Project description:Technologies for measuring 3D genome topology are increasingly important for studying mechanisms of gene regulation, for genome assembly and for mapping of genome rearrangements. We applied the original GAM protocol to Mouse ES cells to generate a deeper dataset for comparison to Hi-C.
Project description:Technologies for measuring 3D genome topology are increasingly important for studying mechanisms of gene regulation, for genome assembly and for mapping of genome rearrangements. We developed multiplex-GAM, a faster and more affordable version of Genome Architecture Mapping (GAM), a ligation-free technique to map chromatin contacts genome-wide. We applied multiplex-GAM to Mouse ES cells.
Project description:Technologies for measuring 3D genome topology are increasingly important for studying mechanisms of gene regulation, for genome assembly and for mapping of genome rearrangements. We developed multiplex-GAM, a faster and more affordable version of Genome Architecture Mapping (GAM), a ligation-free technique to map chromatin contacts genome-wide. We applied multiplex-GAM to Mouse ES cells.
Project description:Technologies for measuring 3D genome topology are increasingly important for studying mechanisms of gene regulation, for genome assembly and for mapping of genome rearrangements. We applied the original GAM protocol to Mouse ES cells to generate a deeper dataset for comparison to Hi-C.
Project description:24 hours following transfection with either a control mix, a construct overexpressing GAM or siRNAs directed against GAM (siGAM), THP-1 cells were challenged with LPS 100 ng/ml. RNAs were analyzed after 6 hours of LPS challenge
Project description:A goal of this study was to identify and investigate previously unrecognized components of the remodeling process in the progression to heart failure by comparing gene expression in ischemic, failing (F) to non-failing (NF) hearts. These results also were compared to the changes observed in a proteomic analysis of F and NF hearts. RNA extracted from the left ventricle was hybridized to Affymetrix arrays to identify gene expression differences in ischemic, end-stage failing versus non-failing hearts. biological replicate: LV_NF_001, LV_NF002, LV_NF004, LV_NF005 biological replicate: LV_F_003, LV_F005, LV_F009, LV_F006