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Production of Dispersion-Strengthened Cu-TiB2 Alloys by Ball-Milling and Spark-Plasma Sintering Dae-Hwan Kwon a , Jong-Won Kum b , Thuy Dang Nguyen c, Dina Dudinad , Pyuck-Pa Choi e , Ji-Soon Kim f and Young-Soon Kwon g Research Center for Machine Parts and Materials, School of Materials Science & Engineering Processing, University of Ulsan, San 29 Mugeo-dong, Nam-gu, Ulsan 680-749, Korea ahani1972@ulsan.ac.kr, bkainan9900@nate.com, ctnguyendang2000@yahoo.com, d dudina@solid.nsc.ru, e ppchoi@mail.ulsan.ac.kr, fjskim@mail.ulsan.ac.kr, gyskwon@ulsan.ac.kr Keywords: ball-milling, Cu-TiB2 alloy, spark-plasma sintering Abstract.
Experimental TiB2 (99.5 %, <45 ㎛) and copper (99.5 %, <45 ㎛) powders were used as raw materials.
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Lomovsky : Journal of Alloys and Compounds Vol. 297 (2000), p. 87
Onose : Journal of Nuclear Science and Technology Vol.36(4) (1999), p.380

For the advantages of SBFEM, it has been applied to evaluating the dynamic stress intensity factors[6], the SIF of orthotropic material [5], the SIF under the temperature load[7], and stress singularity problem of interface materials.
Journal of Applied Mechanics. 1957, 24: 109-114
Semi-analytical representation of stress singularities as occurring in cracks in anisotropic multi-materials with the scaled boundary finite-element method[J].
International Journal for Numerical Methods in Engineering. 2004, 61(8): 1332-1357
International Journal for Numerical Methods in Engineering. 2006, 65: 620-650

Tensile Properties of a Low-cost First Generation Single Crystal Superalloy DD16 Jianwei Xu 1,a, Yunsong Zhao 1,2,b and Dingzhong Tang 1,c 1Science and Technology on Advanced High Temperature Structural Materials Laboratory, Beijing 100095, China 2 State Key Laboratory for Advanced Metals and Materials, University of Science and Technology Beijing, Beijing 100083, China ajianwei-xu@139.com, bzhaoyunsong2008@gmail.com, cdingzhong.tang@biam.ac.cn Keywords: Single crystal superalloy, DD16, tensile properties, Yield strength.
Xiao, et al., Microstructure and high temperature stress rupture properties of Ru-containing directionally solidified Ni-based superalloy, Key Engineering Materials. (2007) 507-510
Yu, et al., Influence of element Re on lattice misfits and stress rupture properties of single crystal nickel-based superalloys, Materials Science and Engineering A. 527(Compendex) (2010) 4458-4465
Fuchs, Improvement of creep strength of a third generation single-crystal Ni-based superalloy by solution heat treatment, Journal of Materials Engineering and Performance. 11(1) (2002) 19-25
Zhao, et al., The research of microstructure and property of a low density Ni-based single-crystal superalloy, Journal of Aeronauticcal Materials. 31(S1) (2011) 90-93.

Research advances on Application status and Non-thermal Efficiency of Microwave pyrolysis Xi-cheng Zhao1,a, Zhao Li2,b, Yuan-ru Jiang3,c, Ke Xu3,d and Ya-juan Zhao3,e １College of Metallurgical Engineering,China 2 College of Materials and Mineral Resources,China 3　School of Science, Xi an University of Architecture And Technology, Xi an 710055,China azhaoxjd@163.com bpylizhao@163.com cjiangyuanru@sina.com Kyewords: microwave pyrolysis; application; non-thermal Abstract：The progress of the application of microwave pyrolysis in China and oversea is reviewed.
Forum Vol. 99(2008), p. 8252 [2] A.Dominguez, J.A.Menendez and Y.Fernandez: Journal of analytical and applied pyrolysis.
Forum Vol. 97(2007), p. 1185 [6] Wang Tonghua，Hu Junsheng and Xia Li: Journal of Shenyang Jianzhu University(Natural Science).
Forum Vol. 22(2001), p. 6 [10] Yang Xiaoqing, Huang Kama: Materials Review.
Materials Review.

Nanostructured Materials. 1999, Vol. 12: 35-40
Materials Science and Engineering: A. 2011, Vol. 528: 8742-8749
Journal of Materials Processing Technology. 2006, Vol. 171: 480-487
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Materials Science & Engineering A, 2001, 318: 34-41

Miller:Journal of Materials Processing Technology Vol. 149 (2004), p.37 [6] M.Rahimi, A.
Wang: Journal of the University of Petroleum (Natural Science Edition) Vol. 29 (2005), p.46 [16] R.H.
Wang: Journal of Materials Processing Technology Vol.210 (2010) , p.190 [17] J.M.
Friction and Wear of Engineering Materials.
Li:Journal of Computer-Aided Materials Design Vol.6 (1999) , p.185 [33] K.

Lattice structures can be highly complex imitating natural cellular materials.
Materials and Methods All parts analyzed in this paper were produced by selective laser melting (SLM) in Ti6Al4V on systems by different suppliers.
This inspection method is mainly restricted by large parts resulting in low resolution and high dense materials causing artifacts.
Tamburrino, The Design Process of Additively Manufactured Mesoscale Lattice Structures: A Review, Journal of Computing and Information Science in Engineering, Vol. 18, 2018.
Mahmoud et al., Lattice Structures and Functionally Graded Materials Applications in Additive Manufacturing of Orthopedic Implants: A Review, Journal of Manufacturing and Materials Processing, 2017

Li, Journal of Applied Polymer Science 92 (3) (2004) 1782–1789
Li,Journal of Membrane Science 150 (1) (1998) 75–85
Chen,Journal of Applied Polymer Science 110 (3) (2008) 1656–1663
Li, Journal of Applied Polymer Science 81 (2001) 1643–1653
Chung, Journal of Membrane Science 340(1–2) (2009) 192–205.

Pt, Au and Ag have been used as surface electron trappers, but they are expensive materials [11,12].
In this paper, ZnO decorated TiO2 with {001} facets was synthesized by hydrothermal method by using (NH4)2TiF6 and Zn(NO3)2 as the starting materials.
Experimental Details Materials and methods: The ZnO decoration on TiO2 {001} surface was achieved using a simple hydrothermal method.
Zhang, Preparation and electrochemical properties of TiO2 hollow spheres as an anode material for lithium-ion batteries, Journal of Power Sources. 191 (2009) 614-618
Kawasaki, Repeated temperature modulation epitaxy for p-type doping and light-emitting diode based on ZnO, Nature Materials. 4 (2005) 42-46

Cu rivets were used for Cu materials.
In polymer materials, thermal energy induces cleavage and polymerization of hydrocarbon chains to generate radicals.
Hozoji, Encapsulation materials for power devices, Journal of The Japan Institute of Electronics Packaging 15 (2012) 374-378
Tonozuka, Effect of temperature and humidity on degradation behavior of Cu/epoxy interface under high temperature and high humidity aging, Materials Science Forum 1016 (2021) 1436-1442
Imai, Degradation mechanism of polymeric materials, Journal of the Japan Society of Colour Material 92 (2019) 136-141