Discovery points to new ways to kill aggressive cancer cells
Vanderbilt faculty and researchers are looking for the “Achilles’ heel” of the cancer cells that survive initial chemotherapy. Michael King, […]
» Read moreNew research results show that a new form of gene editing is efficient in correcting a mutation in patient cells […] Results from a new study support the validity of a score that considers various patient-reported measures and preferences for assessing […] Fighting a tumor is a marathon, not a sprint. For cancer-fighting T cells, the race is sometimes just too long, […] Several cancer tumors grow through immunosuppression; they manipulate biological systems in their microenvironments and signal to a specific set of […] Although cardiovascular disease is the main cause of illness among women in the U.S., certain conditions such as coronary microvascular […] Cambridge scientists have identified 200 approved drugs predicted to work against COVID-19—of which only 40 are currently being tested in […] A new way to target a mutant protein which can cause the deadliest of cancers in humans has been uncovered […] Skoltech researchers and their colleagues from Russia and the UK investigated the safety and efficacy of new chemistry in antisense […] Articular cartilage is a connective tissue lining the surfaces of joints. When the cartilage severely wears down, it leads to […]
New form of gene editing efficient for treatment of AATD, liver and lung disease
New score measures health-related quality of life in patients with kidney failure
New research could keep cancer-fighting T cells from burning out before the job is done
Closer to cure: New imaging method tracks cancer treatment efficacy in preclinical studies
New markers for coronary microvascular disease identified
Scientists identify 160 new drugs that could be repurposed against COVID-19
New treatment options for the deadliest of cancers
New components for antisense gene therapy show promise in treating spinal muscular atrophy
New research identifies injury-induced molecular changes in chondrocytes, at single-cell level
