Erik Altman, Jovan Blanusa, et al.
NeurIPS 2023
Chimeric antigen receptor (CAR) T cells are a promising new approach in cancer immunotherapy. Their safety, efficacy and phenotype depend heavily on the design of the CAR, which intracellular tail contains up to three domains derived from a range of cellular signalling receptors. Due to its modular design and the multitude of possible domains, there is a vast combinatorial space of CAR designs. There are substantial efforts to improve CAR T cells based on CAR designs. However, testing the effect of each CAR design experimentally is very resource and labour intensive, and not feasible beyond a few hundred different combinations. Therefore, we aim to predict T cell phenotypes upon expression of different CAR designs, informed by single-cell RNA sequencing of a small library of 30 CAR designs using combinations of five different domains. Exploiting a prior knowledge signalling network, we design models of signalling pathways. We evaluate multiple network algorithms linking CAR domains to the phenotype of T cells, including flow maximisation, integer linear programming and pathway signal flow. As a result, we will present an interpretable model that identifies pathways activated by different CAR designs, predict the phenotype of CAR T cells and guide CAR T cell therapy.
Erik Altman, Jovan Blanusa, et al.
NeurIPS 2023
Conrad Albrecht, Jannik Schneider, et al.
CVPR 2025
Dan Platt, Aritra Bose, et al.
ISMB 2022
Yidi Wu, Thomas Bohnstingl, et al.
ICML 2025