Leibniz Institute for Prevention Research and Epidemiology – BIPS

The Leibniz Institute for Prevention Research and Epidemiology – BIPS develops effective strategies for the prevention of chronic, non-communicable diseases. Supporting a healthy life-course early on is our primary goal. The focus of our research is therefore on factors beyond individual diseases, such as lifestyle and environment, biological and social factors, as well as early detection and drug safety. Our research spectrum covers methodological development, the identification of the causes of diseases, and intervention and implementation research. We also offer information to politicians and the general population and provide academic qualification to young scientists. BIPS thus covers the entire cycle of epidemiological research.

Read More
Under the central theme of “population-based prevention research in the life-course,” the institute conducts interdisciplinary epidemiological health research on the national and international level. It develops innovative methods and utilizes diverse data sources to study significant health disorders and to evaluate preventive measures and strategies. In addition, BIPS significantly contributes to the establishment of research infrastructures of national and international importance. To this end, BIPS is also committed to the expansion of research data management and the FAIRification of research data as an important basis of Open Science and Open Data.

For many years, strengthening prevention has been a key scientific, social, and political objective. BIPS is dedicated to achieve this goal with high-quality research based upon methodological research investigating epidemiological questions with a focus on the development of epidemiological and statistical methods. The institute emphasizes the particular importance of the life-course perspective for the health of individuals and the population as a whole with its focus on long-term studies. Research at the institute provides important insights to ensure and improve health and well-being with measures that begin early and are related to transition periods within the life-course.

Herder Institute for Historical Research on East Central Europe

The Herder Institute supports a wide range of scientific activities on the historical and cultural development of East Central Europe through its research, knowledge transfer, documentation and digitalization departments. The focus of interest is on Estonia, Latvia, Lithuania, Poland, the Czech Republic and Slovakia as well as the Russian exclave of Kaliningrad. An important concern is the joint exploration of the interrelation of this core region with its neighbors (above all Germany, Austria, Hungary, Ukraine, Belarus and Russia) in a comparative pan-European context. For several years now, the Digital Humanities have been a major focus of the institute’s work, both in the area of digital and social infrastructure development as well as in research and career development.

Read More
The unique collections consist of a research library on the history and culture of East Central Europe, which now contains more than half a million media units, including a music collection, a samizdat collection and a press collection. Daily and weekly newspapers from East Central Europe have been archived since 1952 and have been evaluated for the period up to 1999 in a systematic collection of more than 5 million clippings. In addition, the Institute also has one of the best image archives with image carriers of all kinds, especially on the art and cultural history of East Central Europe (currently about 700,000 units), a map collection with about 45,000 map sheets, about 1,200 old maps and slightly more than 6,300 aerial photographs from the years between 1942 and 1945. Finally, the document collection focuses on the history of the Baltic
States and continuously collects estates, family archives, individual archival documents as well as photographed archival records (about 1,300 running meters of shelving). The materials held in stock are the starting point for our own research, close cooperation with the two universities in Giessen and Marburg in research and teaching, and close networking with numerous other Leibniz institutions (Leibniz Research Associations).

Current project-leading perspectives

Collecting, preserving, indexing and communicating
Visual history and art history
Reflection and design of digital change
Space – City – Environment
Political orders – conflict – security

Peace Research Institute Frankfurt

The Peace Research Institute Frankfurt is one of Europe’s leading peace and conflict research institutes, and the largest of its kind in Germany. We analyze the causes and patterns of conflict from the global to the local level, attempts to build and sustain peace,
and make practical recommendations on peace and conflict-related issues. We combine basic research with knowledge transfer for policy, the media, and society. To achieve this mission and as a member of the Leibniz Association, we are funded by the German federal government, the state of Hesse, and the city of Frankfurt, and also receive third-party funds.

Read More
PRIF has built up an extensive body of knowledge on key aspects that are critical to the state and future of peace in the world. These topics, which we continuously address, include: arms control and disarmament; international norms, regimes, and organizations; armed conflict and organized violence; military and nonmilitary interventions; peacebuilding and democratization; as well as nonviolent social conflict and societal peace. These topics are investigated in PRIF’s five Research Departments (RD), which are the main research units of the institute. They represent key research fields in peace and conflict studies, dealing with questions of international security (RD I), the role of international institutions (RD II), transnational politics (RD III), peace and conflict at the intrastate level (RD IV), as well as the interaction between political globalization and local lifeworlds (RD V).

