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Influence Of Carrier Transport On The Turn-on Delay In A Separate Confinement Heterostructure Quantum Well Laser

termining the absorption spectra from a measured spontaneous emission spectra using this technique. A more exact method of implementing carrier scattering is by broadening the individual electron and hole energy states. We will compare the results using this method with those obtained implementing carrier scattering as a broadening of the photo density. When the broadening is implemented in this more exact way, the carriers and photons remain in equilibrium and the balance arguments apply, as shown in Fig. 2, where the absorption spectra obtained using the calculated spontaneous emission is consistent with the absorption spectra calculated by the model. This confirms that the experimental absorption spectra can be obtained from a measured spontaneous emission spectra. In this paper we will demonstrate this method of obtaining an absorption spectra on calculated spontaneous emission and will comment on the accuracy of the method when obtaining absorption spectra and the gain-spontaneous emission characteristics of a semiconductor laser.