Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation
abstract: Limited spectral access motivates technologies that adapt to diminishing resources and increasingly cluttered environments. A joint positioning-communications system is designed and implemented on \acf{COTS} hardware. This system enables simultaneous positioning of, and communications bet...
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ndltd-asu.edu-item-556882020-01-15T03:01:17Z Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation abstract: Limited spectral access motivates technologies that adapt to diminishing resources and increasingly cluttered environments. A joint positioning-communications system is designed and implemented on \acf{COTS} hardware. This system enables simultaneous positioning of, and communications between, nodes in a distributed network of base-stations and unmanned aerial systems (UASs). This technology offers extreme ranging precision ($<$ 5 cm) with minimal bandwidth (10 MHz), a secure communications link to protect against cyberattacks, a small form factor that enables integration into numerous platforms, and minimal resource consumption which supports high-density networks. The positioning and communications tasks are performed simultaneously with a single, co-use waveform, which efficiently utilizes limited resources and supports higher user densities. The positioning task uses a cooperative, point-to-point synchronization protocol to estimate the relative position and orientation of all users within the network. The communications task distributes positioning information between users and secures the positioning task against cyberattacks. This high-performance system is enabled by advanced time-of-arrival estimation techniques and a modern phase-accurate distributed coherence synchronization algorithm. This technology may be installed in ground-stations, ground vehicles, unmanned aerial systems, and airborne vehicles, enabling a highly-mobile, re-configurable network with numerous applications. Dissertation/Thesis Herschfelt, Andrew (Author) Bliss, Daniel W (Advisor) Cochran, Douglas (Committee member) Richmond, Christ (Committee member) Alkhateeb, Ahmed (Committee member) Arizona State University (Publisher) Electrical engineering Alternative Positioning Navigation and Timing RF Convergence Shared Spectrum eng 119 pages Doctoral Dissertation Electrical Engineering 2019 Doctoral Dissertation http://hdl.handle.net/2286/R.I.55688 http://rightsstatements.org/vocab/InC/1.0/ 2019 |
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English |
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Doctoral Thesis |
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Electrical engineering Alternative Positioning Navigation and Timing RF Convergence Shared Spectrum |
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Electrical engineering Alternative Positioning Navigation and Timing RF Convergence Shared Spectrum Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation |
description |
abstract: Limited spectral access motivates technologies that adapt to diminishing resources and increasingly cluttered environments. A joint positioning-communications system is designed and implemented on \acf{COTS} hardware. This system enables simultaneous positioning of, and communications between, nodes in a distributed network of base-stations and unmanned aerial systems (UASs). This technology offers extreme ranging precision ($<$ 5 cm) with minimal bandwidth (10 MHz), a secure communications link to protect against cyberattacks, a small form factor that enables integration into numerous platforms, and minimal resource consumption which supports high-density networks. The positioning and communications tasks are performed simultaneously with a single, co-use waveform, which efficiently utilizes limited resources and supports higher user densities. The positioning task uses a cooperative, point-to-point synchronization protocol to estimate the relative position and orientation of all users within the network. The communications task distributes positioning information between users and secures the positioning task against cyberattacks. This high-performance system is enabled by advanced time-of-arrival estimation techniques and a modern phase-accurate distributed coherence synchronization algorithm. This technology may be installed in ground-stations, ground vehicles, unmanned aerial systems, and airborne vehicles, enabling a highly-mobile, re-configurable network with numerous applications. === Dissertation/Thesis === Doctoral Dissertation Electrical Engineering 2019 |
author2 |
Herschfelt, Andrew (Author) |
author_facet |
Herschfelt, Andrew (Author) |
title |
Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation |
title_short |
Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation |
title_full |
Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation |
title_fullStr |
Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation |
title_full_unstemmed |
Simultaneous Positioning and Communications: Hybrid Radio Architecture, Estimation Techniques, and Experimental Validation |
title_sort |
simultaneous positioning and communications: hybrid radio architecture, estimation techniques, and experimental validation |
publishDate |
2019 |
url |
http://hdl.handle.net/2286/R.I.55688 |
_version_ |
1719308556884246528 |