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Progress in Crystal Growth and Characterization of Materials

Autocorrelation measurement of ultrashort incoherent light pulses by intensity interference

Motoyoshi Baba, Ying Li, Yoko Miyamoto, Masahiro Matsuoka

Published Jan 1, 1996• 0 citations
Publisher
DOI
10.1016/0960-8974(96)83667-9

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Ultrashort timing in four-wave mixing using coherent and incoherent light pulses: a comparative study

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For some time now it has been realized how the ultrashort coherence time of long pulsed broadband (incoherent) light (IL) can be used for measuring ultralarge dephasing rate constants. In a recent review1 three illustrative examples are discussed. Although ultralarge dephasing rate constants can be studied, their measure represents a long time (accumulative) average of the attendant stochastic processes—namely, the time scale of the pulse of incoherent light. This contrasts with measurements using near-transform-limited (coherent) ultrashort light pulses (CLs), where stochastic processes are probed in a nonaccumulated fashion. Thus a given stochastic process might be in a fast modulation limit when using long pulsed IL; it could be in the slow modulation limit when working with short pulses of CL. In contrast to experiments with short pulsed CL, studies with long pulsed IL permit ultrasharp frequency resolution. Other interesting differences exist as well. We just completed a comparative theoretical2 and experimental3 study of these two methods for studying dephasing processes. New discoveries include:

•May 21, 1990•0 citations
We extend the intensity interference experiments to a pulse envelope measurement of ultrashort incoherent optical pulses. The interfering fields can be mutually incoherent light pulses from independent sources. We show that the pulse envelope or width of ultrashort incoherent light pulses can be measured independently from the coherence time by using a combination of interferometer and two-photon coincidence counter. With this method we have measured the envelope autocorrelation of mutually incoherent femtosecond fluorescence from a solution of Nile Blue in dimethylaniline.
For some time now it has been realized how the ultrashort coherence time of long pulsed broadband (incoherent) light (IL) can be used for measuring ultralarge dephasing rate constants. In a recent review1 three illustrative examples are discussed. Although ultralarge dephasing rate constants can be studied, their measure represents a long time (accumulative) average of the attendant stochastic processes—namely, the time scale of the pulse of incoherent light. This contrasts with measurements using near-transform-limited (coherent) ultrashort light pulses (CLs), where stochastic processes are probed in a nonaccumulated fashion. Thus a given stochastic process might be in a fast modulation limit when using long pulsed IL; it could be in the slow modulation limit when working with short pulses of CL. In contrast to experiments with short pulsed CL, studies with long pulsed IL permit ultrasharp frequency resolution. Other interesting differences exist as well. We just completed a comparative theoretical2 and experimental3 study of these two methods for studying dephasing processes. New discoveries include: