Overview Departments
Centre for Microbiology and Environmental Systems Science
Thilo Hoffmann
Research Focus
Environmental contamination has become a planetary boundary that humanity is now crossing. Thilo Hofmann’s group explores how emerging contaminants behave in natural systems and seeks pathways towards more sustainable solutions. His research investigates the dynamics, fate, and transformations of both organic and inorganic pollutants, including plastics and nanoparticles, and develops strategies for their remediation. Current projects address “forever chemicals” such as PFAS, plastic pollution including tyre wear particles, plastic additives of concern, the impact of chemicals on the human microbiome, nanoparticles emissions from break-wear, and high-resolution mass spectrometry and transformation processes.
Thilo is also Co-Director of the University of Vienna’s Environment and Climate Research Hub, which brings together over 70 leading experts from the natural sciences, humanities, law, and economics to tackle today’s most pressing environmental challenges. He is a Highly-Cited Reseracher and has received awards from the German Academic Scholarship Foundation, the Technical University of Berlin, and the German Chemical Society for Water Chemistry. He is Adjunct Professor at Duke University (USA) and Nankai University (China).
Research environment
The Division of Environmental Geosciences (EDGE) investigates key processes controlling the natural environment and anthropogenic impacts. Researchers at EDGE combine field observations with experimental work, linking molecular-scale mechanisms at environmental interfaces with complex large-scale environmental processes using quantitative modelling. At EDGE, we accept the challenges posed by the release of known and emerging pollutants and recognise the need to understand their impacts on soils, ground and surface waters, and human health using process-based and mechanistic research. We run a state of the art laboratory with high-end mass spectrometry and all lab and field facilities.
Expectations towards postdoctoral fellows in this programme
The mission of EDGE encompasses (1) scientific excellence, (2) a commitment to teaching and mentorship, (3) stewardship to the environment and community and (4) embracing and valuing diversity – in all domains of life. Our goal as group leaders is to conduct science at the highest level and create an ideal environment for a productive and rewarding start to your future professional life. We want you to leave EDGE with the knowledge, skills, and experience necessary for a successful career. At EDGE, we appreciate the contributions made by every colleague and aim to maintain an environment that everyone enjoys at both professional and personal levels.We strive for an open and inclusive culture that fosters scientific curiosity, professional creativity, and personal skills.
Possible research themes or topics for postdoctoral projects
PFAS, Biochar, Remediation, Emerging Contaminants, Plastic Pollution, Plastic Additives, Tire Wear Particles, Breake Wear Particles, Environmental Toxicology, Biotransformation, Fate of Contaminants, Environmental Chemistry,
Weblink for further information:
https://edge.univie.ac.at/
Email: thilo.hofmann(at)univie.ac.at
Stephan Kraemer
Research Focus
We are interested in molecular scale chemical and biochemical mechanisms at mineral surfaces that control diverse processes such as pollutant and nutrient biogeochemistry, and bio-mineral interactions. Currently, we focus on soil organic matter preservation (or degradation), DNA preservation on long timescales at mineral surfaces, or chromium mobilization in the environment. We use experiemnts in the lab and in the field, spectroscopy, microscopy and advanced X-ray methods to understand these processes.
Research environment
We are a group of international PhDs and Postdocs enjoying lively and inspiring intellectual exchange and serious examination of the diverse ways nature reveals itself through experimental results. A first-rate infrastructure for spectroscopy, trace metal analytics and mineral characterization, plant and microbial cultivation, as well as labs for experimental work in geochemistry including a clean room laboratory and labs for working under reducing conditions are at our disposal. Our network of international collaborators significantly extends our infrastructural and intellectual playing field.
Expectations towards postdoctoral fellows in this programme
We invite you to join our quest to understand nature and to develop your own research ideas in collaboration with the research group. If you enjoy contributing Individual creativity and expertise to rigorous joint discussion, you will find a friendly and enthusiastic group for your development as a scientist. Experiences in applying analytical and spectroscopic methods as well as thermodynamic and kinetic modelling to biogeochemical processes are particularly welcome. The working language of the group is English.
Possible research themes or topics for postdoctoral projects
Examples are:
- Enzymatic processes at mineral surfaces
- DNA preservation at mineral surfaces
- Chemical processes regulating the behaviour of redox-active trace metals soils
Weblink for further information:
https://edge.univie.ac.at/kraemer
Email: stephan.kraemer(at)univie.ac.at
Sarah Pati
Research Focus
My research focuses on understanding and mitigating anthropogenic contamination in aquatic ecosystems. My group investigates the occurrence and transformation of organic contaminants in studies ranging from field-scale assessments to elucidating molecular-level reaction mechanisms. Current projects explore photochemical and enzymatic transformation processes using high-resolution mass spectrometry and compound-specific stable isotope analysis. Key areas include oxygenase-mediated biotransformation in microbial communities, photochemical contaminant degradation and O₂ dynamics in sunlit waters, and advancing isotope-based methods for tracing sources and transformation mechanisms of organic contaminants.
Research environment
Our group is part of the Division of Environmental Geosciences at the University of Vienna’s Centre for Microbiology and Environmental System Science—a collaborative, multidisciplinary environment linking microbiology, ecology, and geoscience. State-of-the-art infrastructure includes the SILVER Stable Isotope Facility, Austria’s largest and one of Europe’s leading labs for isotope analysis of light elements, enabling source tracing and process elucidation. Additionally, the Environmental Mass Spectrometry Facility provides cutting-edge high-resolution mass spectrometry for non-target analytics, contaminant transformation studies, and ultra-trace detection. Together, these resources foster innovative research and strong collaborations across faculties and international partners.
Expectations towards postdoctoral fellows in this programme
Postdoctoral researchers are expected to bring strong expertise in environmental chemistry, analytical chemistry, or related fields, combined with curiosity and independence. An interest in developing stable isotope methods for organic contaminants is preferred, however, other innovative projects ideas in the area of organic contaminant transformation processes are also welcome. Strong skills in experimental design, data analysis, and scientific writing as well as commitment to high-quality research are essential. Postdocs are expected to engage with team members, share knowledge, and foster interdisciplinary links within EDGE, CeMESS, and beyond.
Weblink for further information:
https://edge.univie.ac.at/pati
Email: sarah.pati(at)univie.ac.at
Barbara Bayer
Research Focus
Oceans and lakes are home to a plethora of different microorganisms which drive biogeochemical cycles on our planet. The host group's research focusses on the interactions between aquatic microorganisms and their environment, and on understanding the environmental regulation of microbial processes (with a particular focus on carbon and nitrogen cycling). We combine diverse isotope approaches, cultivation, and multi-omics techniques to quantify biogeochemical processes and identify novel microorganisms and metabolic pathways.
Research environment
We are a small, friendly and collaborative research group with a passion for aquatic ecosystems. The research group is fully embedded in the Division of Microbial Ecology (https://dome.univie.ac.at) at the Centre for Microbiology and Environmental Systems Science (https://cemess.univie.ac.at), offering a highly international research environment with shared laboratories and state-of-the-art facilities (https://cemess.univie.ac.at/research/facilities/). As a group focussed on aquatic ecosystems, we also have equipment for and access to marine and freshwater sampling (through various collaborations).
Expectations towards postdoctoral fellows in this programme
I am looking for enthusiastic, motivated, and collaborative scientists with a passion for microbial ecology and/or biogeochemistry of aquatic ecosystems. I expect postodoctoral candidates to develop their independent research ideas while contributing to the group’s shared research goals.
Possible research themes or topics for postdoctoral projects
I welcome applications across the fields of aquatic microbial ecology, biogeochemistry, microbial oceanography, bioinformatics, and/or microbial cultivation.
Current projects in my group include microbial methane and nitrogen cycling, microbial responses to eutrophication and anoxia, and dark carbon fixation in oceans and lakes.
Weblink for further information:
https://dome.univie.ac.at/bayer
Email: barbara.bayer(at)univie.ac.at
David Berry
Research Focus
My research focuses on the function of the human microbiota in health and disease. I have a particular interest in nutrition, inflammation, bacterial-mucosal interactions, cancer, and neurodevelopment. In addition to studying the ecology and evolution of key species in the microbiota, we develop molecular and isotope-labelling approaches for studying uncultivated microorganisms in their natural environment.
Recent projects have included identifying key nutrient niches in the gut microbiota using activity-based cell sorting, elucidating of bacterial proteases responsible for host nerve cell signalling in the skin microbiota, exploring microbiota-mycotoxin interactions in the gut, and investigating the development of the gut microbiota and the gut-immune-brain axis in extremely preterm infants.
Research environment
The research group includes postdocs, technicians, and PhD and master’s students. The group is friendly, international, and collaborative, and is embedded in the open research culture of the Division of Microbial Ecology. Labs are fully equipped with state-of-the-art infrastructure for molecular biology, anaerobic microbiology, and fluorescence and chemical imaging. Additionally, sequencing is available via the Joint Microbiome Facility and computational infrastructure is accessible via the Life Science Compute Cluster. An interdisciplinary research network – both national and international – is existing that includes expertise in chemistry, medicine, mathematical modeling, and metabolomics.
Expectations towards postdoctoral fellows in this programme
The fellow is expected to develop and conduct a cutting-edge scientific research project in the field of human microbiome research. The fellow should disseminate research findings at international scientific conferences as well as in peer-reviewed publications.
Additionally, the fellow should be prepared to interact with and contribute to the research and teaching culture in the group as well as at the institute. The development of the research project as well as career development and mentoring will be supported the host and the host institution.
Weblink for further information:
https://dome.univie.ac.at/berry/
Email: david.berry(at)univie.ac.at
Holger Daims
Research Focus
Our research addresses nitrifying microorganisms that drive key steps of the biogeochemical nitrogen cycle across most ecosystems. Nitrifiers are indispensable in wastewater treatment, yet they also contribute to nitrogen fertilizer losses from arable soils, promoting eutrophication and greenhouse gas emissions. We investigate their ecophysiology, diversity, and evolution using a blend of molecular and chemical imaging techniques with cultivation-based approaches. A special focus is on interactions among nitrifiers and with other organisms, including metabolite exchange and competition in model communities and complex microbiomes.
Another long-standing interest targets the links of microbial community composition and spatial architecture with population functions and interactions. We apply confocal and super-resolution fluorescence microscopy, in-house developed image analysis tools, chemical imaging, and 'omics' to study complex samples like biofilms from diverse systems.
Research environment
My research team is part of the Division of Microbial Ecology (https://dome.univie.ac.at), which promotes a strong culture of sharing laboratories and research infrastructure, including unrestricted access to high-end instruments and analytical platforms. Within our Centre for Microbiology and Environmental Systems Science (https://cemess.univie.ac.at), 23 research groups investigate environmentally and medically relevant microbiomes, together forming an internationally recognized hub for microbiology research.
Expectations towards postdoctoral fellows in this programme
I am seeking a talented, highly motivated postdoctoral researcher who thrives in a team environment and is enthusiastic about microbial physiology and biochemistry, microbial interactions, and/or developing methods for single-cell microbiology or imaging.
Possible research themes or topics for postdoctoral projects
- Ecophysiology and biochemistry of nitrifying microorganisms
- Microbial interactions and interaction networks in complex communities
- Fluorescence labeling and imaging techniques for microbiome research
Weblink for further information:
https://dome.univie.ac.at/daims
Email: holger.daims(at)univie.ac.at
Matthias Horn
Research Focus
Our research focuses on bacteria infecting and residing within eukaryotic cells. Using an array of molecular and computational methods, we discover novel intracellular microbes and decipher the molecular mechanisms and evolutionary processes underlying these associations.
Bacteria living within eukaryotic host cells comprise important pathogens as well as symbionts of humans, animals, and protists. Yet, intracellular microbes have long been underestimated with respect to their diversity, distribution in nature, and their ecological importance.
To address this knowledge gap, we investigate selected non-model organisms, including symbionts of amoeba, arthropods, and cnidarians, as well as viruses infecting protists. Current studies include the search for novel giant viruses, the effects of co-infections with multiple intracellular microbes, genome evolution under the constraints of the intracellular life style, and evolution experiments to better understand the evolution of microbe-host interactions.
Research environment
The E-STEEM position would be fully embedded in the highly international and vibrant research environment, including cutting edge laboratory and computational facilities, at the Centre for Microbiology and Environmental Systems Science (CeMESS) and the Division of Microbial Ecology (DoME). See here for more details about us and our research: https://dome.univie.ac.at/
Expectations towards postdoctoral fellows in this programme
An project idea with an exciting and relevant research question, scientific creativity and independence, and passion and dedication to the research project, the group, and the research environment.
Possible research themes or topics for postdoctoral projects
Microbial symbiosis
Host-microbe interactions
Microbial genome evolution
Giant viruses
Weblink for further information:
https://dome.univie.ac.at/horn
Email: matthias.horn(at)univie.ac.at
Christina Kaiser
Research Focus
Soil microbes govern the largest flux of carbon from land to atmosphere by respiring plant-derived C as CO₂. They also transform part of it into residues that stabilize in the soil matrix. This has led to vast soil C stocks, which remain vulnerable to climate change. My group investigates mechanisms controlling microbial turnover and C stabilization, which unfold at microscopic scales in heterogeneous soil microenvironments. We focus on the interplay between soil microbial ecology, biogeochemistry and complex systems science, using experimental research, field work and theoretical modelling.
We also study rhizosphere interactions and functional aspects of the mycorrhizal symbiosis. We combine stable isotope techniques with chemical imaging to trace carbon and nitrogen through the plant-soil system, and to visualise elemental exchange at the plant-microbe interface. This allows deeper insights into plant-microbe interactions and their consequences for ecosystem C and N cycling.
Research environment
The postdoctoral researcher will be integrated in the Research Group of Christina Kaiser at TER, the Division of Terrestrial Ecosystem Research (https://ter.univie.ac.at/) at the Centre for Microbiology and Environmental Systems Science (https://cemess.univie.ac.at/). We are a committed team and offer a creative working atmosphere in an international scientific and interdisciplinary environment, state-of-the-art laboratory facilities, and flexible working hours.
Expectations towards postdoctoral fellows in this programme
I am looking for a talented, highly motivated postdoctoral scientist who is excited about soil microbial ecology, ecological theory and/or plant-soil microbe interactions. I welcome applications from candidates with an experimental or a theoretical (ecological modelling, complexity science) background, and also from those who are curious to cross borders between experimental work and modelling.
Weblink for further information:
https://ter.univie.ac.at/kaiser
Email: christina.kaiser(at)univie.ac.at
Alexander Loy
Research Focus
Alexander Loy’s research covers a diverse spectrum of topics in microbial ecology and symbiosis, from the role of intestinal microbiota in health and disease, to the ecology and evolution of sulfur-compounds-utilising microorganisms. He has long-standing expertise in developing and applying stable isotope-labelling and molecular biology methods for in situ analysis of complex host-associated and environmental microbiota.
Alexander’s group explores how physiological interactions among microbiome members impacts their environment or host. This includes how environmental microbes impact sulfur, iron, and carbon cycling, as well as how symbionts and pathogens affect the health and nutrition of their hosts. This knowledge could ultimately translate to development of microbiome-based health interventions. Their current projects focus on microbial sulfur metabolism in soils, marine sediments, and the intestinal tract of humans and animals, impact of emerging pollutants on human and environmental microbiomes, as well as the bioprospecting for new secondary metabolites, such as antimicrobials.
Research environment
The research group is embedded in the Division of Microbial Ecology https://dome.univie.ac.at that has a sharing philosophy regarding use of laboratories and research infrastructure, including full access to high-end instruments and analytics.
Expectations towards postdoctoral fellows in this programme
It is expected that the postdoc produces high-quality, independent work while also advancing the group's goals and contributing to the team spirit of the group. The postdoc designs and conducts experiments or studies, analyzes data rigorously, publishes in strong journals, and presents at conferences. It is expected that the postdoc stays current with the field, mentors students, and collaborates actively within and beyond the group. The postdoc writes grant proposals and contributes to the management of their projects. The key mentoring goal is that the postdoc increases their independence, develops original research directions, builds a strong publication record, and prepares for the next career stage.
Possible research themes or topics for postdoctoral projects
Function/ecophysiology of microorganisms in complex microbiomes (e.g. in the intestinal tract, marine sediments, wetlands)
Microbial sulfur cycling (e.g. coupling with iron cycling)
Weblink for further information:
https://dome.univie.ac.at/loy/
Email: alexander.loy(at)univie.ac.at
Jillian Peterson
Research Focus
Animals and plants evolved in a “sea” of microbes. It is therefore not surprising that the vast majority have evolved to rely on microbes for aspects of their health, development, nutrition, and productivity. The host group contributes to this rapidly expanding research field. Their work focuses on beneficial interactions between marine invertebrate animals and their sulfur-oxidising bacterial symbionts, as well as marine and terrestrial plant-microbe interactions. The goal is to understand how the symbiotic partners establish and maintain their intimate relationship from generation to generation, and how these associations evolved in such diverse and widespread habitats, from deep-sea hydrothermal vents to shallow water seagrass beds. We are a dynamic and international group that uses the full suite of methods for understanding diversity and function of uncultured microbes in natural habitats, including high-throughput sequencing, single-cell imaging, and isotope tracing, among many others. We also like to have fun together on our group outings, retreats, and field trips. The mentor has received an ERC Starting Grant in 2018, an ERC Consolidator Grant in 2023, is a Board Member for the FWF, and Editor-in-Chief of the ISME Journal, among other achievements. She has mentored 10 postdocs and 14 PhD students.
Research environment
The postdoc would have full access to the extensive high-tech laboratory infrastructure at our faculty, the Centre for Microbiology and Environmental Systems Sciences, which ranges from high-resolution microscopy to high-performance computing (For more information see https://cemess.univie.ac.at/research/facilities/). As a group focused on marine host-microbe symbioses, we also have access to a large shared saltwater aquarium facility hosted in our building. The host will facilitate further collaborations as needed within their networks in Vienna and worldwide, including at several marine field stations. Funds to cover research and travel expenses are available in the host group.
Expectations towards postdoctoral fellows in this programme
I expect the postdoctoral candidate to bring their enthusiasm, engagement and creativity to this position. An interest in developing leadership skills and experience in e.g., mentoring other early-career scientists in the group, would be a bonus. For more information about my leadership philosophy, please don't hesitate to contact me for a copy of my lab guide.
Possible research themes or topics for postdoctoral projects
The lab has broad interests in the field of marine host-microbe interactions in diverse host animals and plants. Whether you are interested in understanding molecular host-microbe interactions, or in the evolution of these or their ecological significance and effects of climate change, you will feel welcome in the team. We have current projects running on host-microbe symbioses in marine lucinid clams and in seagrasses and macroalgae, and I am happy to discuss possible projects in these 'classic' experimental models, or in others of your choice.
Weblink for further information:
https://dome.univie.ac.at/petersen/
Email: jillian.petersen(at)univie.ac.at
Shaul Pollak Pasternak
Research Focus
We combine experiments, theory, and computation to answer fundamental questions across time and length scales. To understand genetic variation we must understand the ecological reality of bacteria and how microbiomes function.
Our overall aim is to gain a mechanistic understanding of bacterial genetic variation that will allow us to identify conserved genotype-phenotype relationships, eventually using these in large scale ecological models to simplify the representation of bacterial communities without losing the required detail for accurate and insightful predictions.
Our lab has 2 main current focus points:
(1) carbon cycling in soils: where we try to understand how interactions between groups of bacteria with different metabolic functions shape carbon turnover rates, and how we can predict this from metagenomes.
(2) plant bacteria interactions: where we focus on the Variovorax genus and its complex interactions with plants, fungi, oomycetes, and other bacteria on plant roots.
Research environment
We are a medium-sized lab of ~8 people working closely together in a very collaborative and open environment.
Our department is very well equipped with research infrastructure, including multiple fluorescent microscopes, flow cytometry, nanoSIMS, and basic microbiology equipment. Additionally, we have access to broad computational resources required for large-scale data analysis and machine-learning approaches.
Expectations towards postdoctoral fellows in this programme
The candidate is expected to develop and lead their own line of independent research
Weblink for further information:
https://envsysmicro.at
Email: shaul.pollak.pasternak(at)univie.ac.at
Martin Polz
Research Focus
The Polz group is broadly interested in structure-function relationships within microbial communities. How do gene flow, environmental interactions, and selection structure populations? How does viral predation drive the ecology and evolution of microbes? How fast do microbes grow in environmental samples?
The group addresses these questions by a combination of in situ molecular approaches, environmental genomics, traditional physiological and genetic techniques, and modelling. They study patterns of diversity among co-occurring microbes from the level of the entire community to the individual genome and gene. Their model systems include marine microbes as well as animal microbiomes. Their latest projects focus on microbe-virus interactions and on growth dynamics under environmental conditions.
Research environment
The Polz group is located within the Department of Microbial Ecology in the Centre for Microbiology and Environmental Systems Science, one of the leading research institutions for microbial ecology and evolution. State of the art equipment and techniques are available as well as technical support.
Expectations towards postdoctoral fellows in this programme
We seek someone highly motivated and intelligent with a passion for science. The exact training and background is less important than the willingness to explore new areas of microbial ecology and evolution.
Possible research themes or topics for postdoctoral projects
Computational approaches to microbial genomics, experimental and theoretical studies in virus-host interactions, genetics of interactions are all within the potential interest spheres.
Weblink for further information:
https://dome.univie.ac.at/polz/
Email: martin.f.polz(at)univie.ac.at
Michael Wagner
Research Focus
We are particularly interested in bacteria and archaea involved in nitrification, which is an essential step in the global biogeochemical nitrogen cycle. Nitrification leads to fertilizer loss in agriculture, eutrophication, and greenhouse gas emission, but on the other hand is essential for efficient wastewater treatment. The research conducted by my team focuses on the ecology, physiology and evolution of nitrifying microorganisms. We also have a strong and long-standing interest in the symbiotic relationships between nitrifying bacteria and marine sponges.
Another major area of our research involves investigating the interaction network between the human gut microbiome and Parkinson's drugs. Using cutting-edge single-cell chemical imaging methods such as NanoSIMS and Stimulated Raman Spectroscopy, we investigate the effect of these widely used pharmaceuticals on the gut microbiome in situ.
Recently, we have also started exploring conspicuous members of the Candidate Phyla Radiation, also known as Patescibacteria, in wastewater treatment plants, with a focus on host identification and the exploration of interaction mechanisms.
Research environment
My research group belongs to the Division of Microbial Ecology https://dome.univie.ac.at that has a strong sharing philosophy regarding use of laboratories and research infrastructure, including full access to high-end instruments and analytics. In our Centre for Microbiology and Environmental Systems Science (https://cemess.univie.ac.at/) 23 research groups are exploring environmentally and medically relevant microbiomes and represent an internationally well-recognized research hub in microbiology that is also coordinating the FWF Cluster of Excellence "Microbiomes drive Planetary Health“ (www.microplanet.at).
Expectations towards postdoctoral fellows in this programme
I am looking for a talented, highly motivated postdoctoral scientist who is a team-player and excited about microbial physiology and biochemistry, microbial interactions or method development for single cell microbiology.
Possible research themes or topics for postdoctoral projects
- Physiology and biochemistry of nitrifying microorganisms
- Ecophysiology of microbial symbionts of sponges
- Interactions of Patescibacteria with host microbes in wastewater treatment plants
- Chemical imaging of functional traits of microbiome members
Weblink for further information:
n/a
Email: michael.wagner(at)univie.ac.at
Wolfgang Wanek
Research Focus
Wolfgang Wanek’s group focuses on the linkage between plant and microbial functioning and terrestrial ecosystem processes. He has long-standing expertise in applying stable isotopes to unravel the role of plants and soil microbes and their interaction in controlling ecosystem processes, from the local to the continental scale. Research in Wolfgang’s group centres on the biogeochemistry of croplands, grasslands and forests in tropical and temperate biomes, with a focus on carbon, nitrogen and phosphorus (sulfur) cycling in the soil-plant-microbe system. Applying ecophysiological, metabolomics and isotope methods, as well as physicochemical characterization of the respective environments, his group seeks to understand biological and abiotic biogeochemical process controls, how ecosystems respond to current and future global change, and how this feeds back on the functioning of ecosystems. His group has pioneered the development of an array of stable isotope-based methods to enable the quantification of gross element cycling processes that previously could not be measured.
Research environment
The group is composed of 8-10 PhD students and 1-2 Postdocs working at the highest level on the outlined topics. We have direct access to stable isotope and radioisotope measurement facilities, and all kind of normal and innovative wet chemistry, spectrophotometric, chromatographic and mass spectrometric instruments, and in cooperation with the sister division can do all kind microbial and molecular biological work. We care therefore working in a highly cooperative environment, interacting across many different fields and also bringing in our expertise into other projects.
