On some statistical problems in single-cell transcriptome data analysis/ Pronoy Kanti Mondal
Material type:
- 23 572.8845 M741
- Guided by Prof. Indranil Mukhopadhyay
Item type | Current library | Call number | Status | Notes | Date due | Barcode | Item holds | |
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THESIS | ISI Library, Kolkata | 572.8845 M741 (Browse shelf(Opens below)) | Available | E-Thesis | TH526 |
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572.88 R359 Combinatorial computational biology of RNA | 572.88 St851 Ribonucleic acids | 572.88 Sy989 Nonsense mutations and tRNA suppressors | 572.8845 M741 On some statistical problems in single-cell transcriptome data analysis/ | 572.886 So688 tRNA | 572.9 F848 Native races of Asia and Europe | 572.9 H384 Ethnography |
Thesis (Ph.D.) - Indian Statistical Institute, 2021
Includes bibliographical references
Chapter 1: Introduction -- Chapter 2: Modeling scRNA-seq expression data -- Chapter 3: Testing dierential scRNA-seq expression data -- Chapter 4: PseudoGA: Cell pseudotime reconstruction based on genetic algorithm -- Chapter 5: SCDI: A fast clustering-based method for Single-cell Data Integration --
Guided by Prof. Indranil Mukhopadhyay
Single-cell transcriptome data provide us with an enormous scope of studying biological systems at the cellular level. We aim to address different problems involving the statistical analysis of single-cell RNA-seq data. First, we develop a realistic statistical model for fitting single-cell transcriptome data based on a two-part model for gene-wise unimodal or bimodal distribution in addition to using a generalized linear model with a probit link for zero occurrences. In continuation to this work, we discuss testing methods to compare transcriptome profiles between two groups. We suggest two different likelihood ratio-based tests under unimodal and bimodal assumptions. We also propose a cell pseudotime reconstruction method avoiding dimensionality reduction, which may lead to loss of information in the data. We view the pseudotime reconstruction problem as finding the best permutation based on a cost function and invoke a genetic algorithm to find the optimum permutation. We also discuss a novel method to remove batch effects to facilitate merging two or more single-cell RNA-seq datasets. All our approaches are supported by simulation study and real data analysis.
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