Media Summary: Brief overview of the different levels of physical organization of the genome, from the linear DNA sequence to A/B compartments. Basic overview of DNA sequencing and its applications Overview of the types of networks we will discuss in class (regulatory, protein-protein, genetic and co-expression).

Mcb 182 Lecture 10 1 - Detailed Analysis & Overview

Brief overview of the different levels of physical organization of the genome, from the linear DNA sequence to A/B compartments. Basic overview of DNA sequencing and its applications Overview of the types of networks we will discuss in class (regulatory, protein-protein, genetic and co-expression). Basic analysis goals of scRNA-seq, including clustering, trajectory inference and gene network inference. Basic experimental design considerations of scRNA-seq, including dropout noise, batch effects A deeper look at how population structure is detected, visualized, and corrected for in GWAS.

Considerations about how to choose between 3C/4C/Hi-C, and also a brief discussion of how Hi-C can be used for genome ... A brief introduction to a few non-coding RNA types, including miRNA, lncRNA and eRNA. A discussion of the role of modules (groups of highly connected genes, with few connections to other genes) in gene networks, ... Discussion of TADs and A/B compartments, as well as how to identify them from heatmap visualizations. We introduce the concept of sequence alignments to compare how similar they are.

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MCB 182 Lecture 10.1 - Overview of the physical organization of the genome
MCB 182 Lecture 2.1 - DNA sequencing overview
MCB 182 Lecture 11.1 - Introduction to molecular interaction networks
MCB 182 Lecture 10.4 - Chromatin conformation capture (Hi-C) assays
MCB 182 Lecture 9.8 - Analysis goals of scRNA-seq
MCB 182 Lecture 9.10 - scRNA-seq experimental design, dropout noise
MCB 182 Lecture 12.7 - More on detecting, visualizing + correcting for population structure in GWAS
MCB 182 Lecture 1.2 - Review - Gene structure
MCB 182 Lecture 10.8 - Choosing 3C assay, genome assembly with Hi-C
MCB 182 Lecture 9.6 - ncRNA (miRNA, lncRNA, eRNA)
MCB 182 Lecture 11.8 - Modularity of gene networks, guilt by association principles
MCB 182 Lecture 10.6 - Topologically associated domains (TADs), A/B compartments
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MCB 182 Lecture 10.1 - Overview of the physical organization of the genome

MCB 182 Lecture 10.1 - Overview of the physical organization of the genome

Brief overview of the different levels of physical organization of the genome, from the linear DNA sequence to A/B compartments.

MCB 182 Lecture 2.1 - DNA sequencing overview

MCB 182 Lecture 2.1 - DNA sequencing overview

Basic overview of DNA sequencing and its applications

MCB 182 Lecture 11.1 - Introduction to molecular interaction networks

MCB 182 Lecture 11.1 - Introduction to molecular interaction networks

Overview of the types of networks we will discuss in class (regulatory, protein-protein, genetic and co-expression).

MCB 182 Lecture 10.4 - Chromatin conformation capture (Hi-C) assays

MCB 182 Lecture 10.4 - Chromatin conformation capture (Hi-C) assays

Introduction to the Hi-C assay.

MCB 182 Lecture 9.8 - Analysis goals of scRNA-seq

MCB 182 Lecture 9.8 - Analysis goals of scRNA-seq

Basic analysis goals of scRNA-seq, including clustering, trajectory inference and gene network inference.

MCB 182 Lecture 9.10 - scRNA-seq experimental design, dropout noise

MCB 182 Lecture 9.10 - scRNA-seq experimental design, dropout noise

Basic experimental design considerations of scRNA-seq, including dropout noise, batch effects

MCB 182 Lecture 12.7 - More on detecting, visualizing + correcting for population structure in GWAS

MCB 182 Lecture 12.7 - More on detecting, visualizing + correcting for population structure in GWAS

A deeper look at how population structure is detected, visualized, and corrected for in GWAS.

MCB 182 Lecture 1.2 - Review - Gene structure

MCB 182 Lecture 1.2 - Review - Gene structure

Gene structure, splicing

MCB 182 Lecture 10.8 - Choosing 3C assay, genome assembly with Hi-C

MCB 182 Lecture 10.8 - Choosing 3C assay, genome assembly with Hi-C

Considerations about how to choose between 3C/4C/Hi-C, and also a brief discussion of how Hi-C can be used for genome ...

MCB 182 Lecture 9.6 - ncRNA (miRNA, lncRNA, eRNA)

MCB 182 Lecture 9.6 - ncRNA (miRNA, lncRNA, eRNA)

A brief introduction to a few non-coding RNA types, including miRNA, lncRNA and eRNA.

MCB 182 Lecture 11.8 - Modularity of gene networks, guilt by association principles

MCB 182 Lecture 11.8 - Modularity of gene networks, guilt by association principles

A discussion of the role of modules (groups of highly connected genes, with few connections to other genes) in gene networks, ...

MCB 182 Lecture 10.6 - Topologically associated domains (TADs), A/B compartments

MCB 182 Lecture 10.6 - Topologically associated domains (TADs), A/B compartments

Discussion of TADs and A/B compartments, as well as how to identify them from heatmap visualizations.

MCB 182 Lecture 6.1 - Introduction to sequence alignments

MCB 182 Lecture 6.1 - Introduction to sequence alignments

We introduce the concept of sequence alignments to compare how similar they are.