Expectations towards postdoctoral fellows in this programme
I expect the Postdoc to bring new expertise to the group and to work on related topics, being open minded, critical and creative, and driven by curiosity. I expect the Postdoc to work in and for the team but also independent, to like share the findings and publish the outcomes of these studies
Possible research themes or topics for postdoctoral projects
Controls of abiotic, plant and soil microbial processes driving major biogeochemical cycles
Effects of global change (land use, climate change, atmospheric change) on the drivers and hence on the processes
Weblink for further information:
https://ter.univie.ac.at/wanek/
Email: wolfgang.wanek(at)univie.ac.at
Anouk Willemsen
Research Focus
Our research broadly focuses on virus evolution, genome evolution, and phylogenetics. We pay special attention to virus-host co-evolution, the evolution and origin of specific genes, and phenotypic consequences of genotypic novelty.
Research environment
Currently, we are a small research group of 2 PhD students, 2 Postdocs, 1 Technician and 1 PI. We hold bi-weekly group meetings and bi-weekly individual meetings, and are always open to collaborate with other groups. The centre is well equipped with a wide range of equipment that will suit most research projects.
Expectations towards postdoctoral fellows in this programme
I expect the postdoctoral fellow to become an active member of the research group by attending our group meetings and by interacting with and helping other group members advance their projects. I also expect the postdoctoral fellow to develop their project and write their papers independently, with my guidance as needed. I expect the postdoctoral fellow to be prepared for meetings and to explain and present their work in an organised and understandable manner. I also expect the postdoctoral fellow to take responsibility for their own planning and administration.
Possible research themes or topics for postdoctoral projects
virus evolution, genomics, experimental evolution, virus-host interactions, bioinformatics, phylogenetics
Weblink for further information:
https://veelab.univie.ac.at/
Email: anouk.willemsen(at)univie.ac.at
Centre for Sport Science and University Sports
Hans Kainz
Research Focus
Our research aims to unravel how anatomical structures, movement strategies, and mechanobiological processes interact to shape human mobility and musculoskeletal development. We combine 3D motion capture, medical imaging, and muscle activity analysis with advanced musculoskeletal simulations, multi-scale modeling, and machine learning. Current work includes predicting surgical outcomes in children with cerebral palsy (FWF project) and forecasting bone growth through mechanobiological simulation and real-time biofeedback of growth plate loading (ERC project). By linking fundamental insights with clinical needs, we develop personalized, evidence-based strategies to improve diagnosis, treatment, and long-term movement health.
Research environment
Our research environment brings together expertise in biomechanics, mechanobiology, data science, and clinical practice to support highly translational work. State-of-the-art facilities enable 3D motion analysis, medical imaging, and large-scale computational simulations. Ongoing FWF and ERC projects exemplify our integrative approach, combining experimental data, multi-scale modeling, and predictive analytics to address pediatric movement disorders and growth deformities. Close collaboration with clinicians, therapists, and international partners fosters a dynamic setting where innovative methods are rapidly validated and transformed into actionable tools that advance personalized healthcare.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to contribute proactively to our interdisciplinary research by driving independent projects while collaborating closely with team members and clinical partners. They should demonstrate strong expertise in biomechanics, computational modeling, or related fields, and be capable of integrating experimental data with advanced analytical methods. Fellows are encouraged to publish in leading journals, present at international conferences, and support the mentoring of students. They are also expected to engage in grant writing, foster external collaborations, and help translate research outcomes into clinically relevant and innovative solutions.
Possible research themes or topics for postdoctoral projects
Potential postdoctoral projects span the integration of experimental measurements with advanced computational methods to address clinically relevant questions in pediatric and adult movement disorders. One project focuses on patellofemoral instability, combining dynamic imaging with subject-specific musculoskeletal models to identify mechanisms of joint maltracking and guide treatment planning. Another project investigates lower limb fractures in children by linking 3D gait analysis with musculoskeletal simulations to quantify loading patterns, assess impaired movement strategies, and support rehabilitation and prevention. Additional topics may include growth-related deformities, surgery outcome prediction, and real-time biomechanical feedback systems.
Weblink for further information:
https://neuromechanics.univie.ac.at/
Email: hans.kainz(at)univie.ac.at
BARBARA WESSNER
Research Focus
Our working group at the Centre for Sport Science and University Sports investigates the molecular mechanisms underlying the body’s response to different exercise regimes and nutritional supplements. Current research projects focus on age-associated changes in the extracellular matrix of skeletal muscle, immune–muscle cell interactions mediated by exosomes, and biomarker discovery for assessing physical load and recovery. Our studies address a wide range of target groups, from young to older individuals and from inactive persons to highly trained athletes.
An emerging research priority of the group is women’s health, with a particular emphasis on understanding physiological and molecular changes associated with menopause. This includes exploring how menopausal transitions affect muscle adaptation, recovery capacity, and responses to exercise and nutritional interventions.
Research environment
Our research group offers a dynamic and supportive environment for postdoctoral researchers. You will have full access to a well-equipped molecular biology laboratory enabling analyses from gene expression to extracellular vesicle characterization. Close collaborations with clinical partners allow translational research across diverse populations. In addition, state-of-the-art systems for assessing physical activity, performance, and recovery are available, complemented by indoor and outdoor sports facilities for exercise interventions. The group is embedded in an interdisciplinary network through the “Health in Society” research network and maintains a strong international network in exercise immunology, providing excellent opportunities for collaboration, professional development, and the integration of innovative research perspectives.
Expectations towards postdoctoral fellows in this programme
We expect postdoctoral fellows to have a strong background in sport, nutrition or biological science and solid experience with applied molecular biology methods. Candidates should be motivated to advance the research field and contribute innovative ideas to ongoing and future projects. A collaborative mindset, reliability, and a strong social component in daily team interactions are essential.
Possible research themes or topics for postdoctoral projects
- Molecular mechanisms of muscle/immune interactions during exercise, recovery, and aging, with a special focus on exosomes
and/or - Impact of exercise and nutrition on health and well-being during the menopausal transition
Weblink for further information:
https://ucrisportal.univie.ac.at/en/persons/barbara-wessner/
Email: barbara.wessner(at)univie.ac.at
Faculty of Business, Economics and Statistics
Jan Fabian Ehmke
Research Focus
The Business Analytics Group is part of the Department of Business Decisions and Analytics. We investigate combined methods of descriptive and predictive analytics to create data-driven decision support systems. In particular, we investigate and extend methods from applied operations research and business analytics. We are particularly interested in analyzing large amounts of real data (e.g., from transactional or sensor data). We include these within dynamic and stochastic optimization approaches to provide decision support for applications in transportation, mobility, and logistics. We offer undergraduate and graduate classes dealing with business analytics, operations research, and methods of computational transportation.
Research environment
The Research Group Business Analytics is part of the Department of Business Decisions and Analytics. Our group currently has four PhD students and four postdocs, who are embedded in the department. We will provide access to literature and computational power for experiments. We will also integrate the postdocs in co-supervision of our PhD students and provide resources for conference travelling.
Expectations towards postdoctoral fellows in this programme
The expected postdoc should be interested in quantitative research in mobility, logistics, and transportation. They should be willing to co-supervise PhD students and cooperate with members of the group in general. They should be willing to work on high-quality publications to be submitted to renowned international journals. They are expected to build their own research topic that they are known for.
Possible research themes or topics for postdoctoral projects
We are open to state-of-the-art quantitative research in the area of transportation analytics. Examples of our current research topics can be found here: https://busan.univie.ac.at/research/
Weblink for further information:
https://busan.univie.ac.at/
Email: jan.ehmke(at)univie.ac.at
Dmitriy Knyazev
Research Focus
We are a group doing research in Market Design, Mechanism Design, Auctions, and Contests. Research questions may include the design of incentive-compatible mechanisms, strategic interaction under incomplete information, and applications of game-theoretic models to business, public policy, and platform settings. The position is suitable for candidates with strong analytical skills and interests in economic theory, operations research, or decision sciences. Depending on the candidate’s profile, research may also interface with optimization, algorithmic approaches, or empirical validation of theoretical predictions.
Research environment
The postdoctoral researcher will be embedded in the Department of Business Decisions and Analytics at the Faculty of Business, Economics and Statistics, University of Vienna. The department offers a highly international and interdisciplinary research environment, with expertise spanning decision sciences, operations research, economics, and analytics. The postdoc will collaborate closely with faculty working on game theory, market design, and optimization, and will have opportunities to interact with researchers across the faculty and the wider Vienna academic ecosystem. The University of Vienna provides excellent research infrastructure, strong support for international collaboration, and access to doctoral students, seminars, and visiting scholars.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to pursue independent, high-quality research in their area of expertise and to contribute actively to the department’s research activities. This includes developing publishable research projects, collaborating with faculty members, and presenting work at internal seminars and international conferences. Fellows are encouraged to submit their research to leading journals in economics, business, and decision sciences, and to apply for external research funding where appropriate. Depending on departmental needs, postdoctoral fellows may contribute to limited teaching or supervision activities, particularly at the graduate level. Active participation in the academic life of the department and engagement with doctoral students are expected.
Possible research themes or topics for postdoctoral projects
We are completely open to any proposals that involve a substantial analytical approach!
Weblink for further information:
https://sites.google.com/site/dmitriyaknyazev/
Email: dmitriy.knyazev(at)univie.ac.at
Bernhard Kittel
Research Focus
Recently my work has focused on justice attitudes, group decision making and marginal groups in the labor market, using mostly experimental methods, population surveys and interviews. I have been involved as a principal investigator in a DFG research group on need-based justice in distributive decisions, an FP7 framework project on economic self-sufficiency as well as a project on the integration of refugees and I have directed the Austrian Corona Panel Project. Current work includes experimental studies of contestatory and collaborative arguing in deliberation, and I have been co-organizer of a citizens’ convention on the Austrian security strategy. Cooperative research applications on moralizing consumption in the context of climate change and on trust in contract development in the construction sector are currently under review. A book project focuses on need satisfaction as a fundamental justice principle of contemporaneous societies.
Research environment
The department of economic sociology is a very small department in the Faculty of Business, Economics and Statistics entrusted with familiarizing students of business administration and economics with the social and societal context of economic decisions. It offers possibilities of cooperation with, inter alia, the departments of sociology, government, political science, communication sciences, psychology and cultural and social anthropology, but also reaches out to the University of Business and Economics, the Central European University and the Technical University of Vienna. It also has established connections with the research departments of the Chamber of Labor. The department is well connected to various international scholarly networks and integrated in the German academy of sociology, which fosters theory-driven empirical work in the tradition of analytical sociology. The Faculty has a center for experimental economics and currently builds a data center.
Expectations towards postdoctoral fellows in this programme
A postdoc researcher is expected to build an own, independent research program that nevertheless is capable of connecting to one or more research areas in the department, which are, broadly speaking, (1) structures, institutions and dynamics of the labor market and the welfare state in Austria and in comparative perspective, (2) justice attitudes and behavior, (3) political and societal responses to climate change, and (4) trust in markets. The postdoc researcher will also teach two courses per semester in the field of economic sociology in the curriculum of (international) business administration. The postdoc researcher is expected to publish in highly reputed scientific journals and to acquire external funding.
Possible research themes or topics for postdoctoral projects
The search will be thematically open, but some connection to ongoing research in the department, not necessarily only my own work, would be appreciated. An experimental approach would be very welcome, but other analytical approaches such as survey research or computational social science would also be considered an asset.
Weblink for further information:
https://soc.univie.ac.at/en/
Email: bernhard.kittel(at)univie.ac.at
Christoph Fuchs
Research Focus
My research lies at the intersection of marketing, human behavior, and technology. I study how technological and institutional changes shape individual perceptions, judgments, and behavior, and how these psychological processes translate into broader market and societal outcomes. Methodologically, my work combines experiments, surveys, and large-scale secondary data.
My current research agenda focuses on four main areas. First, I examine how artificial intelligence (AI) affects consumers, workers, and society. By combining experimental methods with cross-country secondary data, I study how AI adoption influences trust, perceived fairness, political attitudes, and acceptance of market and policy outcomes. Second, I investigate how consumers perceive and respond to new technologies, identifying psychological factors that drive adoption, resistance, or abandonment beyond functional performance. Third, I study how policymakers can design laws, regulations, and institutional “S-frames” that reduce psychological reactance and increase public acceptance. Finally, I explore the psychological foundations of creativity, examining how agency, constraints, and involvement shape creative performance and innovation.
Research environment
The research environment is collaborative, supportive, and strongly interdisciplinary. Professors, PhD students, and postdoctoral researchers work closely together in a setting that values open intellectual exchange, constructive feedback, and joint problem solving. Regular research meetings and seminars foster continuous learning and high academic standards. The group actively collaborates with faculty in psychology and economics, allowing researchers to draw on complementary theoretical perspectives and methodological approaches. Members benefit from access to laboratory infrastructure and data resources that support both experimental and large-scale data-driven research. Methodological rigor, transparency, and open science practices are emphasized across projects. The group aims to publish its work in top-level field journals as well as leading general-interest journals. Networks with other institutions in Vienna, including the Vienna University of Economics and Business (WU Vienna), further support academic development and cross-institutional research initiatives.
Expectations towards postdoctoral fellows in this programme
We expect postdoctoral researchers to be intellectually curious, highly motivated scholars who aim to develop an independent research profile within a collaborative and supportive environment. Postdocs are encouraged to pursue their own research ideas and also collaborate with professors. Solid training in statistical methods and experimentation is required, along with adherence to open science practices; further methodological development is actively supported. We value analytical rigor, initiative, and openness to feedback. Postdocs are expected to participate in research meetings and seminars. We expect a background in business research (e.g., marketing), psychology, or economics, with an interest in interdisciplinary research. We expect postdocs to produce papers targeted at high-quality publications and participate in grant applications.
Possible research themes or topics for postdoctoral projects
Specific topics would need to be discussed in person.
Weblink for further information:
https://marketing.univie.ac.at/team/wissenschaftliche-mitarbeiterinnen/christoph-fuchs/
Email: christoph.fuchs(at)univie.ac.at
Christa Cuchiero
Research Focus
The Research Group Quantitative Risk Management and Mathematical Finance works at the interface of mathematical finance, risk management, stochastics, statistics as well as machine learning and AI .
Many of the mathematical and stochastic problems that we are dealing with arise from questions in finance and economics with a focus on risk assessment. To exploit upside risks on the one hand and reduce downside risks on the other hand, mathematical models which are as close as possible to reality should be chosen. Nowadays this has become a feasible task as AI and machine learning approaches have opened the door to more data-driven and thus more robust models, enabling realistic data driven risk inference.
Concrete topics that we are working on include universal structures in mathematical finance, affine and polynomial processes,
theory and applications of machine learning, especially signature methods and deep neural networks.in dynamic contexts.
Research environment
Our research group on Quantitative Risk Management and Mathematical Finance is part of the Department of Statistics and Operations Research. A part from the more senior faculty members our group currently has two PhD students and two postdocs, and regularly hosts guest researchers.
We will provide access to literature and computational power for numerical implementations. We will also integrate the postdocs in our research seminars and provide resources for conference traveling.
Expectations towards postdoctoral fellows in this programme
The postdoc candidates should be interested in the topics of our research group and should have a finished their Phd studies at the interface of mathematics, stochastics, finance and machine learning. They should be willing to co-supervise PhD students and cooperate with members of the group in general. They should be willing to work on high-quality publications to be submitted to renowned international journals and build their own research portfolio.
Possible research themes or topics for postdoctoral projects
For research themes we refer to recent publications and talks of the members of the research group.
Weblink for further information:
https://quarimafi.univie.ac.at/
Email: christa.cuchiero(at)univie.ac.at
Tatyana Krivobokova
Research Focus
Our group works on high-dimensional regression and dimension reduction, simultaneous inference, modelling of complex experimental data, change-point analysis and differential privacy for dependent data. We have collaborative projects in Biology (microbiom study), Biophysics (protein dynamics), Chemistry (high-throughput experimental data), Astrophysics (simulation of galaxies) and several more.
Research environment
The Research Group Statistical Methods is part of the Department of Statistics and Operations Research. Our group currently has two PhD students and two postdocs, who are embedded in the department. We will provide access to literature and computational power. We will also integrate the postdocs in co-supervision of our PhD and Masters students and provide resources for conference travelling.
Expectations towards postdoctoral fellows in this programme
The expected postdoc should have a solid background in mathematical statistics and ideally have experience or interest to work on collaborative projects with natural sciences. They are expected to publish in high-ranked journals of the field and develop their unique profile.
Weblink for further information:
https://sme.univie.ac.at
Email: tatyana.krivobokova(at)univie.ac.at
Faculty of Chemistry
Robert Ahrends
Research Focus
Even with a lipid content of over 10% in the human body, lipids were not in the central scientific focus during the last decade. However, more and more evidence is provided that non-genetically determined biomolecules such as metabolites and lipids are the key to biomolecular regulation. Today it is obvious that lipids are not only important for energy homeostasis and as an environmental-cellular barrier, but also represent a central part of our signal transduction machinery. Disruptions of the sensitive lipid metabolism are highly correlated with different types of diseases including thrombocytopenia, metabolic syndrome, diabetes, obesity and hyperlipidemia. This is especially true for the latter ones, which are also reaching pandemic levels, causing a larger annual health burden than infectious diseases. Therefore, lipid metabolism is again becoming an emerging scientific field and is a central part of pharmacological research today (statins, cyclooxygenase inhibitors). Therefore, the mission of the Lipidomics group in Vienna is to understand lipids in context with their proteins (enzymes) and building blocks (metabolites) in a true systems biology way.
Research environment
Our research group is embedded in the Faculty of Chemistry and Department of Analytical Chemistry the largest Analytical Chemistry Department in Europe with state of the art compute and MS infrastructure.
Expectations towards postdoctoral fellows in this programme
Expectations for the hired postdoc involve deep research, significant career development, and high standards for professionalism within a collaborative lab setting, all focused on transitioning from student to independent researcher. You're expected to master your field, drive projects, publish quality work, and build your own scientific identity, often with increasing independence over time.
Possible research themes or topics for postdoctoral projects
- Computational Science in Mass Spectrometry
- Cardiovascular lipidomics
- Neurolipidomics
- Lipids in adipogenesis
Weblink for further information:
https://ahrendslab.univie.ac.at/projects/
Email: robert.ahrends(at)univie.ac.at
Dominik Kopczynski
Research Focus
The research team aims to create innovative algorithms for interpreting mass-spectrometry-based lipidomics data generated from large-scale experiments. Our work includes improving computational workflows such as harmonizing lipid identifier metadata and offering unified reporting tools, developing new identification strategies with clear false-discovery-rate evaluation, and combining lipidomics outputs with complementary MS-driven omics data like proteomics and metabolomics. As mass spectrometry technology continues to advance rapidly, the group seeks to close the gap between these technological developments and the current shortage of specialized, high-performance software within the still-emerging field of computational lipidomics.
Research environment
The research group is closely connected with professional organizations, such as the International Lipidomics Society, and collaborates extensively with analytical research teams in the faculty of chemistry. Our lipidomics partners are located worldwide, including in Australia, Singapore, Europe, and the United States. Founded in 2025, our young group is enthusiastic about expanding and contributing meaningfully to the relevant scientific communities. We developed tools such as LipidCreator, LipidSpace, Goslin, and the lipidomics checklist. Our group has access to a high-performance computing server, and through partnerships with other faculty laboratories, we have access to lipidomics, proteomics, and metabolomics datasets generated from various mass spectrometers analyzing biological samples. The selected candidate for this bioinformatics role will also be provided with a powerful workstation.
Expectations towards postdoctoral fellows in this programme
The candidate has a solid foundation in bioinformatics, computational biology, or a similar discipline. You are skilled in Python or R for data analysis and rapid prototyping. Knowledge of lower-level programming languages such as Rust or C++, or experience in computational mass spectrometry, is a plus. You are well-organized, capable of handling multiple projects simultaneously, and enthusiastic about creating new methods, pipelines, and workflows. Familiarity with common bioinformatics ecosystems, such as Bioconductor, Snakemake, or Nextflow, and containerization tools like Docker, is advantageous. You bring a strong problem-solving attitude, intellectual curiosity, and an eagerness to help shape and strengthen this young research group.
Possible research themes or topics for postdoctoral projects
Based on our four core research pillars – i.e., efficient algorithms, confident analysis, standardization, and integration - we offer a range of engaging research topics. Emerging MS technologies and approaches, such as ion-mobility spectrometry and OAD fragmentation, present opportunities to enhance lipidomics through the development of customized, high-performance algorithms for rapid identification and quantification. For data integration, an information retrieval system leveraging research publications can be created to address gaps in existing biological databases. Additionally, establishing standardized computational lipidomics workflows and systems, for instance, for reliable identification, will improve reproducibility and interoperability across international research groups.
Weblink for further information:
https://lifs-tools.org/ - https://lipidomics.at
Email: dominik.kopczynski(at)univie.ac.at
Evelyn Rampler
Research Focus
My research is driven by high-resolution mass spectrometry as the central technology for creating next-generation analytical workflows for complex biomolecular systems. I develop MS-based omics strategies that combine advanced chromatographic separations, innovative and alternative fragmentation approaches, and concepts from structural mass spectrometry to achieve confident and chemically sound molecular characterization. A major focus of my lab is glycosphingolipidomics, one of the most analytically challenging fields due to extreme structural diversity. In addition, I maintain strong interests in lipidomics, quantitative analysis, standardization, and reproducibility. I am open to postdoctoral researchers interested in lipidomics, glycosphingolipidomics, or complex molecular analysis such as polymers, as well as those aiming to further advance the underlying analytical and bioinformatics workflows. The overarching goal is to move MS-based omics beyond descriptive analysis toward automated, standardized, and chemically sound molecular annotation.
Research environment
Our research group is embedded in the Faculty of Chemistry and Department of Analytical Chemistry the largest Analytical Chemistry Department in Europe with access to high-resolution mass spectrometers and sophisticated separation and fragmentation methods.
Expectations towards postdoctoral fellows in this programme
The successful postdoctoral researcher is expected to conduct independent, high-level research while contributing to an open, communicative, and collaborative lab environment. Candidates should have a strong background in analytical chemistry, mass spectrometry, and/or chemical informatics, and be motivated to develop their own scientific identity. Open communication, teamwork, and the ability to work effectively in interdisciplinary and culturally diverse teams are essential.
I am a strong advocate for women in STEM and I am one of the coordinators of the Women in Chemistry (WoChem: https://wochem.univie.ac.at/) network at our faculty. Recognizing that women are disproportionately lost from academic career paths due to the well-documented leaky pipeline, I am particularly committed to supporting women at the postdoctoral career stage. This includes targeted mentoring, career development support, and active facilitation of national and international networking opportunities. All postdoctoral researchers are expected to uphold high scientific standards and collegiality while driving projects forward with increasing independence and visibility.
Possible research themes or topics for postdoctoral projects
Postdoctoral research projects will focus on the development of advanced mass spectrometry–based analytical workflows for complex molecular systems. Potential topics include the development of novel MS-based glycosphingolipid assays; untargeted analytical strategies for highly complex workflows, including multidimensional separations (e.g., 2D approaches) and advanced fragmentation techniques such as EAD; the establishment of new assays on state-of-the-art instrumentation (e.g., ZenoTOF 8600); and the development of automated annotation workflows for lipidomics and glycosphingolipidomics. Application-driven projects may include MS-based studies of stem cell differentiation, adipogenesis, and diabetes-related models, with a strong emphasis on analytical and computational method development.
Weblink for further information:
https://ramplerlab.univie.ac.at/
Email: evelyn.rampler(at)univie.ac.at
Christian Becker
Research Focus
The institute provides an excellent environment for research at the interface of synthetic organic chemistry, molecular biology, biophysics and biomedicine. We combine chemical approaches, such as the synthesis of modified amino acids with solid phase peptide synthesis (SPPS) and biotechnological methods to address scientific challenges in the areas of protein biochemistry, neuropeptide research, biomaterials and medicine. Combining synthetic chemistry with molecular biology provides a unique opportunity to generate biomolecules that are not or not easily accessible by any other technique.
The resulting peptides and proteins carrying (posttranslational) modifications allow us to study specific biological questions, such as folding, activity and interaction with other biomolecules in vitro and in vivo. Biotechnological and biomedical applications of such chemically modified peptides, proteins and hybrid molecules are an important part of our research.
Research environment
UNIVIE provides outstanding research infrastructure, including access to relevant databases, research journals, books, and ebooks. IBC provides office infrastructure (desk, computer equipment, telephone, email account, electronic lab book). Lecture halls and laboratories are equipped with state-of-the art facilities. The Becker lab, as a part of IBC, provides access to all the equipment necessary for advanced peptide & protein chemistry and molecular biology, including access to analytical and preparative HPLCs (>5), mass spectrometers (>5), CD and NMR, UV-Vis spectrophotometer including polarization and TCSPC modules, as well as to plate readers, incubators, centrifuges, PCR cyclers, etc.
Expectations towards postdoctoral fellows in this programme
The Becker group at the Institute of Biological Chemistry seeks enthusiastic postdocs with experience in peptide or protein chemistry for elucidating the impact of posttranslational modifications (PTMs) in protein function and neurodegenerative diseases. Applicants with a focus on peptide material science and biomineralization are also highly welcome.
Active participation in research, teaching and administration is expected. This includes the development of an independent research profile based on active participation in conferences, preparation of publications, applications for third-party funding as well as teaching and supervision of students and involvement in teaching and research administration.