The Research Departments also host smaller Research Groups. These groups pool the expertise and coordinate research on a specific topic. Currently, Research Groups deal with emerging technologies as well as biological and chemical weapons (RD I), public international law (RD II), terrorism and radicalization (RD III), regime competition (RD IV) and African intervention politics (RD V). In contrast to the RDs, which are the key administrative research units at PRIF, these groups are smaller and more flexible – they can be established, adjusted and dissolved more easily. While embedded in individual RDs, the groups can also include members from other departments. In addition, Research Groups and individual researchers can join forces in what we call cross-cutting research areas, which address ongoing political developments and academic debates, and facilitate collaboration across the Research Departments as well as with our national and international partners.

PRIF emphasizes the dissemination of practically relevant findings to society at large. As part of our knowledge transfer strategy, we provide background information on current events and analysis for ministries, parties, NGOs, and corporations. We conceive knowledge transfer as a dialogical exchange between science and society, which also engages with ideas and inspiration from society and integrates these into scientific work.

Paul Drude Institute for Solid State Electronics

The Paul-Drude-Institut für Festkörperelektronik (PDI) is a research institute in Berlin, Germany. We perform basic and applied research at the nexus of materials science, condensed matter physics, and device engineering. The institute is part of the Forschungsverbund Berlin and a member of the Leibniz Association.

At PDI, we focus on the fabrication and analysis of nanomaterials for semiconductor technology. Since our foundation in 1992, we have been dedicated to the advancement of materials science, particularly in the development and application of molecular beam epitaxy (MBE). We have the expertise and facilities in-house to manage the entire process from growth of materials, to microstructural characterization, spectroscopic analysis, and theoretical modeling. PDI works closely with partners from science, industry and academia, and actively engages in the transfer of knowledge and technologies to the public. The institute is committed to advancing science through the training and education of young researchers.

Cavendish Laboratory

For 150 years, the Cavendish Laboratory has been at the forefront of scientific discovery. Our researchers work at the frontier of physics, from experimental and theoretical through to applied physics in biology, biomedicine and the life sciences, and the physics of sustainability.
The core of the Laboratory’s programme has been, and continues to be, experimental physics, supported by excellence in theory. Much of our research and teaching has been driven by the desire to understand physics at its most basic level and to answer many of the ‘big questions’ in physics.

Read More
We work across ten key research themes: Astrophysics, Physics of Soft Matter and NanoSystems, Energy Materials, Applied Quantum Physics and Devices, Physics of Life, High Energy Physics, Theory of Condensed Matter, Synthetic Quantum Systems, Fundamental Physics of Quantum Matter and Quantum Information and Control.
These fields encompass a variety of research groups, eachin with its own scientific aims and ambitions but united by two common goals:
– the search for a fundamental understanding of the Universe and the laws that govern it
– seeking new ways to apply the laws of nature.

Leibniz Institute for Immunotherapy (LIT)

The Leibniz Institute for Immunotherapy (LIT) develops innovative therapies for the treatment of cancer, autoimmunity, and chronic inflammation. By reprogramming immune cells through synthetic and pharmacologic intervention, we build cells that save lives.

Our scientific activities are structured into three Research Areas: Discovery, Translation, and Clinical Application. All three work in synergy with one another. Our work starts with basic research into the areas of immune regulation, immune metabolism, cancer, and tissue homeostasis. It carries on with a focus on therapy development—spanning the creation of new formats of genetic and pharmacologic cell manipulation and drug-compliant manufacturing processes. Finally, we seek to apply our discoveries in early clinical trials on patients themselves.

Read More
Discovery: This branch of research investigates the highly complex interactions of different immune cells—with each other and with the organism’s cells—to understand how the immune system maintains the health of the organism.
Translation: This area focuses specifically on the preclinical development of immune-cell therapeutics. This includes the identification, differentiation, expansion, and preclinical testing of therapeutically relevant immune cell populations.
Clinical Application: At the LIT, our core focus is on the clinical translation of scientific findings: We therefore place significant emphasis on the development and roll out of clinical trials and focus on the clinical implementation of the results.


