0000000000496289

AUTHOR

Yann Le Gorrec

showing 2 related works from this author

A port-Hamiltonian Fluid-Structure Interaction Model for the Vocal folds ⁎ ⁎This work was supported by CONICYT-PFCHA/2017-21170472, and AC3E CONICYT-…

2018

Abstract Fluid-structure interaction models are of special interest for studying the energy transfer between the moving fluid and the mechanical structure in contact. The vocal folds are an example of a fluid-structure system, where the mechanical structure is usually modeled as a mass-spring-damper system. In particular, the estimation of the collision forces of the vocal folds is of high interest in the diagnosis of phonotraumatic voice pathologies. In this context, the port-Hamiltonian modeling framework focuses on the energy flux in the model and the interacting forces. In this paper, we develop a port-Hamiltonian fluid-structure interaction model based on the interconnection methodolog…

0209 industrial biotechnologyInterconnectionComputer scienceEnergy transferEnergy fluxInteraction model02 engineering and technologyCollision01 natural sciencessymbols.namesake020901 industrial engineering & automationmedicine.anatomical_structureClassical mechanicsControl and Systems EngineeringVocal folds0103 physical sciencesFluid–structure interactionsymbolsmedicineHamiltonian (quantum mechanics)010301 acousticsIFAC-PapersOnLine
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Boundary controlled irreversible port-Hamiltonian systems

2021

Abstract Boundary controlled irreversible port-Hamiltonian systems (BC-IPHS) defined on a 1-dimensional spatial domain are defined by extending the formulation of reversible BC-PHS to irreversible thermodynamic systems controlled at the boundaries of their spatial domain. The structure of BC-IPHS has clear physical interpretation, characterizing the coupling between energy storing and energy dissipating elements. By extending the definition of boundary port variables of BC-PHS to deal with the irreversible energy dissipation, a set of boundary port variables are defined such that BC-IPHS are passive with respect to a given set of conjugated inputs and outputs. As for finite dimensional IPHS…

CouplingPhysics0209 industrial biotechnologyApplied MathematicsGeneral Chemical EngineeringMathematical analysisStructure (category theory)Boundary (topology)Port (circuit theory)02 engineering and technologyGeneral ChemistrySystems and Control (eess.SY)Dissipation01 natural sciencesLaws of thermodynamicsElectrical Engineering and Systems Science - Systems and ControlIndustrial and Manufacturing EngineeringHamiltonian system020901 industrial engineering & automation0103 physical sciencesFOS: Electrical engineering electronic engineering information engineering010306 general physicsEnergy (signal processing)
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