Basic research

Iron is essential for healthy cells. Cancer cells also require this trace element. Researchers in Freiburg have now found evidence that high levels of iron directly in the tumor microenvironment promote the spread of certain cells in a particularly aggressive type of brain tumor known as glioblastoma. In the long term, iron metabolism could therefore serve as a target for more precisely influencing particularly invasive tumor cells.

How can cell-based immunotherapies for cancer and autoimmune diseases become more widely available in the long term? The SYNTHIA project is addressing this challenge: The Max Planck Institute for Medical Research and the Fraunhofer Institute for Cell Therapy and Immunology IZI are collaborating on new research approaches to advance the development of cell-based immunotherapies.

CAR-T cell therapies have proven successful in treating several types of blood and lymphoid cancers. However, their use in treating other tumors is significantly more challenging, in part because suitable target structures are lacking.

CAR-T cell therapies have proven successful in treating several types of blood and lymphoid cancers. However, their use in treating other tumors is significantly more challenging, in part because suitable target structures are lacking.

The liver is organized into distinct zones in which liver cells perform different functions. The blood vessels of the liver play an important role in this spatial organization: the endothelial cells lining the vessels provide signals that instruct neighboring liver cells and help determine their function. But how do endothelial cells know which signals to produce?

Prof. Chunhai Fan, who is a recipient of the Humboldt Research Award, has been conducting research at the University of Stuttgart since June. Fan works closely with Prof. Laura Na Liu of the 2nd Physics Institute. Both researchers are among the world's leading experts in the field of DNA nanotechnology.

While the cell nucleus contains almost all of the genome, the mitochondria – the powerhouses of the cell – have their own small genetic code. It consists of only 37 genes, which are organized in circular DNA – mtDNA, for short. Defects in the mitochondrial genome are related to incurable neurodegenerative and metabolic diseases, cancer and also aging processes.

With funding from the German Research Foundation’s (DFG) Heisenberg Program, DKFZ researcher Aurélie Ernst aims to investigate how massive changes in the genome contribute to the development of cancer. Her research focuses on a phenomenon known as chromothripsis - a catastrophic event in the genome in which chromosomes break apart and are reassembled incorrectly.

Cells of the highly aggressive brain tumor glioblastoma exhibit predatory behavior: they exploit signaling between healthy neurons and internalize portions of their contact sites. Dr. Dr. Varun Venkataramani of the Heidelberg Medical Faculty of Heidelberg University, and his research team, will investigate how glioblastoma cells benefit from this process and whether it may represent a novel therapeutic target.

The NanoLYRIC project: nanoparticles as drug carriers - 13/08/2026

Radiation-activated local chemotherapy

Conventional chemotherapy is associated with severe side effects because cytotoxic drugs act on the whole body. Researchers at the Karlsruhe Institute of Technology and the University Medical Centre Göttingen, in collaboration with Aalen University of Applied Sciences, are developing a novel approach in which a chemotherapeutic agent encapsulated in nanoparticles is released locally and selectively only upon targeted irradiation of the tumour.

Most everyday moments are quickly forgotten, while others stay with us for a lifetime. How the brain determines which memories are retained and which are lost remains an open question. A neuroscience team at the University of Tübingen, has found that spontaneous fluctuations in the brain’s internal state influence how ready the memory system is to store new information.

With the aid of physical forces it is possible to actively steer the formation of engineered tissue. For example, sound waves can be used to create functional vascular networks with blood vessel-like structures in vitro. Scientists at the Center for Molecular Biology of Heidelberg University have demonstrated this through their methodology for acoustic manipulation.