bioRxivSystems BiologyPreprint
Microvessel Chaste: An Open Library for Spatial Modelling of Vascularized Tissues
James A. GroganiD, Abigail ConnoriD, Boštjan MarkelciD, Ruth J. MuscheliD, Philip K. MainiiD, Helen Mary ByrneiD, Joe Pitt‐FrancisiD
Abstract
Spatial models of vascularized tissues are widely used in computational physiology, to study for example, tumour growth, angiogenesis, osteogenesis, coronary perfusion and oxygen delivery. Composition of such models is time-consuming, with many researchers writing custom software for this purpose. Recent advances in imaging have produced detailed three-dimensional (3D) datasets of vascularized tissues at the scale of individual cells. To fully exploit such data there is an increasing need for software that allows user-friendly composition of efficient, 3D models of vascularized tissue growth, and comparison of predictions with in vivo or in vitro experiments and other models. Microvessel Chaste is a new open-source library for building spatial models of vascularized tissue growth. It can be used to simulate vessel growth and adaptation in response to mechanical and chemical stimuli, intra- and extra-vascular transport of nutrient, growth factor and drugs, and cell proliferation in complex 3D geometries. The library provides a comprehensive Python interface to solvers implemented in C++, allowing user-friendly model composition, and integration with experimental data. Such integration is facilitated by interoperability with a growing collection of scientific Python software for image processing, statistical analysis, model annotation and visualization. The library is available under an open-source Berkeley Software Distribution (BSD) licence at https://jmsgrogan.github.io/MicrovesselChaste. This article links to two reproducible example problems, showing how the library can be used to model tumour growth and angiogenesis with realistic vessel networks.
- assay: spatial transcriptomics
- assay: imaging
- research focus: software / tool
- research focus: benchmarking
- research focus: spatial domain detection
- research focus: dimensionality reduction
- approach: experimental assay
- Citations
- 1
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Mechanistic modeling of vascular tumor growth: an extension of Biot's theory to hierarchical bi-compartment porous medium system
G. Sciume·bioRxiv·Jun 29, 2020
- Integrated Framework for Multiscale Microvascular Models
Aref Valipour, Alisyn Retos Bourque, Stephen Nick Housley·bioRxiv·Apr 16, 2026
- Modeling tissue growth with the Stokes equation
T. J. Hakkinen, J. Jernvall, A. Hannukainen·bioRxiv·May 17, 2019
- Towards integration of time-resolved confocal microscopy of a 3D in vitro microfluidic platform with a hybrid multiscale model of tumor angiogenesis
Caleb M. Phillips, Ernesto A. B. F. Lima, … Thomas E. Yankeelov·PLoS Computational BiologyPeer-reviewed·Jan 18, 2023
- Continuously perfusable, customisable and matrix-free vasculature on a chip platform.
F. Chesnais, J. Joel, … L. Veschini·bioRxiv·Aug 2, 2022
- Leveraging Experimental Vasculature Data for High Resolution Brain Tumor Simulations
Eric Behle, Julian M. Herold, Alexander H. Schug·Biophysical JournalPeer-reviewed·Mar 25, 2026