Intermetallics, ISSN 0966-9795, 07/2012, Volume 26, pp. 44 - 51
A five-component Al CoCrFeNi high-entropy alloy (HEA) system with finely-divided Al contents (x in molar ratio, x = 0-2.0) was prepared by vacuum arc melting...
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Alloy design
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Alloy design
Journal Article
Intermetallics, ISSN 0966-9795, 2011, Volume 19, Issue 5, pp. 698 - 706
Two refractory high entropy alloys with compositions near Nb Mo Ta W and V Nb Mo Ta W , were produced by vacuum arc-melting. Despite containing many...
B. Mechanical properties at high temperatures | A. Intermetallics, miscellaneous | Mechanical properties at ambient temperature | D. Microstructure (as-cast, deformation-induced, recrystallization-induced) | A. Intermetallics miscellaneous | D. Microstructure (as-cast deformation-induced recrystallization-induced)
B. Mechanical properties at high temperatures | A. Intermetallics, miscellaneous | Mechanical properties at ambient temperature | D. Microstructure (as-cast, deformation-induced, recrystallization-induced) | A. Intermetallics miscellaneous | D. Microstructure (as-cast deformation-induced recrystallization-induced)
Journal Article
Intermetallics, ISSN 0966-9795, 01/2014, Volume 44, pp. 128 - 140
Advanced intermetallic multi-phase γ-TiAl based alloys, such as TNM alloys with a nominal composition of Ti–43.5Al–4Nb–1Mo–0.1B (in at.%), are potential...
D. Microstructure | B. Mechanical properties at ambient temperature | B. Mechanical properties at high temperatures | B. Phase transformation | A. Titanium aluminides, based on TiAl | C. Heat treatment | SHEET MATERIAL | PHYSICAL METALLURGY | Heat treatment | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | TITANIUM ALUMINIDE ALLOYS | Mechanical properties at high temperatures | DEFORMATION | HIGH NB | REFINEMENT | Phase transformation | THERMOMECHANICAL TREATMENT | TEMPERATURE | BETA-PHASE | Mechanical properties at ambient temperature | OXIDATION BEHAVIOR | Microstructure | Titanium aluminides, based on TiAl | Aircraft components | Hot working | Intermetallics | Mechanical properties | Aerospace engines | Titanium base alloys | Automotive components
D. Microstructure | B. Mechanical properties at ambient temperature | B. Mechanical properties at high temperatures | B. Phase transformation | A. Titanium aluminides, based on TiAl | C. Heat treatment | SHEET MATERIAL | PHYSICAL METALLURGY | Heat treatment | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | TITANIUM ALUMINIDE ALLOYS | Mechanical properties at high temperatures | DEFORMATION | HIGH NB | REFINEMENT | Phase transformation | THERMOMECHANICAL TREATMENT | TEMPERATURE | BETA-PHASE | Mechanical properties at ambient temperature | OXIDATION BEHAVIOR | Microstructure | Titanium aluminides, based on TiAl | Aircraft components | Hot working | Intermetallics | Mechanical properties | Aerospace engines | Titanium base alloys | Automotive components
Journal Article
INTERMETALLICS, ISSN 0966-9795, 05/2011, Volume 19, Issue 5, pp. 698 - 706
Two refractory high entropy alloys with compositions near Nb25Mo25Ta25W25 and V20Nb20Mo20Ta20W20, were produced by vacuum arc-melting. Despite containing many...
Microstructure (as-cast, deformation-induced, recrystallization-induced) | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | Mechanical properties at ambient temperature | CHEMISTRY, PHYSICAL | Mechanical properties at high temperatures | Intermetallics, miscellaneous
Microstructure (as-cast, deformation-induced, recrystallization-induced) | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | Mechanical properties at ambient temperature | CHEMISTRY, PHYSICAL | Mechanical properties at high temperatures | Intermetallics, miscellaneous
Journal Article
Intermetallics, ISSN 0966-9795, 07/2012, Volume 26, pp. 44 - 51
A five-component Al CoCrFeNi high-entropy alloy (HEA) system with finely-divided Al contents ( in molar ratio, = 0–2.0) was prepared by vacuum arc melting and...
