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Forum Vol. 372 (2016), p. 208 [5] Z.
Forum Vol. 370 (2016), p. 177 [6] Y.
Öchsner: Advanced finite element simulation with MSC Marc: Application of user subroutines (Springer, Cham 2017) [24] S.
Schmid: Manufacturing engineering and technology (Prentice Hall, New York and Toronto 2010) [25] Z.
Altenbach, volume 72 of Advanced Structured Materials, chapter, 16, Springer (2018).

X-ray Diffraction and Barkhausen Noise Diagnostics of Thick Welds Prepared by Metal Active Gas and Laser Welding KOLAŘÍK Kamil 1, a *, GANEV Nikolaj 2,b, TROJAN Karel 3,c, ŘÍDKÝ Ondřej 4,d, ZUZÁNEK Lukáš 5,e and ČAPEK Jiří 6,f 1, 2, 3, 6 CTU in Prague, Department of Solid State Engineering, Faculty of Nuclear Sciences and Physical Engineering, Trojanova 13, 120 00 Prague 2, Czech Republic 4, 5 TU of Liberec, Institute for Nanomaterials, Advanced Technologies and Innovation, Studentská 1402/2, 461 17 Liberec 1, Czech Republic 3List all distinct addresses in the same way a *kamil.kolarik@email.cz, bnikolaj.ganev@fjfi.cvut.cz, ctrojaka2@fjfi.cvut.cz, dondrej.ridky@seznam.cz, elukas.zuzanek@seznam.cz, fcapekjir@fjfi.cvut.cz Keywords: X-ray diffraction; Barkhausen noise; residual stresses; laser welding; metal active gas welding.
These advanced laser welds are promising for use in transport engineering industry owing these profitable changes of real crystallographic structure in comparison with conventional laser welds [2].
Digler, Sources and Consequences of Residual Stresses due to Welding, Materials science forum (2014) 2777-2785.

Polyimide that serves as a typical kind of engineering materials has widely been used in different fields, such as the aerial, nuclear and microelectronic industry.
And they also displays excellent tensile strength and the thermal properties, these polyimide nanocomposites have the prospect for being used as advanced dielectricmaterials in microelectronic applications.
References [1] E P Giannelis: Appl Organomet Chem, Vol.12(1998), p. 675 [2] M S Biswas:Adv Polym Sci, Vol.155(2001), p.167 [3] Y H Zhang, Z M Dang and S Y Fu: Chem Phys Lett, Vol.401(2005), p. 553 [4] Y H Zhang, S G Lu and Y Q Li: Advanced Materials, Vol.17 (2005) , p. 1056 [5] Y H Zhang, YQ Li and G T Li: Chemistry of Materials, Vol.19(2007), p. 1939 [6] Y H Zhang, SM Ke, H.Huang, HLW Chan: Applied Physics Letters, 2008,92:052910
[7] Y H Zhang, Z M Dang, J H Xin: Macromolecular Rapid Communications,2005(26):1473 [8] Y H Zhang, J T Wu and Q.Yan: Polymer, Vol.45(2004), p.7579 [9] Y H Zhang, Y Li and S Y Fu: Polymer, Vol.46(2005), p.8373 [10] Y H Zhang, S Y Fu and S Y Yang: Composite Science and Technology, 2005,(65):1743 [11] Y H Zhang, R K Y Li and S Y Fu: Materials Science Forum, 2005, Vol.475-479(2005), p.1073 [12] Y H Zhang, Y Li and H T Huang: Key Engineering Materials.
Vol.334-335(2007), p.821 [13] Y Q Wen, Y H Zhang and Q S Su: Key Engineering Materials. 2007,(334-335):869.

Good practices in teaching of advanced processes in mechanical engineering projects learning groups J.E.
Methodology and development of teaching focused on groups of projects in mechanical engineering In order to habituate to the students, (Manufacturing Engineering of the fifth course of the Engineering Technical High School), teachers will facilitate the procedure to develop a methodology that seeks to establish patterns in: - The formation of project teams
- Product Development and Concurrent Engineering
International Conference on Engineering Education. (2001) [3] K.
Gallois, "Implementation of technogenesis in the undergraduate engineering curriculum," proceedings of the 2002 ASEE/SEFI/TUB colloquium

