A scientific technique that rapidly increases the body's production of anti-inflammatory cells promoted healing from heart attacks in mice, according to a new study by investigators from the Smidt Heart Institute at Cedars-Sinai. Once adapted to treat humans, the technique could potentially be used to repair heart muscle damage after a heart attack and be applied to a variety of inflammatory disorders. The investigators' findings were published in the peer-reviewed Journal of Clinical Investigation.

Bayer and Suzhou Puhe BioPharma Co., Ltd., a clinical-stage biotechnology company, announced that they have entered into a global license agreement for Puhe BioPharma's oral, small molecule PRMT5 inhibitor that selectively targets MTAP-deleted tumors. Under the agreement, Bayer obtains an exclusive worldwide license to develop, manufacture and commercialize the MTA-cooperative PRMT5 inhibitor.

Scientists have long struggled to target proteins that lack defined structure and are involved in cancer, neurodegenerative disorders like Parkinson's disease, and other serious illnesses. Now, a new study from Scripps Research demonstrates a proof of concept for a new strategy: engineering proteases - enzymes that cut proteins at specific sites - to selectively degrade these elusive targets with high precision in the proteome of human cells.

Among other functions, the NK cells (Natural Killers, a type of lymphocyte forming part of the immune system) have the capacity to detect and eliminate cancer cells. But in some cases they cannot overcome the tumour’s defense mechanism and the cancer grows. Now, a study published in Nature Immunology, with the involvement of the Hospital del Mar Research Institute, the Universitat Autònoma de Barcelona and the Pompeu Fabra University, proposes a new approach to strengthen NK cells in their fight agaist tumour cells.

Scientists from Johns Hopkins Medicine and eight other institutions in the United States, Africa and Europe say they have identified a potential new gene target that could be edited to treat sickle cell disease, an inherited blood disorder marked by sickle-shaped red blood cells that cause intense pain and shorten lifespans. The potential target, the FLT1 gene, contributes to the production of a protein, fetal hemoglobin, whose presence is already known to improve the lifespan of people with sickle cell disease.