Knowledge-based mechanistic modeling accurately predicts disease progression with gefitinib in EGFR-mutant lung adenocarcinoma.
Adèle L'HostisJean-Louis PalgenAngélique Perrillat-MercerotEmmanuel PeyronnetEvgueni JacobJames BosleyMichaël DuruisseauxRaphaël TouegLucile LefèvreRiad KahoulNicoletta CeresClaudio MonteiroPublished in: NPJ systems biology and applications (2023)
Lung adenocarcinoma (LUAD) is associated with a low survival rate at advanced stages. Although the development of targeted therapies has improved outcomes in LUAD patients with identified and specific genetic alterations, such as activating mutations on the epidermal growth factor receptor gene (EGFR), the emergence of tumor resistance eventually occurs in all patients and this is driving the development of new therapies. In this paper, we present the In Silico EGFR-mutant LUAD (ISELA) model that links LUAD patients' individual characteristics, including tumor genetic heterogeneity, to tumor size evolution and tumor progression over time under first generation EGFR tyrosine kinase inhibitor gefitinib. This translational mechanistic model gathers extensive knowledge on LUAD and was calibrated on multiple scales, including in vitro, human tumor xenograft mouse and human, reproducing more than 90% of the experimental data identified. Moreover, with 98.5% coverage and 99.4% negative logrank tests, the model accurately reproduced the time to progression from the Lux-Lung 7 clinical trial, which was unused in calibration, thus supporting the model high predictive value. This knowledge-based mechanistic model could be a valuable tool in the development of new therapies targeting EGFR-mutant LUAD as a foundation for the generation of synthetic control arms.
Keyphrases
- epidermal growth factor receptor
- small cell lung cancer
- tyrosine kinase
- advanced non small cell lung cancer
- end stage renal disease
- clinical trial
- healthcare
- endothelial cells
- ejection fraction
- newly diagnosed
- prognostic factors
- copy number
- genome wide
- drug delivery
- poor prognosis
- gene expression
- patient reported outcomes
- metabolic syndrome
- type diabetes
- long non coding rna
- dna methylation
- induced pluripotent stem cells
- machine learning
- insulin resistance
- single cell
- open label
- electronic health record
- deep learning
- phase ii
- study protocol