Joint project involving the universities of Frankfurt and Mainz attracts some EUR 11 million in financial support
The German Research Foundation (DFG) will be providing approximately EUR 11 million over the next four years to fund a new collaborative research center on autophagy.
Scientists from the Mainz University Medical Center as well as from the Institute of Molecular Biology (IMB) are part of the research consortium. Autophagy is an important cellular process that is involved in energy production, cellular stress response, and immune reactions. The goal of the new research center is a better understanding of autophagy at the molecular and cellular level.
The researchers trust that they will be able to impact autophagy processes in the future in order to treat various forms of cancer, neurodegenerative disorders, infectious diseases, and inflammatory reactions more effectively. The center will be managed under the aegis of Goethe University Frankfurt.
"This new research center, in which the University Medical Center of Johannes Gutenberg University Mainz is involved, demonstrates the enormous research potential of the universities in the Rhine-Main region. The collaboration underlines how pioneering work can be undertaken when outstanding scientists from the region work together to develop collaborative research projects," said Professor Ulrich Förstermann, Chief Scientific Officer of the Mainz University Medical Center.
Autophagy occurs in organisms as simple as yeast cells and as complex as human beings. It is through this process, for example, that protein aggregates are degraded that can cause severe damage in cells and can lead to cell death as it is observed in several neurodegenerative disorders.
Even entire cellular organelles can be removed by autophagy when they do not function properly any longer and viruses or bacteria that invade cells can be neutralized. The components recovered in the process can then be reused by cells as basic material, which is why autophagy is also employed as a strategy for cell survival when the energy supply is low. Autophagy represents an extremely complex and precisely regulated process that depends on the coordination of many players.
The degradation-prone substrate at first is specifically recognized and then enclosed by a membrane, which matures into a so-called autophagosome. This structure then fuses with larger cell organelles, the lysosomes that are filled with digestive enzymes and break the contents down to single building blocks.
"It has long been thought that autophagy represents an unspecific process. As it has become increasingly clear that the cells can target the process and that its disturbance is associated with an entire series of disorders, autophagy research has really taken off," explained Professor Christian Behl, Deputy Speaker of the CRC and Director of the Institute of Pathobiochemistry at the Mainz University Medical Center. “Many questions are still awaiting answers. We need to determine, for example, how exactly this process is regulated and modulated and how it is linked to other cellular mechanisms."
It is now known that autophagy is particularly dependent on the cellular context. By controlling various cellular components, it is able to prevent the formation of cancer cells. On the other hand, cancer cells make use of autophagy processes in order to survive the nutrient shortage associated with fast tumor growth.
Less research has been done on the interplay of autophagy with other mechanisms, such as the intake of substrates by the invagination of the cell membrane (endocytosis), programmed cell death (apoptosis), and the ubiquitin system, which marks proteins for degradation by the proteasome.
Within the new collaborative research center, scientists are planning to investigate autophagy at the molecular, cellular, and model organism level. It is the first large-scale collaborative project on this subject to be undertaken in Germany and enables the Frankfurt- and Mainz-based scientists to strengthen their position in a highly competitive international field.
For it, a broad setup across several disciplines is required and thus the network brings together structural biologists, biochemists, cellular biologists as well as clinicians. The results on molecular mechanisms will be directly assessed within model systems of human diseases.
In Mainz, in addition to the Institute of Pathobiochemistry at the Mainz University Medical Center the Institute of Molecular Biology (IMB) is involved. Partners in Frankfurt include various departments of Goethe University Frankfurt, e.g., Life Sciences, Biochemistry, Chemistry, Pharmaceutical Sciences, and Medicine, along with the Buchmann Institute for Molecular Life Sciences and the Georg-Speyer-Haus.
Professor Dr. Christian Behl
Institute of Pathobiochemistry
University Medical Center of Johannes Gutenberg University Mainz
55128 Mainz, GERMANY
phone +49 6131 39-25890
fax +49 6131 39-25792
Press and Public Relations – Mainz University Medical Center
phone +49 6131 17-7424
fax +49 6131 17-3496
http://www.uni-mainz.de/presse/19947_ENG_HTML.php - press release
Petra Giegerich | idw - Informationsdienst Wissenschaft
Researchers develop eco-friendly, 4-in-1 catalyst
25.04.2017 | Brown University
Transfecting cells gently – the LZH presents a GNOME prototype at the Labvolution 2017
25.04.2017 | Laser Zentrum Hannover e.V.
More and more automobile companies are focusing on body parts made of carbon fiber reinforced plastics (CFRP). However, manufacturing and repair costs must be further reduced in order to make CFRP more economical in use. Together with the Volkswagen AG and five other partners in the project HolQueSt 3D, the Laser Zentrum Hannover e.V. (LZH) has developed laser processes for the automatic trimming, drilling and repair of three-dimensional components.
Automated manufacturing processes are the basis for ultimately establishing the series production of CFRP components. In the project HolQueSt 3D, the LZH has...
Reflecting the structure of composites found in nature and the ancient world, researchers at the University of Illinois at Urbana-Champaign have synthesized thin carbon nanotube (CNT) textiles that exhibit both high electrical conductivity and a level of toughness that is about fifty times higher than copper films, currently used in electronics.
"The structural robustness of thin metal films has significant importance for the reliable operation of smart skin and flexible electronics including...
The nearby, giant radio galaxy M87 hosts a supermassive black hole (BH) and is well-known for its bright jet dominating the spectrum over ten orders of magnitude in frequency. Due to its proximity, jet prominence, and the large black hole mass, M87 is the best laboratory for investigating the formation, acceleration, and collimation of relativistic jets. A research team led by Silke Britzen from the Max Planck Institute for Radio Astronomy in Bonn, Germany, has found strong indication for turbulent processes connecting the accretion disk and the jet of that galaxy providing insights into the longstanding problem of the origin of astrophysical jets.
Supermassive black holes form some of the most enigmatic phenomena in astrophysics. Their enormous energy output is supposed to be generated by the...
The probability to find a certain number of photons inside a laser pulse usually corresponds to a classical distribution of independent events, the so-called...
Microprocessors based on atomically thin materials hold the promise of the evolution of traditional processors as well as new applications in the field of flexible electronics. Now, a TU Wien research team led by Thomas Müller has made a breakthrough in this field as part of an ongoing research project.
Two-dimensional materials, or 2D materials for short, are extremely versatile, although – or often more precisely because – they are made up of just one or a...
20.04.2017 | Event News
18.04.2017 | Event News
03.04.2017 | Event News
25.04.2017 | Physics and Astronomy
25.04.2017 | Materials Sciences
25.04.2017 | Life Sciences