1994
DOI: 10.1007/bf01258291
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Shortest paths of bounded curvature in the plane

Abstract: Abstract. Given two oriented points in the plane, we determine and compute the shortest paths of bounded curvature joining them. This problem has been solved recently by Dubins in the no-cusp case, and by Reeds and Shepp otherwise. We propose a new solution based on the minimum principle of Pontryagin. Our approach simplifies the proofs and makes clear the global or local nature of the results.

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Cited by 174 publications
(75 citation statements)
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References 3 publications
(10 reference statements)
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“…The paths in the family obtained by Dubins in [1] are time-optimal solutions of system (1). Later, Sussmann and Tang [5] and Boissonnat et al [6] obtained the same result by adopting an optimal control point of view. Exploiting this approach, we determined [2] the shortest paths between any given robot configuration and the obstacles populating its workspace both for the Reeds and Shepp car and for the Dubins car.…”
Section: Background Materialssupporting
confidence: 53%
See 1 more Smart Citation
“…The paths in the family obtained by Dubins in [1] are time-optimal solutions of system (1). Later, Sussmann and Tang [5] and Boissonnat et al [6] obtained the same result by adopting an optimal control point of view. Exploiting this approach, we determined [2] the shortest paths between any given robot configuration and the obstacles populating its workspace both for the Reeds and Shepp car and for the Dubins car.…”
Section: Background Materialssupporting
confidence: 53%
“…Our work relies on Dubins' results but adopts the optimal control approach proposed in [5] and [6]. In particular, the study of transversality conditions allows selecting a sufficient family of time-optimal trajectories whose length will determine the distance to the obstacles.…”
Section: Introductionmentioning
confidence: 99%
“…His intricate set of geometric statements and propositions show that "an R-geodesic is necessarily a continuous differentiable curve which consists of not more than three pieces, each of which is either a straight line segment or an arc of a circle of radius R" [22]. A simplified proof is later developed by two independent research teams, Boissonnat et al [7] and Sussmann and Tang [69], and it is based on techniques of modern control theory and the minimum principle of Pontryagin [59]. Fortune's analysis of the problem [27] establishes the controllability of Dubins car by proving that a feasible path exists for any starting and final settings of the problem.…”
Section: Related Workmentioning
confidence: 99%
“…Furthermore, along any C 2 piece of an optimal path either one of the following two cases holds [7]:…”
Section: (T) Y(t) α(T) U(t))mentioning
confidence: 99%
“…To further categorize the path planning methods and trajectory generation efforts, consider the several goals and flight conditions that were investigated. Flight in a horizontal plane 2-D was analyzed [5,6,17,33,44], along with considering the effects of constant winds [2][3][4]. Employing obstacle avoidance [2,[27][28][29][30][31][32] and target tracking [33][34][35][36][37][38][39][40][41] within the trajectory generation was addressed.…”
Section: Introductionmentioning
confidence: 99%