Simple Derivation of the Lindblad Equation
arXiv:1204.2016 · doi:10.1088/0143-0807/33/4/805
Abstract
The Lindblad equation is an evolution equation for the density matrix in quantum theory. It is the general linear, Markovian, form which ensures that the density matrix is hermitian, trace 1, positive and completely positive. Some elementary examples of the Lindblad equation are given. The derivation of the Lindblad equation presented here is "simple" in that all it uses is the expression of a hermitian matrix in terms of its orthonormal eigenvectors and real eigenvalues. Thus, it is appropriate for students who have learned the algebra of quantum theory. Where helpful, arguments are first given in a two-dimensional hilbert space.
To be published in the European Journal of Physics
Cited by in corpus (46)
- Adaptive quantum metrology under general Markovian noise
- Quantum correlations and thermodynamic performances of two-qubit engines with local and collective baths
- Lindblad dissipative dynamics in presence of phase coexistence
- Observational constraints on quantum decoherence during inflation
- Fundamentals of Quantum Mechanics in Liouville Space
- Floquet dynamics in light-driven solids
- Quantum Mechanics Without State Vectors
- Discord and Decoherence
- Lindblad Decoherence in Atomic Clocks
- Cosmic decoherence: primordial power spectra and non-Gaussianities
- Lindblad equation approach to the optimal working point in nonequilibrium stationary states of an interacting electronic one-dimensional system: Application to the spinless Hubbard chain in the clean and in the weakly disordered limit
- What Happens in a Measurement?
- Quantum non-linear evolution of inflationary tensor perturbations
- Density Matrix Formalism for PT-Symmetric Non-Hermitian Hamiltonians with the Lindblad Equation
- Non-equilibrium dynamics of Axion-like particles: the quantum master equation
- Dissipative evolution of quantum Gaussian states
- Thermalization of noninteracting quantum systems coupled to blackbody radiation: A Lindblad-based analysis
- Polarisation oscillations in birefringent emitter-cavity systems
- A healthier semi-classical dynamics
- Stable bipolarons in open quantum systems
- Accessing long timescales in the relaxation dynamics of spins coupled to a conduction-electron system using absorbing boundary conditions
- Neutrino decoherence in an electron and nucleon background
- Neutrino decoherence in a fermion and scalar background
- Nonlinear Zeeman Effects in the Cavity-Enhanced Emission of Polarised Photons
- Phase diagram of the disordered Kitaev chain with long range pairing connected to external baths
- The effect of quantum decoherence on inflationary gravitational waves
- An Extension of ETH to Non-Equilibrium Steady States
- A first encounter with exceptional points in a quantum model
- Neutron-Mirror Neutron conversion in Vacuum, Trap, Material and Neutron Star
- Double-trace deformation in Keldysh field theory
- Coherence protection in coupled quantum systems
- Controlling the real-time dynamics of a spin coupled to the helical edge states of the Kane-Mele model
- Taming the pinch singularities in the two-loop neutrino self-energy in a medium
- Impact of dynamics, entanglement, and Markovian noise on the fidelity of few-qubit digital quantum simulation
- Lindblad dynamics of open multi-mode bosonic systems: Algebra of bilinear superoperators, exceptional points and speed of evolution
- Lindblad Superoperators from Wigner's Phase Space Continuity Equation
- Fidelity of the Kitaev honeycomb model under a quench
- Dynamical symmetry in quantum dissipative models
- Measuring the degree of unitarity for any quantum process
- Reduced state of the field and classicality of quantum Gaussian evolution
- Thermalization by off-shell processes: the virtues of small virtuality
- Embedding of a non-Hermitian Hamiltonian to emulate the von Neumann measurement scheme
- Classicalization by phase space measurements
- Entanglement transition in a cluster spin chain coupled with free spins
- Coherent Qubit Measurement in Cavity-Transmon Quantum Systems
- Universally Robust Control of Open Quantum Systems