Research Training Groups
Research training groups at FAU
Research Training Groups (RTG) support young researchers. They give doctoral candidates the opportunity to carry out their work within the framework of a coordinated research programme supported by senior researchers and professors. FAU is involved in 14 research training groups, and is the coordinating university for twelve of them.
More information (including the application requirements) is available on the Graduate Centre’s website.
Research training groups coordinated by FAU
Nanotechnology provides methods of structuring materials on the smallest level which lead to new properties and functions. However, this requires modern forms of nanocharacterisation, and new and improved in situ procedures. This research training group is studying these topics. The in situ methods make it possible to investigate the formation, stability and mechanical integrity of nanostructures directly on the nanoscopic and microscopic scale and uncover the relationships between structure and functionality.
Professor Erdmann Spiecker is speaker for RTG 1896. The project is currently being funded in the second funding period until 30 September 2022.
The young researchers in this research training group aim to find substances which interact with G protein-coupled receptors which can be used to treat diseases of the central nervous system with minimal side effects. G protein-coupled receptors (GPCRs) are proteins which play an important role in the human body in the transmission of sensory data and communication between cells and their environment. They are involved in a wide range of essential processes in the body. Serious diseases can be caused if GPCRs malfunction. New findings about these proteins could lead to promising new forms of treatment.
Professor Peter Gmeiner is speaker for RTG 1910. The project is currently being funded in the second funding period until 30 September 2022.
How is the development of the central nervous system (CNS) related to the occurrence of neuropsychiatric and neurodegenerative diseases in late adulthood? To what extent do development processes influence resistance to CNS diseases in adulthood? What are the most important factors here? These are just some of the fundamental questions that the doctoral candidates in RTG 2162 are investigating using methods such as animal models and induced pluripotent stem cells developed from patients’ cells.
Professor Dieter Chichung Lie is speaker for RTG 2162. The project is currently being funded in the first funding period until 31 December 2020.
How do various materials fracture? The RTG hopes to develop simulation methods to record fractures in brittle, granular and porous materials at various length and time scales. The results are to be used to develop materials specially tailored to prevent fracturing.
Professor Paul Steinmann is speaker for RTG 2423. The project is currently being funded in the first funding period until 30 June 2023.
In view of the growing importance of information technology for society, cybercrime is becoming more and more of a threat. At the same time, there are also new opportunities for criminal prosecution, such as automated online data collection and analysis, and monitoring programmes. However, what impact does it have on the basic rights of those affected when ‘forensic computing’ is used? The research training group ‘Cybercrime and forensic computing’ brings together experts from the fields of computer science and law to systematically investigate the research area of ‘criminal prosecution of cybercrime’.
Professor Felix Freiling is speaker for RTG 2475. The project is currently being funded in the first funding period until 31 March 2024.
The objective of this research training group is to develop new strategies for treating and preventing viral diseases by identifying cellular points of attack for antiviral treatments and inserting them into the immune system, preventing the development of resistant viruses. A particular focus is placed on training young researchers who are familiar both with anti-viral chemotherapy and immune-based approaches. The doctoral candidates will receive training from medical researchers, biologists, pharmacists and bioinformatics specialists at FAU. Cooperation with the Ragon Institute in Boston, USA, a research institute set up by the Massachusetts General Hospital (MGH), the Massachusetts Institute of Technology (MIT) and Harvard University, will open up international perspectives for the researchers.
Professor Klaus Überla is speaker for RTG 2504. The project is currently being funded in the first funding period until 31 March 2024.
The objective of this international research training group is to research electro-mechanical (piezo-electric) and electro-optical (photovoltaic and water splitting) energy conversion systems that are based on lead-free perovskite materials. The development of lead-free materials systems is a pioneering field of research due to international regulations that prohibit the use of heavy metals in electronic devices, for example. This affects the use of lead-free materials not only in renewable energy but also in high-tech applications such as autonomous wireless sensors. Research into multiscale phenomena during, for example, energy conversion, development and use of lead-free perovskite materials in new 2D and 3D processing technology, and in device integration is of particular interest. This involves the use of various synthesis, manufacturing and characterising techniques that are coupled with simulations. Scale-specific phenomena can now be investigated in a collaborative research and training environment thanks solely to this interdisciplinary research team and its combined expertise in the various length scales. The partners in this international research training group will enjoy access to a wide variety of experimental techniques and measuring devices and be able to enter into contact with partners in industry in Japan.
Professor Kyle G. Webber is speaker for the international RTG 2495. The project is currently being funded in the first funding period until 30 June 2024.
