Hemodynamics and Cardiac Function

  • Cardiac Output and Stroke Volume Regulation
  • Ventricular Function and Pressure-Volume Relationships
  • Hemodynamic Monitoring in Critical Care
  • Vascular Resistance and Blood Flow Mechanics
  • Imaging Techniques for Hemodynamic Assessment
  • Heart-Lung Interaction and Pulmonary Hemodynamics
  • Computational Modeling of Cardiovascular Hemodynamics
  • Impact of Exercise and Stress on Cardiac Function

Understanding the physics of circulation is essential for precision management. The Hemodynamics and Cardiac Function session explores ventricular-vascular interactions, load-dependent physiology, pressure–volume relations and techniques to quantify cardiac performance in health and disease. Presentations will cover invasive and non-invasive haemodynamic assessment, simulation models, novel catheter technologies and imaging-based hemodynamic surrogates. Sessions include translational studies linking mechanical stress to remodeling, and clinical workshops on interpreting pressure–volume loops, advanced catheterization lab techniques and optimizing device settings for ventricular unloading. Attendees will examine how hemodynamic phenotyping informs therapy selection in heart failure, shock and valvular disease, and how computational models enhance patient-specific planning. The program integrates hemodynamic modeling with interventional strategies and the broader Hemodynamics Conference themes to guide precision interventions.

Key Hemodynamic Topics

Ventricular–vascular coupling

  • Pressure–volume relationships and their clinical interpretation
  • Impact of arterial load on systolic and diastolic function

Invasive hemodynamic assessment

  • Right- and left-sided catheter techniques and advanced waveform analysis
  • Use of thermodilution, Fick and continuous cardiac output monitoring

Computational and simulation models

  • Patient-specific CFD models and virtual device testing
  • Predictive modeling for intervention planning and outcome simulation

Hemodynamics in device therapy

  • Optimization of MCS and LVAD settings to improve end-organ perfusion
  • Hemodynamic endpoints in valve interventions and repair strategies

Clinical Relevance & Application

Tailor therapies by physiology
Use hemodynamic phenotypes to personalize drugs, devices and timing of interventions.

Improve diagnostic precision
Advanced measures detect subtle dysfunction before clinical deterioration.

Support device optimization
Hemodynamic data guides device selection and parameter tuning for better outcomes.

Advance research translation
Linking models to clinical endpoints accelerates mechanistic trials and device testing.

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