SEEDS: data driven inference of structural model errors and unknown inputs for dynamic systems biology
Tobias Newmiwaka1, Benjamin Engelhardt1,2,3, Philipp Wendland1
1Department of Mathematics and Technology, University of Applied Sciences Koblenz, RheinAhrCampus, Remagen 53424, Germany.
The SEEDS R-package helps biological modelers identify structural errors and unknown environmental inputs. This improves mechanistic modeling accuracy and experimental design for biological systems.
Area of Science:
- Systems biology
- Computational biology
- Bioinformatics
Background:
- Dynamic models, often ordinary differential equations, are crucial for understanding biological systems.
- Challenges in mechanistic modeling include inaccurate knowledge of interactions and unknown environmental inputs.
- Effective interventions and experimental design rely on accurate biological models.
Purpose of the Study:
- To introduce the R-package SEEDS, which implements algorithms for inferring structural model errors and unknown inputs.
- To aid researchers in addressing misfits between models and experimental data.
- To enhance the efficiency of model recalibration and experimental design.
Main Methods:
- The SEEDS R-package utilizes two novel algorithms.
- These algorithms infer structural model errors from output measurements.
- Unknown environmental inputs are also identified using these algorithms.
Main Results:
- SEEDS facilitates the identification of structural discrepancies in dynamic biological models.
- The package helps uncover unmeasured inputs affecting biological systems.
- This leads to more accurate mechanistic models and better-informed experimental designs.
Conclusions:
- The SEEDS R-package provides essential tools for improving mechanistic modeling in biology.
- By addressing model errors and unknown inputs, SEEDS enhances the reliability of biological system analysis.
- This supports more effective targeted interventions and future research directions.
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