Effect of Point Defects on the Tensile and Thermal Characteristics of Nickel–Aluminum Nanowire through Molecular Dynamics

Study on the effect of temperature and strain rate on Ni2FeCrCuAl high entropy alloy: a molecular dynamics study

“…Furthermore, it is quantified that the increment in strain rate and temperature leads to an upsurge in the shearing behavior through the augmentation of shear strain, owed to the influence of augmentation in the kinetic energy of atoms and provoke the rapid atomic movements of various atoms [16][17][18]. Besides, it is observed that the increase in time period leads to an upsurge in the shear strain related to the lowermost time period, owing to the decrement in preventive performance between various atoms which confirms the formation of various dislocations such as 1/6<112>and 1/3<001>during tensile deformation [9,13]. Based on the above observation it is observed that the strain rate has a complex impact on the shearing behavior of HEA trailed by the temperature which leads to cause modification in tensile behavior and its characteristics [9].…”

“…The above illustration noticeably insists the governing impact of temperature rise over the total energy of entire crystal system which clearly discovers the increment in the instability of the crystal systems. Further, it will lead an upsurge in the amorphization and diffusion performance related to the zero K (0 K) temperature, owed to the augmentation in the kinetic energy of various atoms which leads to invoke atomic movements rapidly via the rupture of atomic energy barriers [13].…”

“…Furthermore, it is observed that the surge in temperature leads to invoking higher variants or reduction in radial distribution functions related to the lowest temperature, owing to its increment in the kinetic energy of atoms relating to a temperature which leads to a decrease in the probability of finding an atom in a definite location [14]. Additionally, the radial distribution of a HEA is superior at ambient temperature with minimal strain and strain rate circumstances, owing to the occurrence of better restrictive performance amongst various atoms and minimal kinetic of various alloying elements [13,15,16]. Based on the above discussion, it is observed that the strain rate has a complex impact on the radial distribution function of HEA followed by the temperature which leads to cause modification in tensile behavior and its characteristics.…”

Investigation on the effect of temperature, pressure and grain size on the creep behavior of nickel-chromium binary alloy through molecular dynamics simulation

“…Furthermore, it is insist that the increment in the creep time, temperature and pressure also offers higher atomic diffusion through the lattice diffusion behavior, owing to the attainment of superior amorphization behavior and increment in the kinetic energy of nickel and chromium atoms in the nickel-chromium polycrystalline binary alloy. Based on the above observation, it is stated that the minimal grain size under higher pressure and temperature condition leads to offer higher atomic diffusion and amorphization behavior which leads to cause the variations in creep characteristics [4].…”

“…Gowthaman et al have stated that the grain size of a polycrystalline material plays a vital role over the mechanical and the fatigue life of many materials [3]. Additionally, Gowthaman et al have discovered that the increment in the temperature leads to upsurge the kinetic energy of various atoms and it leads to invoke superior reduction in the restraining behavior between various atoms [4]. Kad et al have found that the deformation behaviour of TiAl alloy is highly influenced by the dislocation which leads to promote the deformation of TiAl alloy under higher ambient temperature conditions [5].…”