In the nucleus of every living cell, long strands of DNA are tightly folded into compact chromosomes. Now, thanks to a computational approach developed by Professor Joseph Ecker, first author Jingtian Zhou and colleagues, researchers can use the architecture of these chromosome folds to differentiate cell types. The information about each cell’s chromosome structure will give scientists a better understanding of how interactions between different regions of DNA play a role in health and disease.Read News Release
A novel technology for genome-editing a broad range of mutations in live organisms
Professor Juan Carlos Izpisua Belmonte, co-first authors Keiichiro Suzuki, Mako Yamamoto, Reyna Hernandez-Benitez and colleagues, have developed a tool to edit the mouse genome, enabling the team to target a broad range of mutations and cell types. The new genome-editing technology, dubbed SATI, could be expanded for use in a broad range of conditions that arise from gene mutations, such as Huntington’s disease and the premature aging syndrome progeria.Read News Release
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