Title :
A probabilistic framework for unmanned aircraft systems collision detection and risk estimation
Author :
Sahawneh, Laith R. ; Beard, Randal W.
Author_Institution :
Dept. of Electr. Eng., Brigham Young Univ., Provo, UT, USA
Abstract :
The airborne collision detection is a challenging problem due to inherent noise in onboard sensor(s), limited computational resources available for unmanned aircraft system and variability in intruder dynamics resulting in uncertainty in predicting intruder future trajectories. In this paper, we develop an innovative approach to quantify likely intruder trajectories and estimate the probability of collision risk for a pair of aircraft flying at the same altitude in close proximity. The proposed approach is formulated in a probabilistic framework building upon the uncorrelated encounter model (UEM) developed by MIT Lincoln Laboratory (LL) and the concept of forward reachable sets. The performance of proposed approach is evaluated using Monte Carlo based simulations where statistically relevant encounter scenarios are sampled from the MIT LL UEM.
Keywords :
Monte Carlo methods; autonomous aerial vehicles; collision avoidance; risk analysis; sensors; LL UEM; MIT Lincoln Laboratory; Monte Carlo based simulations; airborne collision detection; inherent noise; intruder dynamics; intruder trajectories; onboard sensor; probabilistic framework; risk estimation; uncorrelated encounter model; unmanned aircraft systems collision detection; Aircraft; Aircraft manufacture; Atmospheric modeling; Collision avoidance; Probabilistic logic; Trajectory; Vectors;
Conference_Titel :
Decision and Control (CDC), 2014 IEEE 53rd Annual Conference on
Conference_Location :
Los Angeles, CA
Print_ISBN :
978-1-4799-7746-8
DOI :
10.1109/CDC.2014.7039388