A Monte Carlo simulation of double‐quantum‐well (DQW) devices is presented in view of analyzing the quantum state transfer (QST) effect. Different structures, based on the AlGaAs/GaAs system, were simulated at 77 and 300 K and optimized in terms of electron transfer and device speed. The analysis revealed the dominant role of the impurity scattering for the QST. Different approaches were used for the optimization of QST devices and basic physical limitations were found in the electron transfer between the QWs. The maximum transfer of electrons from a high to a low mobility well was at best 20%. Negative differential resistance is hampered by the almost linear rather than threshold dependent relation of electron transfer on electric field. B...
The invention and refinement of sophisticated fabrication techniques such as the Molecular Beam Epit...
Electronic transport properties of as-grown and thermally annealed n- and p-type modulation-doped Ga...
A fully quantum mechanical model for electron transport in quantum well infrared photodetectors is ...
Increasing interest in entirely new possibilities for quantum mechanical description of carriers tra...
We present the results of experimental investigations of the interference quantum correction to the ...
A self‐consistent analysis of the quantum‐well emission transistor (QWET) is presented allowing an e...
A semiclassical approach for modelling electron transport in quantum well structures is presented. T...
An inverse heterojunction field-effect transistor has been simulated by means of the Monte Carlo par...
In this article, we demonstrate a reliable physics-based simulation approach to accurately model hig...
Red-emitting quantum well (QW) 630nm laser diodes have many potential applications in industry and m...
In this project, the modeling of gate current is introduced to obtain a negative differential resist...
In this thesis intersubband relaxation of electrons in quantum wells is theoretically investigated. ...
[[abstract]]The performance limitations of negative differential resistance (NDR) in AlGaAs/GaAs dou...
Semiconductor science and technology have advanced to a stage where a new class of devices has opene...
We report on experimental study of quantum conductivity corrections for two-dimensional electron gas...
The invention and refinement of sophisticated fabrication techniques such as the Molecular Beam Epit...
Electronic transport properties of as-grown and thermally annealed n- and p-type modulation-doped Ga...
A fully quantum mechanical model for electron transport in quantum well infrared photodetectors is ...
Increasing interest in entirely new possibilities for quantum mechanical description of carriers tra...
We present the results of experimental investigations of the interference quantum correction to the ...
A self‐consistent analysis of the quantum‐well emission transistor (QWET) is presented allowing an e...
A semiclassical approach for modelling electron transport in quantum well structures is presented. T...
An inverse heterojunction field-effect transistor has been simulated by means of the Monte Carlo par...
In this article, we demonstrate a reliable physics-based simulation approach to accurately model hig...
Red-emitting quantum well (QW) 630nm laser diodes have many potential applications in industry and m...
In this project, the modeling of gate current is introduced to obtain a negative differential resist...
In this thesis intersubband relaxation of electrons in quantum wells is theoretically investigated. ...
[[abstract]]The performance limitations of negative differential resistance (NDR) in AlGaAs/GaAs dou...
Semiconductor science and technology have advanced to a stage where a new class of devices has opene...
We report on experimental study of quantum conductivity corrections for two-dimensional electron gas...
The invention and refinement of sophisticated fabrication techniques such as the Molecular Beam Epit...
Electronic transport properties of as-grown and thermally annealed n- and p-type modulation-doped Ga...
A fully quantum mechanical model for electron transport in quantum well infrared photodetectors is ...