Weblink for further information:
https://biologischechemie.univie.ac.at/en/
Email: christian.becker(at)univie.ac.at
Thomas Böttcher
Research Focus
Our research focuses on the chemistry of microbial interactions and strategies towards the chemical modulation of microbial population behaviour and viability. By identifying microbial metabolites involved in species-species interactions, microbe-host interactions and prophage induction, we aim to better understand the chemical basis of human diseases and the impact of the human microbiome on health. We also aim to synthetically exploit these natural products and their privileged core-structures for the design of customized antibiotics and anti-virulence compounds for precision medicine.
Research environment
Our research group bridges the faculty of Chemistry and the Centre for Microbiology and Environmental Systems Science. Our group has access to state of the art laboratories for organic synthesis, chemical analytics (mass spec, HPLC), biochemistry labs, facilties for protein purification and a cutting edge safety level 2 laboratory for work with pathogenic bacteria and fungi.
Expectations towards postdoctoral fellows in this programme
- highly motivated researcher aspiring to an academic career
- develop your personal scientific profile
- focussing on an innovative research project
- engaging in a dynamic work enironment
- inspiring and becoming inspired
- publishing high quality work
- planning your next career steps supported with our mentoring
Possible research themes or topics for postdoctoral projects
- phage microbe interactions
- microbe-host interactions
- novel antibiotics
- virulence inhibitors
- chemical tools for biology
- chemical proteomics
Weblink for further information:
https://boettcher-lab.univie.ac.at/
Email: thomas.boettcher(at)univie.ac.at
Markus Muttenthaler
Research Focus
Our research group harnesses bioactive peptides and nature's biodiversity to develop molecular tools, diagnostics, and therapeutics. We integrate computational methods, peptide and medicinal chemistry, pharmacology, chemical biology, and translational research to deliver biomedical innovations for pain, cancer, gut disorders, and neurological diseases. Our work spans fundamental discovery to translational applications, offering postdocs opportunities to contribute to impactful, cutting-edge science.
Ongoing research includes:
- Oral gut-specific drug development for gut disorders, intestinal biofilms and gut-brain axis
- Nanoformulation for oral drug delivery
- Theranostics for breast and prostate cancer
- Neuropeptide research and photopharmacology for understanding memory formation
- Venom discovery research for pharmacological tool and drug development
- Oxytocin and vasopressin roles in autism and social behaviour
- Development of blood–brain barrier shuttles for brain delivery
Research environment
Our group is based at the Institute of Biological Chemistry, providing a highly interdisciplinary and collaborative setting that bridges chemistry, biology, and medicine. Postdoctoral researchers will have access to state-of-the-art laboratories for peptide synthesis, medicinal chemistry, molecular biology, and pharmacology, equipped with peptide synthesisers, HPLC systems, Incucyte live-cell imaging, and cell culture suites. Core facilities include NMR, mass spectrometry, X-ray crystallography, and high-resolution imaging platforms. We foster a vibrant intellectual environment through seminars, journal clubs, and training workshops. Strong collaborations with clinicians and international networks enable translational impact and global visibility. Career development is a priority: fellows receive tailored mentoring, grant-writing support, and funding for conferences and networking events. This infrastructure and culture empower postdocs to thrive and lead high-impact research.
Expectations towards postdoctoral fellows in this programme
We expect postdoctoral researchers to bring creativity, independence, and a strong commitment to scientific excellence. Fellows should actively contribute to project design and execution, take ownership of their research, and collaborate effectively within our multidisciplinary team.
Key expectations include:
- Driving innovative, high-quality research and publishing in leading journals
- Engaging in critical discussions at group meetings and seminars
- Mentoring junior researchers and fostering an inclusive team culture
- Contributing to grant writing, translational strategies, and industry engagement
- Communicating results clearly through presentations and publications
We value initiative, problem-solving skills, and a proactive approach to career development. Fellows are encouraged to develop leadership skills, explore new ideas, and shape projects that advance both fundamental science and translational impact.
Possible research themes or topics for postdoctoral projects
We offer diverse opportunities aligned with our expertise in peptide science, chemical biology, and translational research. Projects can be tailored to the fellow’s interests and skills, with strong support for innovation and impact.
Potential themes include:
- Oral gut-specific peptide therapeutics for treating chronic gut disorders and indications linked to the gut-brain axis
- Strategies to overcome intestinal biofilms and improve gut health
- Nanoformulation technologies for oral peptide delivery
- Neuropeptide research and photopharmacology to understand memory formation
- Venom discovery research for pharmacological tool and drug development
- Theranostic approaches for breast and prostate cancer
- Development of blood–brain barrier shuttles for brain drug delivery
These projects combine cutting-edge science with translational potential, offering opportunities for high-impact publications, patentable discoveries, and industry engagement.
Weblink for further information:
https://www.neuropeptidelab.com/
Annette Rompel
Research Focus
At the Department of Biophysical Chemistry (University of Vienna), research is centred on two interconnected pillars. First, metalloenzymes from natural sources such as flowers and mushrooms are discovered, expressed, purified and subjected to detailed structural and functional analysis, including X-ray crystallography, spectroscopy and mechanistic studies. Second, polyoxometalates (POMs) are designed, tuned and exploited as versatile probes and carriers in biological systems. In this highly interdisciplinary setting, the chemistry–biology interface is explored from molecular speciation and supramolecular assembly to reactivity in complex media and cellular environments. Particular emphasis is placed on how metal centres and metal-oxo clusters govern catalysis, recognition and signalling in living systems, and on how these principles can be translated
Research environment
Research is conducted within an international and interdisciplinary group. A collaborative open-lab culture is maintained, with projects on metalloenzymes, polyoxometalates and biological systems being jointly discussed in regular meetings, journal clubs and project workshops. Experimental work is supported by well-equipped laboratories for molecular biology, protein expression and purification, spectroscopy and analytical chemistry. State-of-the-art crystallography, NMR and mass spectrometry are provided through central university core facilities, alongside platforms for imaging, electron microscopy, cell culture and high-performance computing. Intensive collaborations are established with researchers across Europe, the USA, Asia and Africa, and joint projects are pursued within national and international networks. The environment is characterized by short communication paths, flat hierarchies and an atmosphere in which scientific curiosity and interdisciplinary exchange are actively promoted.
Expectations towards postdoctoral fellows in this programme
Postdoctoral researchers are expected to take scientific ownership of their projects, drive them forward independently and actively contribute to the intellectual life of the group. A strong background in (bio)inorganic chemistry, biochemistry, structural biology or a related field, combined with solid experimental skills and critical data analysis, is anticipated. Initiative in developing new ideas, methods and collaborations is highly valued, and close scientific support from the PI and senior group members is provided whenever needed. Postdocs are expected to communicate their results clearly in manuscripts, conference contributions and internal presentations, and to contribute to writing proposals where appropriate. Engagement in supervision and day-to-day mentoring of students is considered an integral part of the role, as is a constructive, respectful attitude in the lab. An open mindset, reliability, good time management and genuine enthusiasm for interdisciplinary research at the chemistry–biology interface are essential.
Possible research themes or topics for postdoctoral projects
Optional research themes can revolve around two connected areas. A first line of work centres on polyphenol oxidases and related type-3 copper enzymes, asking how their active sites control substrate selectivity, oxygen activation and biological roles in plants and fungi. Projects may link sequence or structural features to activity, compare enzymes from different organisms, or explore how their chemistry can be redirected towards greener oxidation processes. A second line of work focuses on polyoxometalates in biological environments, with emphasis on speciation in realistic media (buffers, cell culture conditions) and on their use as transmembrane carriers. Projects may map speciation under biologically relevant conditions, correlate it with uptake and response in cells, and optimise carrier designs for the delivery of defined cargoes. Within these frames, individual topics can be shaped according to the candidate’s interests.
Weblink for further information:
www.bpc.univie.ac.at
Email: annette.rompel(at)univie.ac.at
Giorgia Del Favero
Research Focus
The main research focus of the Biophysical Toxicology team is the study of molecular mechanisms of toxicity related to cellular mechanotransduction.
The ability of cells to transform physical stimuli into biochemical signals accompanies essential physiological functions, such as in the intestinal compartment or in the complex mechano-chemical environment of the urinary tract.
Understanding these pathways is fundamental for the creation of models that faithfully reproduce human physiology and can be used for the development of NAMs (New Approach Methodologies) as alternatives to animal testing.
These workflows can be applied for the study of food and environmental contaminants, to explore pathways of chemical carcinogenesis or to mechanistically investigate food-drug interactions and chemoresistance.
Research environment
The activities of the Biophysical Toxicology team are integrated into the vibrant environment of the Faculty of Chemistry. Our laboratories are fully equipped to perform advanced cell culture experiments, microscopy-based analyses and workflows typical for molecular toxicology.
For a methodological overview, please refer to the following recent publications:
[1] Bergen J, Iriarte-Mesa C, Rieger J, Crudo F, Marko D, Kleitz F, Berthiller F, Del Favero G. Integrating physiologically-inspired nanoparticles with intestinal cell co-culture for enhanced activity profiling of food constituents and contaminants in vitro. Food Res Int. 2025. doi: 10.1016/j.foodres.2025.116206.
[2] Karasová M, Jobst M, Framke D, Bergen J, Meier-Menches S, Keppler B, Koellensperger G, Zanghellini J, Gerner C, Del Favero G. Mechanical cues rewire lipid metabolism and support chemoresistance in epithelial ovarian cancer cell lines OVCAR3 and SKOV3. Cell Commun Signal. 2025. doi: 10.1186/s12964-025-02144-9.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to develop an independent scientific profile aligning to the research aims of the Biophysical Toxicology group. Together with the PI Del Favero, Post-Docs support the team with the design and optimization of new experimental workflows (e.g. based on complex co-culture models, organ-on-chip technologies, 3D cell cultures), mentoring interns and students, as well as contributing to the teaching activity (typically for the subjects Toxicology, Food Toxicology, Ecotoxicology and related Lab Courses). We also welcome fellows with documented expertise in computational toxicology to support the ongoing growth of cross-disciplinary research lines related to combined in silico-in vitro approaches.
Weblink for further information:
https://biophysical-toxicology.univie.ac.at/
Email: giorgia.del.favero(at)univie.ac.at
Benedikt Warth
Research Focus
The Global Exposomics & Biomonitoring Laboratory applies a multi-disciplinary approach to better understand the impact of food and environment-related molecules on human health and disease from a global perspective. We combine mass spectrometry, in vitro toxicology and systems-based approaches to investigate exposure, metabolism, and toxicity from a unique exposomics perspective.
Research environment
Our research group is embedded in the Faculty of Chemistry and the Department of Food Chemistry and Toxicology the only Department in Europe combining state-of-the-art Exposome Research with Food Chemistry and Toxicology. We offer advanced MS infrastructure via access to the EIRENE-AT research infrastructure.
Expectations towards postdoctoral fellows in this programme
Expectations involve frontier research, significant career development, and high standards for professionalism within a highly international and collaborative lab setting. You are expected to develop a new field (your field) and build your own scientific identity with increasing independence over time.
High profile publications, regular attandance at leading international meetings and the involvement in high-end projects in the group (ERC CoG, ESFRI) is expected so that at the end of the program you are an independant researcher and competitive candidate for e.g. an Astra Award or ERC Starting Grant.
Possible research themes or topics for postdoctoral projects
Ideas include but are not limited to:
1.) Biomarkers of Food Processing: You might take advantage of our vast and exclusive cohort samples to screen for biomarkers of dietary intake and food processing and link this to potential health outcomes.
2.) Food Omics: You might use our samples and acquired data sets for linking food questionnaires with MS data and other omics datasets.
3.) Computational Exposomics based on mass spectrometry data: Advance and automated high-throughput data evaluation and integration in multi-omic settings.
These topics are clearly linked to the research performed in our group but are not developed well to date and leave a lot of room to develop your own research space and profile.
Weblink for further information:
https://exposomics.univie.ac.at/
Email: benedikt.warth(at)univie.ac.at
Jia Min Chin
Research Focus
We are developing next generation materials by employing multi-length scale assembly from the molecular level all the way to the macroscale and are developing new methods to process and structure Metal-Organic Framework (MOF), Covalent-Organic Framework (COF) materials and metallic nanoparticles to create hierarchically complex and functional materials for environmental and engineering applications
Research environment
My group provides a high-performance research environment centered on advanced materials chemistry, with deep expertise in MOFs, COFs, photonic materials, and functional coatings. Researchers have full access to extensive infrastructure at the University of Vienna, including state-of-the-art microscopy suites (SEM, TEM, AFM), additive manufacturing facilities, thin-film deposition tools, photonic and spectroscopic laboratories, and well-equipped synthetic chemistry labs. The group is embedded in a strong collaborative ecosystem, working closely with leading academic partners across Europe, the USA, and Asia, as well as industrial partners in coatings, energy technologies, and advanced manufacturing. This network enables joint projects, shared facilities, and pathways to high-impact publications. Additional departmental resources—technical staff, mechanical workshops, computing clusters, and centralized analytical platforms—ensure a robust environment for ambitious, multidisciplinary research.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows in this programme will play a central role in defining and driving high-risk, high-gain projects in (i) colloidal assembly and field-responsive photonic materials, or (ii) advanced composite materials for environmental remediation or energy conversion and storage. They are expected to lead experimental design, coordinate use of state-of-the-art facilities, and convert results into visible publications and competitive grant applications. Fellows should serve as key scientific drivers within the group: initiating collaborations, representing the team at international conferences, and co-shaping emerging research directions with the PI. A core expectation is that they both seek mentorship and provide it—co-supervising PhD and MSc students, fostering an open, rigorous lab culture, and helping build a vibrant, supportive research environment.
Possible research themes or topics for postdoctoral projects
Colloidal assembly for electroresponsive photonic applications; MOF/COF materials for energy harvesting; Bio-inspired coatings for thermal, energy or anti-fouling applciations
Weblink for further information:
https://bioinspiredmateria.wixsite.com/group
Email: jiamin.chin(at)univie.ac.at
Tim Gruene
Research Focus
Analytical chemistry of (single) crystalline compounds, in particular 3D ED (3D electron diffraction).
Research environment
The Core Facility Crystal Structure Analysis overlooks seven instruments of crystal analysis. The world's first electron diffractometer was installed by the group, now having two of these break-through instruments. We have international collaborations with ETH Zurich (zeolite characterisation), Paul-Scherrer-Institut (detector development), Uni Konstanz (improving data quality). In addition to the head, there are currently two post docs, one PhD student, and one technician. We aim for high-profile research, like our recent results in Nature.
Expectations towards postdoctoral fellows in this programme
Explicit interest either in the use of crystallography for chemical research or materials science, or in methods development. Good background in crystallography. I welcome ambitious postdocs, ideally aiming for a career in research. The postdoc should be open to collaborations in a wide sense.
Possible research themes or topics for postdoctoral projects
experimental determination of partial charges in molecules; improving electrostatic potential from crystallographic data; comparison with theoretical computations
Weblink for further information:
https://homepage.univie.ac.at/tim.gruene/
Email: tim.gruene(at)univie.ac.at
Jory Lietard
Research Focus
The main focus of research in our lab is on nucleic acid chemistry and the synthesis of DNA and RNA oligonucleotides. Specifically, we focus on nucleic acid synthesis at extremely high throughputs using a method that’s unique in the world: microarray photolithography. With microarray photolithography, we can simultaneously synthesize hundreds of thousands of unique DNA and RNA sequences at high density on a single surface of ~1 cm². Each of these unique sequences can be interrogated individually and simultaneously, and these nucleic acid microarrays can be used to look into the expression of genes, but we are exploring other avenues such as aptamer discovery, enzymatic synthesis, therapeutic oligonucleotides, nanopore sequencing and DNA data storage. In addition, we are interested in expanding the chemistry of microarrays to RNA and to chemically modified oligonucleotides, or XNA microarrays.
Research environment
Our lab is equipped with two photolithography devices, the second one having arrived in 2025 and being a more modern iteration of the first device. A third one is scheduled to ship in 2026. This highly-specialized equipment, common in the semiconductor industry for chip manufacturing, is unique in the world in the context of biomolecular synthesis. We also developed a laser scanning device for high-density DNA microarray synthesis using visible light. We own four standard automated nucleic acid synthesizers, two high resolution microarray scanners, standard wet-lab equipment for qPCR and nucleic acid analysis, as well as an Illumina MiSeq sequencer. The group is composed of five PhD students and two post-docs, as well as another PI in the field of microarray synthesis. We have a vast network of international collaborators (France, Germany, Israel, Belgium, UK, USA, Canada...) for a wide array of applications.
Expectations towards postdoctoral fellows in this programme
A post-doctoral researcher in our group is expected to quickly become familiar and comfortable with photolithographic synthesis and should ideally have a strong background in bioorganic synthesis (preferably nucleic acid synthesis). With scientific background relevant to our research, the post-doctoral associate is expected to carry out her research project in an independent manner and to have a research project that’s already structured on paper at the time of joining, with goals clearly outlined in the form of milestones and publishable results. Possible research projects are outlined below, but in all likelihood, the main focus will be in the preparation of highly complex libraries of RNA oligonucleotides for nanopore sequencing and for interrogating RNA-binding proteins. The post-doctoral candidate is expected to be able to follow and help with the research projects carried out by graduate students.
Possible research themes or topics for postdoctoral projects
The following research avenues that the group is interested in exploring are outlined below:
• Synthesis of very long RNA oligonucleotide libraries
• Nanopore sequencing of base-modified RNA oligonucleotides
• RNA microarrays to study RNA-binding proteins with very high precision
• Discovery of RNA aptamers on chips
• Expanding XNA microarray territory to 2’F and 2’OMe modifications
• DNA and RNA data storage
• Enzymatic synthesis using photolithography and modified triphosphates
Other research projects are at the discretion of the candidate and they are highly encouraged to bring up new, innovative ideas during or before the selection process by reaching out to the PI.
Weblink for further information:
https://anorg-chemie.univie.ac.at/research/nucleic-acid-chemistry/
Email: jory.lietard(at)univie.ac.at
Michael R. Reithofer
Research Focus
We are a research group specializing in the synthesis and functionalization of metal-based nano- and micro-materials, with a strong emphasis on N-heterocyclic carbene (NHC) ligands and nanoparticle (NP) architectures. Our work explores how NHC coordination can stabilize metal centers (or metal clusters), modulate surface chemistry, and steer nucleation and growth of metal nanoparticles — enabling precise control over size, composition, and surface properties. By linking molecular-level ligand design with nanoscale materials engineering, our group creates robust, high-performance NP platforms that target improved efficiency, durability, and sustainability. We are currently particularly interested in developing catalytic materials for electrocatalytic applications.
Research environment
We have a fully equipped synthetic lab equipped with state-of-the-art equipment for air sensitive work (Schlenk line, glove box, etc). We also host a range on analytical tools including GC, UV-Vis, potentiostate/galvanostate, plate reader with injectors, tabletop SEM-EDX, TGA and in-situ Raman ecell. Through the Faculty of Chemistry, we also have access to core facilities that host large instruments, including NMR, MS, FE-SEM, PXRD, ED, and Raman spectroscopy.
Expectations towards postdoctoral fellows in this programme
Postdoctoral researchers in our group are expected to drive independent, high-impact research at the intersection of ligand design, nanoparticle synthesis, and functional materials development. They take ownership of project planning, experimental execution, and data interpretation, while also contributing to method development and instrumentation strategy. Postdocs are responsible for delivering publishable results on an ambitious timeline, coordinating collaborations within and outside the group, and mentoring junior researchers. They are expected to be a team player and willing to integrate into a collaborative research environment.
Potential candidates are encouraged to contact us before submitting an application.
Weblink for further information:
https://anorg-chemie.univie.ac.at/research/bioinorganic-chemistry/group-michael-reithofer/
Email: michael.reithofer(at)univie.ac.at
Elisa Tomat
Research Focus
The Tomat group at the Institute of Inorganic Chemistry works at the interface of coordination chemistry, cell biology and medicinal chemistry. Molecular strategies on our research agenda aim to examine and control the altered regulation of transition metals in human disease, with a current focus on the role of iron in malignancy and cancer progression. Our contemporary approaches to chelation (i.e., sequestration of metals by small molecules) allow for (i) intracellular activation of metal-binding units, (ii) preferential targeting of malignant cells through receptor-mediated uptake, and (iii) evaluation of the impact on iron signaling in cancer cells and immune cells withing the tumor microenvironment. In addition, the Tomat group is investigating the chemistry and medicinal applications of heme metabolic fragments of the tripyrrindione and dipyrrindione classes, which act as robust platforms for metal coordination and ligand-based redox processes.
Research environment
Experimental approaches in the Tomat laboratory are rooted in synthetic chemistry and employ an array of crystallographic, electrochemical, and spectroscopic techniques for chemical characterization. For our mechanistic work in cancer research, we test our compounds in a variety of assays in cultured malignant and normal cells. Because several of our compounds feature unpaired electrons, we use Electron Paramagnetic Resonance (EPR) spectroscopic methods both in vitro and in cultured cells. The Institute of Inorganic Chemistry and the Faculty of Chemistry provide an extraordinary environment for our multidisciplinary research: state-of-the-art equipment and facilities for chemical and biological characterization are available along with substantial expertise on working with metal complexes on medicinal applications. Our proximity to multiple groups with related research interests offers opportunities for valuable discussions and collaborations.
Expectations towards postdoctoral fellows in this programme
The postdoctoral fellow will contribute to all aspects of our research agenda: from experimental design to data acquisition and analysis to dissemination of our findings through peer-reviewed publications and conference presentations. The postdoctoral fellow will also have the opportunity to serve as a mentor of junior trainees and as a contact person for collaboration partners.
Possible research themes or topics for postdoctoral projects
- a) Targeted iron sequestration in anticancer drug design.
- b) The role of iron within the crosstalk between malignant cells, cancer stem cells, and immune cells in the tumor microenvironment.
- c) Harnessing the redox chemistry and photophysical properties of biopyrrins and their metal complexes in medicinal applications.
Weblink for further information:
https://anorg-chemie.univie.ac.at/research/bioinorganic-chemistry/group-elisa-tomat/
Email: elisa.tomat(at)univie.ac.at
Alexander Bismarck
Research Focus
The advancement of biomass deconstruction techniques has resulted in the production of more uniform and well characterised biomass-derived material streams. More innovative natural building blocks have become available for the realisation of next-generation green materials. The PaCE group is interested in the production and use of renewable nanomaterials, such as nanocellulose and fungi-derived chitin-glucan complexes, for, but not limited to, separation applications, structural and architectural materials, nanocomposites, sustainable textiles and packaging applications. Our research focuses on a systems approach to utilise co-products or waste streams for extraction of valuable material precursors, which can be assembled and further processed into desired materials. We synthesise/fabricate materials using colloidal assembly and templating routes but have also pilot scale facilities for the production of fibres and advanced structural and/or multifunctional composites. The introduction of other functionalities, such as energy storage or morphing, into structural materials is expected to reduce the weight of structural components and thus a system’s complexity.
Research environment
Chemical synthesis laboratories, colloid and materials processing (from extrusion over innovative foaming methods to composites manufacturing and testing), and the whole array of processing equipment and materials characterisation methods of the Polymer & Composite Engineering (PaCE) Group of the Institute of Materials Chemistry will be available to the candidate, as will the analytic and testing facilities of the the Core Facility “Interface Characterisation” of the Institute and Faculty of Chemistry.
Expectations towards postdoctoral fellows in this programme
The postdoctral fellow will be integrated in to the PaCE group of the Institute of Materials Chemistry as well as into the Austrian Science Fund Cluster of Excellence "Circular Bioengineering" with a focus on renewable materials. We are looking for a team player wishing to contribute to the development of sustainable materials and/or their fundamental characterisation, which involves structure-property relationships or the manipulation of colloidal systems.
Possible research themes or topics for postdoctoral projects
Renewable colloidal systems
Structure-property relationships of materials: from assembly to functions (mechanical properties to barrier functions)
design for recycling: composites
Weblink for further information:
https://mc.univie.ac.at
Davide Bonifazi
Research Focus
Our research explores how molecular design can unlock new functions in functional organic architectures. We develop heteroatom-doped atomatics with programmable optoelectronics, create metal-free synthetic routes to resilient PAHs, investigate chalcogen-bonding interactions, engineer self-assembled surface architectures, and design electrochromic systems for advanced technologies. The group values curiosity, precision, and creativity, offering space for researchers to drive their own ideas while engaging in collaborative discovery.
Research environment
Our laboratory provides a motivating and collaborative atmosphere where researchers can grow with confidence and independence. Guided by experienced mentorship and supported by a diverse team, early-career scientists gain opportunities to shape ambitious projects, build leadership skills, and refine their scientific voice. Our Faculty offers exceptional infrastructure, including NMR, MS, structural analysis, nanoscience facilities, and high-performance computing. Our group is equipped with all photochemical instrumentation for tackling complex investigations on fast reactive species. Combined with strong technical support, this environment empowers researchers to pursue rigorous, innovative science within a respectful and dynamic community.
