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Autores principales: Elobaid, Mohamed, Park, Shinkyu, Feron, Eric
Formato: Preprint
Publicado: 2025
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Acceso en línea:https://arxiv.org/abs/2512.10700
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author Elobaid, Mohamed
Park, Shinkyu
Feron, Eric
author_facet Elobaid, Mohamed
Park, Shinkyu
Feron, Eric
contents This work deals with the problem of stabilizing a multi-agent rigid formation on a general class of planar curves. Namely, we seek to stabilize an equilateral polygonal formation on closed planar differentiable curves after a path sweep. The task of finding an inscribed regular polygon centered at the point of interest is solved via a randomized multi-start Newton-Like algorithm for which one is able to ascertain the existence of a minimizer. Then we design a continuous feedback law that guarantees convergence to, and sufficient sweeping of the curve, followed by convergence to the desired formation vertices while ensuring inter-agent avoidance. The proposed approach is validated through numerical simulations for different classes of curves and different rigid formations. Code: https://github.com/mebbaid/paper-elobaid-ifacwc-2026
format Preprint
id arxiv_https___arxiv_org_abs_2512_10700
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle On the Stabilization of Rigid Formations on Regular Curves
Elobaid, Mohamed
Park, Shinkyu
Feron, Eric
Robotics
This work deals with the problem of stabilizing a multi-agent rigid formation on a general class of planar curves. Namely, we seek to stabilize an equilateral polygonal formation on closed planar differentiable curves after a path sweep. The task of finding an inscribed regular polygon centered at the point of interest is solved via a randomized multi-start Newton-Like algorithm for which one is able to ascertain the existence of a minimizer. Then we design a continuous feedback law that guarantees convergence to, and sufficient sweeping of the curve, followed by convergence to the desired formation vertices while ensuring inter-agent avoidance. The proposed approach is validated through numerical simulations for different classes of curves and different rigid formations. Code: https://github.com/mebbaid/paper-elobaid-ifacwc-2026
title On the Stabilization of Rigid Formations on Regular Curves
topic Robotics
url https://arxiv.org/abs/2512.10700