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      Predicting cellular responses to complex perturbations in high‐throughput screens

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          Abstract

          <p xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" id="d1807964e751">Recent advances in multiplexed single‐cell transcriptomics experiments facilitate the high‐throughput study of drug and genetic perturbations. However, an exhaustive exploration of the combinatorial perturbation space is experimentally unfeasible. Therefore, computational methods are needed to predict, interpret, and prioritize perturbations. Here, we present the compositional perturbation autoencoder (CPA), which combines the interpretability of linear models with the flexibility of deep‐learning approaches for single‐cell response modeling. CPA learns to <i>in silico</i> predict transcriptional perturbation response at the single‐cell level for unseen dosages, cell types, time points, and species. Using newly generated single‐cell drug combination data, we validate that CPA can predict unseen drug combinations while outperforming baseline models. Additionally, the architecture's modularity enables incorporating the chemical representation of the drugs, allowing the prediction of cellular response to completely unseen drugs. Furthermore, CPA is also applicable to genetic combinatorial screens. We demonstrate this by imputing <i>in silico</i> 5,329 missing combinations (97.6% of all possibilities) in a single‐cell Perturb‐seq experiment with diverse genetic interactions. We envision CPA will facilitate efficient experimental design and hypothesis generation by enabling <i>in silico</i> response prediction at the single‐cell level and thus accelerate therapeutic applications using single‐cell technologies. </p><p xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" class="first" id="d1807964e764">The compositional perturbation autoencoder (CPA) is a deep learning model for predicting the transcriptomic responses of single cells to single or combinatorial treatments from drugs and genetic manipulations. <div class="boxed-text panel" id="msb202211517-blkfxd-0001"> <a class="named-anchor" id="msb202211517-blkfxd-0001"> <!-- named anchor --> </a> <div class="figure-container so-text-align-c"> <img alt="" class="figure" src="/document_file/2e309407-a91e-496c-a1b5-4733e323be6b/PubMedCentral/image/MSB-19-e11517-g002.jpg"/> </div> <div class="panel-content"/> </div> </p>

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          Comprehensive Integration of Single-Cell Data

          Single-cell transcriptomics has transformed our ability to characterize cell states, but deep biological understanding requires more than a taxonomic listing of clusters. As new methods arise to measure distinct cellular modalities, a key analytical challenge is to integrate these datasets to better understand cellular identity and function. Here, we develop a strategy to "anchor" diverse datasets together, enabling us to integrate single-cell measurements not only across scRNA-seq technologies, but also across different modalities. After demonstrating improvement over existing methods for integrating scRNA-seq data, we anchor scRNA-seq experiments with scATAC-seq to explore chromatin differences in closely related interneuron subsets and project protein expression measurements onto a bone marrow atlas to characterize lymphocyte populations. Lastly, we harmonize in situ gene expression and scRNA-seq datasets, allowing transcriptome-wide imputation of spatial gene expression patterns. Our work presents a strategy for the assembly of harmonized references and transfer of information across datasets.
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            Slide-seq: A scalable technology for measuring genome-wide expression at high spatial resolution

            Spatial positions of cells in tissues strongly influence function, yet a high-throughput, genome-wide readout of gene expression with cellular resolution is lacking. We developed Slide-seq, a method for transferring RNA from tissue sections onto a surface covered in DNA-barcoded beads with known positions, allowing the locations of the RNA to be inferred by sequencing. Using Slide-seq, we localized cell types identified by single-cell RNA sequencing datasets within the cerebellum and hippocampus, characterized spatial gene expression patterns in the Purkinje layer of mouse cerebellum, and defined the temporal evolution of cell type–specific responses in a mouse model of traumatic brain injury. These studies highlight how Slide-seq provides a scalable method for obtaining spatially resolved gene expression data at resolutions comparable to the sizes of individual cells.
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              CUT&Tag for efficient epigenomic profiling of small samples and single cells

              Many chromatin features play critical roles in regulating gene expression. A complete understanding of gene regulation will require the mapping of specific chromatin features in small samples of cells at high resolution. Here we describe Cleavage Under Targets and Tagmentation (CUT&Tag), an enzyme-tethering strategy that provides efficient high-resolution sequencing libraries for profiling diverse chromatin components. In CUT&Tag, a chromatin protein is bound in situ by a specific antibody, which then tethers a protein A-Tn5 transposase fusion protein. Activation of the transposase efficiently generates fragment libraries with high resolution and exceptionally low background. All steps from live cells to sequencing-ready libraries can be performed in a single tube on the benchtop or a microwell in a high-throughput pipeline, and the entire procedure can be performed in one day. We demonstrate the utility of CUT&Tag by profiling histone modifications, RNA Polymerase II and transcription factors on low cell numbers and single cells.
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                Author and article information

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                Journal
                Molecular Systems Biology
                Molecular Systems Biology
                EMBO
                1744-4292
                1744-4292
                May 08 2023
                Affiliations
                [1 ]Helmholtz Center Munich – German Research Center for Environmental Health, Institute of Computational Biology Munich Germany
                [2 ]Wellcome Trust Sanger Institute, Wellcome Genome Campus, Hinxton Cambridgeshire UK
                [3 ]Meta AI Paris France
                [4 ]Swiss Data Science Center Zurich Switzerland
                [5 ]School of Life Sciences Weihenstephan Technical University of Munich Munich Germany
                [6 ]Department of Mathematics Technical University of Munich Munich Germany
                [7 ]Department of Genome Sciences University of Washington Seattle WA USA
                [8 ]Department of Bioengineering University of California Berkeley CA USA
                [9 ]Howard Hughes Medical Institute Seattle WA USA
                [10 ]Brotman Baty Institute for Precision Medicine Seattle WA USA
                [11 ]Allen Discovery Center for Cell Lineage Tracing Seattle WA USA
                [12 ]Department of Biomedical Engineering Columbia University New York NY USA
                [13 ]Department of Electrical Engineering and Computer Sciences University of California Berkeley CA USA
                [14 ]Department of Computer Science Technical University of Munich Munich Germany
                Article
                10.15252/msb.202211517
                0dc02ee4-46be-4714-9d8c-17ce15c8123d
                © 2023

                http://creativecommons.org/licenses/by/4.0/

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