Expectations towards postdoctoral fellows in this programme
It is expected that the postdoctoral researcher will bring curiosity, independence, and a commitment to rigorous science while contributing to the collaborative culture of our group and institute. The fellow should lead projects, mentor junior members, and engage creatively with experimental design and data interpretation. Throughout the stay, the fellow will need to develop an independent research vision, prepare competitive funding proposals, and build a profile suited for her future leadership. The goal is that, by the end of the fellowship, the fellow is ready to spin off her own project and transition into a group-leader role within our institute or beyond, equipped with strong scientific and managerial foundations.
Possible research themes or topics for postdoctoral projects
Possible postdoctoral projects span molecular design, targeted oriented organic synthesis and methodology, catalysis, and photochemistry. Themes include: (i) developing sustainable, high-performance organic aromatics for semiconductor applications by integrating polar bonds into PAHs; (ii) constructing three-dimensional sp²-hybridized carbon and heteroatom-doped frameworks using radical annulations and electrophotocatalytic methods; (iii) engineering light-harvesting architectures in liquid-crystalline matrices for solar-to-chemical conversion; and (iv) advancing molecular data storage platforms based on fast, reversible emissive switching. These directions offer ample space for creativity, leadership, and cross-disciplinary innovation.
Weblink for further information:
https://bonifazi-group.univie.ac.at/
Email: davide.bonifazi(at)univie.ac.at
Javier Mateos
Research Focus
Our group focuses on the development of synthetic methodologies, reagents, and homogeneous catalysts. We study reaction mechanisms and the properties of underexplored oxidation states of p-block elements, such as Se(III), to enable new synthetic disconnections.
Research environment
Our research group was established in October 2024 and consists of a diverse, young, and dynamic team committed to advancing homogeneous catalysis. We operate two fully equipped synthetic laboratories, including a glovebox, and have access to the Core Facilities of the Faculty of Chemistry.
Expectations towards postdoctoral fellows in this programme
The postdoctoral fellow will contribute to the development of novel synthetic methodologies. The fellow must be confident in organic synthesis and in the use of standard air-free techniques.
Weblink for further information:
https://mateoslab.com
Email: javier.mateos(at)univie.ac.at
Nuno Maulide
Research Focus
Our research focuses on uncovering unconventional modes of reactivity, with a particular emphasis on the behavior, structure, and synthetic utility of carbocations and other reactive intermediates. We apply these insights to the total synthesis of biologically relevant molecules, using reaction design to streamline access to complex targets. we also work in a collaborative environment that integrates mechanistic analysis, synthetic strategy, and interdisciplinary partnerships to advance discovery
Research environment
Our research environment thrives on collaboration, creativity, and mechanistic curiosity. We integrate advanced analytical tools (HPLC, LCMS, NMR, etc..), innovative reaction design, and open scientific dialogue to explore unusual reactivity patterns . By combining diverse expertise across synthesis, computation, and biology, we create a supportive setting that accelerates total syntheses of bioactive molecules and fosters interdisciplinary problem-solving.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellow is expected to drive independent research while actively contributing to a collaborative, interdisciplinary environment. They should bring creativity, strong problem-solving skills, and a commitment to scientific rigor. Fellows are encouraged to mentor junior researchers, share expertise, communicate results effectively, and engage openly with partners across disciplines.
Weblink for further information:
https://maulide.univie.ac.at/
Email: nuno.maulide(at)univie.ac.at
Ellen Backus
Research Focus
The overall research goal of the ultrafast and nonlinear spectroscopy group is understanding the structure, relaxation dynamics, and reactivity of soft matter at interfaces and in bulk on the molecular scale. Our current research is divided over the following projects: structure and dynamics of aqueous atmospheric surfaces, wetting on a molecular scale, investigation of catalyst-liquid interfaces to elucidate the molecular structure, reaction mechanisms and interfacial dynamics, dynamics of water.
Research environment
The research group consists besides the PI, of a senior scientist, a technician, and several PostDocs and PhD students with both a chemical and physical background. Two femtosecond lasers are part of the resources. One laser is used for static and time resolved sum frequency generation experiments. The other laser is the basis for three different setups: transient absorption spectroscopy, two-dimensional infrared spectroscopy, and phase-resolved sum frequency generation. Besides, the group has laboratories for sample preparation and characterization. We are equipped with e.g. spin coater, ovens, contact angle device, surface tension, Langmuir trough and have access to IR/UV spectrometers, a Raman microscope, ellipsometer, and an RF-sputtering device.
Expectations towards postdoctoral fellows in this programme
We expect that the postdoctoral fellow works on her own research project matching the research themes of the working group. The ideal candidate should have experience with spectroscopy. Having worked with lasers before is an advantage. In case the applicant is proposing research in the direction of investigating catalyst-liquid interfaces, the PostDoc could be integrated in the special research programme TACO.
Weblink for further information:
https://pchem.univie.ac.at/en/research-groups/ultrafast-and-nonlinear-spectroscopy/
Email: ellen.backus(at)univie.ac.at
Peter Lieberzeit
Research Focus
The group of Chemical Sensing and Rapid Analysis has an interdisciplinary focus between materials science, recognition, analytical chemistry and sensor research. Its main areas of expertise contain artificial recognition, mainly through molecularly imprinted polymers, and surface characterization. Sensing spans from QCM over electrochemistry to (Raman) spectrometry.
Research environment
The group operates mass-sensitive and electrochemical sensing devices and its own AFM and FT-IR. In addition, it has access to DLS, Zeta potential measurements, Raman microscopy, PVD and the facilities of the Faculty Centers.
Expectations towards postdoctoral fellows in this programme
A background complementing, but not exactly matching our own, which may be molecular biology/microbiology, polymer chemistry, nanoparticle research or similar. The group shares an atmosphere of open discussion and comparably widespred topics in its research.
Weblink for further information:
https://pchem.univie.ac.at/en/research-groups/chemical-sensing-and-rapid-analysis/
Email: Peter.Lieberzeit(at)univie.ac.at
Leticia Gonzalez
Research Focus
The focus of our research lies on using highly accurate electronic structure techniques and developing methods for chemical dynamics. In my group, we investigate chemical and photochemical phenomena using state-of-the-art electronic structure methods and reaction dynamics techniques, also accelerated with machine learning. In particular, my group has made important contributions to the field of photochemistry, non-adiabatic dynamics, computational spectroscopy and catalysis. We have developed a general code (SHARC) to describe excited state dynamics in the presence of any arbitrary coupling, such as kinetic, spin-orbit and dipole-field couplings. We extend its applicability using multiscale methods and also machine learning potentials. Systems of interest include organic dyes, DNA building blocks, transition metal complexes, small to medium organic chromophores, and photocatalysts. Systems can be in gas phase, in solution or in the presence of complex environments, such as proteins, polymers, membranes or solid surfaces. We work closely in cooperation with synthetic and physical chemists or physicists; we are challenged to model optical properties, design new molecules and materials, simulate and predict time-resolved spectroscopic signals and control reactivity.
Research environment
Our group brings together motivated researchers at every career stage—from bachelor and master students to PhD candidates and postdoctoral fellows—creating a dynamic and collaborative environment.
As an incoming postdoc, you will have full access to the Austrian Scientific Cluster (https://www.vsc.ac.at) and a broad suite of additional high-performance computing facilities. The group also operates its own state-of-the-art local cluster with next-generation CPU and GPU nodes, ensuring ample computational power for ambitious projects.
Beyond our local and one-to-one cooperations, the group is part of the Cluster of Excellence "Materials for Energy Conversion and Storage, MECS" (https://coe-mecs.at/), and the German/Austrian collaboratory research center "Catalight" (https://www.catalight.uni-jena.de/), which offer extensive resources for cutting-edge research, opportunities for cross-disciplinary collaboration, access to large scientific networks, and regular workshops, meetings, and training activities that support the professional development of postdoctoral researchers.
As a postdoc, you will receive close scientific mentoring and support in shaping their own research trajectory, including guidance for fellowships, grant applications, and long-term career planning. But you will also enjoy freedom to pursue your own ideas within the broader research themes of the group, as well as opportunities to present your work at international conferences and workshops.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to conduct high-quality, independent research while contributing creatively to the group’s scientific directions. They should actively participate in group meetings, seminars, and collaborative activities and other partner networks, and disseminate their results through publications and conference presentations. They will be engaged in teaching activities and will be encouraged to mentor bachelor, master, and PhD students, support a constructive research environment, and uphold rigorous standards of scientific integrity. Furthermore, they are also expected to engage in professional development, including the preparation of grant applications, e.g. to the ERC or the ASTRA program of the FWF.
Possible research themes or topics for postdoctoral projects
Topics involving method development and applications are welcome. Examples include:
-Method development for excited state dynamics (excitonic methods, multiscale simulations, semiclassical methods)
-Vibronic coupling and spectral simulations
-Inclusion of nuclear quantum effects in trajectory-based methods
-Laser control of chemical reactions
-Treatment of strong correlation systems.
-Applications in photocatalysis (light-harvesting, catalysis), OLEDs.
-Acceleration through machine learning techniques
-Transition metal photochemistry
-Time-resolved computational spectroscopy
-Spin phenomena in photochemistry and photophysics
-Photobiology (DNA photophysics, protein chromophores, photoswitches, optogenetics...)
Weblink for further information:
https://theochem.univie.ac.at/
Faculty of Computer Science
Benjamin Roth
Research Focus
Our research focuses on the explainability, interpretability, and personalization of Large Language Models (LLMs). We develop methods to analyze how LLMs represent, reason, and interact, linking technical innovation with human-centered evaluation. Current projects address (1) standardized benchmarks for LLM trustworthiness and compliance with EU AI Act and GDPR, (2) explainable and controllable model behavior, including persona-based prompting and linguistic convergence, and (3) transparent evaluation methodologies for understanding generalization, calibration, and reasoning abilities. Our group combines computational, linguistic, and ethical perspectives, contributing to responsible AI research and fostering interdisciplinary collaboration across computer science, digital humanities, and philosophy.
Research environment
The postdoc will join the Natural Language Processing Working Group (2 professors, 2 postdocs, 8 PhD students), embedded in the Research Group Data Mining and Machine Learning (7 professors, 27 researchers). Members are active in the ACL community (local co-chairs of ACL 2025, KONVENS organizers, ARR/TACL editors). The group provides access to a high-performance Slurm cluster with multiple servers equipped with NVIDIA H100/H200 GPUs and over 2 TB RAM per node. Excellent grant-writing support is available within the group and through the University Research Service Office. The environment fosters interdisciplinary collaboration across Computer Science, Philological and Cultural Studies, and partner institutions (e.g. ÖAW, WWTF). Successful candidates have access to funding for conference travel in accordance with faculty regulations.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to develop and sharpen an independent research profile that complements the NLP group’s focus on explainability, interpretability, and responsible AI. They should aim for high-impact publications in leading NLP and AI venues (e.g. ACL, EMNLP, AAAI) and actively collaborate with group members and interdisciplinary partners. Fellows are encouraged to pursue competitive research grants (e.g. MSCA, FWF, WWTF, ERC StG) to strengthen their academic independence and career prospects. They will benefit from mentoring and integration into an active research environment, with a strong publication culture, international collaborations, and opportunities to engage in the University’s growing AI and Digital Humanities initiatives.
Possible research themes or topics for postdoctoral projects
- Explainability of AI systems: technical and human-centered perspectives (discourse, pragmatics, usage context).
- Explanations for complex AI agents: multi-faceted explanations for multi-agent and decision-support environments.
- Measurement of LLM properties: standardized evaluation aligned with EU AI Act and GDPR.
- Small LLMs and agent systems for academia: controllable, open-source systems enabling transparent and more sustainable research.
Weblink for further information:
https://dm.cs.univie.ac.at/index.php?id=1910
Email: benjamin.roth(at)univie.ac.at
Edgar Weippl
Research Focus
applied it security; software security; AI security;
Research environment
applied research; close collaboration with companies; SEC leads a COMET research center (SBA Research); tight coooperation with other Austrian universities in the area of information security, such as TU Wien, TU Graz.
Expectations towards postdoctoral fellows in this programme
great publications and interest in collaboration with existing security groups, our CD labs, etc.
Possible research themes or topics for postdoctoral projects
open to all aspects of applied information security
Weblink for further information:
http://sec.cs.univie.ac.at
Email: edgar.weippl(at)univie.ac.at
Atakan Aral
Research Focus
My research focuses on resource management and intelligent services across the edge-cloud continuum, with a particular emphasis on edge AI, sensor networks, and sustainable computing. We design algorithms and systems that jointly optimize performance, energy consumption, and reliability in distributed infrastructures, ranging from low-power IoT devices to data centers. Current projects include AI-driven environmental monitoring in remote areas with scarce power and connectivity, secure and resilient monitoring of critical energy and water infrastructures, and neuromorphic and federated learning methods that bring adaptive intelligence close to where data is generated and used for decision-making. Building on my experience and strong preference for interdisciplinary research, postdoctoral fellows can connect these topics to a wide range of application domains, including climate resilience, smart cities, digital health, precision agriculture, mobility, Industry 4.0, and robotics.
Research environment
We offer a dynamic, international, English-speaking environment with close ties to systems, AI, sustainability, and data-driven modeling. Our group operates several edge and IoT testbeds, GPU servers, and access to the Austrian Scientific Computing (ASC) for large-scale experiments. We are partners in international projects, such as CHIST-ERA SWAIN and TROCI, and participate in university-wide initiatives on digitalization and environmental research. Postdoctoral fellows will have access to office space, high-end hardware, and technical support, as well as opportunities to work with excellent PhD and MSc students, and benefit from a strong seminar culture. They receive mentoring for fellowship and grant applications, as well as encouragement to build their own collaborations with other faculties and external partners. Successful candidates also have access to funding for conference travel in accordance with faculty regulations.
Expectations towards postdoctoral fellows in this programme
I expect postdoctoral fellows to develop an independent research profile while actively contributing to the group’s collaborative projects. Fellows should be motivated to design, implement, and publish high-quality research, co-supervise MSc and PhD students, and help maintain and extend our experimental infrastructure and open-source software. I value openness, reliability, and a constructive, inclusive working style, as well as clear communication in English. Fellows are encouraged to take leading roles in international collaborations and community service, co-write grant proposals (e.g., FWF, EU, MSCA, ERC), and engage in teaching or mentoring activities that strengthen their CV and prepare them for the next career step, whether that is a tenure-track position or an advanced industry role.
Possible research themes or topics for postdoctoral projects
Possible postdoctoral projects include: (i) sustainable edge AI and neuromorphic sensing for environmental or infrastructure monitoring (e.g. pollution, natural disasters, biodiversity); (ii) trustworthy, privacy-preserving learning over distributed IoT data, including federated and personalised learning; (iii) energy-aware scheduling, fault tolerance, and resilience mechanisms for the edge-cloud continuum and scientific workflows; (iv) digital twins of cyber-physical systems that integrate data-driven models with domain knowledge and uncertainty quantification; and (v) frameworks and benchmarks that make edge AI systems more reproducible, explainable, and accessible to other scientific domains. Please note that this list is not exhaustive, and I explicitly welcome postdoctoral fellows to propose their own topics within the group’s broader interests in intelligent distributed systems.
Weblink for further information:
https://cs.univie.ac.at/atakan.aral
Email: atakan.aral(at)univie.ac.at
Karen Azari
Research Focus
My area of research is cryptography and I specialize in formal security definitions and mathematical security proofs for cryptographic protocols. In particular, I work on group messaging, proof systems for decentralized systems, and (foundations of) resource-restricted cryptography.
Research environment
My research group is embedded in the "Theory and Applications of Algorithms" group and by October 2026 will comprise three PhD students under my supervision. There are several other research groups in and around Vienna working on cryptography, with whom we collaborate closely. We have regular joint research meetings, currently taking place every other week at TU Vienna, where we discuss recent results.
Expectations towards postdoctoral fellows in this programme
A postdoc in our group must have strong interest in theoretical aspects of cryptography and be open for collaboration. They should strengthen and broaden our group's research profile. While postdoc researchers are expected to show a decent level of independence, I am happy to give advice wherever needed and will do my best to support them on their career path.
Weblink for further information:
https://homepage.univie.ac.at/karen.azari/
Email: karen.azari(at)univie.ac.at
Wilfried Gansterer
Research Focus
My research interests are in the areas of efficient and reliable numerical algorithms and high performance computing; in particular in the interaction between algorithms, their implementation and properties of the environment where they are executed, and in quantitatively understanding influence factors on sustained performance in realistic settings. This includes in mixed precision algorithms as well as efficient parallel and distributed numerical algorithms which can tolerate faults in unreliable environments.
These aspects are also highly relevant in modern algorithms for machine learning and AI, e.g., studying how to increase efficiency in neural network training and inference without compromising the quality of the results.
Moreover, I am investigating efficient and scalable approaches at the algorithmic level for achieving robustness and resilience against random perturbations (silent data corruption or node failures) as well as against targeted adversarial attacks.
Research environment
You will be integrated into the Research Group Theory and Applications of Algorithms of the Faculty of Computer Science at the University of Vienna, which comprises researchers with expertise in numerical computing, combinatorial algorithms, algorithm engineering and cryptography. You will benefit from a very welcoming environment with many young researchers that is very stimulating for research and open for collaboration.
You will have access to travel funds in accordance with faculty regulations.
Expectations towards postdoctoral fellows in this programme
strong motivation and clear dedication to perform high quality research, interest in pursuing an academic career, a high degree of independence in research activities combined with the willingness to cooperate, good communication skills, willingness to participate in supervising and mentoring students at all levels
Possible research themes or topics for postdoctoral projects
open for all topics which connect well to my research interests
Weblink for further information:
https://taa.cs.univie.ac.at/
Email: wilfried.gansterer(at)univie.ac.at
Gramoz Goranci
Research Focus
I am broadly interested in algorithm design and its connections to optimization, graph theory, and machine learning. Much of my research has centered around the design of fast dynamic algorithms for classic and novel large-scale optimization problems with both theoretical guarantees and practical efficiency. My work brings together tools from many areas, such as combinatorial data structures, algorithmic graph theory, numerical linear algebra, and metric embeddings.
Research environment
Our subgroup *Fast and Dynamic Algorithms* currently consists of three PhD students and one postdoctoral researcher and is part of the research group *Theory and Applications of Algorithms (TAA)*. We have a strong track record of publishing at flagship venues in theoretical computer science, including STOC, FOCS, and SODA. In recent years, our work has also appeared at ICML and NeurIPS, two of the leading conferences in machine learning.
We offer a diverse and vibrant research environment in which collaboration is strongly encouraged, and mutual scientific growth is central to our team culture. The successful candidate will benefit from a broad research network, both within Austria and internationally. Additionally, the host will support the candidate in navigating the academic job market and provide guidance on applications for independent research funding. The successful candidate will also have access to funding for conference travel in accordance with faculty regulations.
Expectations towards postdoctoral fellows in this programme
As a postdoctoral researcher joining our group, we expect a motivated individual with a strong record in theoretical algorithm design and an openness to exploring new research directions. Our group primarily focuses on developing fast algorithms and data structures for graph-based optimization problems; prior experience in this area is desirable but not strictly required. We expect that you are eager to establish an independent research profile while simultaneously collaborating on joint projects with other group members. Strong time-management skills and the ability to balance multiple aspects of the position are very important criteria.
Weblink for further information:
https://taa.cs.univie.ac.at/
Email: gramoz.goranci(at)univie.ac.at
Torsten Möller
Research Focus
Our research group focuses on various aspects of visual data analysis. On the one hand, we seek to broaden the scope of visual literacy research, expanding its scope from performance-based metrics to more human-centered concepts inspired by learning sciences. On the other hand, we employ human-centered design approaches to enhance the understanding of multidimensional spaces (4-7D). Additionally, we explore physical data representations, utilizing advanced fabrication methods to create artifacts that support users in the exploration of multi-variant and multidimensional spatial data.
Research environment
We strive to create and maintain a collaborative environment both within the group and with external peers. Our group frequently interacts with researchers from communication science, STS, and psychology. Our group provides researchers with access to state-of-the-art computational infrastructure, ranging from GPU clusters to 3D printers. Successful candidates have access to funding for conference travel in accordance with faculty regulations.
Expectations towards postdoctoral fellows in this programme
Postdocs in our group are encouraged to build a resume at this important early stage of a research career. We integrate the aspects of teaching and research in our day-to-day operations for all members. Frequent publications in highly reputable venues, as well as securing funding through grant applications, are crucial for this. While teaching responsibilities vary depending on the contract, supervising students during bachelor's and master's theses, as well as advanced research projects, and mentoring and supporting PhD students are essential functions of a postdoctoral fellow.
Weblink for further information:
https://vda.cs.univie.ac.at
Email: torsten.moeller(at)univie.ac.at
Please see Faculty of Chemistry.
Dominik Kopczynski is PI of a computer science-oriented working group at the Faculty of Chemistry. You'll find him at the department of Analytical Chemistry.
Faculty of Earth Sciences, Geography and Astronomy
João Alves
Research Focus
João Alves is a professor of stellar astrophysics at the University of Vienna. His research focuses on the structure and dynamics of the interstellar medium and how gas and dust organize into large molecular clouds. He studies how these clouds evolve, fragment and collapse to form stars and planetary systems. A major part of his work uses three-dimensional maps of the Solar neighbourhood to track the motion of gas and young stars, helping to identify large coherent structures such as filaments and superclouds. He also investigates how feedback from young stars shapes their environment and how local Galactic conditions influence the formation of future generations of stars.
Research environment
Prof. Alves group has allocated research offices at the University Observatory (Sternwarte). Researchers have access to ESO and ESA observatories (Austria is a member country) as well to all custom made software developed in the group (e.g., the latest version of SigMA), and to high-performance computing facilities at the University of Vienna. The group is involved in several large observational surveys, both ground-based and space-based, in particular Gaia DR4. The group work often combines data from multiple wavelengths, from the near-infrared to X-rays, to gain a comprehensive understanding of the interstellar medium and star formation processes.
Expectations towards postdoctoral fellows in this programme
A postdoc in the Alves research group is expected to conduct independent research on the interstellar medium and star formation, with a strong focus on observational data and quantitative analysis. The position involves leading projects that use large surveys, three-dimensional mapping, and statistical methods to study gas, dust and young stellar populations. Postdocs are expected to publish in high-quality journals, present results at international meetings, and collaborate across the group's projects. They contribute to mentoring students, support proposal writing for major observing facilities, and help develop tools that improve the interpretation of Galactic structure and the physics of molecular clouds. The role offers scientific freedom but requires initiative, reliability, and an interest in advancing the group's broader goals in understanding how stars and planets form in the Milky Way.
Possible research themes or topics for postdoctoral projects
• Three-dimensional mapping of the local interstellar medium using multi-survey data
• Structure, dynamics and origin of large molecular filaments and superclouds
• Star formation efficiency and timescales in nearby molecular clouds
• Kinematics of young stellar populations and links to their birth environments
• Gas flow patterns in the Solar neighbourhood and their role in cloud formation
• Dust extinction and emission as tracers of cloud structure and evolution
• Statistical characterization of cloud morphology and fragmentation
• Feedback from young stars and its impact on surrounding gas
• Synthetic observations and forward modelling for comparison with survey data
• Machine-learning or Bayesian approaches to constrain ISM physical parameters
Weblink for further information:
www.joaoalves.org
Email: joao.alves(at)univie.ac.at
Alvaro Hacar
Research Focus
The selected E-STEEM PD fellow will join the Interstellar Medium Astrophysics (ISMA) group in Vienna (https://ism.univie.ac.at/). Our research focuses on the early stages of star formation, and physical and chemical structure and evolution of the ISM. Our group led several key publications on the study of filaments, low- and high-mass star formation, and astrochemistry (Hacar et al 2023, PP7). Our works were awarded with an ERC-StG project (https://emerge.univie.ac.at/).
The ISMA is the leading expertise group on radioastronomical observations in Vienna. We specialised on line and continuum observations using single-dish and interferometers. We also develop state-of-the-art observational techniques for data combination, archival research, and massive data processing. Our group leads and/or participates in different international collaborations including ALMA (EMERGE) and NOEMA (CASCADE) surveys star-forming regions, as well as surveys of porto-planetary disks (SODA survey).
Research environment
We offer a dynamic, stimulating, and collaborative research environment in astrophysics, designed to foster innovation and excellence. The selected E-STEEM PD fellow will join the ISMA group at the Department of Astrophysics (DoA). Our group is currently composed by 1x Prof., 1x PD, 2x PhDs, and 5 MSc students from diverse nationalities. Our activities include regular group meetings and discussions, plus individual mentoring.
The DoA (https://astro.univie.ac.at/) is the largest astronomy institute in Austria including >85 research members working on interdisciplinary frontline research, involving space missions (ESA) and telescope (ESO) development with a strong leadership in Austria. The selected PD will be supported by the DoA and benefit from its infrastructure (i.e. workspace, computers), including direct access to high-performance computes such as VSC5. DoA and Univie provide an ample set of training courses on career development, management, and teaching designed for PDs.
