Rapidly Quenched Materials

H. Fredriksson, S. Savage, M. Nygren

• Publisher: Elsevier Science
• Year: 2012
• Print ISBN:
  9780444891075
• eBook ISBN:
  9780080984605
• Topic: Technology & Engineering
• Subtopic: Materials Science
• Index: Technology & Engineering

The 327 papers in this two-volume set cover a wide range of topics concerning the production, processing and properties of rapidly quenched melts. Various techniques for the production of non-equilibrium materials are also discussed, including solid state amorphization by rapid interdiffusion and thermobaric quenching.

Table of contents

• Front Cover
• Rapidly Quenched Materials, Part 2
• Copyright Page
• Table of Contents
• Conference Organization
• Chapter 1. The influence of hydrogen contamination on the amorphization reaction of CuTi alloys
• Chapter 2. Amorphization in an immiscible Cu–V system by mechanical alloying and its structure observed by neutron diffraction
• Chapter 3. Structural investigation of a mechanically alloyed Al–Fe system
• Chapter 4. The structure of equiatomic NiTi, CuTi, NiZr and CuZr prepared by mechanical alloying
• Chapter 5. X -ray diffraction studies of an amorphous Fe80–xCoxSi6B14 alloy system
• Chapter 6. Short range order in Fe80–xMxB20
• Chapter 7. The atomic and magnetic structure of melt-spun amorphous Dy7Ni3
• Chapter 8. The atomic and magnetic structure of melt-spun amorphous Dy7Ni3
• Chapter 9. Determination of static structure factors of metallic glasses by energy dispersiveX-ray scattering
• Chapter 10. Quasicrystals: local structure versus global structure
• Chapter 11. Site of ruthenium in icosahedral Al–Mn–Ru–Si
• Chapter 12. Mössbauer measurements and susceptibility measurements on crystalline and icosahedral AlCuFe alloys
• Chapter 13. Lattice properties of a model quasicrystalline phase in comparison with those of crystalline and amorphous phases
• Chapter 14. The scattering amplitudes for icosahedral quasicrystals with decorations
• Chapter 15. On the nature of icosahedral phases in Al–(Fe,V,Si) alloys
• Chapter 16. Quasicrystalline microstructures in Al85–xCuxCr15 splats
• Chapter 17. Molecular dynamics study of the collective density excitations in monatomic glass
• Chapter 18. Structure and vibrational dynamics of Ca70Mg30 glass
• Chapter 19. Molecular dynamics simulation of structural anisotropy in glassy metals
• Chapter 20. Flow defects and diffusion defects in metallic glasses
• Chapter 21. Annealing effects on X-ray diffraction peaks of melt-spun Al–Cu–Fe quasicrystals
• Chapter 22. The inflation pattern of the three-dimensional Penrose tiling
• Chapter 23. Quasicrystals in Al–Ni alloys
• Chapter 24. Crystallization of the "stable" quasicrystal AlCuFe
• Chapter 25. Element redistribution and embrittlement of amorphous Ni–P during structural relaxation
• Chapter 26. A neutron diffraction study on amorphous Fe0.25Zr0.75
• Chapter 27. Atomic motion at the glass transition: comparison between experimental and molecular-dynamics investigations
• Chapter 28. Characterization of defects in metallic glasses
• Chapter 29. X-ray diffraction and EXAFS studies of sputter-deposited Ti-Pd films
• Chapter 30. Interpretation of the asymmetry of the first neighbour peak in the pair correlation function of amorphous materials
• Chapter 31. X-ray structure analysis of Ni–Ti–Al and Cu–Ti–Al alloy glasses
• Chapter 32. Structural characterization of Ni–V amorphous alloys prepared by mechanical alloying
• Chapter 33. Neutron irradiation effects in metallic glasses
• Chapter 34. Thermal expansion and fractional free volume changes of metallic glasses during heating
• Chapter 35. Effect of cooling condition on the internal field distribution function of amorphous Fe–Si–B alloys
• Chapter 36. The rhomb unit structural model of amorphous alloys
• Chapter 37. Structure and density of transition metal–metalloid amorphous alloys
• Chapter 38. Pair potentials, inherent structure and crystallization of liquids
• Chapter 39. The use of rapidly solidified ribbons in automotive exhaust gas catalyst substrates
• Chapter 40. Oxidation of amorphous NiZr sputtered films
• Chapter 41. Passivity of amorphous and crystalline Ni–Ti alloys
