Tracking the footprints of protein synthesis
Researchers refine a method to quantify protein production, show that the precision with which bacteria and eukaryotes tune their gene expression is remarkably similar.
Researchers refine a method to quantify protein production, show that the precision with which bacteria and eukaryotes tune their gene expression is remarkably similar.
Altered peptides from a South American wasp’s venom can kill bacteria but are nontoxic to human cells.
A new study linking RNA processing to DNA repair may open new avenues to cancer therapy.
Together, cell growth rate and gene expression shed light on why some tumor cells survive treatment.
Study reveals the role of the activation domain, a part of transcription factors previously shrouded in mystery.
Enzyme can target almost half of the genome’s “ZIP codes” and could enable editing of many more disease-specific mutations.
Global Microbiome Conservancy research reveals surprising new insights into human gut microbiomes.
Biological engineers design RNA circuits that enable precise control over the dose of therapeutic protein a patient receives.
New MIT initiative delves into the biology of stem cells and cancer stem cells, seeks ways to identify, purify, and propagate them.
McGovern Institute scientist is recognized with award for outstanding and creative achievements made in the life and medical sciences.
Researchers identify an essential protein that helps enzymes relax overtwisted DNA so each strand can be copied during cell division.
Biologists discover that the environment surrounding a cell plays an integral role in its ability to accurately segregate its chromosomes.
Graduate student Kelsey Moore uses genetic and fossil evidence to study the first stages of evolution on our planet.
Whitehead team deploys CRISPR tools to better understand and uncover ways of improving methotrexate, a popular chemotherapy drug.
Researchers identify the amino acid aspartate as a metabolic limitation in certain cancers.