Models

CELLML Library

CARDIAC ELECTROPHYSIOLOGICAL MODELS

Ventricular myocytes

• Ventricular Model
• Sodium Current Model in Ventricular Myocardial Cells
• Ventricular Model I
• Ventricular Model II (dynamic)
• Updated Luo-Rudy Ventricular Model
• Ventricular Model
• Ventricular Cell Model
• Electrophysiological Model of the Human Ventricular Myocyte
• Canine Ventricular Cell Model
• Modelling ATP and ADP Buffering, Ca2+ and Mg2+ Transport, and Ion Pump Regulation in Ventricular Myocytes
• Adult Rat Left Ventricular Myocyte Model
• Rabbit Ventricular Myocyte Model
• A Computationally Efficient Electrophysiological Model of Human Ventricular Cells
• Modelling the Roles of Individual Current Systems in Ventricular Cells and in the SA Node
• Quantitative Reconstruction of Cardiac Electromechanics in Human Myocardium
• Modelling the Action Potential of Mouse Ventricular Myocytes
• A Computational Model of the Human Left-Ventricular Epicardial Myocyte
• Modelling The Integrated Ca Dynamics Of The Ventricular Myocyte
• A Model For Human Ventricular Tissue



Purkinje Fibres

• Purkinje Fibre Model
• Purkinje Fibre Model
• Purkinje Fibre Model



Atrial Myocytes

• Sinoatrial Node Model
• Atrial Model
• Sinoatrial Node Model
• Modelling the Ion Currents Underlying Sinoatrial Node Pacemaker Activity
• A Model of Sinoatrial Node Vagal Control
• Human Atrial Action Potential Model
• Human Atrial Cell Model
• Sinoatrial Node Model
• Canine Atrial Action Potential Model
• Sinoatrial Node Model
• Sinoatrial Node Model
• Canine Atrial Action Potential Model
• Improved Mathematical Model for the Primary Pacemaker Cell
• Modelling the Roles of Individual Current System in Ventricular Cells and in the SA Node
• A Gradient Model Of Cardiac Pacemaker Myocytes



Channels and Molecular Mechanisms

• Sodium Current Model in Cardiac Muscle>
• Cooperative Mechanisms in Cardiac Muscle
• Model of Ryanodine Receptor Gating in Cardiac Muscle
• Role of Ito1 in Shaping Action Potential Morphology and Duration
• Modelling Interval-Force Relations in Cardiac Muscle
• Markovian Model
• Modelling HERG-KCNE2 Functional Interaction
• Electromechanical Heart Contractile System
• Markovian Models of Low and High Activity Levels of Cardiac Ryanodine Receptors
• tModelling the Protein Interactions Involved in Cardiac Tension Developmen
• Modelling Beta-adrenergic Control of Cardiac Myocyte Contractility in Silico
• Modelling Cell Signalling Networks: A Case Study Of Myocyte Adrenergic Regulation
• A Cardiac Sodium-Potassium Pump Model



Cardiac Pathologies

• Modelling Cardiac Stretch-Induced Arrhythmogenesis
• Modelling the Ionic Mechanisms Underlying Brugada Syndrome
• Beeler and Reuter Defibrillation Ventricular Model
• A Single Mutation Underlies Brugada and LQT
• Modelling Volume Shifts and Ionic Concentration Changes during Ischemia and Hypoxia