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New methodologies for automated modeling of the dynamic behavior of large biological networks

Project description

Automated modelling platform for dynamically changing biological transport

Computational ‘in silico’ models are increasingly used to understand complex biological systems and accelerate medical research. Ordinary differential equations (ODEs) are a staple of these, yet the best ODEs only model transport in steady state given the intense labour of manual construction. This limits insight into complex dynamically changing transport mechanisms. The ERC-funded AUTOMATHIC project aims to transform this by developing an automated framework combining mathematical modelling and machine learning to identify the appropriate ODE structures, estimate their parameters and efficiently evaluate the resulting models. Focusing on how kidney cells transport toxins and drugs, AUTOMATHIC will use this framework to identify ways to minimise drug toxicity for safer therapies in patients with chronic kidney disease.

Objective

In silico models aim to capture and elucidate the complex and emergent interactions of biological systems, with the goal of expediting research and potential clinical translation. For example, ordinary differential equation (ODE) models of toxin and drug transport are being developed to bring safer therapies to chronic kidney disease patients. Despite recent progress, these cutting-edge ODEs only model transport in steady state and remain limited regarding the amount and complexity of dynamic transport mechanisms as it is often not clear which kinetic relation is most suitable. This limitation is due to the manual and labor-intensive approaches to construct the ODEs, which critically hinder their application in quantitative toxicity assessment in key industrial settings like drug development. In AUTOMATHIC, I will leverage and combine my expertise in mathematical modeling and machine learning to develop an integrated framework for automated ODE structure identification, parameter estimation and model evaluation, focusing on cell transport and signaling, which is the timely leap forward needed to create large dynamic models and transform the field. I will test and illustrate the capabilities of the developed framework by exploring the dynamics and regulation of proximal tubule (PT) toxin and drug transport. I will use the dynamic PT model to define novel therapeutic regimens that minimize toxin accumulation in combination with a state-of-the-art in vitro set-up to measure the essential time series data required for model calibration and validation. The anticipated outcomes of AUTOMATHIC are: 1) a next-generation, integrated framework for automated model structure identification and parameter estimation that will become the new standard for the creation and interrogation of large dynamic models of cell transport and signaling; 2) crucial knowledge about PT transport and metabolism; 3) a dynamic PT model to optimize nephrotoxicity protocols, drug dosing and screening.

Keywords

Programme(s)

Topic(s)

Funding Scheme

HORIZON-ERC - HORIZON ERC Grants

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Call for proposal

(opens in new window) ERC-2024-STG

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Host institution

UNIVERSITEIT MAASTRICHT
Net EU contribution
€ 1 500 000,00
Address
MINDERBROEDERSBERG 4
6200 MD Maastricht
Netherlands
Region
Zuid-Nederland Limburg (NL) Zuid-Limburg
Activity type
Higher or Secondary Education Establishments
Links
Total cost
€ 1 500 000,00

Beneficiaries (1)