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Open systems dynamics: Simulating master equations in the computer

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arxiv 1504.05266 v2 pith:ODZDHBQD submitted 2015-04-21 quant-ph

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keywords equationsthemmastermethodscomputerenoughincludingnotes
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Master equations are probably the most fundamental equations for anyone working in quantum optics in the presence of dissipation. In this context it is then incredibly useful to have efficient ways of coding and simulating such equations in the computer, and in this notes I try to introduce in a comprehensive way how do I do so, focusing on Matlab, but making it general enough so that it can be directly translated to any other language or software of choice. I inherited most of my methods from Juan Jos\'e Garc\'ia-Ripoll (whose numerical abilities I cannot praise enough), changing them here and there to accommodate them to the way my (fairly limited) numerical brain works, and to connect them as much as possible to how I understand the theory behind them. At present, the notes focus on how to code master equations and find their steady state, but I hope soon I will be able to update them with time evolution methods, including how to deal with time-dependent master equations. During the last 4 years I've tested these methods in various different contexts, including circuit quantum electrodynamics, the laser problem, optical parametric oscillators, and optomechanical systems. Comments and (constructive) criticism are greatly welcome, and will be properly credited and acknowledged.

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  1. Comment on "Time Crystal in a Single-mode Nonlinear Cavity"

    quant-ph 2024-11 conditional novelty 6.0 of 10

    A single driven quantum Van der Pol oscillator is not a dissipative time crystal: dephasing or a Kerr term opens the Liouvillian gap and kills persistent oscillations.

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