We present microscopic modeling and experimental measurements of femtosecond-pulse interactions in a semiconductor optical amplifier. Two novel nonlinear propagation effects are demonstrated: pulse break-up in the gain regime and pulse compression in the transparency regime. These propagation phenomena highlight the microscopic origin and important role of adiabatic following in semiconductor optical amplifiers. Fundamental light-matter interactions are discussed in detail and possible applications are highlighted
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present microscopic modeling and experimental measurements of femtosecond-pulse interactions in a...
We present theory and measurements of novel ultrashort-pulse-compression in a semiconductor optical ...
We present theory and measurements of novel ultrashort-pulse-compression in a semiconductor optical ...
We have performed extensive measurements of the propagation of ultrashort pulses in a semiconductor ...
We have performed extensive measurements of the propagation of ultrashort pulses in a semiconductor ...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We have performed extensive measurements of the propagation of ultrashort pulses in a semiconductor ...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
The temporal evolution of self-phase modulation dynamics in a semiconductor optical amplifier is stu...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present microscopic modeling and experimental measurements of femtosecond-pulse interactions in a...
We present theory and measurements of novel ultrashort-pulse-compression in a semiconductor optical ...
We present theory and measurements of novel ultrashort-pulse-compression in a semiconductor optical ...
We have performed extensive measurements of the propagation of ultrashort pulses in a semiconductor ...
We have performed extensive measurements of the propagation of ultrashort pulses in a semiconductor ...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We have performed extensive measurements of the propagation of ultrashort pulses in a semiconductor ...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
We apply a new rate-equation model to study the propagation of sub-picosecond optical pulses in a se...
The temporal evolution of self-phase modulation dynamics in a semiconductor optical amplifier is stu...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...
We present detailed derivation of our new model for femtosecond pulse amplification in semiconductor...