Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation Patterns

A new paradigm for machine learning-inspired atmospheric turbulence sensing is developed and applied to predict the atmospheric turbulence refractive index structure parameter using deep neural network (DNN)-based processing of short-exposure laser beam intensity scintillation patterns obtained with...

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Main Authors: Artem M. Vorontsov, Mikhail A. Vorontsov, Grigorii A. Filimonov, Ernst Polnau
Format: Article
Language:English
Published: MDPI AG 2020-11-01
Series:Applied Sciences
Subjects:
Online Access:https://www.mdpi.com/2076-3417/10/22/8136
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spelling doaj-a98bb9f25f954868a1faff2ac92255252020-11-25T04:10:49ZengMDPI AGApplied Sciences2076-34172020-11-01108136813610.3390/app10228136Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation PatternsArtem M. Vorontsov0Mikhail A. Vorontsov1Grigorii A. Filimonov2Ernst Polnau3AI Science & Technology LLC, 150 Autumn Ridge Tr., Roswell, GA 30076, USAIntelligent Optics Laboratory, School of Engineering, University of Dayton, 300 College Park, Dayton, OH 45469, USAIntelligent Optics Laboratory, School of Engineering, University of Dayton, 300 College Park, Dayton, OH 45469, USAIntelligent Optics Laboratory, School of Engineering, University of Dayton, 300 College Park, Dayton, OH 45469, USAA new paradigm for machine learning-inspired atmospheric turbulence sensing is developed and applied to predict the atmospheric turbulence refractive index structure parameter using deep neural network (DNN)-based processing of short-exposure laser beam intensity scintillation patterns obtained with both: experimental measurement trials conducted over a 7 km propagation path, and imitation of these trials using wave-optics numerical simulations. The developed DNN model was optimized and evaluated in a set of machine learning experiments. The results obtained demonstrate both good accuracy and high temporal resolution in sensing. The machine learning approach was also employed to challenge the validity of several eminent atmospheric turbulence theoretical models and to evaluate them against the experimentally measured data.https://www.mdpi.com/2076-3417/10/22/8136atmospheric remote sensingdirected energyfree-space laser communicationadaptive opticslidarsactive imaging
collection DOAJ
language English
format Article
sources DOAJ
author Artem M. Vorontsov
Mikhail A. Vorontsov
Grigorii A. Filimonov
Ernst Polnau
spellingShingle Artem M. Vorontsov
Mikhail A. Vorontsov
Grigorii A. Filimonov
Ernst Polnau
Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation Patterns
Applied Sciences
atmospheric remote sensing
directed energy
free-space laser communication
adaptive optics
lidars
active imaging
author_facet Artem M. Vorontsov
Mikhail A. Vorontsov
Grigorii A. Filimonov
Ernst Polnau
author_sort Artem M. Vorontsov
title Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation Patterns
title_short Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation Patterns
title_full Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation Patterns
title_fullStr Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation Patterns
title_full_unstemmed Atmospheric Turbulence Study with Deep Machine Learning of Intensity Scintillation Patterns
title_sort atmospheric turbulence study with deep machine learning of intensity scintillation patterns
publisher MDPI AG
series Applied Sciences
issn 2076-3417
publishDate 2020-11-01
description A new paradigm for machine learning-inspired atmospheric turbulence sensing is developed and applied to predict the atmospheric turbulence refractive index structure parameter using deep neural network (DNN)-based processing of short-exposure laser beam intensity scintillation patterns obtained with both: experimental measurement trials conducted over a 7 km propagation path, and imitation of these trials using wave-optics numerical simulations. The developed DNN model was optimized and evaluated in a set of machine learning experiments. The results obtained demonstrate both good accuracy and high temporal resolution in sensing. The machine learning approach was also employed to challenge the validity of several eminent atmospheric turbulence theoretical models and to evaluate them against the experimentally measured data.
topic atmospheric remote sensing
directed energy
free-space laser communication
adaptive optics
lidars
active imaging
url https://www.mdpi.com/2076-3417/10/22/8136
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AT grigoriiafilimonov atmosphericturbulencestudywithdeepmachinelearningofintensityscintillationpatterns
AT ernstpolnau atmosphericturbulencestudywithdeepmachinelearningofintensityscintillationpatterns
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