Search results

Sylvester Kaliskiego 2, 00-908 Warsaw 49, Poland 2Warsaw University of Technology, Faculty of Materials Science and Engineering, Woloska 141, 02-507 Warsaw, Poland admiedzinska@wat.edu.pl (corresponding author), bgslawinski@wat.edu.pl, ctniezgoda@wat.edu.pl, dabocz@meil.pw.edu.pl Keywords: Numerical modeling, microstructure, magnetorheological elastomer, smart materials, magnetic field.
This is achieved via adding the micro-sized magnetisable particles into the elastomers or rubber-like materials [1].
Awietjan, Urethane magnetorheological elastomers microstructure and properties, III ECCOMAS conference on Smart Structures and Materials, Gdansk (2007)
Munoz, A model of the behavior of magnetorheological materials, Smart Mater.
Munoz, A model of the behaviour of magnetorheological materials, Smart Mater.

ABSTRACT - Carbon/mineral complexes are materials with surfaces covered partially or totally by carbon materials contains.
Ceramic properties These tests were performed only with materials D, E and F.
The other materials either crumbled or had a high mass loss.
Materials Chemistry and Physics, 34(2), 123-141 (1993). 2) Leboda, R.; Charmas, B.
Surface properties of mesoporous carbon-silica gel adsorbents, Journal of Colloid and Science Interface.223, 112-125 (2000). 4) Santos, P.S. - Science and Technology of Clays, 2 nd ed., Edgard Blücher, São Paulo, 1989 (vol1) and 1992 (vol. 2 and 3). 5) Cosin, S.

Verified by a large number of experiments of different workpiece materials, the residual stress predicted by models had a good agreement with the measured value [5].
Cutting Science and Technology Vol. 14(2) (2010), p. 244–257
Journal of Materials Processing Technology Vol. 209(9) (2009), 4515-4520
Materials and design Vol. 29(4)(2008), p. 873-883
CIRP Journal of Manufacturing Science Technology Vol. 4(1) (2011), p. 80-89

Experimental Designs, Materials, and Methods Materials.
Cavallini, Influence of curing temperature on the evolution of magnesium oxychloride cement, Journal of Materials Science. 46 (2011) 6726–6733
Kitchens, Kinetic study of the magnesium oxychloride cement cure reaction., Journal of Materials Science. 52 (2017)
Chmielus, Binder jet 3D printing—process parameters, materials, properties, modeling, and challenges, Progress in Materials Science. 119 (2021) 100707
Litster, Modeling the granule formation mechanism from single drop impact on a powder bed, Journal of Colloid and Interface Science. 393 (2013) 369–376

Introduction The micro-defects of materials，including voids, inclusions, and micro-cracks，will affect the mechanical properties of materials significantly.
References [1] K.Nishimura, N.Miyazaki, Molecular dynamics simulation of crack growth under cyclic loading, Computational Materials Science, 31 (2004) 269-278
Computational Materials Science, 2007, 40: 130–139
[13] K.J.Zhao, C.Q.Chen, Y.P.Shen, T.J.Lu, Molecular dynamics study on the nano-void growth in face-centered cubic single crystal copper, Computational Materials Science, 46 (2009) 749-754
[17] L.Yuan, D.B.Shan, B.Guo, Molecular dynamics simulation of tensile deformation of nano-single crystal aluminum, Journal of Materials Processing Technology, 184 (2007) 1–5

The ways of utilization of by-product are follows: as a filler for the silicate production; for polymer-cement, water-dispersion and oil paints; as a filler for the production of roofing materials, bituminous roofing mastics based on organic binders; raw materials for the production of foam glass materials and products.
The DSC curve is characteristic of glassy materials.
Preda, Cordierite-mullite porcelain stoneware, Romanian Journal of Materials. 42 (2012) 276-282
Farafontova, Effect of chemical composition of glassy phase of porcelain stoneware on product brittleness, Materials Science Forum. 989 (2020) 254-259
[24] GOST 2211-65 (ISO 5018-83) Refractories and Refractory Raw Materials.

