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Beyond Heart Valves

Simulation capabilities for cardiovascular device development.

Investigate how a device interacts with fluid flow and anatomy. We combine structural mechanics, fluid dynamics and tailored software to compare designs, explain behavior and build simulation capability around your engineering questions.

Flow through a blood pumpStreamlines reveal the fluid path through the pump and its internal components.

Blood Pumps and Ventricular Assist Devices

Understand the flow.
Refine the design.

Investigate how pump geometry and operating conditions influence pressure generation, flow distribution, recirculation and shear exposure. Resolve local flow around the impeller, shaft and narrow passages to focus the next design comparison.

For LVAD and RVAD programs, the engineering question determines the model, operating points and quantities of interest.

Flow around the pump shaftA detailed view of the fluid path through the motor region.

Coupled Device Mechanics

Moving structures.
Coupled fluid response.

When fluid loading deforms a structure, and that deformation changes the flow, the two responses belong in the same evaluation.

Diaphragm-pump FSI

Follow membrane deformation and fluid motion together to investigate pumping behavior. This diaphragm-pump example illustrates coupled mechanics beyond heart valves.

Diaphragm-pump FSIMembrane deformation and fluid visualization.

Balloon Filling Simulation

Examine how filling, fluid loading and balloon deformation interact. A cutaway exposes the internal structure and computational discretization.

Balloon Filling SimulationCoupled filling and structural deformation.

Whole-Heart Modeling

Device, tissue and blood flow in the whole-heart model.

The Living Heart Human Model brings anatomical structure, tissue mechanics and intracardiac flow into the same investigation. The tissue-valve example shows the device within the wider cardiac system.

Living Heart Human Model with tissue valves.
In collaboration with Dassault Systèmes.

Living Heart Human Model with tissue valvesWhole-heart model in collaboration with Dassault Systèmes.

Electromechanics and fluid flow across the cardiac cycle.

This full FSI model combines the electromechanical and fluid models of the Living Heart Human Model. The successive views reveal the evolving flow field as the heart moves through the cycle.

Living Heart Human Model: full FSIElectromechanical and fluid response at selected phases of the cardiac cycle.

Anatomy and Blood Interaction

Look beyond pressure and flow rate.

Examine local flow structures, shear exposure, residence time and washout to investigate mechanisms that integral measurements cannot describe on their own.

Model-based indicators of blood damage and thrombogenicity can support design comparisons and help focus further testing. The selected atrial example illustrates flow visualization within a beating anatomical model.

Left atrial flow visualizationVorticity in a beating left-atrial model.

Tailored Technology

Software and workflows built around your questions.

Develop tailored simulation software, automate repeated workflows and improve or extend models for your device program. The scope can include sizing tools, repeatable evaluation pipelines, custom calculations and reporting.

Begin with a focused study, integrate FSI into an existing engineering team or build a broader capability with our specialists.

How we work with your team

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What would you like to understand or improve?

Tell us about your device, the decision ahead and the simulation capability you need. We will help define a practical first step.