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Alloy design | SYSTEM | DESIGN | BEHAVIOR | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | STRENGTH | Alloy design | Casting | STEEL | Mechanical properties at ambient temperature | PRINCIPAL ELEMENTS | Microstructure | COMPRESSIVE PROPERTIES | MULTIPRINCIPAL ELEMENTS | WEAR-RESISTANCE | Aluminum base alloys | Body centered cubic lattice | Solid solutions | Aluminum | Face centered cubic lattice | Alloys | Nanostructure
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Alloy design | SYSTEM | DESIGN | BEHAVIOR | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | STRENGTH | Alloy design | Casting | STEEL | Mechanical properties at ambient temperature | PRINCIPAL ELEMENTS | Microstructure | COMPRESSIVE PROPERTIES | MULTIPRINCIPAL ELEMENTS | WEAR-RESISTANCE | Aluminum base alloys | Body centered cubic lattice | Solid solutions | Aluminum | Face centered cubic lattice | Alloys | Nanostructure
Journal Article
Intermetallics, ISSN 0966-9795, 03/2007, Volume 15, Issue 3, pp. 357 - 362
CoCrCuFeNiTi (x values in molar ratio, x = 0, 0.5, 0.8 and 1.0) were prepared by arc melting of the pure elements and suction casting under an argon...
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Magnetic properties | METALLIC ALLOYS | SYSTEM | mechanical properties at ambient temperature | magnetic properties | microstructure | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | casting | SCIENCE | MULTIPRINCIPAL ELEMENTS
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Magnetic properties | METALLIC ALLOYS | SYSTEM | mechanical properties at ambient temperature | magnetic properties | microstructure | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | casting | SCIENCE | MULTIPRINCIPAL ELEMENTS
Journal Article
Intermetallics, ISSN 0966-9795, 03/2015, Volume 58, pp. 71 - 83
In the cast condition γ titanium aluminide alloys that solidify completely through the β phase are characterized by fine and homogeneous microstructures, weak...
C. Thermomechanical treatment | D. Microstructure | B. Creep | B. Mechanical properties at ambient temperature | B. Phase transformation | A. Titanium aluminides, based on TiAl | DESIGN | Creep | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CREEP-BEHAVIOR | COMPONENTS | CHEMISTRY, PHYSICAL | GRAIN-SIZE | DEFORMATION | Phase transformation | PHASE | BASE ALLOYS | Mechanical properties at ambient temperature | FULLY-LAMELLAR | HOT-WORKABILITY | Microstructure | TITANIUM ALUMINIDES | Titanium aluminides, based on TiAl | Thermomechanical treatment | Heat treatment | Intermetallics | Forges | Forged | Titanium compounds | Texture | Titanium base alloys | Constitution
C. Thermomechanical treatment | D. Microstructure | B. Creep | B. Mechanical properties at ambient temperature | B. Phase transformation | A. Titanium aluminides, based on TiAl | DESIGN | Creep | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CREEP-BEHAVIOR | COMPONENTS | CHEMISTRY, PHYSICAL | GRAIN-SIZE | DEFORMATION | Phase transformation | PHASE | BASE ALLOYS | Mechanical properties at ambient temperature | FULLY-LAMELLAR | HOT-WORKABILITY | Microstructure | TITANIUM ALUMINIDES | Titanium aluminides, based on TiAl | Thermomechanical treatment | Heat treatment | Intermetallics | Forges | Forged | Titanium compounds | Texture | Titanium base alloys | Constitution
Journal Article
Intermetallics, ISSN 0966-9795, 12/2012, Volume 31, pp. 225 - 231
A new beta gamma TiAl alloy Ti-43Al-4Nb-2Mo-0.5B (at %) was fabricated by ISM method. The as-cast microstructure consisted of fine lamellar colonies and...
