
Northwestern Medicine scientists have discovered new mechanisms underlying transcriptional initiation and elongation control that support proper gene expression, which may inform targeted therapeutic approaches for many diseases, according to a recent study published in Molecular Cell.

Northwestern Medicine scientists have discovered how molecular “traffic controllers” in cells influence aging and cellular senescence — a state where cells stop dividing but remain metabolically active.

A new study has shed light on how a class of diabetes drugs may protect the kidneys — not just by lowering blood sugar, but by triggering a molecular shift that dampens inflammation, according to the study published in The Journal of Clinical Investigation.

Northwestern Medicine scientists have uncovered how a testis-specific protein contributes to tumor growth and progression when it is mis-expressed in lung cancer, according to a study published in Science Advances.

Northwestern Medicine investigators have discovered a novel mechanism that recognizes and eliminates ‘bad’ transcriptional elongation enzymes during gene expression, findings that may inform the understanding of adrenal diseases, according to a recent study published in Science Advances.

Investigators from the laboratory of Ali Shilatifard, PhD, have developed a novel technique to precisely and efficiently study gene regulation, which may accelerate the development of new therapeutic strategies, according to a recent study published in Molecular Cell.

A multiprotein complex is essential for regulating cellular transcription response to oxygen deprivation, a key feature of cancer, according to a Northwestern Medicine study published in the Proceedings of the National Academy of Sciences.

Investigators led by Issam Ben-Sahra, PhD, have discovered how cellular metabolism fluctuates in response to changes in levels of pyrimidines, metabolites used by cells to make DNA and RNA, according to a recent study published in Science.

Northwestern Medicine investigators have successfully localized novel molecular mechanisms behind a genetic mutation found in a wide range of cancers, which could serve as a biomarker for improving patient stratification and treatment, according to findings published in Proceedings of the National Academy of Sciences.

Investigators from the laboratory of Ali Shilatifard, PhD, have discovered a new repeat gene cluster sequence that is exclusively expressed in humans and non-human primates, according to findings published in Science Advances.