Temperature and impurity effects of the polaron in an asymmetric quantum dot
Shu-Ping Shan, Liu Ya-min, Jin-Lin Xiao
Abstract
Shu-Ping Shan, Liu Ya-min, Jin-Lin Xiao
Abstract
Temperature and impurity effects of the ground state energy and the ground state binding energy in an asymmetric quantum dot are studied here by using the linear combination operator method. It is found that the ground state energy and the ground state binding energy increase with increasing temperature. The ground state energy is a decreasing function of the Coulomb bound potential, whereas the ground state binding energy is an increasing one.
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Temperature and impurity effects of the ground state energy and the ground state binding energy in an asymmetric quantum dot are studied here by using the linear combination operator method. It is found that the ground state energy and the ground state binding energy increase with increasing temperature. The ground state energy is a decreasing function of the Coulomb bound potential, whereas the ground state binding energy is an increasing one.
Key concepts: Ground state, Binding energy, Polaron, Quantum dot, Impurity, Physics, Condensed matter physics, Coulomb