• Chapter 42. The structure and morphology of the corrosion products formed on the surfaces of a rapidly solidified Mg–3.5A1 alloy
• Chapter 43. The effect of molybdenum on the corrosion behavior of amorphous Fe–Cr–Mo–P–C alloys in hydrochloric acid
• Chapter 44. The catalytic properties of Fe78Si12B10 alloys prepared by ball milling
• Chapter 45. Photoelectron spectroscopic investigations of the surface reactivity of crystalline and amorphous Ti–Cu alloys
• Chapter 46. Corrosion resistance and surface structure of sputtered FeNiCrMoZr amorphous alloys
• Chapter 47. Microstructural characterization and comparative electrochemical behaviour of Fe–Ni–Cr and Fe–Ni–Cr–P laser surface alloys
• Chapter 48. Pitting potential and structure of sputter-deposited Al–Ti alloys
• Chapter 49. A scanning Auger microprobe study of the surface layer of FeCrPCSi amorphous ribbons
• Chapter 50. High temperature oxidation behaviour of rapidly solidified Fe–Cr–Al ribbons
• Chapter 51. Corrosion and electrochemical characterization of rapidly solidified Cu–B, Cu–Al–B, Cu–Cr–Zr alloys
• Chapter 52. XPS analysis of amorphous Ni–Nb–Sn–Pt alloy catalysts for electro-oxidation of formaldehyde
• Chapter 53. The effect of hydrogen on the passivity of iron-based and nickel-based amorphous alloys
• Chapter 54. Oxidation and crystallization studies of Fe–22.5Al–10Zr rapidly solidified metallic glass ribbons
• Chapter 55. Structural studies of changes in amorphous Cu61Zr39 in the dehydrogenation of 2-propanol
• Chapter 56. Aluminium RS metallurgy
• Chapter 57. Microstructural characterization of atomized powder ofAl–5Mn–5Fe–2Si (wt.%) alloy
• Chapter 58. Large scale manufacturing of rapidly solidified aluminum alloys
• Chapter 59. The consolidation of rapidly solidified Al–5wt.%Cr–2wt.%Zr(–1wt.%Mn) alloy particulate by hot rolling
• Chapter 60. Spray forming of aluminium–copper alloys
• Chapter 61. Rapid solidification of aluminium by the Hydro Aluminium process
• Chapter 62. About the amorphization criteria in aluminium-based alloys
• Chapter 63. New amorphous alloys with significant supercooled liquid region and large reduced glass transition temperature
• Chapter 64. Rapid solidification of FeAl intermetallics containing ZrB2
• Chapter 65. Microstructure of rapidly solidified aluminium-based immiscible alloys
• Chapter 66. Surface characterization of a rapidly solidified A15Mn2.5Cr powder before and after hot extrusion
• Chapter 67. The microstmcture and properties of high pressure gas-atomized Al–Li–Hf alloy powders
• Chapter 68. The development of microstructure during extrusion of Al–8Fe flake
• Chapter 69. A kinetic study of precipitation in rapidly solidified Al–8Fe during processing
• Chapter 70. Rapid solidification of Al–Cr–Zr–Mn alloys
• Chapter 71. Geometry of melt-spun ribbons
• Chapter 72. An analysis of precipitation kinetics in rapidly quenched Al–Fe alloys
• Chapter 73. Metastable phase characterization in ion implanted and rapidly solidified aluminium-based alloys
• Chapter 74. Precipitation of metastable phases in a rapidly quenched Al–6wt.%Cu alloy
• Chapter 75. Structure and mechanical properties of rapidly solidified Al–Li–Cu–Mg alloys containing minor zirconium and rare earths
• Chapter 76. Microstructural characterization of rapidly solidified Al–Mn–Cr alloys
• Chapter 77. The influence of iron on precipitation from supersaturated Al–Mo solid solutions
• Chapter 78. Rapid solidification of Mg–Al–Zn–Si alloys
• Chapter 79. Stress–relaxation and creep behaviour of some rapidly solidified magnesium alloys
• Chapter 80. Superplasticity in magnesium alloy AZ91
• Chapter 81. Rapidly solidified Al–3Cr–X (Ni, Mo) ribbons: structure and decomposition behaviour
• Chapter 82. Magnetothermal analysis of the phase transformation of quasicrystalline Al–14%Mn
• Chapter 83. High mechanical strength of aluminum-based crystalline alloys produced by warm consolidation of amorphous powder
• Chapter 84. Icosahedral quasicrystals in an AlMnCrSi alloy
• Chapter 85. Nucleation and formation of quasicrystalline phases in undercooled Al–Mn melts
• Chapter 86. Degassing of USGA-atomized A15Mn6Cr powder after exposure to a humid atmosphere
