Morphology and gene expression profiling provide complementary information for mapping cell state

Gregory P. Way(Broad Institute), Ted Natoli(Broad Institute), Adeniyi Adeboye(Broad Institute), Lev Litichevskiy(Broad Institute), Andrew X. Yang(Broad Institute), Xiaodong Lü(Broad Institute), Juan Carlos Caicedo(Broad Institute), Beth A. Cimini(Broad Institute), Kyle W. Karhohs(Broad Institute), David J. Logan(Broad Institute), Mohammad Hossein Rohban(Broad Institute), Maria Kost‐Alimova(Broad Institute), Kate Hartland(Broad Institute), Michael Bornholdt(Broad Institute), Srinivas Niranj Chandrasekaran(Broad Institute), Marzieh Haghighi(Broad Institute), Erin Weisbart(Broad Institute), Shantanu Singh(Broad Institute), Aravind Subramanian(Broad Institute), Anne E. Carpenter(Broad Institute)
bioRxiv (Cold Spring Harbor Laboratory)
October 22, 2021
Cited by 30Open Access
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Abstract

Summary Morphological and gene expression profiling can cost-effectively capture thousands of features in thousands of samples across perturbations by disease, mutation, or drug treatments, but it is unclear to what extent the two modalities capture overlapping versus complementary information. Here, using both the L1000 and Cell Painting assays to profile gene expression and cell morphology, respectively, we perturb A549 lung cancer cells with 1,327 small molecules from the Drug Repurposing Hub across six doses, providing a data resource including dose-response data from both assays. The two assays capture both shared and complementary information for mapping cell state. Cell Painting profiles from compound perturbations are more reproducible and show more diversity, but measure fewer distinct groups of features. Applying unsupervised and supervised methods to predict compound mechanisms of action (MOA) and gene targets, we find that the two assays provide a partially shared, but also a complementary view of drug mechanisms. Given the numerous applications of profiling in biology, our analyses provide guidance for planning experiments that profile cells for detecting distinct cell types, disease phenotypes, and response to chemical or genetic perturbations.


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