Abstract: We study oscillations in quantum cascade lasers due to traveling electric field domains, which are observed both in simulations and experiments. These oscillations occur in a range of negative differential resistance and we clarify the condition determining whether the boundary between domains of different electric field can become stationary. Graphical abstract: [Figure not available: see fulltext.]
Magneto-transport measurements have been performed on two quantum cascade struc-tures, a laser and a...
Quantum cascade lasers (QCLs) are unipolar lasers where lasing transition and carrier transport occu...
The complex interplay by tunneling and scattering in quantum cascade lasers is analyzed with nonequi...
We study oscillations in quantum cascade lasers due to traveling electric field domains, which are o...
Quantum cascade lasers (QCLs) are generally designed to avoid negative differential conductivity (ND...
The ignition of Quantum Cascade Lasers can occur from a state of oscillating field domains. Here, th...
Abstract: Ultrafast mid-infrared pump-probe experiments are used to study gain dynamics and transpor...
In the model of effective masses and rectangular potentials obtained self-consistent solution of Poi...
Within the approximation of effective mass and rectangular potential barriers for the electron and u...
Starting from a full set of effective Maxwell-Bloch equations for a ring quantum cascade laser in th...
The first global quantum simulation of semiconductor-based quantum-cascade lasers is presented. Our ...
Self-oscillations are the result of an efficient mechanism generating periodic motion from a constan...
We explain the origin of voltage variations due to self-mixing in a terahertz (THz) frequency quantu...
A common and powerful simplification in laser physics is to ignore the spatial dependence of the int...
The topic of external optical feedback in quantum-cascade lasers is relevant for stability and beam-...
Magneto-transport measurements have been performed on two quantum cascade struc-tures, a laser and a...
Quantum cascade lasers (QCLs) are unipolar lasers where lasing transition and carrier transport occu...
The complex interplay by tunneling and scattering in quantum cascade lasers is analyzed with nonequi...
We study oscillations in quantum cascade lasers due to traveling electric field domains, which are o...
Quantum cascade lasers (QCLs) are generally designed to avoid negative differential conductivity (ND...
The ignition of Quantum Cascade Lasers can occur from a state of oscillating field domains. Here, th...
Abstract: Ultrafast mid-infrared pump-probe experiments are used to study gain dynamics and transpor...
In the model of effective masses and rectangular potentials obtained self-consistent solution of Poi...
Within the approximation of effective mass and rectangular potential barriers for the electron and u...
Starting from a full set of effective Maxwell-Bloch equations for a ring quantum cascade laser in th...
The first global quantum simulation of semiconductor-based quantum-cascade lasers is presented. Our ...
Self-oscillations are the result of an efficient mechanism generating periodic motion from a constan...
We explain the origin of voltage variations due to self-mixing in a terahertz (THz) frequency quantu...
A common and powerful simplification in laser physics is to ignore the spatial dependence of the int...
The topic of external optical feedback in quantum-cascade lasers is relevant for stability and beam-...
Magneto-transport measurements have been performed on two quantum cascade struc-tures, a laser and a...
Quantum cascade lasers (QCLs) are unipolar lasers where lasing transition and carrier transport occu...
The complex interplay by tunneling and scattering in quantum cascade lasers is analyzed with nonequi...