Reinforcing under-utilised crops at the Portuguese living lab GPeaPort – The DIVINFOOD project

In Europe, an increasing number of consumers are embracing plant-based diets and reducing meat consumption. A 2021 survey found that around 30% of Europeans follow a flexitarian diet, focused on plant-base foods with occasional meat consumption. This dietary trend underscores the demand for improved, minimally processed, and nutrient-rich alternatives.
The DIVINFOOD project aims to develop food chains that value under-utilised agrobiodiversity, in order to act against the decline of biodiversity and meet the growing expectations of consumers for healthy, local products that contribute to sustainable food systems. DIVINFOOD operates holistically across the food chain, fostering collaboration among researchers, farmers, processors, market intermediaries, and consumers, to maximize cereals and legumes food chains, realizing their potential for diversified and healthy diets.

Read More
Funded under the European Commission Horizon 2020 Sustainable Food Security call, DIVINFOOD boasts a consortium of 25 European institutions led by the Institut national de recherche pour l’agriculture, l’alimentation et l’environnement, in France, with four Portuguese partners: ITQB NOVA, Évora University, ADECA and Cooking lab. In Portugal, the project focuses on grass pea (Lathyrus sativus).
Carlota Vaz Patto coordinates the ITQB NOVA team engaged in DIVINFOOD, specifically the PlantX Lab. With a history of participatory research with local grass pea farmers in Alvaiázere, Portugal, the team has expanded its scope under DIVINFOOD to include a wider range of farmers and processors, establishing the Portuguese living lab, GPeaPort, under her coordination. Living labs are user-centric innovation systems that foster co-creation, integrating research and innovation within community contexts. GPeaPort aims to revitalize and value grass pea cultivation and use by enhancing varietal diversity and developing innovative food products with local food producers, consumers, chefs, cooks, small-scale processors, rural development associations, local authorities and researchers, using a citizen science approach.
At ITQB NOVA, the Genetics and Genomics of Plant Complex Traits (PlantX) Laboratory, led by Carlota Vaz Patto, specializes in molecular quantitative genetics applied to plant breeding. The lab focuses on identifying genes controlling complex interesting traits, such as disease/drought resistance or seed quality, to develop control models, scientific methods and molecular tools to assist precision breeding programs. Within the scope of DIVINFOOD, PlantX hopes to contribute to the diversification of grass pea production systems, through the improvement of its traditional varieties – boosting tolerance to drought, enhancing nutritional quality, and increasing production capacity. They hope to contribute, in collaboration with other Portuguese stakeholders, to diversify diets, by facilitating the implementation of alternative mild processing methods to obtain innovative food products.

MARUM – Center for Marine Environmental Sciences

MARUM produces fundamental scientific knowledge about the role of the ocean and the ocean floor in the total Earth system. The dynamics of the ocean and the ocean floor significantly impact the entire Earth system through the interaction of geological, physical, biological and chemical processes. These influence both the climate and the global carbon cycle, and create unique biological systems.

MARUM is committed to fundamental and unbiased research in the interests of society and the marine environment, and in accordance with the Sustainable Development Goals of the United Nations. It publishes its quality-assured scientific data and makes it publicly available. MARUM informs the public about new discoveries in the marine environment and provides practical knowledge through its dialogue with society. MARUM cooperates with commercial and industrial partners in accordance with its goal of protecting the marine environment.

Music Technology Group (MTG)

The Music Technology Group (MTG) of the Pompeu Fabra University (UPF) is an internationally recognized research group with 30 years of experience. The group is part of the Department of Information and Communications Technologies, and its research is especially active in topics such as audio signal processing, musical information retrieval, musical interfaces, and computational musicology. The group has extensive experience in research projects both nationally and internationally, and actively works in collaboration with industry. Some technology transfer success stories include Vocaloid, a singing voice synthesiser developed with Yamaha which gained great popularity around the world thanks to the virtual singer Hatsune Miku, and the commercial exploitation of the interactive instrument Reactable, developed at the MTG and used by many popular bands such as Bjork or Coldplay.

