The fractional Brownian motion property of the turbulent refractive within Geometric Optics
Dario G. Perez
Abstract
We introduce fractional Brownian motion processes (fBm) as an alternative model for the turbulent index of refraction. These processes allow to reconstruct most of the refractive index properties, but they are not differentiable. We overcome the apparent impossibility of their use within the Ray Optics approximation introducing a Stochastic Calculus. Afterwards, we successfully provide a solution for the stochastic ray-equation; moreover, its implications in the statistical analysis of experimental data is discussed. In particular, we analyze the dependence of the averaged solution against the characteristic variables of a simple propagation problem.
Create a lesson
Related papers
Volumetric Evanescent Edge Coupling for Fiber-to-Chip Optical I/O
Hamdy Elshehaby, Omar Bakheet, Mohamed A. Swillam et al.
A Simplified Model for Linear Mode Coupling in Multimode Fibers with Experimental Assessment
Paolo Carniello, Filipe M. Ferreira, Fabio A. Barbosa et al.
Quantum Battery Enhancement via Degenerate Optical Parametric Amplifier and Common Reservoirs
Y. Y. Yang, H. N. Liu, Gangcheng Wang et al.
High-order correlations and ultrafast Wigner negativities in bright-squeezed-vacuum-driven high-harmonic generation
Sebastián de-la-Peña, Heiko Appel, Marcelo F. Ciappina et al.
Path-Integrated Polarization Rotation Signatures in Subsea Networks: Cable Geometry Effects in 2023 Turkey Earthquakes
Mohammad M. Hosseini, Miquel Masanas, Giuseppe Parisi et al.
Characterization of spatially inhomogeneous chirp in ultrashort multielectron beams via femtosecond hole burning
Yuichi Tachibana, Yuya Morimoto