When cells’ tiny differences have far-reaching implications
Alex Shalek’s technologies for single-cell RNA profiling can help dissect the cellular bases of complex diseases around the globe.
Alex Shalek’s technologies for single-cell RNA profiling can help dissect the cellular bases of complex diseases around the globe.
Jonathan Weissman and collaborators used their single-cell sequencing tool Perturb-seq on every expressed gene in the human genome, linking each to its job in the cell.
Family trees of lung cancer cells reveal how cancer evolves from its earliest stages to an aggressive form capable of spreading throughout the body.
Study finds genome loops don’t last long in cells; theories of how loops control gene expression may need to be revised.
The MIT biologist’s research has shed light on the immortality of germline cells and the function of “junk DNA.”
Researchers create a mathematical framework to examine the genome and detect signatures of natural selection, deciphering the evolutionary past and future of non-coding DNA.
MIT biologists drilled down into how proteins recognize and bind to one another, informing drug treatments for cancer.
A pill that releases RNA in the stomach could offer a new way to administer vaccines, or to deliver therapies for gastrointestinal disease.
Extra chromosome alters chromosomal conformation and DNA accessibility in neural progenitor cells; study establishes senescence as a potentially targetable mechanism for future treatment.
Using a new robotic platform, researchers can simultaneously track hundreds of microbial populations as they evolve new proteins or other molecules.
A new study finds the clusters form small, stable droplets and may give the genome a gel-like structure.
A new RNA-based control switch could be used to trigger production of therapeutic proteins to treat cancer or other diseases.
Researchers glean a more complete picture of a structure called the nuclear pore complex by studying it directly inside cells.
Exploring diversity among bacterial immune systems, McGovern Institute scientists uncovere a programmable system for precisely targeting and modifying RNA.
Researchers find RNA-guided enzymes are more diverse and widespread than previously believed.