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Solidification Simulation and Experimental Validation of Single-Phase Fe–Co–Cr–Ni–V–Al High-Entropy Alloy
by
Jain, Sandeep
, Samal, Sumanta
, Kumar, Vinod
, L, Naveen
in
Alloys
/ Aluminum
/ Casting
/ Chemistry and Materials Science
/ Chromium
/ Cobalt
/ Computer simulation
/ Cooling
/ Copper
/ Corrosion and Coatings
/ Diamond pyramid hardness
/ Heat
/ High entropy alloys
/ Iron
/ Materials Science
/ Mathematical models
/ Metallic Materials
/ Molds
/ Nickel
/ Original Article
/ Phase transitions
/ Scanning electron microscopy
/ Simulation
/ Simulation models
/ Software
/ Solid solutions
/ Solidification
/ Suction
/ Temperature
/ Thermodynamics
/ Tribology
2023
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Solidification Simulation and Experimental Validation of Single-Phase Fe–Co–Cr–Ni–V–Al High-Entropy Alloy
by
Jain, Sandeep
, Samal, Sumanta
, Kumar, Vinod
, L, Naveen
in
Alloys
/ Aluminum
/ Casting
/ Chemistry and Materials Science
/ Chromium
/ Cobalt
/ Computer simulation
/ Cooling
/ Copper
/ Corrosion and Coatings
/ Diamond pyramid hardness
/ Heat
/ High entropy alloys
/ Iron
/ Materials Science
/ Mathematical models
/ Metallic Materials
/ Molds
/ Nickel
/ Original Article
/ Phase transitions
/ Scanning electron microscopy
/ Simulation
/ Simulation models
/ Software
/ Solid solutions
/ Solidification
/ Suction
/ Temperature
/ Thermodynamics
/ Tribology
2023
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Solidification Simulation and Experimental Validation of Single-Phase Fe–Co–Cr–Ni–V–Al High-Entropy Alloy
by
Jain, Sandeep
, Samal, Sumanta
, Kumar, Vinod
, L, Naveen
in
Alloys
/ Aluminum
/ Casting
/ Chemistry and Materials Science
/ Chromium
/ Cobalt
/ Computer simulation
/ Cooling
/ Copper
/ Corrosion and Coatings
/ Diamond pyramid hardness
/ Heat
/ High entropy alloys
/ Iron
/ Materials Science
/ Mathematical models
/ Metallic Materials
/ Molds
/ Nickel
/ Original Article
/ Phase transitions
/ Scanning electron microscopy
/ Simulation
/ Simulation models
/ Software
/ Solid solutions
/ Solidification
/ Suction
/ Temperature
/ Thermodynamics
/ Tribology
2023
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Solidification Simulation and Experimental Validation of Single-Phase Fe–Co–Cr–Ni–V–Al High-Entropy Alloy
Journal Article
Solidification Simulation and Experimental Validation of Single-Phase Fe–Co–Cr–Ni–V–Al High-Entropy Alloy
2023
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Overview
For the first time, the numerical simulation to understand the solidification phenomena during suction casting of single-phase six component Fe–Co–Cr–Ni–V–Al FCC HEA is reported here along with the experimental validation and comparison with thermodynamic simulation using CALPHAD approach. The present study elaborates the complete information about solidification behavior, distribution of temperature in metal casting and heat transfer in metal casting and metal-mold interface and mold to the environment and phase transformation mechanism during solidification. The simulated results are validated with the experimental measured hardness using a micro-Vickers hardness tester at 500 g load and the measured hardness of the FCC HEA varies from 220 ± 2.98 to 259 ± 5.95 HV. The developed simulation model is in good agreement and acceptable with the experimental results and thermodynamic simulation results.
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