We demonstrate a simple self-referenced single-shot method for simultaneously measuring two different arbitrary pulses, which can potentially be complex and also have very different wavelengths. The method is a variation of cross-correlation frequency-resolved optical gating (XFROG) that we call double-blind (DB) FROG. It involves measuring two spectrograms, both of which are obtained simultaneously in a single apparatus. DB FROG retrieves both pulses robustly by using the standard XFROG algorithm, implemented alternately on each of the traces, taking one pulse to be ?known? and solving for the other. We show both numerically and experimentally that DB FROG using a polarization-gating beam geometry works reliably and appears to have no nont...
In this chapter, we developed the theory of frequency-resolved optical gating (FROG) in the few-cycl...
The problem of measuring broad-band femtosecond pulses by the technique of second-harmonic generatio...
In this chapter, we developed the theory of frequency-resolved optical gating (FROG) in the few-cycl...
The precise characterization of ultrashort laser pulses has been of interest to the scientific commu...
As many high-intensity ultrafast-optical measurements involve more than one pulse—typically one to e...
We propose and experimentally demonstrate single-scan vectorial frequency-resolved optical gating (F...
We present a novel single-shot cross-correlation technique based on the analysis of the transversall...
We recently introduced a new technique, frequency-resolved optical gating (FROG), for directly deter...
We introduce the technique of time-resolved optical gating (TROG) based on dispersive propagation (D...
In the past several decades the technology for the creation and use of ultrashort pulses has progres...
We introduce a technique for simultaneously measuring the time-dependent intensity and phase of two ...
AbstractFrequency Resolved Optical Gating (FROG) has been used extensively for ultrafast pulse chara...
International audienceWe present a single-shot frequency-resolved optical gating setup for measureme...
A new pulse-retrieval software for Frequency-Resolved Optical Gating (FROG) technique has been devel...
A diagnostic system using three frequency-resolved optical gating (FROG) techniques—cross-correlatio...
In this chapter, we developed the theory of frequency-resolved optical gating (FROG) in the few-cycl...
The problem of measuring broad-band femtosecond pulses by the technique of second-harmonic generatio...
In this chapter, we developed the theory of frequency-resolved optical gating (FROG) in the few-cycl...
The precise characterization of ultrashort laser pulses has been of interest to the scientific commu...
As many high-intensity ultrafast-optical measurements involve more than one pulse—typically one to e...
We propose and experimentally demonstrate single-scan vectorial frequency-resolved optical gating (F...
We present a novel single-shot cross-correlation technique based on the analysis of the transversall...
We recently introduced a new technique, frequency-resolved optical gating (FROG), for directly deter...
We introduce the technique of time-resolved optical gating (TROG) based on dispersive propagation (D...
In the past several decades the technology for the creation and use of ultrashort pulses has progres...
We introduce a technique for simultaneously measuring the time-dependent intensity and phase of two ...
AbstractFrequency Resolved Optical Gating (FROG) has been used extensively for ultrafast pulse chara...
International audienceWe present a single-shot frequency-resolved optical gating setup for measureme...
A new pulse-retrieval software for Frequency-Resolved Optical Gating (FROG) technique has been devel...
A diagnostic system using three frequency-resolved optical gating (FROG) techniques—cross-correlatio...
In this chapter, we developed the theory of frequency-resolved optical gating (FROG) in the few-cycl...
The problem of measuring broad-band femtosecond pulses by the technique of second-harmonic generatio...
In this chapter, we developed the theory of frequency-resolved optical gating (FROG) in the few-cycl...