+ Getting Started
+Use the tutorial to install SimVascular, learn how projects and the graphical interface work, and construct a first cardiovascular model.
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+ SimVascular Documentation
+Learn SimVascular, build cardiovascular models, run simulations, and find technical details.
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+ Create SimVascular Project
+Use this sequence to become familiar with the software, create a first image-based geometric model of the vascular anatomy, and run a hemodynamic simulation.
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+ + Install SimVascular and learn the interface ++
Install the application, understand projects, and become familiar with the graphical user interface.
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+ + Create an image-based geometric model of the vascular anatomy ++
Follow the tutorial to work with medical image data, vessel paths, lumen segmentations, a solid model, and a finite element mesh.
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+ + Set up a CFD simulation ++
Continue from geometric model construction to boundary conditions, solver inputs, and simulation results.
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+ Documentation Pages
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+ Geometric Modeling
+Create vessel paths and lumen segmentations from image data, then construct a three-dimensional vascular model.
+Meshing
+Generate and inspect finite element meshes, control local refinement, and add boundary layers for simulation.
+CFD Simulation
+Assign boundary conditions, generate solver input files, run blood-flow simulations, and review results.
+svMultiPhysics
+Configure and run three-dimensional multiphysics simulations, understand solver inputs and data formats, and consult theory and developer guidance.
+General Boundary Conditions
+Define custom boundary conditions, prepare required files, compile the model, and run it with a simulation.
+ROM Simulation
+Create and run computationally efficient 0D and 1D models, calibrate parameters, and visualize reduced-order model results.
+Python Interface
+Automate SimVascular tasks and work programmatically with projects, geometry, modeling, segmentation, and meshing.
+References
+Literature on boundary conditions, solvers, modeling, meshing, validation, clinical applications, and uncertainty quantification
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+ Clinical Examples
+Review complete cardiovascular cases that connect clinical data, modeling choices, boundary conditions, and simulation results.
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+ Coronary Normal
+Coronary anatomy, model construction, simulation setup, parameters, and results
+Aortofemoral Normal - 1
+Clinical data, model description, boundary conditions, and simulation results for an aortofemoral model
+Aortofemoral Normal - 2
+A second aortofemoral example with model description, inflow and outflow setup, and results
+Healthy Pulmonary
+Pulmonary clinical data, model description, boundary conditions, and simulation results
+Additional demonstration projects are available from SimTK.
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