MML toolkit and work flow overview: Creating temporo-spatial heart models from CellML
David C Chang1, Socrates Dokos, Nigel H Lovell
1Graduate School of Biomedical Engineering, University of New South Wales, Sydney, 2052 Australia.
Summary
The open-source Modeling Markup Language (MML) toolkit facilitates rapid development and solving of biological models using CellML. This framework enables creating cardiac tissue models at various scales and demonstrates atrial electrical activation modeling.
Area of Science:
- Computational biology
- Systems biology
- Biophysics
Background:
- Biological modeling requires efficient development and solving tools.
- CellML is a standard for describing biological models.
- Integrating diverse CellML models into a unified framework presents challenges.
Purpose of the Study:
- To introduce the open-source Modeling Markup Language (MML) toolkit.
- To present a workflow for creating multi-scale cardiac tissue models using CellML.
- To demonstrate the interoperability and scalability of the MML framework.
Main Methods:
- Development of an open-source toolkit for the MML framework.
- Utilizing CellML models from repositories and other sources.
- Testing model interoperability with the MML framework.
- Implementing a workflow for cardiac tissue model development.
- Creating a model of atrial electrical activation.
Main Results:
- The MML framework and its open-source toolkit were successfully developed.
- A workflow for generating cardiac tissue models of varying scales was established.
- Interoperability of various CellML models with the MML framework was confirmed.
- The MML framework demonstrated its capability to deploy models across different geometric scales.
- A functional model of atrial electrical activation was successfully generated.
Conclusions:
- The MML framework provides an efficient paradigm for developing and solving biological models.
- The open-source toolkit enhances accessibility and usability for researchers.
- The framework supports the creation of multi-scale cardiac models and diverse geometric representations.
- MML shows promise for advancing computational biology and personalized medicine through detailed physiological modeling.


