Transfer Matrix method for computation of electron transmission through aperiodic MQW
Jatindranath Gain, Madhumita Das Sarkar, Sudakshina Kundu
Abstract
Jatindranath Gain, Madhumita Das Sarkar, Sudakshina Kundu
Abstract
This paper presents the Eigen values and corresponding Eigen functions for the electron states in an aperiodic and asymmetric Multiple Quantum Well structure. A faster, simpler, and accurate algorithm based on Transfer Matrix method has been introduced for solving time independent Schro¿dinger equation in the most general case of aperiodic and asymmetric MQW structure. The MQWs are aperiodic with varying well and barrier widths and asymmetric i.e., having different materials and effective masses for the different regions of the wells and barriers. Adjacent wells are coupled through the barriers. Effect of barrier width on the tunneling properties has also been investigated. The theoretical results are compared with experimental results of Giorgetta et all. Results of the computation based on the general model agree well with experimental data.
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This paper presents the Eigen values and corresponding Eigen functions for the electron states in an aperiodic and asymmetric Multiple Quantum Well structure. A faster, simpler, and accurate algorithm based on Transfer Matrix method has been introduced for solving time independent Schro¿dinger equation in the most general case of aperiodic and asymmetric MQW structure. The MQWs are aperiodic with varying well and barrier widths and asymmetric i.e., having different materials and effective masses for the different regions of the wells and barriers. Adjacent wells are coupled through the barriers. Effect of barrier width on the tunneling properties has also been investigated. The theoretical results are compared with experimental results of Giorgetta et all. Results of the computation based on the general model agree well with experimental data.
Key concepts: Aperiodic graph, Transfer-matrix method (optics), Transfer matrix, Computation, Quantum tunnelling, Matrix (chemical analysis), Eigenvalues and eigenvectors, Transmission (telecommunications)