Document Type
Dissertation
Degree
Doctor of Philosophy (PhD)
Major/Program
Computer Science
First Advisor's Name
Sudararaj Sitharama Iyengar
First Advisor's Committee Title
Committee Chair
Second Advisor's Name
Niki Pissinou
Second Advisor's Committee Title
Co-Committee Chair
Third Advisor's Name
Leonardo Bobadilla
Third Advisor's Committee Title
Committee Member
Fourth Advisor's Name
Deng Pan
Fourth Advisor's Committee Title
Committee Member
Fifth Advisor's Name
Jean H. Andrian
Fifth Advisor's Committee Title
Committee Member
Keywords
FANET, routing protocols, Gauss-Markov, 3-d mobility model
Date of Defense
3-13-2023
Abstract
The need for fast and reliable flying ad hoc network communication becomes increasingly important as drone technology becomes ever cheaper, easier to produce and acquire, and as innovative applications are introduced by private citizens, commercial industries, the military, and other government agencies and organizations. Unlike more conventional mobile ad hoc networks, flying ad hoc networks are characterized by transient and decentralized three-dimensional topologies which exacerbate the problems of routing collisions, congestion, and transmission delays. Routing protocols used in this environment must be capable of reliable communications with connections that frequently form and break as the vehicles move in and out of range of one another. Many traditional and new routing protocols have been evaluated in a wide variety of simulators, however, there are no consistent simulations of the most likely FANET routing protocols to use as a baseline evaluation. This dissertation presents a comparison conducted in ns-3 of 10 likely protocols to be used in FANETs and applies the simulations in larger scales than previously simulated using nodes of 10, 30, 50, or more to provide baseline comparisons. Our analysis demonstrates existing protocol trade-offs, and deficiencies in current 3D simulations, and offers an application-based decision tree for ad hoc protocols. As we looked at secure multipath planning, we developed two new protocols and an improved, extended protocol to address identified limitations. We developed a Continuous Motion Protocol which permits the secure multiparty computation framework to develop a real-world, non-stop application algorithm. We developed the Collision Resolution Protocol, which allows each vehicle to automatically alter its course slightly while continuing towards its objective to avoid a collision. We also developed an enhanced Path Intersection Protocol to predict potential collision paths more accurately using geometric perimeter lines defined by vehicle dimensions and included an adjustable safety margin specified by the user rather than depending only upon a centerline path prediction used in existing approaches to the problem. Finally, we study and improve the Gauss-Markov three-dimensional mobility model, offering a novel categorization of FANET vehicles based on aeronautical design and velocities and an improved environmental factor to provide more realistic FANET simulations.
Identifier
FIDC011094
ORCID
0000-0003-2599-5465
Recommended Citation
Miller, Jerry F., "Aviate and Communicate: An Improved 3dimensional Gauss-Markov Mobility Model for Evaluation of Communication Protocols in Flying Ad Hoc Networks" (2023). FIU Electronic Theses and Dissertations. 5238.
https://digitalcommons.fiu.edu/etd/5238
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