MCB 182 Lecture 10.4 - Chromatin conformation capture (Hi-C) assays
MCB 182 Lecture 10.3 - Chromatin conformation capture (3C, 4C) assays
MCB 182 Lecture 10.8 - Choosing 3C assay, genome assembly with Hi-C
MCB 182 Lecture 10.1 - Overview of the physical organization of the genome
MCB 182 Lecture 10.2 - DamID for mapping protein-DNA interactions
MCB 182 Lecture 8.4 - Chromatin accessibility (ATAC-seq)
MCB 182 Lecture 10.7 - Chromatin looping, loop extrusion model
MCB 182 Lecture 10.6 - Topologically associated domains (TADs), A/B compartments
MCB 182 Lecture 10.5 - Visualization of Hi-C data, bias in the Hi-C assay
MCB 182 Lecture 7.6 - Position weight matrices, sequence logos
MCB 182 Lecture 1.3 - Review - Transcriptional regulation
MCB 182 Lecture 11.5 - Co-expression networks
MCB 182 Lecture 9.13 - scRNA-seq applications (trajectory inference, visualization)
MCB 182 Lecture 9.7 - Introduction to single cell RNA sequencing (scRNA-seq)
Chromatin Conformation Capture | Chromosome Conformation Capture Assay | Hi-C Method |
Bioinformatics for the 3D Genome: An Introduction to Analyzing and Interpreting Hi-C Data
In Situ- H I I.wmv
Chromosome Conformation Capture On Chip | 4C Vs 3C |
Miten Jain: Nanopore sequencing updates using Q20+ and R10.4
E01.3 - Sequencing Genome Organization