Project-Team:CARMEN

Project-Team Carmen

Personnel

Overall Objectives

Research Program

Complex models for the propagation of cardiac action potentials
Simplified models and inverse problems
Numerical techniques
Cardiac Electrophysiology at the Microscopic Scale

Application Domains

Scientific context: the LIRYC
Basic experimental electrophysiology
Clinical electrophysiology

Highlights of the Year

New Software and Platforms

CEPS
Platforms

New Results

A parameter optimization method to solve the ECG inverse problem
Optimal control to Bidomain-Bath model
Bidomain Calcium Dynamics in Cardiac Cell
Cardiac electromechanics with physiological ionic model
Electrocardiographic lead fields
Rapid localization of arrhythmia
Bilayer model
multi-electrode array measurement
High-order integration methods for ion channel models
High-order finite-volume discretizations
Identification of multiple space dependent ionic parameters in cardiac electrophysiology modelling

Partnerships and Cooperations

Regional Initiatives
National Initiatives
European Initiatives
International Initiatives

Dissemination

Promoting Scientific Activities
Teaching - Supervision - Juries
Popularization

Bibliography

Major publications
Publications of the year
References in notes

Inria | Raweb 2017 | Presentation of the Project-Team CARMEN | CARMEN Web Site


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Section: New Results

Bilayer model

The rigorous proof that mathematically found the bilayer model from S. Labarthe PhD thesis [56] was actually published in SIAM Journal of Applied Math [15]. Based on sophisticated energy estimates, it proves that the bilayer model is the rigorous limit of the underlying three-dimensional model.

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