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Updated: Jul 14, 2026

09:09
In Silico Clinical Trials for Cardiovascular Disease
Published on: May 27, 2022
MeshGrow: Integrated framework for simulation-ready cardiac and vascular mesh construction from medical imaging
Numi Sveinsson Cepero1, Arjun Narayanan1, Fanwei Kong2
1Department of Mechanical Engineering, University of California, Berkeley, CA, USA.
JRSM Cardiovascular Disease
|July 13, 2026
Summary
MeshGrow automates cardiovascular model creation by combining cardiac and vascular structures. This framework accelerates patient-specific simulations for research and clinical use.
Area of Science:
- Cardiovascular research
- Medical imaging
- Computational modeling
Background:
- Patient-specific cardiovascular simulations are crucial for research and clinical practice.
- Automating the construction of simulation-ready models from medical images is challenging.
- Existing methods are often limited to either cardiac or vascular models, not both.
Purpose of the Study:
- To introduce MeshGrow, a novel framework for automated construction of combined cardiac and vascular models.
- To enable patient-specific cardiovascular hemodynamic simulations by streamlining model generation.
- To address limitations of existing methods by integrating cardiac and vascular modeling.
Main Methods:
- MeshGrow employs a two-stage approach combining two machine learning techniques.
- Stage (a) focuses on meshing cardiac structures.
- Stage (b) involves growing the vasculature from the cardiac mesh, including the aorta and its branches.
Main Results:
- MeshGrow successfully reconstructed cardiac chambers, aorta, and major branches from CT data.
- The framework generated simulation-suitable meshes with defined surfaces for boundary conditions.
- On five CT datasets, MeshGrow outperformed state-of-the-art benchmark methods in metric scores.
- Three-dimensional computational fluid dynamics simulations were successfully run on two test cases.
Conclusions:
- MeshGrow offers an automated solution for creating integrated cardiac and vascular models.
- This advancement facilitates patient-specific cardiovascular hemodynamic simulations.
- The method has the potential to accelerate large cohort studies and clinical applications of cardiovascular modeling.

