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IEEE Journal of Quantum Electronics

Experiments on two-photon stimulated processes

Guy Mayer, J. Sevin

Published May 1, 1968• 0 citations
Publisher
DOI
10.1109/jqe.1968.1075292

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Summary form only given. The two-photon laser is a new type of quantum oscillator based on the two-photon stimulated emission process. The laser is intrinsically nonlinear due to the nature of the stimulated emission and is thus expected to display novel nonlinear phenomena. While there has been continued interest in two-photon lasers since the original conception significant progress has been hampered by the difficulty in achieving two-photon lasing. In this contribution we summarize a model of the interaction between two intense fields and a collection of potassium atoms and use it to explain features of the recent two-photon experiments and to make predictions for future experiments.
By performing an experiment on stimulated emission by two photons in the parametric amplification process and comparing it to a three-photon interference scheme, we present evidence in support of the idea that the underlying physics of stimulated emission is simply the constructive interference due to photon indistinguishability. So the observed signal enhancement upon the input of photons can be interpreted as a result of multiphoton interference of the input photons and the otherwise spontaneously emitted photon from the amplifier.