Expectations towards postdoctoral fellows in this programme
The E-STEEM PD is expected to lead their independent research line, focusing on the physical and chemical processes governing star formation in the ISM. The PD fellow should demonstrate expertise in analysing and interpreting radioastronomical observations and/or state-of-the-art simulations. Proficiency in computational techniques, data reduction software, and programming languages is essential. Collaboration with other international teams and publishing in high-impact journals are key responsibilities. Strong communication skills and the ability to present findings at conferences are also expected. The candidate is expected to actively contribute to the group activities and take organisational and supervision duties. The candidate will have the opportunity to contribute to the teaching activities at DoA. By the end of their contract, the E-STEEM PD is expected to apply to permanent positions in Academia, for which they will received support and advise.
Possible research themes or topics for postdoctoral projects
We look for an enthusiastic and independent PD fellow who can potentially lead their own research in one or multiple of the topics listed below:
- Low- and high-mass star formation
- Galactic and extragalactic observations
- Structure and evolution of Molecular clouds
- Formation and evolution of filaments, cores, and stars
- Physics and chemistry of the ISM
- State-of-the-art simulations
- Radioastronomical observations using both single-dish and interferometers
- Galactic surveys
- Novel methods, algorithms, and machine learning
Weblink for further information:
https://astro.univie.ac.at/en/
Email: alvaro.hacar(at)univie.ac.at
Oliver Hahn
Research Focus
The Data Science in Astrophysics & Cosmology Group tackles fundamental questions about the Universe's structure, dark matter, dark energy, inflation, as well as galaxy formation through computational, theoretical and data-driven approaches. Our group's research spans three broad areas: developing and running large-scale cosmological simulations to model structure formation from the early Universe to today; advancing the mathematical and computational frameworks underlying perturbation theory and simulation techniques; and applying machine learning to cosmological and astrophysical modelling, inference, and data analysis.
Our group welcomes researchers across the computational cosmology and astrophysics spectrum - from those developing novel numerical methods and theoretical frameworks to those applying simulations and AI to understand observational data from space missions or ground-based telescopes.
Research environment
Our group currently consists of 4 postdocs, 4 PhD students, as well as 7 associated MSc students. We have access to the Austrian VSC5 and MUSICA supercomputing facilities with state-of-the art GPU capabilities for simulations and machine learning applications. All members of the group regularly participate in our weekly group meetings to discuss ongoing research in the group, as well as our weekly journal club. Postdocs are typically supervising their own proposed MSc projects and contribute to the supervision of PhD students. In addition, the group self-organises various social activities to foster integration and group spirit. We also regularly host international guests jointly invited by the group members.
Expectations towards postdoctoral fellows in this programme
A postdoctoral researcher joining the group should have a clear vision for their own research agenda and be ready to create synergies and internal collaborations that benefit both their work and the group's broader research goals. In addition to carrying out their own research, we expect all group members to participate and contribute actively in the regular group activities (such as the group meeting and the journal club), as well as propose and supervise BSc and MSc research projects.
Possible research themes or topics for postdoctoral projects
We welcome all research topics that leverage or extend the group's strengths in simulations, theory, or data science. Topics might range from fundamental questions about e.g. dark matter and structure/galaxy formation to methodological advances in numerical techniques or AI applications. We especially encourage innovative projects that create new connections between observations, simulations, and theory.
Weblink for further information:
https://cosmology.univie.ac.at
Email: oliver.hahn(at)univie.ac.at
Anne Hutter
Research Focus
The Early Galaxies and Reionisation group investigates the formation and evolution of the first galaxies and their impact on the intergalactic medium during the Universe’s first billion years. We develop and apply theoretical models and simulations to interpret observations of early galaxies and their surrounding gas, and to predict how the James Webb Space Telescope and future galaxy and 21cm surveys can probe their properties and evolution. Central to our work is the semi-numerical Astraeus framework, which we develop and use to model galaxy formation, evolution, and the intergalactic medium, for interpreting observations and making predictions. Ongoing projects include advancing star-formation, gas, and chemical enrichment models, exploring variable stellar populations, improving 21cm signal modelling, and developing statistical tools to extract constraints from upcoming surveys.
Research environment
The Department of Astrophysics offers a supportive and well-connected research environment, including access to the Austrian Science Cluster. Our group is an active member of the Square Kilometre Array’s Epoch of Reionisation/Cosmic Dawn science working group, the Roman ROSES reionisation team, and several James Webb Space Telescope programs. We also participate in the Wide-field Spectroscopic Telescope’s extragalactic science team and maintain close ties with researchers within the Astraeus collaboration and at the Cosmic Dawn Center in Copenhagen. These collaborations foster dynamic exchanges across theory, simulation, and observation. Postdoctoral researchers will join an international network focused on early-Universe studies, with opportunities to collaborate broadly, contribute to major observational campaigns, and advance our state-of-the-art simulation framework.
Expectations towards postdoctoral fellows in this programme
We welcome researchers with strong expertise in one or more of the following areas: (1) galaxy formation, evolution, or reionisation modelling (semi-analytic or numerical); (2) massive stellar evolution to support detailed treatments of early stellar populations; or (3) statistical or machine learning methods for combining 21cm maps and galaxy surveys to constrain reionisation and the properties of the first galaxies. Applicants with depth in one area and interest in collaborating across others will integrate well into the group and have ample opportunity to shape their own research trajectory.
Weblink for further information:
https://astro.univie.ac.at/en/research/research-groups/hutter-early-galaxies-and-reionisation/
Email: anne.hutter(at)univie.ac.at
Kristina Kislyakova
Research Focus
The Solar System Evolution research group is a newly established group at the Department of Astrophysics, University of Vienna. The main research direction of this group consists of unraveling the evolutionary pathways of the solar system bodies, in particular Earth, Venus, and Mars, and determining the place of the Solar System within the larger family of exoplanets. We cannot understand exoplanets without looking back at the cradle of life as we know it - the Earth. Why did the Earth become a habitable planet? Why did Mars and Venus evolve differently? What would modern instruments see if they looked at the solar system planets as they were billions of years ago? Is the Earth unique, or can we expect to find multiple Earth-analogues among exoplanets? We focus on the evolution of small rocky planets, and are especially interested in planetary habitability. In our research, we combine sophisticated numerical tools and preparatory studies for cutting-edge future observational facilities.
Research environment
The Solar System Evolution group is currently supported by a large ERC consolidator grant, and in addition to the group leader Kristina Kislyakova also includes postdoctoral researchers Gwenaëlle Van Looveren and Evelyn Macdonald, and PhD students Louis Müller and Anuja Raorane. Researchers in the group are actively involved in teaching and student supervision and are currently supervising three undergraduate students. The group is a part of a vibrant collaboration of three groups doing (exo)planetary research at the Department, with the two other groups being the Exoplanetary Atmospheres and Star and Planet Formation groups. The group is very dynamic and welcoming to the new members, and the members are involved in the forefront planetary research, including participating in consortia for the new and existing missions, developing of sophisticated numerical codes, and outreach activities to advertise our research to the society.
Expectations towards postdoctoral fellows in this programme
We encourage scientists from all backgrounds to apply. We are looking for postdocs willing to collaborate with other members of the group and build their research in the areas adjacent and intervening with the existing research of the group. Specifically, we are interested in researches with background either in code development, or observations of exoplanets and their host stars (combining the two is of course also very welcome!). We encourage the applications from scientists willing to also lead their own research projects and bring in new exciting ideas in the areas of exoplanetology and stellar physics.
Possible research themes or topics for postdoctoral projects
Possible projects include:
1) The search for stellar winds. Stellar winds are extremely important drivers of atmospheric escape to space. Currently, no researcher in the group focuses on stellar winds, which is a research gap we would like to cover. In this project, the postdoc would use existing tools and methodology developed by the group and collaborators (https://www.nature.com/articles/s41550-024-02222-x) to estimate stellar mass-loss-rates. The project would include processing X-ray observations of XMM-Newton and possibly Chandra satellites, and modelling of the resulting stellar winds.
2) Modelling of the Earth's observations for the SMILE satellite, which will soon observe the Earth in the X-ray and UV wavelength ranges. This project would focus on the physical processes in the Earth's polar areas and their influence on the short-wavelength observational appearance of the Earth.
Weblink for further information:
https://astro.univie.ac.at/en/research/research-groups/kislyakova-solar-system-evolution/
Email: kristina.kislyakova(at)univie.ac.at
Tanja Rindler-Daller
Research Focus
Research areas of the mentor have been in cosmology, dark matter, gravitational dynamics with focus on galactic dynamics. We are interested to apply novel methods from geometrical/statistical mechanics and quantum (hydro) dynamics, especially to non-standard dark matter models and Bose-Einstein-condensed and quantum-coherent systems on astronomical scales. More details and references can be found on the website.
Research environment
The Dep.of Astrophysics of the University of Vienna is the largest of its kind in Austria, and one of the largest in the greater Central European area, with multiple collaborations within ESO and its facilities. The department has hosted national and international 3rd-party-funded projects, from small to big, and provides a vibrant and diverse research environment. Collaborations exist with the Mathematics and Physics Faculties of the University. The Erwin-Schrödinger Intern.Institute and other institutions in Vienna host workshops all year, from which the applicant can benefit. In-house collaboration and research overlap of the mentor at the DoA exist with the groups of Glenn van de Ven and Oliver Hahn. The mentor has longstanding collaborations with members of the Dep.of Astronomy of the Univ.of Texas, Austin, esp. with Katherine Freese and Paul R.Shapiro. Funds for travel to conferences are available.
Expectations towards postdoctoral fellows in this programme
Doctoral degree/PhD in Theoretical Astronomy/Astrophysics, or Theoretical Physics, or Applied Mathematics. The methodological focus can be tailored to the individual background of the applicant. Sound background and expertise in any two among the following subject areas are a strong asset: dynamical astronomy (broadly defined); dynamical systems and nonlinear dynamics; gravitational dynamics; quantum dynamics. About 30-40% of work time of the applicant can be devoted to their research interests, upon mutual agreement with the mentor.
Possible research themes or topics for postdoctoral projects
Possible research themes will be in the broad area of quantum wave/fuzzy/axion dark matter ("QDM" for short), e.g. investigate quantum and coarse-grained dynamics, vortices and turbulence, orbital dynamics in galactic QDM halos; perform quantum fluid and/or orbital-dynamical calculations; engage in devising new modelling schemes and new models to be compared with kinematic data of galaxies; analyze nonlinear dynamics, applying modern methods of geometrical mechanics; investigate orbital dynamics within QDM backgrounds in the vicinity of black holes; use solar-system gravity tests to constrain QDM physics. Both analytical/rigorous mathematical analysis and/or tailored simulation work to test theoretical models is possible. Open-source and in-house codes usually require Python or C knowledge. General motivation is two-fold: probing the nature of dark matter in novel ways and advancing our understanding of quantum dynamics in astronomical regimes, unattainable in the laboratory.
Weblink for further information:
https://homepage.univie.ac.at/tanja.rindler-daller/
Email: tanja.rindler-daller(at)univie.ac.at
Glenn van de Ven
Research Focus
Our research group (https://dynamics.univie.ac.at/) investigates the dynamical structure and evolution of stellar systems, from star clusters to massive galaxies. We aim to uncover their luminous and dark mass components — including central black holes and extended dark-matter haloes — and to reconstruct their formation histories through the “fossil record’’ imprinted in their stars. To do this, we build realistic dynamical models that jointly fit high-quality photometric and spectroscopic data, such as integral-field spectroscopy, resolved stellar motions, and (strong) gravitational lensing, and soon also gravitational-wave information. Our group also leads the development of DYNAMITE, an open, next-generation modelling framework that enables detailed recovery of orbital structures and provides powerful new insights into how galaxies assemble and evolve.
Research environment
We offer an inspiring and supportive working atmosphere with a dedicated team engaged in forefront research. Our research group is internationally well-connected, active in a wide range of collaborations, and equipped with solid funding resources; you will also receive strong support in developing your own funding portfolio. The Department of Astrophysics (https://astro.univie.ac.at/en/) provides a vibrant international environment, dedicated access to the Austrian Scientific Computing facility, and —through Austria’s membership in ESO and ESA— use of world-class observing facilities. Your workplace, the historic University Observatory, lies within the beautiful Observatory Park in lively Vienna, with excellent public transport. We offer flexible working hours, home-office options, and abundant opportunities for continuous skill development, including (free) training courses.
Expectations towards postdoctoral fellows in this programme
We look for motivated colleagues who are eager to engage in our research group and contribute as proactive, communicative team players. We want you to become an active “citizen’’ of the Department of Astrophysics (https://astro.univie.ac.at/en/). An excellent command of written and spoken English is essential. Candidates should hold a PhD in astronomy or astrophysics with strong programming skills, or in computer science/applied mathematics with a clear affinity for astrophysical research. We want you to help co-organize regular meetings, represent yourself and the group confidently in international scientific settings, and support the acquisition of third-party funding. Fellows are encouraged to take advantage of opportunities in student (co-)supervision, teaching, and science communication. We aim for you to conduct forefront research and advance your career in a mutually beneficially academic environment.
Possible research themes or topics for postdoctoral projects
Postdoctoral projects build on our group’s strength in combining stellar dynamics and populations with advanced dynamical modelling — especially through our orbit-based DYNAMITE software. You will benefit from strong links with nearby institutes and partners abroad, and from collaborations with mathematicians and data scientists. Opportunities also include upcoming gravitational-lensing and emerging gravitational-wave datasets. Broad project directions include:
• Dark-matter recovery in galaxies using multi-tracer kinematics
• Black-hole–galaxy co-evolution with integral-field spectroscopy data
• The origin of multiple stellar populations and discovery of intermediate-mass black holes in globular clusters
• Extragalactic archaeology: chemo-dynamical reconstruction of the accretion history of galaxies
• Innovative techniques for spectrophotometric data analysis and dynamical models l
Weblink for further information:
https://dynamics.univie.ac.at/
Email: glenn.vandeven(at)univie.ac.at
Bodo Ziegler
Research Focus
My group explores galaxy formation and evolution in different environments mainly via observations from cosmic dawn to today. We exploit optical and NIR photometry and spectroscopy to derive kinematic and stellar population properties.
Research environment
I am a board member of future telescope instrumentation projects like MOSAIC for the ELT and the planned WideField Spectroscopic Telescope.
Expectations towards postdoctoral fellows in this programme
We invite highly motivated postdocs with expert knowledge in any aspect of galaxy evolution. Expertise beyond our own working fields is very appreciated, too, like radio or X-ray based approaches.
Weblink for further information:
https://galaxy.univie.ac.at/
Email: bodo.ziegler(at)univie.ac.at
Stephan Glatzel
Research Focus
Research in the Geoecology group focuses on carbon cycling in wetlands, most notably peatlands. It involves monitoring the greenhouse gas exchange of wetlands, examining controls of allocation and decomposition and deriving emission factors. We map soils and plant species in mires to assess their ecological status and investigate processes of peat formation and degradation. Our applied research puts this understanding to use for deriving carbon dioxide compensation schemes, the assessment of ecosystem services and the development of adapted mire restoration strategies. Recent projects include the EU cofunded BioDiversa projects PRINCESS and ReVersal that examine paludicultures on fens and bog evolution and restoration trajectories as well the large Austrian mire conservation project LIFE AMooRe, in which our group examines the controls of greenhouse gas exchange and derives emission factors from differently managed peatlands.
Research environment
The research group consists of several University- and third party funded scientists, technicians and administrative staff. A large part of our research is based on our Long Term Wetland Ecological (LTWER) field stations in the reed belt of Lake Neusiedl and the Pürgschachen Bog in the Alps, where we operate Eddy Covariance towers that continuously determine the CO2 and CH4 exchange of the sites. Our laboratories are specialized for the determination of carbon liquid, gaseous and solid phase. Our newest instruments are isotopic greenhouse gas analyzers for the determination of C and N isotopes an H2O, CO2 and CH4. Our research strongly inter- and transdisciplinary. We cooperate with research institutions worldwide and in Europe as well as with national and regional administrative bodies and NGOs as well as the Convention on Wetlands (Ramsar).
Expectations towards postdoctoral fellows in this programme
We are hoping that the postdoc is able to put the existing infrastructure and our research network to good use and who is able to connect with our team of postdocs and doctoral students. Due to our interdisciplinary orientation, the background of the postdoc may be from physics / meteorology / hydrology (in case the scientists aims at working with our eddy covariance towers), from soil science / biogeochemistry (in case of a focus on peat) or from vegetation ecology /paleontology (in case of a focus on plants and / or microfossils). Currently, our research group has members with environmental sciences, soil science, limnology, geography, and engineering backgrounds. In any case, we are looking for a scientist who regards diversity -also in scientific backgrounds- as an asset and who appreciates the value of wetlands.
Possible research themes or topics for postdoctoral projects
-Eddy covariance based analysis of greenhouse gas fluxes in mires
-Peat formation and decomposition
-Biogeochemistry of nitrous oxide release from mires
--Advancing carbon compensation schemes by peatland rewetting
Weblink for further information:
https://geographie.univie.ac.at/en/working-groups/geoecology/
Email: stephan.glatzel(at)univie.ac.at
Ourania Kounadi
Research Focus
The spectrum of our work ranges from “prediction” to “protection” on the topics of (a) location privacy and (b) spatial crime analysis. We examine the risk of re-identification & inference attacks, propose geoprivacy-by-design guidelines, and develop privacy protection methods. In crime analysis, our focus is on spatial crime forecasting and also understanding how crime and safety are perceived in the urban environment. Our current project investigates people’s perception of crime risk, which does not always coincide with the actual situation. We quantify the “gap” and provide levels of accuracy in space. The spatial components that may relate to and affect safety perception are analyzed in two urban areas in Austria and in Hungary to examine if perceptual findings are bound to cultural settings. Our technological tools are Sketch Mapping UI, which merges a traditional questionnaire approach with digital mental maps, and a GVA UI to visualize our findings interactively.
Research environment
The Digital Geography group is part of the Department of Geography and Regional Research in the Faculty of Earth Sciences, Geography, and Astronomy. Our work explores new means of conducting geographical research in the digital world. In this context, new is about (1) types of geodata, (2) forms of analysis, and (3) technologies. Within our institution our we collaborate with the working group of Spatial Data Science and Geocommunication and the working group of Urban Studies. Due to the interdisciplinary nature of our research, we have established successful international academic cooperations with Ghent University, Belgium (Department of Criminology, Criminal Law and Social Law), Obudai University, Hungary (Department of Geoinformatics), University College London (Department of Crime Science), and Louisiana State University (Department of Geography and Anthropology).
Expectations towards postdoctoral fellows in this programme
70% - Research & Reporting
- You will develop an independent research profile and conduct research projects in relation to the group’s research topics
- You will prepare manuscripts on your research findings and publish them in relevant scientific journals.
- You will participate in at least one national or international conference each year to present your research results.
- You will apply for third-party funding from national and/or international funding organizations.
25% - Teaching &supervision
- You will independently teach courses in the department of Geography and Regional Research.
- You will co-supervise BSc, MSc, and PhD students.
5% - Other tasks
- You will participate in evaluation measures and quality assurance.
- You will participate in academic self-governance (especially in research and teaching).
- You will support data management.
- You will participate in public relations work, such as press releases and presentations at public events
Possible research themes or topics for postdoctoral projects
1) Spatially Conscious Machine Learning
We are interested in engineering spatial features into ML models. These features represent spatial information extracted via various spatial statistical techniques that cannot be inherently captured by traditional ML models.
2) Spatial Crime Forecasting
Our focus is on short-term predictions in micro-geographies. In particular, we are investigating how open or publicly available sources of geo-information can help capture ambient population models that can either represent targets (i.e., crime victims) or guardians (i.e., mitigators of crime).
4) Location Privacy Protection Applications directed to Data Subjects
We are working on protection mechanisms that are designed to be used by the data subjects. Thus, increasing their awareness of location privacy as well as returning their control over the data they produce. This is in contrast to the mainstream research that offers solutions that can be “possibly” used by the data controllers.
Weblink for further information:
https://geographie.univie.ac.at/arbeitsgruppen/digital-geography/team/ourania-kounadi/
Email: ourania.kounadi(at)univie.ac.at
Ugur Öztürk
Research Focus
Among the most destructive socio-natural hazards, landslides are commonly studied as potential sources of hazard. Most advanced models even consider how societal urban feedbacks affect their occurrence. However, how past disasters shape our society is rarely questioned. The existing literature, which mainly studies post-disaster response in a few local cases, already identifies common ways of reacting. Within this postdoctoral research, we aim to investigate whether there are truly global, groupable patterns by which societies are shaped locally after a disaster. We ask which reactions are planned or coincidentally mitigatory and which should be avoided in the future. We will first select cities located partly on active landslides and examine how they have been evolving in light of landslide activity. Another angle is to focus on former disasters; for example, a famous landslide site in Medellin has become a monumental green space, so a follow-up landslide can no longer impact people.
Research environment
The Department of Geography and Regional Research is launching a research platform to retrospectively study recent complex socio-natural disasters, such as the September 2024 Central European floods, from physical and social perspectives. The platform aims to identify natural and societal root causes shaping such compound events. Alongside the platform, the ERC-funded UrbanSlide project models changes in the socio-natural hazard potential by accounting for societal mal/adaptation feedback.
The PostDoc will be hosted in the Geohazards group, provided with essential research infrastructure, and will closely collaborate with UrbanSlide personnel. They will also be integrated into the research platform, supporting its goals by analysing longitudinal surveys collected. Through this dual involvement, the PostDoc will contribute to uncovering the stages of societal post-disaster recovery and long-term response pathways, and to identifying whether disasters leave lasting societal impacts.
Expectations towards postdoctoral fellows in this programme
The Geohazards group primarily focuses on spatial modeling of geohazards in urban areas, with expertise on the physical aspects of socio-natural hazards. The PostDoc is expected to complement the modeling efforts by contributing social science perspectives, such as urban vulnerabilities, and assisting in enhancing the hazard models we develop. They will also strengthen ties with the Urban Studies group within our department. Externally, they will have the opportunity to collaborate with leading scientists on the subject from the University of Potsdam (Germany) and the Royal Museum for Central Africa (Belgium), both of which are close partners of our group. The PostDoc will have considerable autonomy to develop their own research agenda, receiving regular feedback on the ideation, implementation, and dissemination of their work. The Geohazards group will also support applications for individual or collaborative research grants to advance their career.
Possible research themes or topics for postdoctoral projects
Possible research themes for postdoctoral projects include:
- How do past disasters shape societal structures, urban planning, and long-term recovery pathways? Which societal responses to hazards are mitigatory, and which may have unintended negative consequences?
- Is there indigenous or local knowledge claimed to reduce socio-natural hazard impacts, and can such claims be systematically analyzed or modeled?
- How do societal feedbacks influence hazard potential over time, and can these dynamics be integrated into existing geohazard models?
Weblink for further information:
https://geographie.univie.ac.at/arbeitsgruppen/geogefahren/team/ugur-oeztuerk/
Email: ugur.oeztuerk(at)univie.ac.at
Dan Le Heron
Research Focus
Glacial geology and geomorphology, spanning work on modern glaciers in the Alps to deep time (Late Proterozoic, Late Ordovician, Late Palaeozoic, Pleistocene), with a global focus. We address topics and questions such as the following. The processes of sediment release and bedform generation at modern glaciers in the context of Anthropogenic change. Subglacial processes and products and reasons for their diferences across the full extent of geological time. The overarching questions "what is a typical glacial record, and how can we reconstruct ice dynamics" are pertinent to what we do.
Research environment
We are a small group and there is a lot of intensive collaboration across our projects. We are an international group of people, and we have current projects in the Austrian Alps (modern glacial processes in the Ötztal Alps particularly), Namibia and South Africa (Late Palaeozoic Ice Age record) and Chile (Patagonian glaciers). We are based in the Geology department and there is access to lots of other overlapping research groups in our field, including structural glaciology and geomorphology, in our faculty. We have good sedimentology labs, including thin section preparation (e.g. micromorphology), microscopes, including a range of SEM instruments.
Expectations towards postdoctoral fellows in this programme
I will do my best to mentor you to the best of my ability and to champion your work. We have built a group so far with a genuine team dynamic, working together on papers, projects and fieldwork and there is a lot of collaboration with colleagues from S Africa, the USA, China and the UK. So being able to work well with people is really important. Potential in scientific writing (papers, grants) is important.
Possible research themes or topics for postdoctoral projects
If you are applying for this scheme, and your research broadly aligns with what we do, please just get in touch and we can discuss possible projects.
Weblink for further information:
https://geologie.univie.ac.at/en/
Email: daniel.le-heron(at)univie.ac.at
Thomas Griffiths
Research Focus
Main research areas: Microstructures of magmatic and metamorphic rocks, with particular focus on igneous rocks. Crystallographic orientation relationships and crystallographic preferred orientation development in magmatic rocks. Crystal clustering mechanisms, syn-eruptive crystallisation and evolution of crystal size and shape distribution in magmatic rocks. Interfaces in geological materials. Applications of scanning electron microscopy and electron backscatter diffraction (EBSD) analysis.
