Rate equations analysis of phase-locked semiconductor laser arrays under steady state conditions
J. Katz, E. Kapon, S. Margalit, A. Yariv
Abstract
J. Katz, E. Kapon, S. Margalit, A. Yariv
Abstract
Rate equations analysis of phase-locked semiconductor laser arrays has been carried out. It was found that for given (Laser) current densities, the photon density distribution in the array elements is that particular one which maximizes the total photon density. The results of this analysis were then combined with the waveguiding properties of the laser array waveguide, yielding a basic model of phase-locked diode laser arrays. This model explains the effects of the variation of the current combination through the array elements on its mode structure that were observed recently.
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Rate equations analysis of phase-locked semiconductor laser arrays has been carried out. It was found that for given (Laser) current densities, the photon density distribution in the array elements is that particular one which maximizes the total photon density. The results of this analysis were then combined with the waveguiding properties of the laser array waveguide, yielding a basic model of phase-locked diode laser arrays. This model explains the effects of the variation of the current combination through the array elements on its mode structure that were observed recently.
Key concepts: Laser, Semiconductor laser theory, Laser diode rate equations, Rate equation, Diode, Optics, Laser diode, Semiconductor