D. Microstructure | B. Mechanical properties at ambient temperature | C. Isothermal forging | B. Mechanical properties at high temperatures | A. Titanium aluminides, based on TiAl | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | TENSILE PROPERTIES | CHEMISTRY, PHYSICAL | TITANIUM ALUMINIDE | Mechanical properties at high temperatures | REFINEMENT | FRACTURE | PHASE | Mechanical properties at ambient temperature | Isothermal forging | Microstructure | Titanium aluminides, based on TiAl | TRANSFORMATIONS
D. Microstructure | B. Mechanical properties at ambient temperature | C. Isothermal forging | B. Mechanical properties at high temperatures | A. Titanium aluminides, based on TiAl | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | TENSILE PROPERTIES | CHEMISTRY, PHYSICAL | TITANIUM ALUMINIDE | Mechanical properties at high temperatures | REFINEMENT | FRACTURE | PHASE | Mechanical properties at ambient temperature | Isothermal forging | Microstructure | Titanium aluminides, based on TiAl | TRANSFORMATIONS
Journal Article
Intermetallics, ISSN 0966-9795, 2008, Volume 16, Issue 9, pp. 1134 - 1141
In the present study, the spark plasma sintering technique is used to densify pre-alloyed TiAl powders. Ti Al Cr Nb and Ti Al Cr Nb B powders are sintered at...
C. Sintering | D. Microstructure | B. Mechanical properties at ambient temperature | B. Mechanical properties at high temperature | A. Titanium aluminides, based on TiAl | mechanical properties at ambient temperature | microstructure | sintering | titanium aluminides, based on TiAl | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | MA-PDS PROCESS | FABRICATION | mechanical properties at high temperature | Mechanical properties | Powders | Analysis | Sintering | Alloys
C. Sintering | D. Microstructure | B. Mechanical properties at ambient temperature | B. Mechanical properties at high temperature | A. Titanium aluminides, based on TiAl | mechanical properties at ambient temperature | microstructure | sintering | titanium aluminides, based on TiAl | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | MA-PDS PROCESS | FABRICATION | mechanical properties at high temperature | Mechanical properties | Powders | Analysis | Sintering | Alloys
Journal Article
Intermetallics, ISSN 0966-9795, 2012, Volume 20, Issue 1, pp. 141 - 154
New structural alloys based on borosilicides of molybdenum have been considered as potential replacements for current Ni-base superalloys, as they show promise...
B. Mechanical properties at high temperature | B. Mechanical properties at ambient temperature | B. Fracture toughness | A. Molybdenum silicides | F. Chemical map | B. Alloy design | Mechanical properties at high temperature | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | FATIGUE-CRACK-PROPAGATION | CHEMISTRY, PHYSICAL | STRENGTH | DUCTILE | Molybdenum silicides | ISOTHERMAL OXIDATION BEHAVIOR | MECHANICAL-PROPERTIES | MOLYBDENUM SILICIDE | Alloy design | Fracture toughness | INTERFACE | Mechanical properties at ambient temperature | MO-SI-B | DEFORMATION-BEHAVIOR | Chemical map | MICROSTRUCTURE
B. Mechanical properties at high temperature | B. Mechanical properties at ambient temperature | B. Fracture toughness | A. Molybdenum silicides | F. Chemical map | B. Alloy design | Mechanical properties at high temperature | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | FATIGUE-CRACK-PROPAGATION | CHEMISTRY, PHYSICAL | STRENGTH | DUCTILE | Molybdenum silicides | ISOTHERMAL OXIDATION BEHAVIOR | MECHANICAL-PROPERTIES | MOLYBDENUM SILICIDE | Alloy design | Fracture toughness | INTERFACE | Mechanical properties at ambient temperature | MO-SI-B | DEFORMATION-BEHAVIOR | Chemical map | MICROSTRUCTURE
Journal Article
Intermetallics, ISSN 0966-9795, 10/2011, Volume 19, Issue 10, pp. 1394 - 1398
Significant tensile plasticity up to 0.7 ± 0.1% together with work-hardening and larger fracture strength was obtained in Cu Zr Al bulk metallic glass (BMG)...
B. Glasses, metallic | B. Mechanical properties at ambient temperature | C. Rolling | A. Ternary alloy systems
B. Glasses, metallic | B. Mechanical properties at ambient temperature | C. Rolling | A. Ternary alloy systems
Journal Article
12.