Inflammation is the key response strategy of the body to react to tissue stress and damage. The activation of the immune system related to inflammatory reaction needs closer attention. In this context particular importance is attached to the molecular checkpoints, which are responsible for stopping inflammatory reaction in time and finally for its resolution. In fact, there is still very limited knowledge on the mechanisms of resolution, however they are of central relevance for pathogenesis and therapy of chronic inflammatory diseases. Internal diseases in humans of the joints (arthritis), gut (colitis) and lung (asthma), are characterised by chronification of inflammatory reaction. The collaborative research centre ‘Checkpoints for resolution of inflammation’ aims to investigate the molecular mechanisms which cause the chronification or resolution of inflammation. The CRC 1181 initiative is a collaboration between the Faculty of Sciences and the Faculty of Medicine at the Friedrich-Alexander-Universität Erlangen-Nürnberg, Universitätsklinikum Erlangen and the Max Planck Institute for the Science of Light in Erlangen. It includes 19 research projects which aim to investigate the molecular checkpoints which cause the chronification or resolution of inflammation as well as innovative instruments for equal opportunities, the promotion of young researchers and networking.
CRC 1411 focuses on optimising nanoparticle design. For this purpose, particle syntheses are combined with novel separation methods for classifying nanoparticles. The key feature of this approach is that production is optimised in such a way that particles with engineered properties can be produced in continuous processes. These elegant approaches to property and process design replace current methods that are often highly complex and based on experiments. Thanks to this innovation, the new CRC will make important contributions to the digitalisation of the product design of particle systems. In 20 individual projects, researchers from the fields of chemical engineering, materials sciences, mathematics and physics will design, produce and characterise new nanoparticles. Designing particles with special optical properties is a central aspect of this research. Within the framework of the CRC, a research training group has been set up for doctoral research in nanoparticle design – a world first. The CRC is also breaking new ground in dealing with the large amounts of data generated in the experiments and simulations.
Transregio 130 contributes to the fundamental understanding of autoimmune diseases by carrying out research into why the immune system turns on the body in certain diseases. As B cells are often the root cause in diseases which are based on autoimmune reactions, Transregio 130 is focusing its research on the antibody response to foreign bodies triggered by B cells and what goes wrong in this process in autoimmune diseases.
Gas will play an important role as an energy source during the energy reform that is due to take place in the coming decades as Germany moves away from nuclear energy in favour of more environmentally-friendly energy sources. There is sufficient gas available and it can be easily sourced and stored. However, ensuring efficient gas supply involves dealing with issues related to transport, network technology, market regulations and using gas in conjunction with other energy sources. The goal of CRC/Transregio 154 is to meet these challenges using mathematical modelling, simulation and optimisation in order to provide solutions which set a new quality standard. New knowledge of various fields of mathematics, such as mathematical modelling, numerical analysis and simulation, or integer, continuous and stochastic optimisation are required to achieve this.
The aim of CRC/TRR 241 is to better understand the interaction between cells in mucous membranes and immune cells in the bowel and to develop more effective therapy methods for chronic inflammation. During the next few years, researchers will integrate findings about the regulation and function of the immune system in the bowel and current data about anti-microbial defence on the mucous membrane barrier into a new concept. The individual projects will focus in particular on the role of misdirected communication between epithelium and immune cells during the pathogenesis of IBD. The researchers’ long-term aim is to develop medication that targets the causes of bowel inflammation while retaining the ability of the immune system to fight infections and cancer cells. In addition, they hope to find diagnostic methods that predict patients’ response to therapies – a goal that not only serves to relieve symptoms quickly, but should also contribute to lowering treatment costs.
Research training groups involving FAU
Over the last decades there has been a considerable increase in requirements for mathematical models, methods and efficient software for prediction, control and optimisation in various fields of application such as medicine or materials sciences. Research training group 2339 deals with all aspects of modelling in order to gain a better understanding of complex phenomena and processes that typically involve interfaces, multi-scale problems and small parameters (singular limits). The research programme addresses three main topics: interfaces, complex structures and singular limits and dimension reduction.
Professor Günther Grün is speaker for Erlangen for GRK 2339. The project is currently being funded in the first funding period until 30 September 2022.
Blood stem cell transplants are one treatment option for certain forms of leukaemia and lymph node cancer. However, in some patients immunological reactions can occur between the transplanted cells and the healthy tissue after the transplant. This often causes damage to the skin, liver and intestines. CRC/TR 221 is therefore researching the immunological mechanisms of blood stem cell transplants. The long-term aim is to increase the tolerability of this therapy and to suppress undesirable immune reactions.