Current projects: Syn-eruptive quantitative petrology: new frontiers in volcanic monitoring and eruptive phenomena evolution
Research environment
The petrology group at the Department of Lithospheric Research offers a lively, supportive research environment. Current topics range from ice nucleation on mineral aerosols to the evolution of the deep mantle. As part of the Faculty for Earth Sciences, Geography, and Astronomy (FGGA), we have strong connections to other earth sciences departments (within FGGA and beyond), as well as to an interdisciplinary doctoral school. The postdoc is guaranteed office space, standard computing infrastructure, and access to workstations, optical microscopes, and labs for sample preparation and high temperature synthesis. High-end analytical infrastructure of the Core Facilities ‘Electron Beam Microanalysis’ and ‘GeoIsotopes’ is available at internal rates. The postdoc will be eligible for the FGGA early-stage researcher program (€1500/year) and the FGGA Women in Science program (€2000/year), which support conference trips, external measurement trips, and training.
Expectations towards postdoctoral fellows in this programme
Pursuit of independent research on themes aligned with overall research interests of the department, including usage of electron microscopy research infrastructure at FGGA, the publication of results in peer reviewed journals, and the submission of research proposals (intended to be carried out at the department) to external funding agencies. We expect active participation in scientific discussions for exchange with other members of the work group and the faculty, including the attendance of seminars and the presentation of preliminary results in internal work group meetings.
Possible research themes or topics for postdoctoral projects
Application of electron backscatter diffraction to study igneous and/or metamorphic microstructures
Growth-induced crystal lattice rotation
Development and petrological significance of crystallographic orientation relationships in magmatic and/or host-inclusion systems
Grain- and phase boundary character and energy distribution in rocks
Weblink for further information:
https://www.researchgate.net/profile/Thomas-Griffiths-5
Email: th.griffiths(at)univie.ac.at
Blaž Gasparini
Research Focus
I'm a cloud and climate scientist working at the intersection of small-scale cloud processes and climate. I’m currently most excited about lifecycle-resolved analyses of high clouds and how they may change in a warming world. I have experience with both coarse and high-resolution atmospheric models in realistic and idealized settings. I would also like to dive deeper into observational data, especially global remote-sensing of clouds and radiation. I’m also interested in aerosol–ice-cloud interactions, climate and weather modification, and the potential climate impacts of space junk. More broadly, I care about climate change, its societal impacts, and effective communication of climate and weather information.
Ongoing projects:
– De-risking cirrus modification
– PATSI (space-junk influence on climate)
– ANVIL (tropical high-cloud feedbacks, in review)
– collaboration with AC3S project led by U Stockholm (aerosol-convection interactions)
Research environment
I'm embedded in the climate dynamics and computation research team (http://klimadynamik.univie.ac.at) that tries to understand our climate in new and fundamental ways. Our team integrates innovative research, excellent teaching, and accessible outreach. Our team culture is built on collaboration, diversity and personal growth. We are guided by the principles of open and inclusive science, and are fueled by our curiosity and the desire to explore new approaches to long-standing problems. We build numerical representations of the climate system and combine them with theory and observations to push the boundaries of understanding and help train future generations.
We have a number of collaborations with researchers throughout the world, for example from the University of Washington, Stockholm University, Imperial College, ETH Zurich. Moreover, our team is each year hosting an international pre-EGU ice cloud workshop.
Expectations towards postdoctoral fellows in this programme
You have plenty of space to develop your own ideas. We expect cutting-edge climate research. We want research that goes beyond superficial analysis and tries to achieve a mechanistic, process-based understanding of the phenomena of interest.
Our lab book provides more info on our team values and how we work as a team, see https://klimadynamik.univie.ac.at/wp-content/uploads/2023/11/labbook_public.pdf
Possible research themes or topics for postdoctoral projects
Let's get in touch and chat about it!
Weblink for further information:
https://klimadynamik.univie.ac.at
Email: blaz.gasparini(at)univie.ac.at
Stefano Serafin
Research Focus
The host is Dr. Stefano Serafin, a senior scientist with about 20-year experience in mountain meteorology and high-resolution numerical modelling of the atmosphere. Dr Serafin’s current research deals with the representation of boundary-layer turbulence and orographic drag in numerical weather prediction (NWP) models. In particular, he works on constraining empirical parameterizations of these processes with observations using inverse modelling techniques, primarily ensemble data assimilation. The main working tools are NWP codes that can run in large-eddy simulation mode (e.g., WRF), ensemble data assimilation codes (e.g., the Data Assimilation Research Testbed DART), and observations from field campaigns such as TEAMx, which took place in 2025 in the Central Alps. Research on ensemble-based parameter estimation is conducted by Dr. Serafin with two project-funded PhD students, and is connected with several international partners through the TEAMx programme (www.teamx-programme.org).
Research environment
The researcher is part of the Numerical Weather Prediction and Data Assimilation group led by Prof. Martin Weissmann (20 years of expertise in convective-scale data assimilation with ensemble methods), which comprises about 10 scientists. Other staff at the Department of Meteorology and Geophysics (IMGW) consists of about 30 among professors, senior scientists, post-docs and doctoral candidates. The working groups are active in several interconnected areas of weather and climate research (NWP, climate dynamics, atmospheric transport modelling) and foster a culture of cooperation, which creates a fertile work environment with great development opportunities. IMGW has access to continuously improving high-performance computing resources, both in-house (a cluster with 19 computing nodes and 4 PB storage capacity) and on national infrastructures (private nodes on the Austrian Scientific Cluster). Research staff at IMGW is supported by dedicated IT administrators and software engineers.
Expectations towards postdoctoral fellows in this programme
Essential qualifications: Background knowledge in meteorology or applied mathematics (inverse modelling); demonstrated proficiency in Python and, optionally, Fortran programming; familiarity with Linux/UNIX environments; strong motivation; positive attitude toward teamwork; excellent verbal and written communication skills including fluency in English. Further desirable qualifications: Basic experience with numerical weather prediction codes and data assimilation methods; familiarity with high-performance computing; interest in the applications of machine learning in meteorology. Expectations: (1) At the beginning of the post-doc fellowship: Implementation, in agreement with the mentor, of a credible 3-year research plan that leads to multiple publications on leading scientific journals. (2) Towards the end of the fellowship: Seeking for self-funded further employment through independent writing of an own research proposal.
Possible research themes or topics for postdoctoral projects
Proposals structured along the following 3 stages are solicited. (1) Nature runs: Accurate high-resolution simulations, validated with field observations, of a specific small-scale meteorological process. (2) Coarser-resolution ensemble simulations, in which the same process is parameterized. (3) Dynamical adjustment of empirical constants in the parameterized ensemble, using synthetic observations of the nature run. An example: if the parameterized process is atmospheric turbulence, the nature run is a large-eddy simulation and the ensemble uses single-column models at nominal climate-model resolution. This method is flexible and lends itself to application in many contexts. Candidates are encouraged to identify creatively their preferred parameterization problem (e.g., turbulence over heterogeneous terrain, wind farms, urban canopy) and to elaborate on the appropriate inverse modelling method (e.g., Ensemble Kalman Filter inversion vs. Markov-Chain Monte Carlo, if possible).
Weblink for further information:
https://img.univie.ac.at/en/about-us/staff/private-homepages/serafin-stefano/
Email: stefano.serafin(at)univie.ac.at
Andreas Stohl
Research Focus
Transport in the atmosphere of: greenhouse gases, radionuclides, heat, water, microplastics and other substances.
Inverse modelling of emission sources (e.g., of greenhouse gases).
Development of atmospheric transport models (FLEXPART).
Research environment
In our group, we are developing the FLEXPART atmospheric transport model, which is used in >60 countries worldwide. We offer an exciting international atmosphere with a well-balanced gender distribution. We have access to the Austrian Scientific Computing infrastructure, which runs Austria's main supercomputer, as well as our local compute cluster with multi-petabyte storage. The team is not only developing FLEXPART but also seeking applications of the model, both established ones and new developments. We are involved in numerous national as well as international projects and have a strong focus on scientific excellence.
Expectations towards postdoctoral fellows in this programme
Strong programming skills in Python and/or Fortran and a solid background in the natural sciences.
Willingness to work in a team.
Scientific curiosity.
Experience with atmospheric (transport) models would be a plus.
Weblink for further information:
https://flexteam.univie.ac.at/
Email: andreas.stohl(at)univie.ac.at
Chi Zhang
Research Focus
For a decade as an independent Principal Investigator (PI), my research has focused on water-rock interactions in critical subsurface processes (e.g., groundwater movement, weathering, water-rock interactions, and CO2 sequestration) using combined geophysical, hydrogeology, geochemical tools and numerical modeling methods from micro- to macro-scales. My work has resulted in over 50 peer-reviewed publications in high-impact geophysical journals. My research combines discovery-driven science with practical solutions, aiming to address environmental challenges through innovative approaches.
Current projects:
• Principal “UNSAT-NMR”. FWF Principal Investigator Projects Jan. 2026 – Dec. 2028. (Referred/Competitive).
• Co-Principal “SAFARI – Solid and Fluid Regime Transition of Granular Materials”. EU Horizon Europe MSCA Staff-Exchange (101235182). 2025 – 2029. (Referred/Competitive).
• Host Principal “Energy Security in Transition”. FWF ESPRIT Award to Dr. Nils Haneklaus (host PI/mentor). 2025 – 2028 (Referred/Competitive).
• Principal “LINA”. OeAD-Taiwan International Collaboration Project Nov. 2025 – Oct. 2027. (Referred/Competitive).
• Principal “How cold breaks rocks: discoveries from Austria's frozen landscapes”. City of Vienna (Stadt Wien) Research Funding. Nov. 2024 – Oct. 2025. (Referred/Competitive).
Research environment
Dr. Zhang’s Environmental Geophysics group recently acquired a low-field nuclear magnetic resonance (NMR) rock analyzer specifically designed for porous media characterization. This cutting-edge system, the first of its kind in Austria and central Europe, positions the University of Vienna as a leading institution for low-field NMR research and applications in the region. Additionally, Dr. Zhang’s group possesses a borehole NMR system (DART) from VistaClara Inc., which will be instrumental for field applications.
Currently Dr. Zhang's group has 1 postdoc, 1 visiting professor, 5 PhD students, 1 visiting PhD student, and 1 Master students, creating diverse and supportive research environment for every group member.
Dr. Zhang has established solid research collaborations with institutions across Europe, the U.S., China, and Brazil, leading to joint publications and research proposals like FWF international, OeAD international mobility grants, EU Horizon MSCA staff exchange and doctoral network. These international research engagements expand the impact, reach, and interdisciplinary nature of my work.
Expectations towards postdoctoral fellows in this programme
This candidate should have international background and diverse academic training. I am looking for a scholar who is uniquely positioned at the intersection of geophysics, environmental science and engineering, and civil engineering. While my group brings strong expertise in geophysical sensing technologies and multiscale hydrologic process monitoring, I am expecting a candidate who has profound training in multiphase flow dynamics and geophysical theories to bridge fundamental pore-scale mechanisms controlling fluid (e.g., water, contaminants, CO2, and microplastic) transport with macro scale observations.
I expect this collaboration to yield 4 to 5 high-impact publications in top journals spanning environmental science, geophysics, and hydrology. As a female scientist in STEM, she should significantly contribute to the university and geophysics community's commitment to diversity and leadership, and also strengthens our applications for competitive internal and external research grants.
Possible research themes or topics for postdoctoral projects
*Basic research questions: how does a drop of water move within soil and rock? and how can we monitor it?*
Potential project topics: Freeze-thawing of Alpine rock and its climate impact; Peatland geophysics: Linking pore architecture, hydrology, and greenhouse gas emissions in peatlands; Unveiling Microplastic Fate in Soils: From Pore-Scale Mechanisms to Predictive Modelling; AI-driven vadose hydrogeophysical investigations; Integrate geophysical methods to characterize and monitor PFAS contamination within soil and groundwater.
Weblink for further information:
https://imgw.univie.ac.at/ueber-uns/mitarbeiterinnen/persoenliche-homepages/zhang-chi/
Email: chi.zhang(at)univie.ac.at
Petra Heinz
Research Focus
We reconstruct marine ecosystems through micropaleontological, ecological, and biological analyses of benthic foraminifera and ostracods. These taxa are highly sensitive to environmental change, exhibiting shifts in community composition, abundance, diversity, and spatial distribution. By examining modern and fossil assemblages, we infer key environmental drivers—including food availability, oxygenation, temperature, and salinity—that shape benthic communities. Our approach also incorporates assessments of pollution to evaluate anthropogenic impacts alongside natural variability. Together, these proxies provide a robust framework for reconstructing past and present marine conditions, refining interpretations of ecosystem dynamics, and improving our understanding of how benthic systems respond to multiple stressors. It delivers high-resolution environmental reconstructions and offers critical baselines for monitoring, management, and the prediction of future change in marine habitats.
Research environment
Our infrastructure supports experimental and analytical studies on foraminifera and ostracods, from culture to microfossil characterization. We operate a cultivation laboratory with diverse taxa and algal cultures for feeding. A walk-in, climate-controlled chamber enables stable, long-term experiments and precise manipulation of temperature, salinity, oxygen, and carbonate chemistry, monitored with specialized instrumentation. For new sampling, the department provides grab samplers in two sizes and a hammer corer. Analytical capabilities include a micropaleontological lab for sample processing, taxonomic work, and thin-section preparation. High-resolution imaging is provided by 3D and fluorescence microscopes and access to SEM via the Core Facility for Electron Beam Microanalysis.
Expectations towards postdoctoral fellows in this programme
We seek an independent scientist who brings a well-defined research idea. Two profiles are welcome: A) Culture-based: Use our cultivation facilities for foraminifera and ostracods. Prior experience with live material is required, ideally including experimental design and execution. B) Fossil-based: Work with microfossil assemblages. Proven taxonomic expertise and hands-on experience in sample preparation and processing are expected; ideally you already have your own material ready for analysis. Applicants should demonstrate initiative, rigorous methods, and the ability to work autonomously while collaborating within our team.
Weblink for further information:
https://palaeontologie.univie.ac.at/en/research/palaeoecosystems/
Email: petra.heinz(at)univie.ac.at
Martin Zuschin
Research Focus
Our field of research is Conservation Paleobiology and Historical Ecology. We study modern environments and their very young fossil record to define ecological baselines for the differentiation of anthropogenic and non-anthropogenic change and to set realistic targets for the restoration of disturbed ecosystems. We use the older geologic record including now-extinct taxa to study biotic responses to environmental change that is beyond conditions observed today and to strengthen the ecological theory underlying conservation practice. For this purpose we concentrate on modern and fossil marine ecosystems and we use geohistorical records (e.g., fossils, sediment cores, geochemical data among others) to study biotic responses to environmental disturbances.
We do a lot of field work and we rely heavily on new collections and environmental data of modern and fossil communities and environments. We study regional ecosystems to ask questions of wider importance. The sedimentological and stratigraphic context of the fossil record is of primary importance for our environmental evaluations. We do a lot of age-dating and we make use of historical data sets and museum collections wherever possible.
We study macrofauna (e.g., brachiopods, bryozoans, molluscs, corals, fish otoliths, sponge spicules) and microfauna (e.g, ostracods and foraminifers) from fossil, archaeological and historical records.
Research environment
Our team Historical Ecology and Conservation Paleobiology currently consists of a professor, a senior scientist, a postdoc, two preadocs and 2 master students together with technical and administrative staff. We have a big wet lab, very good micrscopes and access to a very good SEM.
Expectations towards postdoctoral fellows in this programme
The postdoctoral fellow has a research history in palaeontology or marine ecology with competence in marine invertebrates and multivariate statistics and strong interest in marine Conservation Palaeobiology.
Possible research themes or topics for postdoctoral projects
Conservation Paleobiology of late Pleistocene and Holocene benthic assemblages of the Mediterranean Sea.
Late Pleistocene and modern coral reefs of the Red Sea.
The candidate is welcome to suggest topics / themes.
Weblink for further information:
https://palaeontologie.univie.ac.at/forschung/conservation-palaeobiology-and-historical-ecology/
Email: martin.zuschin(at)univie.ac.at
Faculty of Life Sciences
Narly Golestani
Research Focus
We examine how structural and functional properties of neural auditory and language systems constrain speech perception, language learning, multilingualism and reading. We link detailed morphology of Heschl’s gyrus and temporal sampling of speech to individual differences in aptitude, dyslexia and multilingualism. Using structural and functional MRI, EEG/MEG, computational modelling and behavioural assays, we map how nature and nurture shape linguistic abilities. Our automated phenotyping tools and open datasets enable reproducible characterisation of auditory cortex structure and its relationship to cognition, and emerging imaging–genetics findings. We aim to identify mechanistic markers that bridge behavioural profiles, neural dynamics and developmental or clinical outcomes. Ongoing/future directions include lifespan and developmental approaches to probe multilingualism-induced cognitive and neural reserve, and multimodal studies of multilingual dyslexia.
Research environment
The lab is affiliated with Universities of Vienna and Gevena. It operates within an interdisciplinary research ecosystem connecting linguistics, psychology, neuroscience, engineering, data science and clinical partners. We work with high-quality multimodal datasets spanning multilingualism, dyslexia, music and memory in developmental, healthy adult and aging cohorts, and use established pipelines for structural segmentation, functional modelling and network-level analyses. Fellows have access to advanced neuroimaging facilities, high-performance computing and methodological expertise, as well as active collaborations with ENIGMA-Language, with the Swiss National centre for research competence on language evolution (https://evolvinglanguage.ch/) and other international networks. The environment prioritizes open science, reproducibility, regular lab meetings, joint supervision and cross-team methodological exchange, supporting both independent and collaborative research trajectories.
Expectations towards postdoctoral fellows in this programme
Fellows are expected to design, execute and disseminate rigorous projects that leverage our datasets, computational tools and conceptual frameworks on any of the research focus topics listed above. They should have advanced experience with neuroimaging data analysis and with statistics and programming, and should be comfortable integrating neuroimaging, modelling and behavioural approaches, while contributing to open, reproducible workflows and mentoring students. Active collaboration within the team and with external partners is encouraged, including engagement with comparative or clinical datasets where relevant. I will provide structured mentoring, strategic guidance, feedback on analyses and writing, and support for fellow-initiated grant proposals, fostering a trajectory toward research independence.
Possible research themes or topics for postdoctoral projects
Potential topics include mechanistic links between auditory cortex morphology, neurofunctional encoding of speech and reading or language disorders; imaging-genetics approaches to structural phenotypes using TASH, MCAI and large-scale consortia; modelling how multilingual experience shapes neural structure, function and cognitive profiles using NEBULA101 (https://pubmed.ncbi.nlm.nih.gov/39762267/ ) and related datasets; and brain based approaches to studying neural reserve (e.g. brain age, entorhinal grid-like codes) in the context of disorders and aging. Each topic can flexibly integrate behavioural, structural, functional and computational components.
Weblink for further information:
http://brainandlanguagelab.org/
Email: narly.golestani(at)univie.ac.at
Petra Sumasgutner
Research Focus
I study how rapid human-driven environmental change reshapes species interactions, focusing on predator-prey and predator-scavenger dynamics. My work integrates advanced movement ecology with behavioral and physiological measurements and demographic modeling to identify mechanisms linking individual responses to population outcomes. Using machine-learning and AI-based classification of accelerometer-informed signals, I detect fine-scale behaviors such as hunting and scavenging to quantify their ecological and energetic consequences. I coordinate major collaborative initiatives, including the Global Anthropocene Raptor Research Network and one ICARUS project tracking kestrels across Europe. On the Galápagos, I collaborate on the Sigfox network rollout with the Max Planck Institute and lead pilot biologging studies to support multi-species monitoring and the reintroduction of short-eared owls on Floreana. Other systems include African crowned eagles, golden eagles and Northern ravens.
Research environment
My group offers a dynamic, collaborative environment at the interface of movement ecology, behavioral ecology, and conservation science. We work across the University of Vienna Biology Building and the Konrad Lorenz Research Center in Grünau/Almtal, where we provide direct access to key model systems, including the long-term raven research. I currently supervise five PhD students and am recruiting an additional postdoctoral researcher to ensure an active peer community with strong synergies and a vibrant, collegial setting. We host extensive multi-sensor biologging datasets and maintain established field sites in Vienna (urban kestrels, urban bees), South Africa (crowned eagles in Durban), and on the Galápagos (short-eared owls, Darwin’s finches). The postdoc will benefit from access to high-quality infrastructure and active collaborations with world leaders in animal movement research. This combination will enable high-impact, career-building research as well as field opportunities.
Expectations towards postdoctoral fellows in this programme
I am seeking a postdoctoral researcher with strong data science skills, including advanced statistical modelling and experience with biologging datasets such as GPS and multi-sensor data. Expertise in accelerometer analysis and machine learning approaches is highly desirable. The postdoctoral researcher is expected to apply multivariate analyses to address fundamental questions in movement ecology and contribute to the group’s success by co-mentoring PhD students and supervising Master’s projects. Our extensive, long-term, and multi-sensor datasets offer exceptional opportunities for novel, high-impact analyses. We value researchers who can unlock their full potential through rigorous data management and adherence to FAIR principles. Depending on interests, projects may also develop conservation-relevant applications. Strong project coordination skills are advantageous, and teaching opportunities – particularly within the advanced biologging statistics module – are available.
Possible research themes or topics for postdoctoral projects
- Galápagos predator dynamics: Before-after-control-impact analyses of short-eared owl movement and temporal niche partitioning after invasive rodent eradication and the return of competitors like Galápagos hawks
- Urban apex predators: High-resolution multi-sensor tracking of crowned eagles to reveal hunting strategies and pair coordination in complex urban landscapes.
- Weekend effect & human activity pulses: Quantifying behavioral and energetic responses to fluctuating human presence – from recreational peaks in the Alps to weekly pulses in cities – to identify disturbance thresholds and coexistence opportunities.
- Continental kestrel demography: Europe-wide analyses of migration, survival, and recruitment using long-term ICARUS tracking to identify demographic drivers across human-impact gradients.
- Sensory ecology via on-board acoustics: Developing integrated tracking–acoustic devices to quantify soundscapes and how raptors perceive and navigate human-modified habitats.
Weblink for further information:
https://klf.univie.ac.at/research/current-projects/acceleration-for-food/
Email: petra.sumasgutner(at)univie.ac.at
Agnes Dellinger
Research Focus
My research is centred on exploring how plant-animal interactions are modulated across different abiotic (e.g., climate) and biotic (e.g., other species) contexts and affect plant evolution and diversification. With a primary focus on pollination, I study how plant reproductive strategies such as shifts to autonomous reproduction, pollen dosing or differential trait investment change across such gradients and deep time. The large, pantropical plant family Melastomtaceae (> 5800 spp) serves as model for many of my questions, including detailed experimental and ecological studies on floral biomechanics and buzz-pollination. Recently, I have started expanding work from just the flower to the fruit stage of plant life, thereby capturing the full reproductive spetrum of plants and allowing for a more nuanced investigation of the ecological and evolutionary links between flower and fruit traits and the two essential mutualistic interactions of plant reproduction, pollination and seed dispersal.
Research environment
My lab on Plant-Animal Interactions currently hosts six PhD and four MSc students, with several research assistants and technicians. Lab members come from around the world, especially from countries where our study family Melastomataceae grow, and work on various questions related to the ecology, evolution and functional morphology of Melastomataceae flowers and fruits. The lab environment is highly collaborative, resulting in joint field and lab projects as well as painting sessions beyond our bi-weekly lab meeting. As a postdoc in my lab, you would have access to all departmental lab facilities, including genomics labs, SEM/TEM and CT-scanning and light microscopy, our botanical garden, cluster computing facilities and the diverse research groups of our department, offering potential for collaboration outside my group. I am further expecting additional postdocs to join my lab in the course of 2026 given several ongoing grant applications from potential postdocs.
Expectations towards postdoctoral fellows in this programme
I envision a collaborative work relationship with a postdoc joining my lab, ideally broadening both the postdoc’s, my students’ and my own perspectives on plant diversification and evolution. Because attaining and demonstrating scientific independence in the postdoctoral phase is a crucial step for a successful academic career, I encourage interested postdocs to propose their own, independent research projects, ideally with logical links to my own research. I further expect the postdoc to integrate into ongoing research projects when they have complementary skills, with the possibility of taking co-advisory roles for my PhD and MSc students. Active participation in lab meetings and contributing to our friendly, inclusive and collaborative lab culture is further expected.
Possible research themes or topics for postdoctoral projects
I encourage potential postdocs to propose their own projects as a critical step for developing an independent academic career. However, there are several areas where I could see particularly fruitful and synergistic collaborations:
- Exploring the ecological and evolutionary interrelationships of flowers and fruits
- Contributing to/expanding/analysing the trait databases we are building for Melastomataceae
- Interest in working with network statistics and ecogeographic evolutionary modelling of plant-animal interactions
- Interest in working at the interface of plant morphology and function/biophysics (e.g., in the context of buzz-pollination)
Weblink for further information:
https://agnesdellinger.org/
Email: agnes.dellinger(at)univie.ac.at
Stefan Dullinger
Research Focus
I am an ecologist and biogeographer with a special focus on analysing and modelling species distributions and how they have changed and will change in response to altered environments. Most of my work was focused on plants, but I also conducted a number of macroecological studies involving other taxonomic groups. The main topic of my research is the response of biodiversity patterns to various facets of anthropogenic global change, especially climate and land use change as well as biological invasions. I therefore apply a range of statistical methods to existing datasets or to data collected by own field observations and experiments. In addition, I have a focus on the development and application of predictive models of species’ range dynamics. I have a particular, but not exclusive interest in mountain plants and ecosystems.
