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Aluminum forgings. --- Aluminum alloys --- Metallurgy. --- Aluminum alloy forgings --- Forged aluminum --- Forging

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Aluminium --- Aluminium --- Aluminium --- Aluminiumlegeringar. --- Aluminum alloys. --- Aluminum alloys. --- Aluminum --- Aluminum. --- aluminum alloy. --- Alliages. --- Metallurgi.

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Ultrasonic waves are nowadays used for multiple purposes including both low-intensity/high frequency and high-intensity/low-frequency ultrasound. Low-intensity ultrasound transmits energy through the medium in order to obtain information about the medium or to convey information through the medium. It is successfully used in non-destructive inspection, ultrasonic dynamic analysis, ultrasonic rheology, ultrasonic spectroscopy of materials, process monitoring, applications in civil engineering, aerospace and geological materials and structures, and in the characterization of biological media. Nowadays, it is an essential tool for assessing metals, plastics, aerospace composites, wood, concrete, and cement. High-intensity ultrasound deliberately affects the propagation medium through the high local temperatures and pressures generated. It is used in industrial processes such as welding, cleaning, emulsification, atomization, etc.; chemical reactions and reactor induced by ultrasonic waves; synthesis of organic and inorganic materials; microstructural effects; heat generation; accelerated material characterization by ultrasonic fatigue testing; food processing; and environmental protection. This book collects eleven papers, one review, and ten research papers with the aim to present recent advances in ultrasonic wave propagation applied for the characterization or the processing of materials. Both fundamental science and applications of ultrasound in the field of material characterization and material processing have been gathered.

ultrasonic lens --- axicon lens --- focused ultrasound --- transcranial ultrasound --- non-destructive inspection --- damage identification --- topology optimization --- ultrasonic wave propagation --- ultrasonic visualization --- L-shaped ultrasonic wave guide rod --- ultrasonic bending vibration --- 2A14 aluminum alloy --- solidification structure --- composition segregation --- 1060 aluminum alloy --- twin-roll casting --- microstructure --- mechanical properties --- concrete --- mesostructure --- Lamb wave --- heterogeneity --- Monte Carlo method --- SHM --- ultrasound --- time of flight --- reinforcement --- resin transfer molding (RTM) --- permeability --- liquid composite molding --- material characterization --- composite manufacturing --- liquid penetration --- ultrasound transmission --- capillary penetration --- porous sheets --- bulk metallic glass --- ultrasonic assisted turning --- finite element analysis --- cutting force --- guided waves --- setting time --- mortar and concrete --- early age --- thermoplastic composites --- ultrasonic joints --- resistance heating --- elastography --- viscoelastic properties --- creep --- stress relaxation --- n/a

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Ultrasonic waves are nowadays used for multiple purposes including both low-intensity/high frequency and high-intensity/low-frequency ultrasound. Low-intensity ultrasound transmits energy through the medium in order to obtain information about the medium or to convey information through the medium. It is successfully used in non-destructive inspection, ultrasonic dynamic analysis, ultrasonic rheology, ultrasonic spectroscopy of materials, process monitoring, applications in civil engineering, aerospace and geological materials and structures, and in the characterization of biological media. Nowadays, it is an essential tool for assessing metals, plastics, aerospace composites, wood, concrete, and cement. High-intensity ultrasound deliberately affects the propagation medium through the high local temperatures and pressures generated. It is used in industrial processes such as welding, cleaning, emulsification, atomization, etc.; chemical reactions and reactor induced by ultrasonic waves; synthesis of organic and inorganic materials; microstructural effects; heat generation; accelerated material characterization by ultrasonic fatigue testing; food processing; and environmental protection. This book collects eleven papers, one review, and ten research papers with the aim to present recent advances in ultrasonic wave propagation applied for the characterization or the processing of materials. Both fundamental science and applications of ultrasound in the field of material characterization and material processing have been gathered.

Technology: general issues --- ultrasonic lens --- axicon lens --- focused ultrasound --- transcranial ultrasound --- non-destructive inspection --- damage identification --- topology optimization --- ultrasonic wave propagation --- ultrasonic visualization --- L-shaped ultrasonic wave guide rod --- ultrasonic bending vibration --- 2A14 aluminum alloy --- solidification structure --- composition segregation --- 1060 aluminum alloy --- twin-roll casting --- microstructure --- mechanical properties --- concrete --- mesostructure --- Lamb wave --- heterogeneity --- Monte Carlo method --- SHM --- ultrasound --- time of flight --- reinforcement --- resin transfer molding (RTM) --- permeability --- liquid composite molding --- material characterization --- composite manufacturing --- liquid penetration --- ultrasound transmission --- capillary penetration --- porous sheets --- bulk metallic glass --- ultrasonic assisted turning --- finite element analysis --- cutting force --- guided waves --- setting time --- mortar and concrete --- early age --- thermoplastic composites --- ultrasonic joints --- resistance heating --- elastography --- viscoelastic properties --- creep --- stress relaxation --- n/a

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This reprint presents the current state of knowledge and the latest advances in the development of microstructure and material properties using modern FSP (Friction Stir Processing) and related technologies such as FSW (Friction Stir Welding). The chapters of this reprint contain valuable results of research on changes in the microstructure and properties of materials caused by the use of the above technologies. Detailed analysis of these results allowed for the formulation of constructive conclusions of scientific and technological importance. The issues described in here present a significant cognitive and application potential and indicate the problems and implementation challenges faced by users of FSP and related technologies.

Technology: general issues --- stir casting --- boron carbide --- silicon carbide --- AA6061 aluminium alloy --- tensile strength --- friction stir welding --- bobbin tool --- AA1050-H14 --- pin geometry --- travel speed --- welding temperature --- mechanical properties --- groove joint design --- gas tungsten arc welding --- 2205 DSS --- friction stir lap welding --- definitive screening design (DSD) --- tensile shear load --- tool penetration depth --- plunge depth --- friction stir deposition --- solid-state additive manufacturing --- AA2011-T6 and AA2011-O --- AA2011 aluminum alloy --- microstructure --- intermetallics --- hardness --- Friction stir spot welding --- low-carbon steel --- brass --- load-carrying capacity --- dissimilar friction stir welding --- tool penetration depth (TPD) --- intermetallic compound (IMC) thickness --- process parameter --- friction stir processing --- 7075 aluminum alloy --- air cooling --- jet cooling nozzle --- microstructure evolution --- tribological properties --- aluminum alloys --- AA6082 --- friction stir spot welding --- n/a