Read More
The Music Technology Group (MTG) of the Pompeu Fabra University (UPF) is an internationally recognized research group with 30 years of experience. The group is part of the Department of Information and Communications Technologies, and its research is especially active in topics such as audio signal processing, musical information retrieval, musical interfaces, and computational musicology. The group has extensive experience in research projects both nationally and internationally, and actively works in collaboration with industry. Some technology transfer success stories include Vocaloid, a singing voice synthesiser developed with Yamaha which gained great popularity around the world thanks to the virtual singer Hatsune Miku, and the commercial exploitation of the interactive instrument Reactable, developed at the MTG and used by many popular bands such as Bjork or Coldplay.
In the last years the research team has been involved in some projects related to Artificial intelligence (AI) and its impact in the processes of creating, disseminating, learning and listening to music. The MTG has recently launched a Chair on AI & Music focused on the ethical and social implications of AI in the music sector.
AI has been heralded as a transformative force within the music sector, promising unparalleled opportunities to amplify creativity, accessibility, and efficiency. However, amidst this promise, concerns have arisen from most of the established stakeholders regarding the risks it poses, particularly for artists, prompting calls for robust public regulations. This has triggered an unprecedented public debate in which ethical concerns are taking center stage, underscoring the need for creating AI technologies founded on strong ethical principles.
We should make sure that AI technologies can assist all the music sector stakeholders on their diverse tasks, while placing artists/musicians at the center. Large AI models should aim to capture the essence of music understanding and they should be able to solve specific problems by fine-tuning them. These large AI models should be trained on huge amounts of diverse multimodal music data and their outputs should capture the complex relationships that make up music. The fine-tuned models should support specific tasks related to the creation, production, distribution, access, analysis, or enjoyment of music.

State Museum of Natural History Stuttgart

The aim of SMNS research is to comprehensively understand changes in biodiversity at all levels – from genetic diversity to the diversity of species and communities to the level of ecosystems – over geological timescales. SMNS investigates how the diversity of organisms, species communities and interactions has developed in the course of evolution, discerning patterns of change over time and which biotic and abiotic environmental drivers are responsible for this. The SMNS investigates both evolutionary and anthropogenic influences on biodiversity across different temporal and spatial scales.

Read More
Our expertise encompasses a wide variety of organisms, from charismatic Indonesian tarsiers under threat of extinction to thermophilic neophytes that have spread rapidly and conquered new habitats in the past decades in response to rising temperatures. From giant fossil marine reptiles that were dreaded top predators of the Jurassic Sea to millimeter-sized parasitoid wasps that lay their eggs in other insect larvae, preventing agricultural pests. With more than 12 million specimens in our collection and cutting-edge facilities, we investigate this diversity to unravel the uniqueness of each specimen. It is the fascinating stories behind each specimen that we convey not only in scientific articles but also to our visitors in the exhibition. Be it the first evidence of cancer from 240 million years ago, the predation among giant marine reptiles, as evidenced by bite marks or how the evolution of mouthparts contributed to the diversity we see in some hyperdiverse insect groups.
Through close collaborations, such as with the particle accelerator at KIT, we are able to use synchrotron radiation to create three-dimensional models of insects trapped in amber millions of years ago or visualize the behavior of live parasitoid wasps moving in their host.
We regularly carry out expeditions and paleontological excavations. Both in the vicinity, where many world-famous fossil deposits are easily accessible and also worldwide, with many highly important findings. They range from small, such as the oldest fossil hummingbird to the probably heaviest animal that ever lived on earth: Perucetus colossus. Our scientists describe new species from the meadows and forests in the area where most people would not expect to find the unknown. But also from remote areas such as cave systems across Europe, tropical rainforests or the islands of New Caledonia. We do this together with institutions and researchers from the area and maintain close collaborations that allow for capacity building and vice versa knowledge exchange on an eye level. We are active members in several networks, through which we are able to join forces with other natural history museums, universities and research institutions of all kinds to conduct large-scale projects, such as the German Barcode of Life.