With existing techniques for mode-locking, the bandwidth of ultrashort pulses from a laser is determined primarily by the spectrum of the gain medium. Lasers with self-similar evolution of the pulse in the gain medium can tolerate strong spectral breathing, which is stabilized by nonlinear attraction to the parabolic self-similar pulse. Here we show that this property can be exploited in a fiber laser to eliminate the gain-bandwidth limitation to the pulse duration. Broad (̃200 nm) spectra are generated through passive nonlinear propagation in a normal-dispersion laser, and these can be dechirped to ̃20-fs duration
We demonstrate the generation of a picosecond pulse train taking advantage of the cross gain occurri...
We demonstrate an ultrabroadband mode-locked spectrum beyond the gain bandwidth from a fiber laser b...
We report the numerical demonstration of the transformation from dissipative solitons to amplifier s...
We propose a novel mode-locked fiber laser design that relies on attracting similariton solutions in...
For the first time, we demonstrate the possibility to switch between three distinct pulse regimes in...
We present a new pulse regime in a stretched ultrafast fiber laser based on numerical simulations. T...
We propose and numerically demonstrate a new concept of fibre laser architecture supporting self-sim...
We propose a new concept of a fiber laser architecture supporting self-similar pulse evolution in th...
Fiber lasers offer several clear advantages over solid-state systems: compact design, thermal manage...
We present the operation of an ultrafast passively mode-locked fibre laser, in which flexible contro...
We show both numerically and experimentally that dispersion management can be realized by manipulati...
Rapid progress in passively mode-locked fibre lasers is currently driven by the recent discovery of ...
Ultrafast lasers have had tremendous impact on both science and applications, far beyond what their ...
A tunable, stable pulse generation technique based on two-pump fiber optic parametric amplification ...
Self-phase modulation in fiber amplifiers can significantly degrade the quality of compressed pulses...
We demonstrate the generation of a picosecond pulse train taking advantage of the cross gain occurri...
We demonstrate an ultrabroadband mode-locked spectrum beyond the gain bandwidth from a fiber laser b...
We report the numerical demonstration of the transformation from dissipative solitons to amplifier s...
We propose a novel mode-locked fiber laser design that relies on attracting similariton solutions in...
For the first time, we demonstrate the possibility to switch between three distinct pulse regimes in...
We present a new pulse regime in a stretched ultrafast fiber laser based on numerical simulations. T...
We propose and numerically demonstrate a new concept of fibre laser architecture supporting self-sim...
We propose a new concept of a fiber laser architecture supporting self-similar pulse evolution in th...
Fiber lasers offer several clear advantages over solid-state systems: compact design, thermal manage...
We present the operation of an ultrafast passively mode-locked fibre laser, in which flexible contro...
We show both numerically and experimentally that dispersion management can be realized by manipulati...
Rapid progress in passively mode-locked fibre lasers is currently driven by the recent discovery of ...
Ultrafast lasers have had tremendous impact on both science and applications, far beyond what their ...
A tunable, stable pulse generation technique based on two-pump fiber optic parametric amplification ...
Self-phase modulation in fiber amplifiers can significantly degrade the quality of compressed pulses...
We demonstrate the generation of a picosecond pulse train taking advantage of the cross gain occurri...
We demonstrate an ultrabroadband mode-locked spectrum beyond the gain bandwidth from a fiber laser b...
We report the numerical demonstration of the transformation from dissipative solitons to amplifier s...