Full Text
Correlation between microstructure and properties of fine grained Mo–Mo3Si–Mo5SiB2 alloys
Intermetallics, ISSN 0966-9795, 05/2014, Volume 48, pp. 10 - 18
Three phase α-Mo–Mo Si–Mo SiB alloys of various compositions, namely Mo–6Si–5B, Mo–9Si–8B, Mo–10Si–10B and Mo–13Si–12B (at.%) were processed by a powder...
B. Mechanical properties at ambient temperature | B. Oxidation | A. Molybdenum silicides | B. Mechanical properties at high temperatures | A. Ternary alloy systems | C. Mechanical alloying and milling | FRACTURE-TOUGHNESS | MOLYBDENUM | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | INDENTATION | CHEMISTRY, PHYSICAL | MO-12SI-8.5B AT.PERCENT | Molybdenum silicides | Mechanical properties at high temperatures | MECHANICAL-PROPERTIES | Mechanical alloying and milling | SINGLE-CRYSTALS | CRACK-GROWTH | STRUCTURAL APPLICATIONS | Mechanical properties at ambient temperature | OXIDATION BEHAVIOR | Ternary alloy systems | MO-SI-B | Oxidation
B. Mechanical properties at ambient temperature | B. Oxidation | A. Molybdenum silicides | B. Mechanical properties at high temperatures | A. Ternary alloy systems | C. Mechanical alloying and milling | FRACTURE-TOUGHNESS | MOLYBDENUM | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | INDENTATION | CHEMISTRY, PHYSICAL | MO-12SI-8.5B AT.PERCENT | Molybdenum silicides | Mechanical properties at high temperatures | MECHANICAL-PROPERTIES | Mechanical alloying and milling | SINGLE-CRYSTALS | CRACK-GROWTH | STRUCTURAL APPLICATIONS | Mechanical properties at ambient temperature | OXIDATION BEHAVIOR | Ternary alloy systems | MO-SI-B | Oxidation
Journal Article
Intermetallics, ISSN 0966-9795, 09/2012, Volume 28, pp. 25 - 33
A large-sized Zr-based BMG composite containing coarse and spherical β-Zr precipitates was produced using the semi-solid progressive solidification (SSPS)...
D. Microstructure | B. Glasses, metallic | B. Mechanical properties at ambient temperature | A. Composites | B. Plastic deformation mechanisms | MORPHOLOGICAL EVOLUTION | Composites | BRIDGMAN SOLIDIFICATION | Glasses, metallic | TERNARY ALLOYS | HIGH-STRENGTH | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | DENDRITIC MICROSTRUCTURES | MECHANICAL-PROPERTIES | AMORPHOUS-ALLOYS | Plastic deformation mechanisms | Mechanical properties at ambient temperature | VOLUME FRACTION | DUCTILITY | Microstructure | MATRIX COMPOSITES | Building materials | Mechanical properties | Mechanical engineering
D. Microstructure | B. Glasses, metallic | B. Mechanical properties at ambient temperature | A. Composites | B. Plastic deformation mechanisms | MORPHOLOGICAL EVOLUTION | Composites | BRIDGMAN SOLIDIFICATION | Glasses, metallic | TERNARY ALLOYS | HIGH-STRENGTH | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | DENDRITIC MICROSTRUCTURES | MECHANICAL-PROPERTIES | AMORPHOUS-ALLOYS | Plastic deformation mechanisms | Mechanical properties at ambient temperature | VOLUME FRACTION | DUCTILITY | Microstructure | MATRIX COMPOSITES | Building materials | Mechanical properties | Mechanical engineering
Journal Article
Intermetallics, ISSN 0966-9795, 2008, Volume 16, Issue 6, pp. 813 - 818
It is demonstrated that at slow strain rates (∼10 s ) in compression, the dominant room temperature macroscopic deformation mode in a ductile Zr-based bulk...
