We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary linear slow light medium. The expression consists of two terms, one corresponding to amplitude broadening (low-pass filtering of the pulse bandwidth) and another corresponding to phase broadening (phase dispersion around the resonance). It is shown that for a Lorentzian gain profile, the amplitude broadening is dominant at small fractional delays. However, for large fractional delays, phase broadening is inevitably dominate
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow l...
A novel method for the achievement of zero-broadening in a SBS based slow-light system is discussed ...
A novel method for the achievement of zero-broadening in a SBS based slow-light system is discussed ...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We study analytically pulse distortion in linear slow light systems, and provide some useful limits ...
Advances in Slow and Fast Light IV, San Francisco, California, January 22, 2011We study analytically...
Advances in Slow and Fast Light IV, San Francisco, California, January 22, 2011We study analytically...
Advances in Slow and Fast Light IV, San Francisco, California, January 22, 2011We study analytically...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow ...
We experimentally demonstrate complete compensation of pulse\ud broadening in an amplifier-based slo...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow ...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow ...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow l...
A novel method for the achievement of zero-broadening in a SBS based slow-light system is discussed ...
A novel method for the achievement of zero-broadening in a SBS based slow-light system is discussed ...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We derive an analytical expression for the broadening of a Gaussian input pulse in an arbitrary line...
We study analytically pulse distortion in linear slow light systems, and provide some useful limits ...
Advances in Slow and Fast Light IV, San Francisco, California, January 22, 2011We study analytically...
Advances in Slow and Fast Light IV, San Francisco, California, January 22, 2011We study analytically...
Advances in Slow and Fast Light IV, San Francisco, California, January 22, 2011We study analytically...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow ...
We experimentally demonstrate complete compensation of pulse\ud broadening in an amplifier-based slo...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow ...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow ...
We experimentally demonstrate complete compensation of pulse broadening in an amplifier-based slow l...
A novel method for the achievement of zero-broadening in a SBS based slow-light system is discussed ...
A novel method for the achievement of zero-broadening in a SBS based slow-light system is discussed ...