Research environment
I am leading the Biodiversity Dynamics and Conservation Group which currently includes about 25 persons (tenure-track positions, senior scientists and PhDs) from various countries. We have a relaxed and collaborative atmosphere including regular lab meetings and joint group activities. As a Post-Doc in the group you will also have access to shared resources, especially several computer servers and high-performance computing facilities.
Expectations towards postdoctoral fellows in this programme
Candidates who apply for a Post-Doc position in my lab should have research interests which overlap with mine in a broad sense. I encourage applicants to develop their own ideas and would be happy to support them in developing these ideas into a full research proposal to be funded e.g. by the Austrian Science Fund (FWF). Regarding skills, I expect some experience in statistical computing and, ideally, good knowledge of at least one taxonomic group. Knowledge and skills complementary to the ones in our group, e.g. with respect to plant-animal interactions, socio-ecological research, remote sensing or other fields are welcome. A successful candidate should moreover become involved in the supervision of master and PhD students in the group if their work aligns with her own skills and interests.
Possible research themes or topics for postdoctoral projects
Research topics should, in a broad sense, focus on biodiversity response to environmental change, including aspects of biological conservation, at scales from local to global. Analyses of past changes and their drivers are as welcome as attempts to predict future ones. Within this broad field I encourage candidates to develop their own ideas and interests.
Weblink for further information:
https://bdc.univie.ac.at/
Email: stefan.dullinger(at)univie.ac.at
Franz Essl
Research Focus
Franz Essl is a professor and biodiversity researcher at the Department of Botany and Biodiversity Research at the University of Vienna. He is considered a leading expert in biodiversity research with a focus on global change biology and plant invasions. He has published more than 380 scientific publications and several textbooks. He is a member of the executive team of the Austrian Biodiversity Council. Franz Essl was named "Scientist of the Year" in Austria by the Club of Austrian Science Journalists in 2022.
Research environment
My Division - the Division of BioInvasions, Macroecology and Global Change - is a highly dynamic and successful lab with a focus on how global change affects biodiversity, and which consequences these changes have for the fate of biodiversity and society. The interdisciplinary team consists of one senior scientist, four PostDocs, seven PhDs , and myself. We are very well connected to leading colleagues in our fields of interest, are very successful in securing third party funding, and have an excellent publication output (> 50 published papers in WoS journals in 2025 so far), including leading journals such as Science, Nature Climate Change, and Nature Communications.
Expectations towards postdoctoral fellows in this programme
Suitable PostDoc candidates should develop cutting-edge research ideas and projects aimed at improving the understanding of biodiversity patterns and the drivers that affect them (in particular biological invasions, climate change, land use change) under past, current and future conditions. Expertise on the ecology of a taxonomic group is advantageous. Further, interest and capability to develop conceptual ideas would be excellent. Suitable candidates should develop new research questions that fall within the above-described themes, interacting and collaborating with people already working in the Division. A keen interest in keeping abreast with ongoing developments in biodiversity science is expected. Similarly, participation in international publication and presentation activities as well as the mentoring of students engaged in projects of the Division is expected. Suitable candidates should have strong analytical skills, and they should be an integrative, team-oriented personality.
Possible research themes or topics for postdoctoral projects
Themes for suitable candidates address a range of broad topics that are situated at the crossroads of Global Change Biology, Macroecology, Biogeography and Conservation Science. Methods may include a wide spectrum of approaches, including unconventional and interdisciplinary ones, and may span the full breadth from basic to applied science. Research topics that address facets of biodiversity change or processes that shape human-environment systems in an era of rapid global environmental change are of particular interest. Focal taxonomic groups may include vascular plants but may also focus on other taxonomic groups (animals, fungi).
Weblink for further information:
https://bioinvasions.univie.ac.at/
Email: franz.essl(at)univie.ac.at
Bernd Lenzner
Research Focus
Bernd Lenzner is an expert in the fields of macroecology, macroevolution, biodiversity science with a focus on biological invasions and scenario science. His research includes science-policy work particularly on the CBD Kunming-Montreal Global Biodiversity Framework, EU Invasive Species and Restoration Regulation. He currently is the PI of two projects, (i) OneSTOP (a Horizon Europe project; https://onestop-project.eu/) and (ii) BioMonI (a Biodiversa+ project; https://biomoni.github.io/BioMonI/) that focus on biological invasions management and prioritization in the EU as well as Biodiversity Monitoring on Islands. Further interests are in biocultural diversity change (understanding biodiversity and language loss) and the role of biodiversity loss and conflict. His research is highly collaborative, including colleagues from many regions, research domains and backgrounds globally.
Research environment
Bernd Lenzner is a senior scientist and co-lead of the Division of BioInvasions, Macroecology and Global Change (https://bioinvasions.univie.ac.at), which is a highly dynamic and successful lab with a focus on how global change affects biodiversity, and which consequences these changes have for the fate of biodiversity and society currently and under different future scenarios. The team is highly diverse and interdisciplinary with colleagues coming from various geographic and topical backgrounds. The Division has access to top-class computational facilities and used state of the art modelling techniques in its work. We are very well connected to leading colleagues in our fields of interest, are very successful in securing third party funding, and have an excellent publication output (> 50 published papers in WoS journals in 2025 so far), including leading journals such as Science, Nature Climate Change, and Nature Communications.
Expectations towards postdoctoral fellows in this programme
Suitable candidates are expected to develop individual, cutting-edge research ideas and projects aimed at global biodiversity change, including different spatial and temporal dimensions. A particular focus should be on quantitative modelling but expertise and interest in working in interdisciplinary contexts and across disciplines is highly appreciated. An interest and capability to develop conceptual ideas is also very much appreciated. Given the large team in the Division and the diversity of expertise across realms, taxonomic groups and topics, the candidate is encouraged to leverage this expertise and should be comfortable and willing to navigate collaborative research approaches within and outside the Division. Participation in international publication and presentation activities as well as the mentoring of students engaged in projects of the Division is expected. Suitable candidates should have strong analytical skills, and they should be an integrative, team-oriented personality.
Possible research themes or topics for postdoctoral projects
Themes for suitable candidates address a range of broad topics that are situated at the crossroads of Global Change Biology, Macroecology, Biogeography and Conservation Science. Methods may include a wide spectrum of approaches, including unconventional and interdisciplinary ones, and may span the full breadth from basic to applied science. Research topics that address facets of biodiversity change or processes that shape human-environment systems in an era of rapid global environmental change are of particular interest. Interest in work at the science-policy interface is also particularly interesting.
Weblink for further information:
https://ucrisportal.univie.ac.at/de/persons/bernd-lenzner/
Email: bernd.lenzner(at)univie.ac.at
Jacqueline Loos
Research Focus
Our international and interdisciplinary “Justice and Conservation” research group works at the intersection of ecological and social conservation science. We investigate how human activities shape different dimensions of nature – ranging from species’ responses (e.g., butterflies and mammals) to biophysical and anthropogenic structures, to the ways in which nature contributes to human well-being, the effectiveness of conservation actions on biodiversity patterns, and human–nature relationships as drivers of conservation attitudes. We explore these interactions through an environmental justice lens, integrating quantitative biodiversity data with people’s perceptions of recognition, procedural justice, and the distribution of costs and benefits resulting from conservation interventions.
Research environment
We offer a collaborative and supportive research environment embedded in international networks of conservation and restoration scientists and practitioners. Postdoctoral researchers benefit from access to interdisciplinary expertise, opportunities for joint projects and co-authorships, and regular exchanges through seminars, workshops, and collaborative fieldwork. The environment actively supports the development of independent research profiles, the expansion of professional networks, and engagement with both academic and applied conservation communities.
Expectations towards postdoctoral fellows in this programme
We are looking for a postdoctoral fellow who can work independently and collaboratively, is ambitious and open to learning, and takes initiative and responsibility. The ideal candidate has quantitative skills, experience with fieldwork, remote sensing, and at least some modelling, but is also open to qualitative approaches. We welcome candidates interested in advancing methodological approaches in social-ecological research, and who can develop and execute their own work plan with guidance while contributing critical thinking and creativity to the research group.
Possible research themes or topics for postdoctoral projects
Combining conceptual synthesis, empirical fieldwork, spatial analysis, and agent-based modelling to quantify key social-ecological interactions, identify leverage points and tipping dynamics, and assess how protected areas and surrounding landscapes sustain biodiversity and human well-being, potential research topics include: connectivity and corridor design for wide-ranging species, impacts of habitat fragmentation on wildlife populations, landscape-scale effects of land-use and climate change, and integrating social and ecological data to inform adaptive, equitable conservation strategies.
Weblink for further information:
https://ucrisportal.univie.ac.at/de/persons/jacqueline-loos/
Email: jacqueline.loos(at)univie.ac.at
Hanna Schneeweiss
Research Focus
My group’s research focusses on mechanisms, patterns and overall dynamics of genome evolution of plant genomes. We specifically address questions of chromosome and genome size evolution accompanying diversification and speciation in plants, both on diploid and polyploid level. Two major system we currently work with are exclusively diploid dicot genus Capsicum (Solanaceae) and monocot species complex of Prospero autumnale (Hyacinthaceae), the latter including dysploidy on diploid level and a myriad of allo- and autopolyploids. We also work on several other angiosperm genera as well as bryophytes. Important aspect of our research involves analyses of repetitive genome fraction, both tandem and dispersed repeats. Comparative analysis of repeatomes of related species address questions of the role the changes of overall repeat composition and individual repeat dynamics play in diversification, specifically in relation to chromosomal rearrangements (dysploidy and polyploidy).
Research environment
My group of Evolutionary Plant Cytogenetics currently consists of several PhD, MSc and BSc students and one flow cytometry specialist. We highly value a positive, friendly, and supportive group environment that encourages teamwork, collaborative projects, and shared scientific growth, while also providing space for clearly defined individual research initiatives.
The laboratories are well equipped including several flow cytometers, fully equipped cytogenetic and molecular biology laboratory, high end light and fluorescence microscopes, and computational power. We also collaborate on joint projects - both nationally and internationally - with several other laboratories. Members of my research group participate in such collaborations and are encouraged to disseminate their research at various conferences and research visits.
Expectations towards postdoctoral fellows in this programme
Researcher joining our research group is expected to have PhD in genetics, (cyto)genomics or molecular biology, ideally with some experience in plant genome analysis. Knowledge of processes, patterns and mechanisms of chromosome and genome evolution is essential, with basic cytogenetic experience considered an advantage, although not specifically required. A strong bioinformatics background is highly desirable to support and co-lead analyses of whole-genome sequencing data and phylogenetic studies. Proven research track record with publications (e.g., resulting from PhD project research, and beyond - if applicable), ability to plan and execute experiments independently, but at the same time excellent collaboration and communication skills are of advantage.
Possible research themes or topics for postdoctoral projects
Main research topics in my working group are evolution of repeatomes and chromosomal rearrangements accompanying diversification and speciation (1) in plant lineages experiencing recent and rampant polyploidy, (2) in plant lineages that are exclusively diploid where the evolution of karyotype rearrangements and repeat content and composition can be analyzed without the confounding effects of whole genome multiplication, and (3) in comparatively small genomes of bryophytes representing all three major lineages (liverworts, hornworts and mosses), with possibility to analyse sex chromosomes of selected taxa. Additionally, we continue to work with recurrently formed B chromosomes in Prospero autumnale complex. I am also open to suggestions of new research topics/questions (provided suitable track record of the candidate) that are within the broadly defined research topics specified above.
Weblink for further information:
https://cytogenetics.univie.ac.at/
Email: hanna.schneeweiss(at)univie.ac.at
Pere Gelabert
Research Focus
The research of my team centres on two pivotal themes.1) Pleistocene faunal interactions: Our work aims to deepen our understanding of human environmental impacts and living conditions in the past by analysing biological and archaeological evidence. We focus on key topics such as species extinctions, practices of wild animal commensalism, genetic signatures of taphonomic modifications, and the multifaceted use of archaeological sites beyond artefact deposition.2) Genomics of social inequality: Using genomic tools, we reconstruct the genomes of individuals from lower social strata, identify diseases through ancient pathogen DNA, and investigate diets through the analysis of dental calculus microbiomes, stable isotopes, and dental residues. This interdisciplinary approach integrates osteology, genomics, and archaeology to explore how social conditions influenced health and how genetic and cultural factors were closely intertwined.
Research environment
The BEAM lab is a newly established research group within the Department of Evolutionary Anthropology at the University of Vienna, led by Pere Gelabert, who holds both an ERC Starting Grant and an FWF Principal Investigator project. The group currently comprises over 10 members, including PhD students specializing in Paleogenomics related to both human and animal environments, as well as MSc students, visitors, and technicians. We maintain robust collaborations and research networks with universities and research centers across Austria, Germany, Spain, Italy, Argentina, Chile, and Peru. Our projects often involve fieldwork and research trips to South America, focusing on pre-contact indigenous lifestyles and environments. Despite the diversity of research topics, our team fosters a strong sense of community through regular knowledge exchange, participation in lab activities, retreats, social events, and engagement with faculty initiatives, ensuring a collaborative and dynamic research environment.
Expectations towards postdoctoral fellows in this programme
I am an enthusiastic early-career Principal Investigator (PI) committed to supporting young researchers as they launch their careers and transition into established scientists. My research is rooted in genomics, evolutionary genomics, and paleogenomics.
I firmly believe in the power of interdisciplinarity and encourage collaboration across diverse scientific fields. I enjoy engaging with students and colleagues by discussing research ideas and exploring potential career paths.
As a mentor, my goal is to inspire and support future group members by sharing essential resources, experience, and guidance. I facilitate both their personal and professional growth by connecting them with a broader scientific community, including introductions to research groups and a global network of partners and collaborators.
I look forward to welcoming highly motivated researchers eager to collaborate on research programs and lead world-class paleogenomics projects.
Possible research themes or topics for postdoctoral projects
1) Ancient Metagenomics and Health:
Metagenomic analyses of ancient human and animal tissues, including coprolites and mummified remains. We aim to recover extinct microbial diversity and advance the understanding of past human health and disease ecology.
2) Bioinformatic Method Development:
Development of innovative informatic methods to improve the analysis of ancient genomic data, specifically tailored for the challenges presented by the metagenomic context.
3) Patagonian Population and Faunal Interactions:
Study of Patagonian human populations and their interaction with local fauna, testing hypotheses related to population adaptation and the role of human activities in megafauna extinction.
4) Biological Determinants of Past Inequality:
Studying the biological determinants of inequality in past societies using ancient genomic data to explore stratification in health, diet, and migration patterns.
5) Open Research Topics
I am also open to pursuing other topics across the spectrum of ancient human genomes, animal paleogenomics, and human-animal interactions.
Weblink for further information:
https://beamlabwien.univie.ac.at/
Email: pere.gelabert(at)univie.ac.at
Martin Kuhlwilm
Research Focus
The main research area of the admixlab is on admixture between populations. The context is evolutionary and population genetics, and approaches range from computational/bioinformatic methods (including machine learning) to ancient and modern DNA of humans and great apes (and their pathogens), as well as functional genomics of great apes.
Research environment
The research group is composed of a postdoctoral resercher, several PhD students and master students. We have access to state-of-the-art laboratories for ancient and modern DNA and excellent computational infrastructure. Data is available in-house and through collaborations, but we also make use of publicly available datasets. The admixlab is actively collaborating within the Department of Evolutionary Anthropology, part of the HEAS network and maintaining active relationships with researchers in other countries. An open mindset is highly encouraged for all members of the team.
Expectations towards postdoctoral fellows in this programme
A postdoctoral researcher should have curiosity and an open mind to the research questions we are working on. A main project will be the core of the position, with a large degree of independence, but collaborative projects are strongly encouraged within (and beyond) the team. Such a position is ideally a transition towards leadership, and should entail respectful supervision and mentorship of students.
Possible research themes or topics for postdoctoral projects
Potential projects could be:
- Analysis of introgression in genomic data of various primate species
- Pathogens from museum specimens of great apes
- The evolution of gene regulation in introgressed fragments in great apes
Weblink for further information:
https://admixture.univie.ac.at/
Email: martin.kuhlwilm(at)univie.ac.at
Ron Pinhasi
Research Focus
The Pinhasi team investigates human and animal evolution through integrative paleogenomics, paleoepigenetics, and ancient microbiome research. We generate dense genomic and epigenomic time series from humans, dogs, cattle, and other species to reconstruct natural selection, regulatory change, and host–pathogen dynamics across the last 40,000 years. Our work pioneers high-yield ancient DNA methods, genome-wide selection scans, sediment aDNA recovery, and ancient methylome reconstruction. By combining functional genomics, metagenomic pathogen screening, and microbiome analyses with archaeological context, isotope data, and evolutionary modelling, we reveal how diet, environment, and cultural transitions shaped immunity, metabolism, and disease susceptibility. Ongoing projects extend to underexplored regions such as Indonesia and Central Africa, enabling a comparative framework for human–animal co-evolution with broad implications for evolutionary biology, ecology, and health sciences.
Research environment
Pinhasi’s team at the University of Vienna runs a purpose-built ancient DNA facility designed for high-throughput recovery of DNA from bones, teeth, sediments and minerals. Its infrastructure includes separated clean-rooms, optimized workflows and integration with micro-CT, geoarchaeology and paleoproteomics. The group pioneered ultra-sensitive, minimally destructive sampling of petrous bone, ossicles and dental cementum, enabling genomic data retrieval even in low-preservation contexts. Through the MINERVA project, they extend aDNA recovery to sediments and mineral matrices by combining geochemistry with genomics. The lab collaborates widely across archaeology, geosciences, biochemistry and anthropology, and partners globally with leading genomics groups. Their strength lies in cutting-edge infrastructure, innovative high-yield methods, expansion into unconventional substrates and a deeply integrated international research network.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows in this programme are expected to pursue innovative, creative research while engaging enthusiastically with new ideas and interdisciplinary directions. Our group is strongly gender-balanced and international and we value a supportive, collaborative and inclusive environment. Fellows should show scientific curiosity, independence and openness to cutting-edge methods, while contributing to shared projects and the wider intellectual life of the team. Active participation in publications, presentations and grant development is encouraged, as is mentoring junior researchers and fostering a positive research culture. We seek someone who thrives in a collaborative setting, communicates well, and is excited to help shape bold new avenues in our interdisciplinary research programme.
Possible research themes or topics for postdoctoral projects
Paleoepigenetics
Selection scans- humans, livestock
Pathogen paleogenomics
Human skin and gut aDNA (microbiomes)
Paleogenomics of human populations from Indonesia and Central Africa
Human-animal co evolution
Commensalism (house mouse, foxes, etc)
DNA experimentation- optimisation, mineral adosprtion, degradation
Weblink for further information:
https://www.pinhasilab.at/
Email: ron.pinhasi(at)univie.ac.at
Yoko Matsumura
Research Focus
I have been primarily focused on the functional morphology of interactions between female and male reproductive traits in insects. My research aims to understand how reproductive organs achieve their functional roles and how variations in form affect their performance, utilising state-of-the-art research methods, including dissection, histology, CLSM, CT, electron microscopy, and characterisation of physical properties. Ultimately, with my approach, I seek to link variations in form to their performance during reproduction and to uncover the evolutionary mechanisms that drive and maintain the highly diverse genital structures in animals.
The reproductive interactions between the sexes can be categorized into three steps: genital coupling, sperm transfer, and sperm storage and usage for oviposition. By focusing on each step, I have been establishing concrete bases for functional morphological studies and accumulating exemplary studies for the purpose mentioned above.
Research environment
My group is situated in the Department of Evolutionary Biology, where diverse evolutionary topics are explored across various animal phyla. Not only morphological approaches, but also genomic studies are conducted in the department. Our department has a friendly atmosphere, mainly due to numerous joint events, including a weekly seminar.
For purely morphological parts, the following equipment is available.
Host’s group: A digital camera and 3D printer are equipped. A device for measuring animal closing forces and a stereomicroscope (SZX16) will be equipped soon. Another force transducer for general force measurements, e.g., tensile force and compression force, and a high-resolution digital camera are planned to be implemented.
Department: Conventional microscopes, Micro CT (Skyscanner and XRadia), 3D workstations (Amira, Imaris), CLSM, Microtome.
Our imaging center: Critical point dryer, SEM, TEM. SBF-SEM may become available during the candidate's research program.
Expectations towards postdoctoral fellows in this programme
Project leading: The candidate should be able to lead a project with a sense of responsibility. The host expects the candidate to discuss the project with us regularly and to be honest about it. Research experience with the morphology of terrestrial invertebrates, utilizing state-of-the-art research methods, as outlined in the section on my research focus, is expected, so that the candidate can start the project immediately.
Funding acquisition: Due to the start-up funding of the host, all the aforementioned equipment is accessible for the first year. However, the candidate is expected to apply for grants to cover the costs of the experiments and the travel allowance. The University of Vienna offers several opportunities for young scientists. The host will support the candidates in preparing the proposals.
Teaching: Although this is not a duty, teaching is one of the major tasks as PIs. Therefore, the host would expect the candidate to be willing to participate in the role as well.
Possible research themes or topics for postdoctoral projects
The host prefers a research topic on semen-genital interactions that has been launched recently. The rapid divergence of genitalia is a prevailing trend among internal inseminators, and this project focuses on the structural diversity of the sperm storage organ, called the spermatheca, in insects. To understand the evolutionary mechanisms underlying this diversification, the project aims to build a linkage between diverse structures and sperm dynamics. The candidate may tackle some of the following tasks according to her expertise and interests: (1) structural characterization of spermatheca, (2) characterization of semen physical properties, (3) structural characterization of spermathecae stored in female and male storage-sites, (4) fluid dynamics experiments using 3D printed models, (5) computational dynamics simulations if the candidate is familiar with such simulations. Any additional ideas from the candidates are appreciated.
Weblink for further information:
https://www.researchgate.net/profile/Yoko-Matsumura
Email: yoko.matsumura(at)univie.ac.at
Christian Griebler
Research Focus
Groundwater is our most important freshwater resource. Apart from that, groundwater ecosystems represent the largest freshwater biome, however, hidden to the naked eyes, the subterranean habits are largely unexplored. The interdisciplinary working group investigates all aspects of groundwater ecology, with a focus on biodiversity, major biogeochemical cycles, and transfer of carbon and energy through the subsurface food webs. Groundwater communities are studied in their breadth from viruses to prokaryotes, from fungi to protists and invertebrate fauna. In addition basic ecological principles, we particularly explore effects of anthropogenically caused pressures such as climate change, chemical pollution, urbanization, and disturbance of the hydrological regime to the functioning of groundwater ecosystems.
Research environment
Our group is part of the unit Limnology that includes three research groups involving groundwater ecology, phycology, and carbon cycling in limnic ecosystems. The groundwater ecology working group has an high international standing with long year experience on groundwater ecological research. Via numerous international and national research projects the group is embedded in a large scientific network (https://ucrisportal.univie.ac.at/en/persons/christian-griebler/). By joining our group, you will be member of a highly interactive team that applies and combines cutting-edge techniques in microbial ecology (-omics tools), biogeochemistry (stable isotope analysis, greenhouse gas measurements), and invertebrate ecology (eDNA, metabarcoding, respiration rate measurements, ecotoxicological assays).
Expectations towards postdoctoral fellows in this programme
We look for engaged candidates, with interest and experience in groundwater microbial ecology, working on prokaryotic communities, protists or fungi, as well as viruses. Moreover, we welcome collegues working on groundwater fauna with respect to biodiversity, ecological functioning, and assessment of groundwater ecosystem health. Work may be centered around field or lab work. In any case, comprehensive data analysis (multivariate statistics, bioinformatics, and/or ecological modelling) is needed. We provide a positive and collaborative working environment, enjoying research in a vibrant but challenging field.
Possible research themes or topics for postdoctoral projects
Possible research topics range from aspects of biodiversity and functioning of individual groups of groundwater communities, i.e. prokaryotes, protists, fungi, and invertebrates. Integrative themes, like the linkage between the microorganisms and invertebrates and food web intercations will be supported. Further topics of interest are the search for bioindicators in groundwater health assessment, greenhouse gas production in groundwater environments, and ecotoxicological matters, among others. Groundwater environments tob e studied include cave waters, springs, the hyporheic zone of rivers, and shallow aquifers accessed by wells.
Weblink for further information:
https://ucrisportal.univie.ac.at/en/persons/christian-griebler/
Email: christian.griebler(at)univie.ac.at
Gerhard J. Herndl
Research Focus
Our main focus is the microbial oceanography of the deep ocean where the prokaryotic activity is relatively low compared to the euphotic zone. The deep ocean comprises about 70% of the total ocean volume and hence deep-water microbes mediate a substantial fraction of the biogeochemical cycles with thus far unknown metabolic pathways. We develop and improve available methods in molecular biology and biogeochemistry to make them usable in the most oligotrophic parts of the ocean. Then the information from biology and biogeochemistry is linked for a better understanding of how the microbial community might work in the dark ocean.
