Adaptive hierarchical formation control for uncertain Euler–Lagrange systems using distributed inverse dynamics (doi:10.34820/FK2/LSU6OD)

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Document Description

Citation

Title:

Adaptive hierarchical formation control for uncertain Euler–Lagrange systems using distributed inverse dynamics

Identification Number:

doi:10.34820/FK2/LSU6OD

Distributor:

Telkom University Dataverse

Date of Distribution:

2023-10-05

Version:

1

Bibliographic Citation:

ROSA, MUHAMMAD RIDHO, 2023, "Adaptive hierarchical formation control for uncertain Euler–Lagrange systems using distributed inverse dynamics", https://doi.org/10.34820/FK2/LSU6OD, Telkom University Dataverse, V1

Study Description

Citation

Title:

Adaptive hierarchical formation control for uncertain Euler–Lagrange systems using distributed inverse dynamics

Identification Number:

doi:10.34820/FK2/LSU6OD

Authoring Entity:

ROSA, MUHAMMAD RIDHO (Fakultas Teknik Elektro)

Distributor:

Telkom University Dataverse

Access Authority:

ROSA, MUHAMMAD RIDHO

Depositor:

ROSA, MUHAMMAD RIDHO

Date of Deposit:

2022-04-13

Study Scope

Keywords:

Engineering

Abstract:

This paper establishes a novel adaptive hierarchical formation control method for uncertain heterogeneous nonlinear agents described by Euler–Lagrange (EL) dynamics. Formation control is framed as a synchronization problem where a distributed model reference adaptive control is used to synchronize the EL systems. The idea behind the proposed adaptive formation algorithm is that each agent must converge to the model defined by its hierarchically superior neighbors. Using a distributed inverse dynamics structure, we prove that distributed nonlinear matching conditions between connected agents hold, so that matching gains exist to make the entire formation converge to same homogeneous dynamics: to compensate for the presence of uncertainties, estimation laws are devised for such matching gains, leading to adaptive synchronization. An appropriately designed distributed Lyapunov function is used to derive asymptotic convergence of the synchronization error. The effectiveness of the proposed methodology is supported by simulations of a formation of Unmanned Aerial Vehicles (UAVs).

Notes:

This work has been partially supported by MULTI-COORD: “Multi-agent Coordination with Networked-induced Constraints”, Joint Project TU Delft – China State Shipbuilding Corporation, by NEUROCON: “Adaptive Neural Control for Uncertain Nonlinear Systems”, Joint Project TU Delft – Xian Jiaotong, and by the Indonesia Endowment Fund for Education (LPDP), Grant No. S-6411/LPDP.3/2015.

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