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Optics Communications

Picosecond time-resolved photoelectric correlation measurement with a photon-counting streak camera

Mikiya Ueda, Makoto Kuwata‐Gonokami, N. Nagasawa, Tsuneyuki Urakami, Yoshihiro Takiguchi, Yutaka Tsuchiya

Published Mar 1, 1988• 12 citations
Publisher
DOI
10.1016/0030-4018(88)90093-4

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Time-resolved Youngrquotrquotrquots interference and decoherence
We present a two-slit time-resolved Young's interference experiment. We use a streak camera, with 2 ps resolution, to measure the arrival time as well as the location of the photons into the detector from an infrared femtosecond pulsed laser. The interfering photons can have the same or different energies as selected from a monochromator. We show that the interference fringes tilt in x – t space and disappear as the difference in energy and the resolution time set in the streak camera increase. The results show deviations from classical interference formulae and a possible interpretation in terms of decoherence may be adequate.
The conventional method to measure atomic interference is usually based on incoherent processes which can be scaled by nano or microseconds. However, atomic interference may be studied in association with coherent process such as superfluorescence. Producing superfluorescent picosecond pulses in 87Rb vapor pumped by ~100 fs laser pulses, we report an observation of quantum beat due to D-lines. The relative delay of the superfluorescent pulses is measured by the streak camera with picosecond time resolution, as a function of time interval between input pulses, which also enables us to study atomic interference.