B. Glasses, metallic | B. Mechanical properties at ambient temperature | B. Plastic deformation mechanisms | F. Mechanical testing | plastic deformation mechanisms | FRACTURE | mechanical properties at ambient temperature | BEHAVIOR | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | MECHANISMS | AMORPHOUS-ALLOYS | DEFORMATION | glasses, metallic | mechanical testing | Metallic glasses | Zirconium | Analysis | ZIRCONIUM COMPOUNDS | STRAIN RATE | MATERIALS SCIENCE | COMPRESSION | METALLIC GLASSES | STRIATIONS
B. Glasses, metallic | B. Mechanical properties at ambient temperature | B. Plastic deformation mechanisms | F. Mechanical testing | plastic deformation mechanisms | FRACTURE | mechanical properties at ambient temperature | BEHAVIOR | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | MECHANISMS | AMORPHOUS-ALLOYS | DEFORMATION | glasses, metallic | mechanical testing | Metallic glasses | Zirconium | Analysis | ZIRCONIUM COMPOUNDS | STRAIN RATE | MATERIALS SCIENCE | COMPRESSION | METALLIC GLASSES | STRIATIONS
Journal Article
Intermetallics, ISSN 0966-9795, 02/2011, Volume 19, Issue 2, pp. 137 - 142
The well-densified Ni Al alloys without and with boron addition were fabricated by self-propagation high-temperature synthesis and hot extrusion (SHS/HE)...
C. Reaction synthesis | D. Microstructure | B. Mechanical properties at ambient temperature | A. Nickel aluminides, based on Ni
C. Reaction synthesis | D. Microstructure | B. Mechanical properties at ambient temperature | A. Nickel aluminides, based on Ni
Journal Article
Intermetallics, ISSN 0966-9795, 10/2011, Volume 19, Issue 10, pp. 1502 - 1508
Effects of alloying additions on glass formation, mechanical and soft-magnetic properties of Fe-(Si,P,C,B)-based bulk metallic glasses (BMGs) were systemically...
B. microalloying | B. mechanical properties at ambient temperature | B. magnetic properties | B. glasses, metallic | SYSTEM | mechanical properties at ambient temperature | FORMING ABILITY | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | STRENGTH | BULK | glasses, metallic | microalloying | magnetic properties | ELECTRONEGATIVITY | ADDITIONS | Mechanical properties | Metallic glasses | Magnetization | Analysis | Gallium base alloys | Alloying effects | Alloy systems | Alloys | Amorphous materials | Iron | Glass formation
B. microalloying | B. mechanical properties at ambient temperature | B. magnetic properties | B. glasses, metallic | SYSTEM | mechanical properties at ambient temperature | FORMING ABILITY | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | STRENGTH | BULK | glasses, metallic | microalloying | magnetic properties | ELECTRONEGATIVITY | ADDITIONS | Mechanical properties | Metallic glasses | Magnetization | Analysis | Gallium base alloys | Alloying effects | Alloy systems | Alloys | Amorphous materials | Iron | Glass formation
Journal Article
Intermetallics, ISSN 0966-9795, 01/2013, Volume 32, pp. 176 - 183
The effects of ultrasonic vibration (USV) on the microstructure and mechanical properties of Al–17Si–2Fe–2Cu–1Ni (mass %) alloys with 0.4% or 0.8% Mn were...
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Mechanical properties at high temperatures | A. Aluminides | CONTAINING INTERMETALLIC COMPOUNDS | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | Mechanical properties at high temperatures | SEMISOLID SLURRY | Aluminides | SILICON ALUMINUM-ALLOY | Casting | PHASE | Mechanical properties at ambient temperature | Microstructure | EXTRUSION | Vibration | Intermetallic compounds | Analysis | Alloys | Mechanical properties | Hardness | Manganese | Grain size | Aluminum base alloys | Ultrasonic vibration | Silicon | Iron
D. Microstructure | B. Mechanical properties at ambient temperature | C. Casting | B. Mechanical properties at high temperatures | A. Aluminides | CONTAINING INTERMETALLIC COMPOUNDS | MATERIALS SCIENCE, MULTIDISCIPLINARY | METALLURGY & METALLURGICAL ENGINEERING | CHEMISTRY, PHYSICAL | Mechanical properties at high temperatures | SEMISOLID SLURRY | Aluminides | SILICON ALUMINUM-ALLOY | Casting | PHASE | Mechanical properties at ambient temperature | Microstructure | EXTRUSION | Vibration | Intermetallic compounds | Analysis | Alloys | Mechanical properties | Hardness | Manganese | Grain size | Aluminum base alloys | Ultrasonic vibration | Silicon | Iron
Journal Article