Stochastic Simulator for modeling the transition to lasing
arXiv:1411.1426 · doi:10.1364/OE.23.002369
Abstract
A Stochastic Simulator (SS) is proposed, based on a semiclassical description of the radiation-matter interaction, to obtain an efficient description of the lasing transition for devices ranging from the nanolaser to the traditional "macroscopic" laser. Steady-state predictions obtained with the SS agree both with more traditional laser modeling and with the description of phase transitions in small-sized systems, and provide additional information on fluctuations. Dynamical information can easily be obtained, with good computing time efficiency, which convincingly highlights the role of fluctuations at threshold.
5 pages, 3 figures, 1 table
References in corpus (1)
Cited by in corpus (12)
- Superthermal light emission and nontrivial photon statistics in small lasers
- Efficient stochastic simulation of rate equations and photon statistics of nanolasers
- Dynamics at Threshold in Mesoscale Class-B Lasers
- Exploration of Micro-VCSEL Ultra-low Biasing Scheme for Pulse Generation
- Methodological investigation into the noise influence on nanolasers' large signal modulation
- "Phase Transitions" in small systems: why standard threshold definitions fail for nanolasers
- Photon statistics and dynamics of nanolasers subject to intensity feedback
- Photon bursts at lasing onset and modeling issues in micro-VCSELs
- A stochastic approach to the quantum noise of a single-emitter nanolaser
- Simple yet Accurate Stochastic Approach to the Quantum Phase Noise of Nanolasers
- Modeling Quantum Noise in Nanolasers using Markov Chains
- Ultrafast neural sampling with spiking nanolasers