Coherent and Incoherent Multiple Scattering
arXiv:1211.1587 · doi:10.1103/PhysRevA.89.043833
Abstract
We compare two different models of transport of light in a disordered system with a spherical Gaussian distribution of scatterers. A coupled dipole model, keeping into account all interference effects, is compared to an incoherent model, using a random walk of particles. Besides the well known coherent backscattering effect and a well pronounced forward lobe, the incoherent model reproduces extremely well all scattering features. In an experiment with cold atoms, we use the momentum recoil imparted on the center of mass of the sample as a partial probe of the light scattering properties. We find that the force acting on the center of mass of the atoms is not well suited to exhibit the coherence effects in light propagation under multiple scattering conditions.
6 pages, 4 figures
References in corpus (7)
- An Optical Lattice Clock with Accuracy and Stability at the Level
- Direct determination of the transition to localization of light in three dimensions
- Photon bubbles in ultra-cold matter
- Observation of a Cooperative Radiation Force in the Presence of Disorder
- Coherent Forward Scattering Peak Induced by Anderson Localization
- Inelastic scattering puts in question recent claims of Anderson localization of light
- Interplay between radiation pressure force and scattered light intensity in the cooperative scattering by cold atoms
Cited by in corpus (30)
- Superradiance in a Large and Dilute Cloud of Cold Atoms in the Linear-Optics Regime
- Coherent scattering of near-resonant light by a Dense Microscopic Cold Atomic cloud
- Light interacting with atomic ensembles: collective, cooperative and mesoscopic effects
- Light scattering from dense cold atomic media
- A superatom picture of collective nonclassical light emission and dipole blockade in atom arrays
- Stochastic methods for light propagation and recurrent scattering in saturated and nonsaturated atomic ensembles
- Quantum and Nonlinear Effects in Light Transmitted through Planar Atomic Arrays
- Angular distribution of single photon superradiance in a dilute and cold atomic ensemble
- Subradiance-protected excitation spreading in the generation of collimated photon emission from an atomic array
- Optical Magnetism and Huygens' Surfaces in Arrays of Atoms Induced by Cooperative Responses
- Signatures of optical phase transitions in super- and subradiant arrays of atoms
- Decay dynamics in the coupled-dipole model
- Optical response of atom chains beyond the limit of low light intensity: The validity of the linear classical oscillator model
- Collective suppression of optical hyperfine pumping in dense clouds of atoms in microtraps
- Subradiance in dilute atomic ensembles: Role of pairs and multiple scattering
- Collective effects in the radiation pressure force
- Comparison of three approaches to light scattering by dilute cold atomic ensembles
- Optical-depth scaling of light scattering from a dense and cold atomic Rb gas
- Sensitivity of electromagnetically induced transparency to light-mediated interactions
- Spontaneous symmetry breaking in frustrated triangular atom arrays due to cooperative light scattering
- Multiple scattering model of the quantum random Lorentz gas
- Super- and subradiance in dilute disordered cold atomic samples: observations and interpretations
- Effective two-level approximation of a multi-level system driven by coherent and incoherent fields
- Observation of photon recoil effects in single-beam absorption spectroscopy with an ultracold strontium gas
- Experimental Demonstration of a Synthetic Lorentz Force by Using Radiation Pressure
- Towards a measurement of the Debye length in very large Magneto-Optical traps
- Cooperative atomic emission from a line of atoms interacting with a resonant plane surface
- Classical versus quantum intensity-field correlations of scattered light from extended cold atomic clouds
- Frequency-comb-induced radiation pressure force in dense atomic clouds
- Mean-Field Description of Cooperative Scattering by Atomic Clouds