The properties of Ti-6Al-4V were taken from the library Engineering Data Sources Additive Manufacturing Materials.
J. of Advanced Manufacturing Technology. 53 (2011) 231-239
Tuck, Effect of the build orientation on the mechanical properties and fracture modes of SLM Ti-6Al-4V, Materials Science and Engineering A. (2014) 1-11
of Optoelectronics and Advanced Materials. 19 (2017) 738-747
Moiduddin, Microstructure and mechanical properties of porous titanium structures fabricated by electron beam melting for cranial implants, Proceedings of the Institution of Mechanical Engineers, Journal of Engineering in Medicine. (2018) 185-199

Advanced Materials Research, (2011), vol. 223 pp 464-472
Precision Engineering, (2006) 30: 325–336
Advanced Eng.
Advanced Materials Research, (2013), vol. 716, p. 423-429. doi:10.4028/www.scientific.net/ AMR.716.423 [23] S.
Proceed. 5th NA International Conference on Industrial Engineering and Operations Management Detroit, Michigan, USA, (2020), p. 1079-1086

Fe-Mn-Si/6.5wt%Si-Fe Bilayer Ribbons produced by using Melt Spinning Technique Daisuke Imamura1, a *, Takashi Todaka1, b, and Masato Enokizono1, c 1 Department of Electrical and Electronic Engineering, Faculty of Engineering, Oita University, 700 Dannoharu, Oita 870-1192, Japan aV10e2005@oita-u.ac.jp, bTodaka@oita-u.ac.jp, cenoki@oita-u.ac.jp, *corresponding author Keywords: Ferromagnetic shape memory alloys, Shape memory alloys, 6.5%Si-Fe alloys, Single-roll melt spinning technique, Multifunctional material, Saturation magnetization, Shape memory effect, Curie temperature Abstract.
Kanada: A new drive system using a shape memory alloy(SMA) heat engine and its applications, Journal of Journal of Optoelectronics and Advanced Materials, vol.10, No.5, 2008 [2] T.
Enokizono: Magnetic properties and shape memory effect of Fe-Mn-Cr-Si-R-B ferromagnetic shape memory alloy, Journal of Optoelectronics and Advanced Materials, vol.10, No.5, 2008 [4] T.
Meng Zhang: Local Graded Structure in 6.5wt%Si-Fe Alloy and the Effect on Ductility, Journal of Materials Science Forum, vol. 492-493, pp. 59-62, 2005 [6] Feng Ye, Y.F.
%Si High Silicon Steel Sheets Produced by Cold Rolling, Journal of Materials Science Forum, vol. 492-493, pp. 59-62, 2005 [7] Y.

Forum Vol. 304-306 (1999), p.109
Filatov: Journal of Advanced Mat.
Yelagin, and V.V.Zakharov: Materials Science Forum Vol.331-337 (2000), p. 793
Dobatkina: Advanced Aluminium Alloys Containing Scandium: Structure and Properties (Gordon and Breach Science Publishers, Amsterdam, The Netherlands 1998)
Kuznetsov: Materials Science and Engineering A 418 (2006), p.148

High Strength Titanium Rods Produced by Thermomechanical Powder Consolidation Fei Yanga *, Brian Gabbitasb, Ajit Singhc and Chungfu Wangd Waikato Centre for Advanced Materials (WaiCAM), School of Engineering, The University of Waikato, Hamilton, New Zealand afyang@waikato.ac.nz;fyang0204@hotmail.com, bbriang@waikato.ac.nz, cajit-pal-90@hotmail.com, dcwang@waikato.ac.nz Keywords: Titanium, Powder compact extrusion, Microstructure, Properties.
Typical engineering stress-strain curves from tensile specimens cut from the sintered and extruded pure titanium are showed in Fig. 3.
Forum. 618-619 (2009) 513-516
Bressiani, Production of titanium alloys for advanced aerospace systems by powder metallurgy, Mate.
Forum. 31 (2007) 85-89

Introduction Grinding of materials is characterized by high productivity, geometric accuracy, low roughness and undulation of the processed surfaces, so it is widely used in mechanical engineering and other industries [1-4].
Baboshkin, Technology of grinding in mechanical engineering, Sankt-Peterburg. (2007)
Hitchiner, High performance grinding and advanced cutting tools.
Forum, Trans Tech Publ., Switzerland. 874 (2016) 85-91
Hitchiner, High performance grinding and advanced cutting tools, Springer, Verlag. (2012).