Conditional Hamiltonian and Reset Operator in the Quantum Jump Approach
arXiv:atom-ph/9512003 · doi:10.1088/1355-5111/8/1/010
Abstract
For the time development of a single system in the quantum jump approach or for quantum trajectories one requires the conditional (reduced) Hamiltonian between jumps and the reset operator after a jump. Explicit expressions for them are derived for a general N-level system by employing the same assumptions as in the usual derivation of the Bloch equations. We discuss a possible minor problem with positivity for these expressions as well as for the corresponding Bloch equations.
13 pages, LaTeX, no figures; to appear in Quantum and Semiclassical Optics
Cited by in corpus (36)
- The Quantum Jump Approach to Dissipative Dynamics in Quantum Optics
- Quantum Computing Using Dissipation to Remain in a Decoherence-Free Subspace
- Quantum computation with trapped ions in an optical cavity
- A measurement-based approach to quantum arrival times
- Detection of a quantum particle on a lattice under repeated projective measurements
- Driving Atoms Into Decoherence-Free States
- A scheme for unconventional geometric quantum computation in cavity QED
- Quantum arrival times and operator normalization
- Decoherence-free dynamical and geometrical entangling phase gates
- Atomic time-of-arrival measurements with a laser of finite beam width
- Cooperative effects in the light and dark periods of two dipole-interacting atoms
- Transition from antibunching to bunching for two dipole-interacting atoms
- A Bell's Inequality Test with Entangled Atoms
- Quantum Computing in a Macroscopic Dark Period
- Effect of frequency mismatched photons in quantum information processing
- Improvement by laser quenching of an "atom diode": a one-way barrier for ultra-cold atoms
- Three-dimensional effects in "atom diodes": atom-optical devices for one-way motion
- Quantum-jumps and photon-statistic in fluorescent systems coupled to classically fluctuating reservoirs
- Non-Markovian quantum jumps from measurements in bipartite Markovian dynamics
- Optimal atomic detection by control of detuning and spatial dependence of laser intensity
- Suppression of Rabi oscillations for moving atoms
- Atomic Quantum Zeno Effect for Ensembles and Single Systems
- Multi-photon entanglement from distant single photon sources on demand
- Dissipation-assisted quantum computation in atom-cavity systems
- Blinking molecules: Determination of Photo-Physical Parameters from the Intensity Correlation Function
- Laser Pulses as Measurements. Application to the Quantum Zeno Effect
- The intensity correlation function of "blinking" quantum systems
- Simplified approach to double jumps for fluorescing dipole-dipole interacting atoms
- Cooperative quantum jumps for three dipole-interacting atoms
- Quantum-optical implementation of non-Hermitian potentials for asymmetric scattering
- Investigation of a quantum mechanical detector model for moving, spread-out particles
- Cooperative fluorescence effects for dipole-dipole interacting systems with experimentally relevant level configurations
- Passage-time distributions from a spin-boson detector model
- Telling different unravelings apart via nonlinear quantum-trajectory averages
- Coherent manipulation of two dipole-dipole interacting ions
- State Measurements with Short Laser Pulses and Lower-Efficiency Photon Detectors