The model was extended by Fang [4] and applied for simulating sintering process of two-phase ceramic materials.
These fabrication conditions will be used in sintering experiment of nanocomposite ceramic tool materials in order to compare with the simulation results.
The microstructure of nanocomposite ceramic tool materials at different sintering pressure is shown in Fig. 1.
Microstructure of nanocomposite ceramic tool materials Fig. 2 is the fracture surface of A12O3/nano-SiC nanocomposite ceramic tool materials, which is fabricated at 1600℃, sintering pressure of 0Mpa, 20MPa and 32MPa, respectively, grain size of SiC is 60nm.
Journal of Physics D: Applied Physics.

Mishima1, d 1 Graduate School of Science and Engineering Saitama University, Saitama, Japan 2 Materials Fabrication Laboratory, RIKEN, Saitama, Japan 3 RILAC Team, RIKEN, Saitama, Japan a kasuga@me.ics.saitama-u.ac.jp; bohmori@mfl.ne.jp; cwatanabe@nano.gr.jp; d takemi@mail.saitama-u.ac.jp Keywords: Dental ceramics, Hard and brittle material, Surface characteristics, ELID-Grinding Abstract.
Progress of new dental materials such as biocompatible metal, ceramics is being accelerated because of aging society and sophistication of medical treatment.
So, development of new dental materials such as biocompatible metal, ceramics is being accelerated because those materials are physically stable and hardly have harmful effect to human body.
In the case of materials for the dental implant treatment, fixtures are made of a biocompatible metal such as titanium, titanium alloy.
On the other hand, the coping made of dental ceramics does not cause metal allergy and has better translucency, but some ceramic materials have lower strength than biocompatible metal.

Maaz, W.Khalid and A.Mumtaz: Physica E, 41 (2009), p. 593 [2] A L Quinelato, E Longo and E R Leite: Journal of Materials Science, 36(2001), p. 3825 [3] Zhitao Chen and Lian Gao: Materials Science and Engineering B, 141 (2007), p. 82 [4] Yuan Zhihao and Zhang Lide: Materials Research Bulletin, 33(1998), p. 1587 [5] Dong-Hwang Chen and Xin-Rong He: Materials Research Bulletin, 36 (2001), p. 1369 [6] Qi Chen, Adam J.
John Zhang: Journal of Magnetism and Magnetic Materials, 194 (1999), p. 1 [7] Sung-Soo Kima, Seon-Tae Kima and Joon-Mo Ahnb: Journal of Magnetism and Magnetic Materials, 271 (2004), p. 39 [8] S.
Macedo: Journal of Magnetism and Magnetic Materials, 192 (1999), p. 277 [11] T.
Serna: Materials Letters, 43(20000, p. 97 [12] Y.
Yin: Journal of Alloys and Compounds, 308 (2000), p. 290 [13] Zhong Weilie: Ferroelectrics Physics (Science Press, China 2000).

Hayhurst: Development of Models for Tool Wear Force Relationships in Metal Cutting, International Journal of Mechanical Science Vol. 33 (1991), p. 125-138 [4] M.A.
El-Hossainy: Investigating the Tool Life, Cutting Force Components, and Surface Roughness of AISI 302 Stainless Steel Material Under Oblique Machining, Materials and Manufacturing Processes Vol. 23 (2008), p. 427-438 [13] K.J.
El-Zahry: Monitoring of tool wear and surface roughness in endmilling for intelligent machining, International Journal of the Physical Sciences Vol. 6 (2010), p. 2380-2392 [15] B.
Senjuntichai: Intelligent Monitoring and Prediction of Surface Roughness in Ball End Milling Process, Applied Mechanics and Materials.
Ratanakuakangwan: Monitoring and Prediction of Surface Roughness in Ball End Milling with Air Blow Application, Advanced Materials Research.