Springer Ultra-High Temperature Materials III: Refractory Carbides II (Ti and V Carbides)

This exhaustive work in several volumes and over 2500 pages provides a thorough treatment of ultra-high temperature materials (with melting points around or over 2500 °C). The first volume focuses on carbon (graphene/graphite) and refractory metals (W, Re, Os, Ta, Mo, Nb and Ir), whilst the second and third are dedicated to refractory transition metal 4-5 groups carbides. Topics included are physical (structural, thermal, electro-magnetic, optical, mechanical, nuclear) and chemical (more than 3000 binary, ternary and multi-component systems, including those used for materials design, data on solid-state diffusion, wettability, interaction with various elements and compounds in solid and liquid states, gases and chemicals in aqueous solutions) properties of these materials. It will be of interest to researchers, engineers, postgraduate, graduate and undergraduate students alike. The readers/users are provided with the full qualitative and quantitative assessment, which is based on the latest updates in the field of fundamental physics and chemistry, nanotechnology, materials science, design and engineering. From the Back Cover This exhaustive work in several volumes and over 2500 pages provides a thorough treatment of ultra-high temperature materials (with melting points around or over 2500 °C). The first volume focuses on carbon (graphene/graphite) and refractory metals (W, Re, Os, Ta, Mo, Nb and Ir), whilst the second and third are dedicated to refractory transition metal 4-5 groups carbides. Topics included are physical (structural, thermal, electro-magnetic, optical, mechanical, nuclear) and chemical (more than 3000 binary, ternary and multi-component systems, including those used for materials design, data on solid-state diffusion, wettability, interaction with various elements and compounds in solid and liquid states, gases and chemicals in aqueous solutions) properties of these materials. It will be of interest to researchers, engineers, postgraduate, graduate and undergraduate students alike. The readers/users are provided with the full qualitative and quantitative assessment, which is based on the latest updates in the field of fundamental physics and chemistry, nanotechnology, materials science, design and engineering. About the Author Igor L. Shabalin has got about 50 years experience in Ultra-High Temperature Materials Design, Science and Engineering. He was born in the Urals, Russia, graduated in Technology of Less-Common Metals and received his M.Sc. and Ph.D. degrees from the Ural Polytechnic University (UPI), Yekaterinburg (former – Sverdlovsk), Russia. He has held academic positions at the UPI (now – Ural Federal University) and was the founder of the Special Research Laboratory for Aerospace Industry (ONIL-123). As head of the laboratory and member of several scientific and technological councils, he established collaboration between universities and industry by running a variety of R&D projects and was involved in the management of some world leading programmes in rocketry and spacecraft development in the USSR Ministry of Aerospace Industry (MOM). In 2003 Professor Igor L. Shabalin immigrated to the United Kingdom. He joined the University of Salford, Manchester, as a researcher in Materials in 2005. As I. L. Shabalin has developed his personal original approach to a special subclass of engineering materials – hetero-modulus composites and hybrids in ceramics, his research activity focuses mainly on high and ultra-high temperature ceramic composites with graphene-like (carbon and boron nitride) constituents. I. L. Shabalin has discovered in Russia in the 1980-90s and formulated later in the UK – mesoscopic temperature-pressure-dependent phenomenon in the solid-state gas-exchange chemical reactions (surface processes) termed as “ridge effect”. From 1971 up to date he has published about 300 scientific and technical papers and holds more than 40 patents. In 201