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Materials Letters. 57 (2003) 22-23
Materials Chemistry and Physics. 4 (2009) 908-914
Journal Material Environment Science. 4 5 (2013) 732-743
Materials Chemistry and Physics. 120 1 (2010) 42-147
Materials Chemistry and Physics. 198 (2017) 360-373

Bedmar, Biopolymer–clay nanocomposites for controlled drug delivery, Materials Science and Technology. 224 (2008) 1020-6
Materials Science and Engineering: R: Reports.53 (2006) 73-197
Journal of Biomedical Materials Research Part A. 92 (2010) 973-8
International Journal of Polymeric Materials and Polymeric Biomaterials. 64 (2015) 32-7
Journal of Materials Chemistry B. 1 (2013) 5942-9.

Langdon, Developing superplasticity in a magnesium AZ31 alloy by ECAP, Journal of Materials Science 43(23-24) (2008) 7366-7371
Langdon, The influence of grain size and strain rate on the mechanical behavior of pure magnesium, Journal of Materials Science 51(6) (2016) 3013-3024
Langdon, Microhardness, microstructure and tensile behavior of an AZ31 magnesium alloy processed by high-pressure torsion, Journal of Materials Science 50(22) (2015) 7424-7436
Langdon, Grain refinement and mechanical behavior of a magnesium alloy processed by ECAP, Journal of Materials Science 45(17) (2010) 4827-4836
Xian, Flow stress equation of AZ31 magnesium alloy sheet during warm tensile deformation, Journal of Materials Processing Technology 208(1) (2008) 29-34.

Friction materials have their significant role for transmission in various machines.
Hence it has lost favor and several alternative materials are being replaced these days.
In 1920s all friction materials were of the Ferodo type.
Apart from PKS, the other materials used are Sulphur, Quartz, Iron Ore, and Ceramics.
Dagwa, “Development of asbestos free friction lining material from palm kernel shell”, Journal of Brazilian society of mechanical science and engineering, 2008, Vol XXX,No:2 PP:166-173 [4] Dr N.chand, Dr S A R Hashmi, S.Lomash, A Naik, “Development of Asbestos free brake pad” CSIR Vol 85, 2004 [5] Eric Kofi Gbadam, Simons Anthony, Elias Kwasi Asiam, “The determination of some design parameters for palm nut crackers” European Journal of Scientific Research, 2009, Vol.38 No.2, pp.315-327 [6] Dagwa, I.M., Ibhadode, A.O.A., "Design and Manufacture of Automobile Disk Brake Pad Test Rig", Nigerian Journal of Engineering Research and Development, 2005

One of the approaches to enhance the zirconia-based ceramics stability is the development of composite materials much less subject to adverse effects of t→m transformation.
The stability parameters for these two types of materials are also virtually the same.
Inferior microstructural uniformity, non-uniform distribution of component phases, combined with higher ‘tetragonality factor’ values lead to mechanical instability in ZTAC materials.
References [1] J.Vleugels Fabrication, wear and performance of ceramic cutting tools Advances in Science and Technology vol.45 (2006) pp 1776-1785 [2] M.Arin, G.Goller, J.Vleugels, K.Vanmeensel Production and characterization of ZrO2 ceramics and composites to be used for hip prosthesis Journal of Materials Science, v.43, №5, 2008, pp 1599-1611 [3] J.Chevalier, L.Gremillard, A.V.Vircar, D.R.Clarke The tetragonal- monoclinic transformation in zirconia: lessons learned and future trends.
Neorganicheskiye Materialy (Inorganic Materials), vol.8, 1972, №8, pp. 1500 -1502 [7] R.P.Ingel, D.Lewis Lattice parameters and density for Y2O3-stabilized ZrO2 Journal of American Ceramic Society 69[4], 1986, p.325-332

Therefore improvement of the fracture toughness and flexural strength is crucial for the use of TiB2 ceramics as structural materials.
Regarding the lower temperature sintering of TiB2-based materials, lots of efforts had been made to use the various metallic binders (Ni, Fe, Mo, Co) [6-9].
Experimental Procedures A commercially available TiB2 composite powder (Ningxia Machinery Research Institute, Ningxia) with a mean particle size of 1.5μm and (W,Ti)C powder (Changsha Langfeng Metal Materials Co., Ltd, Changsha) with a mean particle size of 1.5μm were used as the raw materials.
The compositions of materials are shown in Table 2.
Journal of Refractory Metals and Hard Materials (2011)

Material and Methods Materials.
Li: Journal of Food Composition and Analysis, Vol. 22 (2009), p. 72
Zhang: Chinese Journal of Chemical Engineering, Vol.17 (2009) No.3, p. 373
Bai: Journal of Gerontology, Vol.12 (1992), p.165
Du: Journal of the Neurological Sciences Vol. 1-2(2013) No.324, p. 140.

Experimental 2.1 Reagents and materials HTPB: Xi’an Beifang Huian Fine Chemicals Co.
Ren: Journal of Propulsion Technology. 17 (1996), p. 23-26
Liu: Journal of Materials Engineering. 12 (2011), p. 87-90
Qiu: Experiment Design and Data Processing (University of Science and Technology of China Publications, Hefei 2008)
Li: Aerodynamic Missile Journal. 8 (2006): 60-62

The Luminescence Properties of Green YPO4: Tb3+,Ce3+ Phosphors for WLED Jian Li1, Limin Dong1,2,a, Qin Li1 and Zhidong Han1,2 1 College of Materials Science and Engineering, Harbin University of Science and Technology, Harbin, China 2 Key Laboratory of Engineering Dielectrics and Its Application, Ministry of Education, Harbin University of Science and Technology, Harbin, China a corresponding author: donglimin@hrbust.edu.cn Keywords: WLED, Green light-emitting, Rare earth doping, LnPO4.
All the materials were calcined at 900℃of 3h.
Journal Molecular Structure.
Materials Research Bulletin.
Journal of Luminescence.

Hao et al., Materials & Design 31 (2010) 3146-3150
Yu, Materials Science & Engineering B 176 (2011) 1110-1114
Cheng, Journal of Materials Chemistry 2 (2014) 1519
Zak, Materials Letters 110 (2013) 172-175
Dorey, Journal of Materials Science 47 (2012) 1938-1942