On the Material and Its Art Expressive Ability in Animation, pp16-17 [5] Zhao Yang, in: Research on Digital Cartoon Produced by Maya, Journal of Tianjin Adult Higher Learning, Vol. 5, Sep. 2005, pp. 35-36

Improvement of Performance of Traditional Photocatalysis and Development of New Photocatalysis Materials and Technologies Wei You School of Electrical and Mechanical Engineering, North China Institute of Science and Technology.
The shortcoming restricts the application of above materials. 3.2 Development of novel photocatalysis materials Because of the shortcoming of CdS, Fe2O3 and Cu2O, researchers had developed some novel photocatalysis materials which are visible light-responsive and have stable photochemical property.
Science, 2001,293(13):269-271 [15] Lettmann C, Hildenbrand K, Kisch H, et al.
Science, 2002,297(27):2243-2245 [17] Umebayashi T, Yamaki TS, Tanaka S, et al.
Science, 1980, 207: 139-144

Journal of Agro-Environment Science, 29(5) (2010) 969-975
Journal of Agro-Environment Science. 31(3) (2012) 587-592
Journal of Agro-Environment Science. 30(10) (2011) 2130-2135
Journal of Environmental Sciences. 51 (2017) 275-283
Journal of Central South University (Science and Technology). 43(12) (2012) 4939-4943

Investigation of stress state and contact pressures in contact area of journal bearing by numerical simulation Štefan Hajdu1, a 1 Slovak University of Technology in Bratislava, Faculty of Materials Science and Technology in Trnava, Institute of Production Systems and Applied Mechanics, Department of Applied Mechanics, Rázusova 2, 917 24 Trnava, Slovak Republic astefan.hajdu@stuba.sk Keywords: Tribology, Contact problem, simulation, FEM, ANSYS Abstract.
If we want to know more about tribological processes we will have to know stress state in the materials loaded through contact interaction between two bodies to the last detail.
The friction coefficient is constant only for a given pair of friction materials and defined state of the environment.
It changes with change of materials and operating conditions.
Mainly shear component of stresses are very important for the creation of the fatigue wear in ductile materials.

A new measurement system for compression properties evaluation of textile materials is was proposed.
Shishoo, International Journal of Clothing Science and Technology, 1995, 7 (2-3): 35-42
Kawabata and Masako Niwa, International Journal of Clothing Science and Technology, 1991, 3 (1): 7-18
[6] Pier Giorgio Minazio, International Journal of Clothing Science and Technology, 1995, 7 (2-3): 43-48
Pollet, International Journal of Clothing Science and Technology, 2000, 12 (1): 12-25

Rahman: Journal of Materials Processing Technology Vol. 209 (2009), p. 3056 [2] O.
Liu: Materials Science and Engineering A Vol. 363 (2003), p. 221 [4] J.
Tai: Materials Science and technology A Vol. 364(2004), p. 346 [6] J.
Lu: Journal of Materials Processing Technology Vol. 113 (2001), p. 563 [8] L.
Wong: Materials Science and Engineering A Vol. 338 (2002), p. 81 [13] A.

And it is very important and useful to biomedicine science and engineering that evaluating correctly the mechanical property of the equivalent materials with human skin’s nature.
Thereby, the equivalent material of human skin keeps some nonlinear elastic specificity for the strain-stress relation of elastic materials.
According to the experiment method, the same skin organ materials are contrastingly tested in different conditions [3].
Mark: Biomimetic materials: recent developments in organic-inorganic hybrids, Material Science & Engineering C: Biomimetic Material, Sensor and Systems, Vol.6 (1998), p.183-196
Wisheart, Review of low velocity impact properties of composite materials, Composites Part A: Applied Science and Manufacturing, Vol. 27 (1996), p.1123-1131

The current volume of the journal "Nano Hybrids and Composites" presents the last research results in nano-sized functional materials and composites.
The collected articles will be interesting for scientific researchers from nanomaterials and nanotechnologies and also will be helpful to engineers and students in mentioned area of materials science.

Gold Nanoparticles, Metal Matrix Composites, Multi-Wall Carbon Nanotubes, Nanocomposite Films, Nanosilica, Photocatalyst, Filler Materials, Laser Ablation, Gas Sensor, Optical Properties, Green Composites, Silver Nanoparticles, Spray Pyrolysis, ZnO Nanoparticles

Light Metals for the Functional Requirements of Developing World Lower Extremity Paediatric Prosthetics: A Review of Current Material & Technology Trends TAAHIRAH Mangeraa*, GONASAGREN Govenderb, and MARIETTE Conningc Council for Scientific and Industrial Research, Meiring Naude Road, Pretoria, South Africa aTMangera@csir.co.za, bSGovender@csir.co.za, cMConning@csir.co.za Keywords: Paediatric prosthetics, prosthetics, developing world prosthetics, light materials, material science, light metal alloys.
The key failure areas with current materials are structural failures seen in plastics, durability of wooden materials, and the heavy weight of stainless steel components.
The drawback when comparing metal materials to plastics is the added weight.
An “Appropriate Technology” Trans-femoral Prosthesis, Using Materials Available in Nepal, 123–128
Journal of Prosthetics and Orthotics

Journal of Materials Science. 43, 1 (2008). pp.254
Progress in Materials Science. vol.50, 5 (2005). pp.511
Materials Science and Engineering A. 342 (2003). pp. 207
Materials Science Forum. 327-328 (2000). pp. 63
Computational Materials Science. 25, 1/2 (2002). pp. 218