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Deep-learning models of CRISPR-engineered cells define a rulebook of cellular transdifferentiation

Project description

Machine-learning approach to determine the rules of cellular transdifferentiation

Cell identity is determined by cell type-specific expression of transcription factors (TFs), while the cell’s epigenetic landscape is maintained by epigenetic regulator proteins (ERs). Increasing evidence suggests the cooperation of multiple TFs and ERs in establishing the spectrum of different cell types and cell states in the human body. The EU-funded SingleCellAI project is developing a machine-learning approach for the in silico prediction of TF/ER cocktails that can reprogramme any cell type into any other cell type, creating an algorithm of cellular transdifferentiation. The study will train a machine-learning model on large-scale CRISPR single-cell sequencing data sets. The data-driven approach will be experimentally validated in the context of the human hematopoietic system.

Objective

Cellular identity is controlled by cell type specific expression of transcription factors (TFs), and it is reflected in the cell’s epigenetic landscape maintained by epigenetic regulator proteins (ERs). Functional dissection of cellular identity has focused mainly on a small number of lineage-defining master regulators, yet there is increasing evidence that multiple TFs and ERs work together to establish and retain the vast number of different cell types and cell states in the human body. For a more quantitative understanding of cellular identity, and of the complexities of its regulation, I propose to develop a machine-learning approach for in silico prediction of TF/ER cocktails that can transdifferentiate any human cell type into any other cell type, thus defining an operational rulebook of cellular transdifferentiation. To this end, I will train a machine-learning model called generative adversarial networks (GANs) on large-scale CRISPR single-cell sequencing (CROP-seq) datasets generated in the host lab. Exploiting unique features of the deep-learning generative approach, the resulting model will be able to generalize the learned genetic perturbations across cell types in silico. I will experimentally validate several of these predicted TF/ER transdifferentiation cocktails in the context of the human hematopoietic system. Importantly, the proposed approach is hypothesis-free and data-driven, exploiting recent advances in machine learning to infer fundamental aspects of the regulation of cellular identity from high-throughput functional CRISPR single-cell sequencing data.

Fields of science (EuroSciVoc)

Programme(s)

Topic(s)

Funding Scheme

MSCA-IF-EF-ST - Standard EF

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Call for proposal

(opens in new window) H2020-MSCA-IF-2018

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Coordinator

CEMM - FORSCHUNGSZENTRUM FUER MOLEKULARE MEDIZIN GMBH
Net EU contribution
€ 186 167,04
Address
LAZARETTGASSE 14 AKH BT 25.3
1090 Wien
Austria
Region
Ostösterreich Wien Wien
Activity type
Private for-profit entities (excluding Higher or Secondary Education Establishments)
Links
Total cost
€ 186 167,04