• Chapter 87. The creep behaviour of rapidly solidified Al–Zr–V alloys at low stresses
• Chapter 88. The microstructure and properties of rapidly solidified Al–Hf alloys
• Chapter 89. Microhardness measurement of individual Al–Mn–Cr powder particles produced by rapid solidification
• Chapter 90. Metastable phase formation in thin film reactions
• Chapter 91. Electron diffraction investigations on new metastable solid solutions in quenched condensed V–Ag and Nb–Ag films
• Chapter 92. Preparation of high Tc thallium-based superconducting films from cocondensed amorphous metal precursors
• Chapter 93. Crystallization of amorphous thin films during heavy-ion irradiation
• Chapter 94. Preparation of aluminum thin films by the facing targets sputtering system
• Chapter 95. Microstructure and thermal stability of TbFeCo thin films prepared by plasma-free sputtering
• Chapter 96. Atomic diffusion in thin film reactions
• Chapter 97. The viscosity of amorphous metallic thin films
• Chapter 98. Characterization of the banded structure in rapidly solidified Al–Cu alloys
• Chapter 99. Solidification microstructures induced by laser surface alloying: influence of the substrate
• Chapter 100. Formation and stability of magnetron sputtered Al–TM–RE metallic glasses
• Chapter 101. Crystal orientation in titanium thin films deposited by the sputtering method without plasma damage
• Chapter 102. Preparation of amorphous carbon films as protective layer by FTS system
• Chapter 103. Microstructure of stainless steel films utilizable for magnetic recording
• Chapter 104. Control of morphology and crystallinity of chromium sputtered film
• Chapter 105. Thin films of mechanically hardened Fe–Mo–B–Cr–Ni alloys deposited by the facing targets sputtering method
• Chapter 106. Amorphization by mechanical alloying and by solid-state reaction: Similarities and differences
• Chapter 107. Atomic disorder in intermetallic compounds by mechanical attrition
• Chapter 108. Characterization of AlNi formed by a self-sustaining reaction during mechanical alloying
• Chapter 109. Nanocrystalline alloys prepared by mechanical alloying and ball milling
• Chapter 110. Temperature dependence of mechanical alloying and grinding in Ni–Zr, Cu–Ta and Fe–B alloy systems
• Chapter 111. Amorphization in Fe–metalloid systems by mechanical alloying
• Chapter 112. Formation of a super-saturated solid solution in the Ag–Cu system by mechanical alloying
• Chapter 113. Application of surface active substances in mechanical alloying
• Chapter 114. Universal high performance ball-milling device and its application for mechanical alloying
• Chapter 115. The contribution of strain and plastic deformations to the amorphization reaction of Ni–Zr alloys by mechanical alloying
• Chapter 116. High-resolution electron microscopy study of Ni–Mo nanocrystals prepared by high-energy mechanical alloying
• Chapter 117. Amorphization of soft magnetic alloys by the mechanical alloying technique
• Chapter 118. Effects of ball milling on pure antimony, on Ga–Sb alloy and onGa + Sb powder mixture; oxidation, glass formation and crystallization
• Chapter 119. Mechanical alloying of high melting point intermetallics
• Chapter 120. Metastable phase transformations induced by ball-milling in the Cu–W system
• Chapter 121. EXAFS study of the solid state amorphization process in an Fe–C alloy
• Chapter 122. Comparison of solid-state amorphization by mechanical alloying and interdiffusion in Ni–Zr
• Chapter 123. Ball milling mechanical alloying in the Fe100–xSix system
• Chapter 124. Thermal behaviour of Cu–Ti and Cu–Ti–H amorphous powders prepared by ball milling
• Chapter 125. Amorphization kinetics during cold rolling of Mg–Ni multilayers
• Chapter 126. Mechanical alloying of the Pd–Si system. Investigation of the early and late milling stages
• Chapter 127. Amorphization of Cu–Ta alloys by mechanical alloying
• Chapter 128. Solid state amorphization in the Cu–Ta alloy system
• Chapter 129. Microcrystalline or nanocrystalline grain size in two-phase alloys after mechanical alloying
• Author Index Parts 1 (pp. 1– 858) and 2 (pp. 859 – 1421)
• Subject Index Parts 1 (pp. 1– 858) and 2 (pp. 859 – 1421)