The Experts below are selected from a list of 2136 Experts worldwide ranked by ideXlab platform
A. Hofman - One of the best experts on this subject based on the ideXlab platform.
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Numerical investigation of temperature effects in materials irradiated by high-energy heavy ions in the framework of heat conduction equation for electrons and lattice
Physics of Particles and Nuclei Letters, 2006Co-Authors: I. V. Amirkhanov, A. Yu. Didyk, E. V. Zemlyanaya, I. V. Puzynin, T. P. Puzynina, N. R. Sarkar, I. Sarkhadov, V. K. Semina, Z. A. Sharipov, A. HofmanAbstract:A system of equations for electron gas and lattice around and along the trajectory of a heavy uranium ion with an energy of 700 MeV in nickel at constant heat capacity and heat conduction Taken at room temperature is solved numerically in an axially symmetric cylindrical coordinate system. On the basis of the lattice temperature obtained as a function of radius around the ion trajectory and depth, a conclusion is made that the ionization energy losses of a uranium ion in nickel are sufficient for melting and evaporating the material from the surface. The maximum radius and depth of the region in which melting and Evaporation Take Place are estimated.
I. V. Amirkhanov - One of the best experts on this subject based on the ideXlab platform.
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Numerical investigation of temperature effects in materials irradiated by high-energy heavy ions in the framework of heat conduction equation for electrons and lattice
Physics of Particles and Nuclei Letters, 2006Co-Authors: I. V. Amirkhanov, A. Yu. Didyk, E. V. Zemlyanaya, I. V. Puzynin, T. P. Puzynina, N. R. Sarkar, I. Sarkhadov, V. K. Semina, Z. A. Sharipov, A. HofmanAbstract:A system of equations for electron gas and lattice around and along the trajectory of a heavy uranium ion with an energy of 700 MeV in nickel at constant heat capacity and heat conduction Taken at room temperature is solved numerically in an axially symmetric cylindrical coordinate system. On the basis of the lattice temperature obtained as a function of radius around the ion trajectory and depth, a conclusion is made that the ionization energy losses of a uranium ion in nickel are sufficient for melting and evaporating the material from the surface. The maximum radius and depth of the region in which melting and Evaporation Take Place are estimated.
E. V. Zemlyanaya - One of the best experts on this subject based on the ideXlab platform.
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Numerical investigation of temperature effects in materials irradiated by high-energy heavy ions in the framework of heat conduction equation for electrons and lattice
Physics of Particles and Nuclei Letters, 2006Co-Authors: I. V. Amirkhanov, A. Yu. Didyk, E. V. Zemlyanaya, I. V. Puzynin, T. P. Puzynina, N. R. Sarkar, I. Sarkhadov, V. K. Semina, Z. A. Sharipov, A. HofmanAbstract:A system of equations for electron gas and lattice around and along the trajectory of a heavy uranium ion with an energy of 700 MeV in nickel at constant heat capacity and heat conduction Taken at room temperature is solved numerically in an axially symmetric cylindrical coordinate system. On the basis of the lattice temperature obtained as a function of radius around the ion trajectory and depth, a conclusion is made that the ionization energy losses of a uranium ion in nickel are sufficient for melting and evaporating the material from the surface. The maximum radius and depth of the region in which melting and Evaporation Take Place are estimated.
I. V. Puzynin - One of the best experts on this subject based on the ideXlab platform.
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Numerical investigation of temperature effects in materials irradiated by high-energy heavy ions in the framework of heat conduction equation for electrons and lattice
Physics of Particles and Nuclei Letters, 2006Co-Authors: I. V. Amirkhanov, A. Yu. Didyk, E. V. Zemlyanaya, I. V. Puzynin, T. P. Puzynina, N. R. Sarkar, I. Sarkhadov, V. K. Semina, Z. A. Sharipov, A. HofmanAbstract:A system of equations for electron gas and lattice around and along the trajectory of a heavy uranium ion with an energy of 700 MeV in nickel at constant heat capacity and heat conduction Taken at room temperature is solved numerically in an axially symmetric cylindrical coordinate system. On the basis of the lattice temperature obtained as a function of radius around the ion trajectory and depth, a conclusion is made that the ionization energy losses of a uranium ion in nickel are sufficient for melting and evaporating the material from the surface. The maximum radius and depth of the region in which melting and Evaporation Take Place are estimated.
T. P. Puzynina - One of the best experts on this subject based on the ideXlab platform.
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Numerical investigation of temperature effects in materials irradiated by high-energy heavy ions in the framework of heat conduction equation for electrons and lattice
Physics of Particles and Nuclei Letters, 2006Co-Authors: I. V. Amirkhanov, A. Yu. Didyk, E. V. Zemlyanaya, I. V. Puzynin, T. P. Puzynina, N. R. Sarkar, I. Sarkhadov, V. K. Semina, Z. A. Sharipov, A. HofmanAbstract:A system of equations for electron gas and lattice around and along the trajectory of a heavy uranium ion with an energy of 700 MeV in nickel at constant heat capacity and heat conduction Taken at room temperature is solved numerically in an axially symmetric cylindrical coordinate system. On the basis of the lattice temperature obtained as a function of radius around the ion trajectory and depth, a conclusion is made that the ionization energy losses of a uranium ion in nickel are sufficient for melting and evaporating the material from the surface. The maximum radius and depth of the region in which melting and Evaporation Take Place are estimated.