New drug target identified for myelodysplastic syndrome
Researchers have uncovered how mutations affecting RNA splicing alter cells to develop myelodysplastic syndrome (MDS).
List view / Grid view
Researchers have uncovered how mutations affecting RNA splicing alter cells to develop myelodysplastic syndrome (MDS).
RGX-202 was found to foil a key pathway that cancer cells rely on for energy in mice, presenting a possible new colorectal cancer therapy.
Researchers have created the first “living medicine” to treat antibiotic-resistant bacteria growing on the surfaces of medical implants.
A $5 million grant will be used to train students in stem cell research to contribute towards new stem cell-based therapeutics.
Scientists have discovered a signalling pathway alteration in embryos with Huntington’s disease, paving the way for ground-breaking treatments.
Psilera will participate in two studies with the National Institute on Drug Abuse to combat addiction using a novel DMT formulation.
Scientists have revealed a way to use gene therapy to turn glial brain cells into neurons, restoring vision and potentially restoring motor function.
New evidence suggests that aquaporin 5 (Aqp5) induction promotes corneal epithelial regeneration, which could lead to possible therapies.
Dubbed 'Zaki syndrome', the condition affects prenatal development of several organs and was identified using whole genome sequencing.
An interview with Dr Arun Srivastava about his research into safe and effective AAV vectors that do not prompt a reaction from the immune system.
A CRISPR screening tool identified a new target for acute myeloid leukaemia with fewer side effects than current approaches.
Sinopia has been awarded a $3.3 million Fast-Track SBIR grant to fund the study for its small molecule candidate for Parkinson’s disease.
A new study sequenced tumour DNA for the “ultrasensitive” detection of HPV, further honing precision treatment of the illness.
Stealth BioTherapeutics reported positive data from a pre-clinical study evaluating SBT-272 in a murine model of Parkinson's disease.
Artificial intelligence was shown to predict the 3D shapes of RNA molecules, which could significantly advance RNA therapeutics.