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Symmetry-Based Formation Control on Cycle Graphs Using Dihedral Point Groups

Zamir Martinez, Daniel Zelazo

TL;DR

This work develops a symmetry-based framework for formation control on cycle graphs using Dihedral point-group constraints and shows that enforcing inter-agent reflection symmetries is sufficient to realize every $\mathcal{C}_{nv}$-symmetric configuration using only $n-1$ communication links.

Abstract

This work develops a symmetry-based framework for formation control on cycle graphs using Dihedral point-group constraints. We show that enforcing inter-agent reflection symmetries, together with anchoring a single designated agent to its prescribed mirror axis, is sufficient to realize every $\mathcal{C}_{nv}$-symmetric configuration using only $n-1$ communication links. The resulting control laws have a matrix-weighted Laplacian structure and guarantee exponential convergence to the desired symmetric configuration. Furthermore, we extend the method to enable coordinated maneuvers along a time-varying reference trajectory. Simulation results are provided to support the theoretical analysis.

Symmetry-Based Formation Control on Cycle Graphs Using Dihedral Point Groups

TL;DR

This work develops a symmetry-based framework for formation control on cycle graphs using Dihedral point-group constraints and shows that enforcing inter-agent reflection symmetries is sufficient to realize every -symmetric configuration using only communication links.

Abstract

This work develops a symmetry-based framework for formation control on cycle graphs using Dihedral point-group constraints. We show that enforcing inter-agent reflection symmetries, together with anchoring a single designated agent to its prescribed mirror axis, is sufficient to realize every -symmetric configuration using only communication links. The resulting control laws have a matrix-weighted Laplacian structure and guarantee exponential convergence to the desired symmetric configuration. Furthermore, we extend the method to enable coordinated maneuvers along a time-varying reference trajectory. Simulation results are provided to support the theoretical analysis.

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