{ "id": "1310.0559", "version": "v2", "published": "2013-10-02T03:41:20.000Z", "updated": "2013-12-06T04:00:24.000Z", "title": "Stochastic Bloch-Redfield theory: quantum jumps in a solid-state environment", "authors": [ "Nicolas Vogt", "Jan Jeske", "Jared H. Cole" ], "comment": "12 pages, 7 figures", "journal": "Phys. Rev. B 88, 174514 (2013)", "doi": "10.1103/PhysRevB.88.174514", "categories": [ "cond-mat.mes-hall", "quant-ph" ], "abstract": "We discuss mapping the Bloch-Redfield master-equation to Lindblad form and then unravelling the resulting evolution into a stochastic Schr\\\"odinger equation according to the quantum-jump method. We give two approximations under which this mapping is valid. This approach enables us to study solid-state-systems of much larger sizes than is possible with the standard Bloch-Redfield master-equation, while still providing a systematic method for obtaining the jump operators and corresponding rates. We also show how the stochastic unravelling of the Bloch-Redfield equations becomes the kinetic Monte Carlo (KMC) algorithm in the secular approximation when the system-bath-coupling operators are given by tunnelling-operators between system-eigenstates. The stochastic unravelling is compared to the conventional Bloch-Redfield approach with the superconducting single electron transistor (SSET) as an example.", "revisions": [ { "version": "v2", "updated": "2013-12-06T04:00:24.000Z" } ], "analyses": { "subjects": [ "03.65.Yz", "73.23.Hk", "03.67.Lx" ], "keywords": [ "stochastic bloch-redfield theory", "quantum jumps", "solid-state environment", "superconducting single electron transistor", "conventional bloch-redfield approach" ], "tags": [ "journal article" ], "publication": { "publisher": "APS", "journal": "Physical Review B", "year": 2013, "month": "Nov", "volume": 88, "number": 17, "pages": 174514 }, "note": { "typesetting": "TeX", "pages": 12, "language": "en", "license": "arXiv", "status": "editable", "adsabs": "2013PhRvB..88q4514V" } } }