Researchers are developing biotechnological processes that enable microbes to produce proteins and vitamins for human consumption using basic chemical ingredients, such as carbon dioxide, hydrogen and oxygen – entirely bypassing livestock farming and agriculture. Because these methods also require energy input, they are popularly called “power-to-protein” and “power-to-vitamin” processes.

New in Nature Nanotechnology: A DNA origami nanosyringe introduces mechanically controlled molecular transport into synthetic cells. This opens new opportunities for synthetic biology, engineered biointerfaces and molecular therapeutics.

A team led by researchers from the German Cancer Research Center, the HI-STEM* Stem Cell Institute, and Medical Clinic V at Heidelberg University Hospital has characterized T cells in the bone marrow in cases of multiple myeloma and acute myeloid leukemia: A specific group of tumor-reactive T cells can recognize and fight cancer cells, but is often not sufficiently activated. Nevertheless, the number of these cells influences the prognosis.

Researchers from the Medical Faculty Heidelberg, the Medical Faculty Mannheim, and the Centre for Organismal Studies at Heidelberg University have launched a new research project investigating so-called dipeptides. The consortium aims to determine which dipeptides have the strongest protective effects and how they could be harnessed in future therapies for vascular and kidney diseases.

The National Center for Tumor Diseases (NCT) Heidelberg and the Mannheim Cancer Center (MCC) are receiving joint funding as a Center of Excellence in Oncology for the first time. German Cancer Aid is providing 4.8 million euros over four years for the new consortium.

Over the next five years, Dr. Mykhailo Batiuk and his research group at the Heidelberg Faculty of Medicine at Heidelberg University will investigate the biological mechanisms underlying post-traumatic stress disorder. The European Research Council (ERC) is supporting the project with an ERC Starting Grant worth approximately €1.4 million.

Researchers use synthetic biology approaches to test hundreds of DNA sequences for their effect on regulating gene expression. The human genome contains over 20,000 genes. However, at any given time and in a given cell, only a fraction of them are active. Researchers from EMBL Heidelberg’s Krebs Group have come up with an innovative experimental approach to understand how cells determine which genes to turn on and when.