aiqbench analysis
This research advances motion planning algorithms for robotic systems by introducing methods to handle multiple competing objectives under kinodynamic constraints, offering theoretical guarantees where previous approaches failed. By extending the Stable Sparse-RRT framework to approximate Pareto-optimal trade-offs, it provides a unified solution for complex decision-making scenarios in autonomous agents. While rooted in robotics control theory, its core contribution lies in optimizing multi-objective functions within algorithmic frameworks relevant to advanced AI-driven systems.
Multi-Objective Kinodynamic Motion Planning with Asymptotic Pareto Optimality
arXiv:2607.15508v2 Announce Type: replace Abstract: In this paper, we address the challenge of multi-objective motion planning for systems under kinodynamic constraints. We consider three problem classes: (i) lexicographic optimization, in which objectives are minimized according to a strict priority ordering, (ii) constrained optimization, in which a primary objective is minimized subject to bounds on the remaining costs, and (iii) Pareto front optimization, in which the goal is to approximate the full set of optimal trade-offs among competing objectives. We first show that established cost scalarization methods for multi-objective problems cannot be extended to continuous-domain systems with correctness guarantees. Then, we propose a unified algorithmic framework built upon the Stable Sparse-RRT (SST) algorithm, in which the single representative maintained at each witness neighborhood is replaced by a representative set of locally Pareto-optimal nodes. This structure gives rise to three distinct algorithms: lexSST for lexicographic minimization, coSST for constrained optimization, and poSST for Pareto-front approximation. We provide theoretical guarantees for the completeness and optimality of our algorithms and demonstrate their effectiveness through extensive empirical evaluations.
Abstract:In this paper, we address the challenge of multi-objective motion planning for systems under kinodynamic constraints. We consider three problem classes: (i) lexicographic optimization, in which objectives are minimized according to a strict priority ordering, (ii) constrained optimization, in which a primary objective is minimized subject to bounds on the remaining costs, and (iii) Pareto front optimization, in which the goal is to approximate the full set of optimal trade-offs among competing objectives. We first show that established cost scalarization methods for multi-objective problems cannot be extended to continuous-domain systems with correctness guarantees. Then, we propose a unified algorithmic framework built upon the Stable Sparse-RRT (SST) algorithm, in which the single representative maintained at each witness neighborhood is replaced by a representative set of locally Pareto-optimal nodes. This structure gives rise to three distinct algorithms: lexSST for lexicographic minimization, coSST for constrained optimization, and poSST for Pareto-front approximation. We provide theoretical guarantees for the completeness and optimality of our algorithms and demonstrate their effectiveness through extensive empirical evaluations.
Robotics (cs.RO)
arXiv:2607.15508 [cs.RO]
(or arXiv:2607.15508v2 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2607.15508 Focus to learn more arXiv-issued DOI via DataCite
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Full text under the publisher's open licence · 259 words
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