Research environment
We are an international team focusing on aquatic microbial ecology, using metabolic rate measurements and meta-genomics, -transcriptomics and -proteomics to decipher the role of microbes in the oceanic element cycling combing lab experiments with field work ranging from polar regions to coral reefs and open oceanic waters.
Expectations towards postdoctoral fellows in this programme
Ideally, the candidate has an excellent knowledge in biological oceanography and/or microbial oceanography with working experience in bioinformatic analyses and/or marine biogeochemistry. Experience in working on research vessels and willingness to join seagoing research expeditions is also desirable.
Possible research themes or topics for postdoctoral projects
Possible research themes could be microbial carbon cycling in the ocean, interactions between marine phytoplankton and bacteria under different nutrient conditions, bioreactivity of marine dissolved organic matter and anthropogenically derived compounds.
Weblink for further information:
www.microbial-oceanography.eu
Email: gerhard.herndl(at)univie.ac.at
Ingeborg Lang
Research Focus
Bryophytes are used as (1) metal indicators for environmental contamination and are (2) excellent model systems for drought resistance. In my research, I focus on these two aspects and investigate water loss on the cellular level as well as the effects cause by trace elements and their minute distribution.
Research environment
My group is located at the University of Vienna Biology Building (UBB) and I am currently supervising 3 PhD students as well as several master students. I take great advantage of the infrastructure in house, e.g. the research support facilities for imaging and mass spectroscopy (CIUS) or the Vienna Biocenter support facilities (VBCF). Within Austria, I have also close collaboration with the BOKU University and the Universities of Innsbruck and Salzburg.
Expectations towards postdoctoral fellows in this programme
A prerequisite is the interest in ecological, cell biological topics and a basic understanding of plant cells. Microscopy skills and a background in cryptogams, bryophytes, algae or early land plants are required.
Weblink for further information:
https://mosys.univie.ac.at/research-and-teaching/research-groups/structural-and-functional-plant-cell-biology/
Email: ingeborg.lang(at)univie.ac.at
Christa Schleper
Research Focus
We investigate the cell biology of Asgard Archaea, the currently closest known prokaryotic relatives of eukaryotes. Two representatives of the Lokiarchaea lineage are actively growing in our laboratory. These archaea have unusual features, such as e.g. long protrusions, filled with actin filaments that mediate movements. Hundreds of proteins encoded in their genomes are 'eukaryotic signature proteins' indicating that these organisms have evolved many cellular features that were instrumental for the emergence of eukaryotes. We currently investigate the movement of Lokiarchaeum cells, their sensing mechanisms and their interaction with other organisms, their cell cycle and chromatin. By joining our group you will become part of an interdisciplinary and highly interactive team that combines anaerobic microbiology, biochemistry, immuno-labeling, -omics, cryo-electron and anaerobic live cell microscopy.
Research environment
Our group is part of the unit Archaea Biology and Ecogenomics (http://archaea.univie.ac.at), that includes four research groups involving anaerobic microbiology, phylogenomics, cell biology and molecular microbiology. By joining our group you will become part of a highly interactive and engaged, international team with long year experience on archaea research including hyperthermophiles and their defense systems, ammonia oxidizing archaea and Asgard Archaea. We combine microbial ecology, metagenomics and functional genomics, with cultivation approaches in anaerobic microbiology (in a well equipped biotechnicum up to larger scales), biochemistry and immuno-labeling (with corresponding equipment), -omics and anaerobic live cell microscopy (with adequately equiped microscopes). In the frame of a nationally funded project we are closely connected to further specialists on eukaryotic cell biology and cryo-electron microscopy (project EvoChromo).
Expectations towards postdoctoral fellows in this programme
The candidate should have a broad interest in evolutionary and molecular biology, who is curious about the role of archaea in eukaryogenesis. With the discovery of Asgard archaea and their growth in our laboratory, we are in the unique situation to be able to ask fundamental questions about their evolutionary innovations. We look for engaged candidates, with interest (or experience) in anaerobic microbiology and cellular processes, that can build on a solid background in -omics, molecular biology and/or biochemistry. We prefer an experimentalist rather than bioinformatician (although knowledge here is always advantageous). Someone who finds fun in the exploration within this new and vibrant field.
Possible research themes or topics for postdoctoral projects
Possible research themes could be around the exploration of the cell cycle in Lokiarchaeum ossiferum as a model for Asgard archaea, its cell division, its sensing of environmental cues and syntrophic partners, its novel type of movements and/or biochemical studies of further eukaryotic signature proteins.
Weblink for further information:
http://archaea.univie.ac.at
Email: christa.schleper(at)univie.ac.at
Steffen Waldherr
Research Focus
Computational methods for systems biology: modelling, simulation, optimization.
Metabolic network modelling and analysis: Dynamic simulation and resource allocation; reconstruction of metabolic network models from genome data.
Modelling and estimation of heterogeneous cell populations: Cellular heterogeneity in tissues in response to clinical stimuli, growth dynamics, establishment of resistant subpopulations.
Machine learning for biochemical data and processes: Analysis of large-scale molecular data in relation to physiological and clinical data, predictive and precision molecular medicine.
Research environment
The research group is based at the Department of Functional and Evolutionary Ecology where it has access to state-of-the art facilities provided by the department, core facilities of the Life Sciences Faculty, or facilities shared with the Vienna Biocenter. Core facilities include mass spectrometry for proteomics/metabolomics analysis, the Vienna BioCenter Core Facilities for sequencing, and the Life Science Compute Cluster for high-performance computing. Open Science support includes a dedicated FAIR data manager and an institutional data repository.
Expectations towards postdoctoral fellows in this programme
Conduct independent research and collaborative projects aligned with the group's research themes;
Publish in top journals and present at international conferences;
Pursue further funding in fellowships or grants, contribute to proposals;
Maintain research code, analysis pipelines, and computational models in well-documented repositories;
Mentor PhD and master students
Weblink for further information:
https://ufind.univie.ac.at/de/person.html?id=114290
Email: steffen.waldherr(at)univie.ac.at
Wolfram Weckwerth
Research Focus
Food security, Human Health, Biochemistry, PANOMICS, Systems theory, Ecological Metabolomics
see https://scholar.google.de/citations?user=20oOZCgAAAAJ&hl=de
Research environment
Vienna Metabolomics Center, AI- assisted personlaized nutrion research platform, Multiomics Center, Mass spectrometry, Biochemistry, for further information see https://mosys.univie.ac.at/team/wolfram-weckwerth/ and https://mosys.univie.ac.at/ and https://vime.at/
Expectations towards postdoctoral fellows in this programme
Integration into existing research projects, Team work, Building own research profile based on a unique research idea embedded in existing research projects in the Weckwerth lab, for more information about research projects see https://scholar.google.de/citations?user=20oOZCgAAAAJ&hl=de
Possible research themes or topics for postdoctoral projects
Panomics projects, agroecology, metabolomics and many more, please, contact wolfram.weckwerth(at)univie.ac.at
Weblink for further information:
https://ecology.univie.ac.at/
Email: wolfram.weckwerth(at)univie.ac.at
Stefanie Wienkoop
Research Focus
Wienkoop`s team investigates the metabolic exchange between plants and microbes and the influence microsymbionts have on the plant`s immune system and how this induces stress resistance upon environmental perturbations. Our current procects are on symbiont induced drought stress tolerance as well as pathogen resistance. We also found a new Rhizobium strain from the austrian salt lake Neusiedl, which we want to test for possible plant enhanced salt stress tolerance.
Research environment
The PMInt lab offers access to mass spectrometry facility for proteomics and metabolomics as well as genomics and state of the art plant phenotyping. The team is internationally connected. Close collaboration for instance with the La Trobe University in Melmourne, Australia but also several Universities arround Europe that will allow for collaborative exchange.
Expectations towards postdoctoral fellows in this programme
The successfull candidate should show a strong interest in plant-microbe interaction and induced systemic resistance (previouse publications) and excellent knowledge in at last one omics technique (pregerably mass spectrometry related) including big data minimg.
Weblink for further information:
https://mosys.univie.ac.at/research-and-teaching/research-groups/plant-microsymbiont-interaction/
Email: stefanie.wienkoop(at)univie.ac.at
Florian Raible
Research Focus
Our group has a core interest in the emergence and regulation of stem cells in nervous system regeneration. Combining targeted genome engineering, multimodal imaging (Pende, Vadiwala et al. https://www.science.org/doi/10.1126/sciadv.aba0365) and single-cell RNA sequencing (Stockinger, Adelmann et al. https://www.nature.com/articles/s41467-024-54041-3; Milivojev et al. https://www.nature.com/articles/s41467-025-65631-0), we decode the molecular mechanisms that orchestrate the intriguing stem cell biology of an annelid worm that possesses a brain-borne hormone orchestrating regenerative abilities and reproduction.
We have recently also begun to explore the intriguing interface between cell biology and material sciences, pioneering research into the elusive genetic programmes that orchestrate cell surface patterning of material-producing animal cells considered to act like “biological 3D printers” (Ikeda et al. https://www.nature.com/articles/s41467-024-48044-3).
Research environment
Our lab is located at the Vienna BioCenter, one of Europe’s top biology research hubs that features innovative basic research in all areas of the life sciences, and that has collectively attracted over 100 ERC grants (https://www.viennabiocenter.org). We are supported by cutting-edge infrastructure both on the campus level (https://www.viennabiocenter.org/vbcf/), and as part of the Faculty of Life Sciences that provides us with a fully equipped marine facility for generating and maintaining genetically engineered worm strains.
This environment encourages ground-breaking research that pushes existing research boundaries and connects cellular and developmental stem cell biology with areas such as biochemistry, bioinformatics, evolutionary biology, biophysics, genomics or material sciences. Of note, our faculty is open to support established postdocs for grant applications, providing an avenue for successful postdocs to gain visibility and momentum for their own research ideas.
Expectations towards postdoctoral fellows in this programme
Successful applicants share our deep curiosity for fundamental questions, and the willingness and ability to engage in hypothesis-driven research addressing these questions with scientific rigor.
We have a strong record of successful students and postdocs that have secured awards in conferences, fellowships and research funding, and contributed to original publications of broad impact and visibility.
We engage in both local and international collaborations that help us to stay abreast of key technological developments and facilitate cross-comparisons to other model systems. In conjunction with the Tessmar-Raible group and external collaborators, we have recently established a chromosome-scale genome resource for our Platynereis lab strain, providing an inroad to rigorous genome-wide analyses.
Successful applicants will capitalise on these opportunities to drive innovative research in the outlined interest areas, ideally also bringing in some unique expertise from their previous research.
Possible research themes or topics for postdoctoral projects
We are keen to advance research into nervous system regeneration and modulation (https://www.nature.com/articles/s41467-024-54041-3; https://www.nature.com/articles/s41467-025-65631-0), and into the molecular and cellular programmes that encode morphology and biomaterial properties of bristles (https://www.nature.com/articles/s41467-024-48044-3 and jaws (https://link.springer.com/article/10.1007/s11837-021-04702-1).
Candidates are very welcome to contact us for inquiries; possible directions include:
- The elusive enzyme system for the biosynthesis of the annelid brain hormone we uncovered (https://elifesciences.org/articles/17126)
- Interpretation and feedback mechanisms for hormonal signaling
- re-establishment of neuronal circuitry in the regenerating CNS.
- cellular signaling systems in “biological 3D printing” of chitin bristles
- the molecular and cellular machinery encoding “bio-metallic” properties of polychaete jaws.
Weblink for further information:
https://neurodevbio.univie.ac.at/raible-research/
Email: florian.raible(at)univie.ac.at
Oleg Simakov
Research Focus
Evolution of animal genome architecture, regulatory genomics, evolution of symbiotic organs in cephalopods
Research environment
We are a dynamic and highly collaborative group, located at University Biology Building (UBB) in the third district of Vienna. Our group is mainly focused on mainly computational analyses, however we also pursue experimental work on genomic conformational capture, imaging, and expanding more towards ecological studies and angles (e.g., eDNA).
Expectations towards postdoctoral fellows in this programme
We are mainly interested in postdocs who would like to pursue academic career, and establishing their own labs. We have frequent strategic discussions and offer support and opportunities beyond research topics (such as student mentorship and supervision, independent project structuring etc).
Weblink for further information:
neurodevbio.univie.ac.at/simakov-research/
Email: oleg.simakov(at)univie.ac.at
Ulrich Technau
Research Focus
We are generally interested in the evolution of complexity. We therefore use cnidarians, such as the sea anemone Nematostella as model systems to compare with its sister group, the Bilateria. We mostly take an EvoDevo approach (including genomics, transcriptomics, developmental biology) to address specific questions regarding the origin and function of neuromuscular systems (see ERC project EvoNEUROMUSCLE), pluripotent stem cells and self-organization of gastruloids. We also address the question how cnidarians manage to live virtually forever without accumulating deleterious mutations and developing cancer.
Research environment
We are a very international group consisting of about 20 people (5 postdocs, 5 PhDs, several Master students, lab manager, technicians and animal care takers). Our research is funded by external grants, like the ERC-AdG, Marie Curie fellowships and national funding (FWF).
Expectations towards postdoctoral fellows in this programme
We would expect the incoming postdoc to bring additional expertise, enthusiasm and a willingness to integrate in a team of researchers to work towards a greater goal. Co-Supervision of PhD and Master students is expected, as well as support in some teaching tasks.
Possible research themes or topics for postdoctoral projects
Experimental or bioinformatics approaches to the question of cell type evolution with a focus on neuronal and muscle cell types (and their interactions) would be desirable. However, Independent ideas within the framework of our research directions are welcome.
Weblink for further information:
https://neurodevbio.univie.ac.at/technau-research/
Email: ulrich.technau(at)univie.ac.at
Kristin Tessmar-Raible
Research Focus
Prof. Tessmar-Raible leads the research group for chronobiology, where she has been spearheading scientific insights into the molecular and cellular mechanisms of especially non-circadian rhythms and non-visual effects of light.
While sun(light)-dependent chronobiology has been studied in great detail, moonlight has been largely neglected for its role on animal physiology and behavior. However, especially in the marine environment – considered to be the cradle of evolution – a rich body of literature documents endogenous organismal rhythms that are not linked to the solar, but to the lunar cycle. In order to crack the enigma of the molecular and cellular mechanisms underlying moon-controlled rhythms and oscillators her lab focusses on the bristle worm Platynereis dumerilii as model system.
Besides the focus on Platynereis, the lab’s interests also cover analyses of temporal phenomena in diverse species and experimental paradigms: from deep sea mussels, mammalian neural stem cells to human patients.
Research environment
The lab is embedded into the Dept. of Neuroscience and Developmental Biology, Faculty of Life Sciences, University of Vienna, which provides an excellent environment with regards to the available infrastructure, scientific exchange and mentoring. KTR’s lab has access to a state-of-the-art large marine aquatic infrastructure, hosting >25 different mutant/transgenic lines and several inbred wild-type strains that are taken care of by professional animal care. The lab is also embedded in the Vienna Biocenter Campus (VBC), Austria’s top-ranked research campus, that provides additional services and facilities (https://www.viennabiocenter.org/vbcf/).
The KTR’s group includes postdocs, PhD and undergraduate students, as well as technical staff. It is highly gender-balanced, inclusive, internationally recruited and co-funded through competitive external grants. Several of her post-docs and students have moved on to highly successful careers, in academia (including two ERC grantees), as well as in industry.
Expectations towards postdoctoral fellows in this programme
The premise for a post-doctoral candidate is curiosity in fundamental basic biological questions involving the aspects of biological time and/or light. High motivation and an excellent track record are expected.
Possible research themes or topics for postdoctoral projects
A particular interest lies in the recruitment of a candidate with an interest in investigating the interconnection of specific neurotransmitter systems and neural networks with daily and/or monthly timing. This research would also be embedded within the Excellence Cluster Neural Circuits in Health and Disease.
However, the lab is open to diverse topics to also support the development of an own independent research direction.
Weblink for further information:
https://neurodevbio.univie.ac.at/tessmar-raible-research/
Email: kristin.tessmar-raible(at)univie.ac.at
Manuel Zimmer
Research Focus
The Zimmer Lab investigates how neuronal network dynamics in the brain give rise to sensory processing, decision-making, and behavior. Using the nematode C. elegans and the fish Danionella cerebrum—one of the smallest known vertebrates—we combine single-cell resolution whole-brain imaging of neuronal activity with high-content quantitative behavior analyses to study the brain in action. Our research centers on three major directions: (1) how the brain organizes behavior across timescales, from moment-to-moment motor patterns and actions to long-lasting states such as sleep and wakefulness; (2) how sensory processing operates in closed-loop with the body and environment, shaping adaptive behavior in real time; and (3) the neuronal correlates underlying social behaviors in Danionella, including courtship and acoustic communication.
Research environment
Our lab brings together expertise in C. elegans and Danionella biology, behavioral genetics, evolutionary genomics, optical engineering, computational neuroscience, and machine learning. We are an international, highly collaborative, and respectful team committed to interdisciplinary research.
We maintain state-of-the-art facilities for both model organisms, including high-speed spinning-disk microscopy for simultaneous whole-brain and behavioral imaging, closed-loop optogenetics, two-photon microscopy, and oblique-plane light-sheet microscopy.
Our computational environment features a high-performance cluster with ample GPU resources and well-structured data-flow pipelines for the analyses of large neuronal and behavioral datasets.
We are embedded in the Vienna BioCenter (VBC)—one of the world’s leading life-science hubs—and are part of the Cluster of Excellence Neuronal Circuits in Health and Disease, making Vienna a top location for cutting-edge neuroscience.
Expectations towards postdoctoral fellows in this programme
We welcome postdocs who share our enthusiasm for uncovering fundamental principles of brain function using the small yet remarkably complex nervous systems of C. elegans and Danionella cerebrum. We value team-oriented, collaborative scientists who contribute new perspectives and are eager to further develop their expertise in the advanced methodologies available in our lab.
Postdocs in our group play an active role in mentoring students and participating in our teaching activities. We seek individuals who are curiosity-driven, ambitious, committed to rigorous, high-quality impactful science, and motivated to pursue an academic career.
We offer an outstanding research environment and are fully dedicated to supporting your long-term career development.
Possible research themes or topics for postdoctoral projects
We are happy to discuss research projects involving either C. elegans or Danionella cerebrum, spanning experimental neuroscience, computational approaches, or a combination of both. We offer exciting opportunities aligned with the research directions outlined above, and we are equally enthusiastic about supporting your own exciting ideas you may wish to pursue.
If you are interested in discussing potential projects and your long-term career plans, please feel free to contact Manuel Zimmer (manuel.zimmer(at)univie.ac.at).
Weblink for further information:
https://neurodevbio.univie.ac.at/zimmer-research/
Email: manuel.zimmer(at)univie.ac.at
Claudia Angele
Research Focus
The research group on subject-matter didactics in home economics and nutrition deals with teaching and learning in nutrition, home economics and sustainable consumption. The focus is on theory formation in subject-didactics, in qualitative research on practice of teaching and learning, and in teacher professionalization in this field.
Current projects are:
- Design and evaluation of learning environments for secondary school level to promote judgment competence: How can learners be supported in making science-based and responsible judgments in scientifically complex, value-laden contexts?
- Implementation of a teaching and learning lab ‘Future lab life skills – Nutrition and sustainability’ for subject-didactic research, teacher professionalization, research days with school groups and science communication
Research methods:
qualitative research on subject-related teaching-learning processes (videography) in classroom and in our teaching and learning lab
Research environment
Our research group is unique in Austria and offers excellent conditions for further academic qualification during the post-doctoral phase. It focuses on qualitative empirical research into teaching and learning in nutrition, health and sustainability. It offers a cooperative and supportive working atmosphere with excellent infrastructure. Our ‘Future Lab Life Skills’ teaching and learning laboratory, which is newly established in 2025 at the Department of Nutritional Sciences, provides the best technical and technological conditions for research, for development and evaluation of inclusive settings in nutrition and consumer education and for research-based teacher students’ professionalization in a defined laboratory setting. In addition, the working group has at its disposal a large pool of data from current classroom research in nutrition and consumer education and opportunities for interdisciplinary collaboration with renowned international subject-specific research groups.
Expectations towards postdoctoral fellows in this programme
As a postdoc in our working group
- you will plan and carry out your own research projects in the field of subject-matter didactics for home economics and nutrition.
- publish your research results in English-language journals.
- support the research projects currently underway in the working group with your expertise.
- You will independently teach courses in home economics and nutrition in accordance with the provisions of the collective agreement.
Possible research themes or topics for postdoctoral projects
- Promotion of judgement competence in science education (focus: home economics and nutrition) through language education
- The role of teaching and learning labs in teacher professionalization in home economics and nutrition: Bridging gaps between theory and practice
- Design and evaluation of inclusive learning settings for secondary schools in the Teaching and Learning Lab ‘Future Lab Life Skills – Nutrition and Sustainability’
Weblink for further information:
https://nutrition.univie.ac.at/forschung/fachdidaktik-haushaltsoekonomie-und-ernaehrung-assoz-prof-dr-paed-habil-claudia-maria-angele/ueber-uns/leitung-ag-fachdidaktik/
Email: claudia.angele(at)univie.ac.at
Ina Bergheim
Research Focus
The research group Molecular Nutritional Science led by Ina Bergheim has a longstanding experience in studying the interaction of nutrients/ food compounds (sugars and alcohol) and the intestinal barrier function in the development of steatotic liver diseases (MASLD, ALD) and aging related liver degeneration. Having a strong background not only in molecular nutritional science but also dietetics the group conducts human intervention studies and has developed several animal feeding models to study. The focus of the studies is on the interaction of different macronutrients, but also other nutritional compounds with the intestinal barrier and the development of endotoxemia, and subsequently the development of the liver diseases herein taking findings from bench to bedside and vice versa.
Research environment
The research group Molecular Nutritional Science headed by Ina Bergheim is embedded in the Department of Nutritional Science at the University of Vienna. The group is a very active international group of young scientists at different stages of their career participating in several international collaborations and hosting students from different countries. Besides a fully equipped research laboratory to perform molecular analysis (e.g. Western blot, rt-PCRs, ELISA and immunohistochemistry) the group has full access to a SPF mouse facility, a human study center and cell culture labs as well as a C. elegans lab. In addition, within the Faculty of Life Sciences and the University of Vienna there are several core facilities that offer a variety of cutting-edge analytical methods.
Expectations towards postdoctoral fellows in this programme
Postdocs joining the group Molecular Nutrition through the E-STEEM program are expected to conduct high-quality, independent research that aligns with the research focus of the group Molecular Nutritional Science and the strategic priorities of the University of Vienna (Global Healthy: Physical, Mental and Social Dimensions of Health). They take responsibility for project planning, data analysis, and dissemination, while actively developing their own research profile and applying for further competitive funding. They uphold the highest standards of research integrity and foster an inclusive, respectful, and collegial working environment.
Possible research themes or topics for postdoctoral projects
Sugar (fructose) as nutritional target in the development and therapy of steatotic liver diseases
Weblink for further information:
https://nutrition.univie.ac.at/en/research/professorship-molecular-nutritional-sciences-univ-prof-dr-ina-bergheim/
Email: ina.bergheim(at)unvie.ac.at
Karl-Heinz Wagner
Research Focus
As an experimental research group, we investigate how lifestyle factors - such as diet, specific food components, phytochemicals, physical activity and physiologically active non-food compounds (e.g. bile pigments) - influence oxidative stress and DNA stability, with a primary focus on human metabolism. Our work includes human intervention trials, cross-sectional studies and case-control analyses, as well as the investigation of underlying mechanisms through in vitro experiments.
In the laboratory, we use state-of-the-art techniques to analyse a wide range of biomarkers in a variety of biological samples. Our methods include the quantification of antioxidant compounds and the application of biochemical and molecular tools to monitor oxidative damage to macromolecules and their by-products. A major focus of our research is on reactive oxygen species (ROS)-induced DNA and chromosomal damage, DNA repair processes and the regulation of antioxidant defense systems, but we are also very interested in metabolic work.
Research environment
Research activities are mainly funded by the Austrian Science Fund, European Commission (ERA Net, Horizon 2020, Horizon Europe, EU- Cross Border Co-operation) and the University of Vienna. A large national and international scientific network of well-respected research partners guarantees comprehensive approaches, knowledge transfer and continuous development of new biomarker.
We are a young and motivated research group, mainly laboratory focused but also interested in epidemiological work using e.g. EPIC or UK Biobank data and are also dedicated to train and involve advanced students within our different research projects.
Expectations towards postdoctoral fellows in this programme
Fellows should be motivated and happy to work in a large research group and shall have expertise either -) in biomarker research: e.g. oxidative stress marker, DNA damage, metabolomics, lipid/glucose metabolism or other human related biomarker, or -) nutritional epidemiology with focus on diet and/or physical activity and the link to NCDs. We provide a dynamic and inspiring working environment with large research projects and inter/-national collaborations. Working in a team, self-motivation, drive and dedication but also social skills, a passion for science as well as working with people is what we are looking for.
Possible research themes or topics for postdoctoral projects
-) Impact of shiftwork on pre-obesity biomarker across Europe
-) Brainhealth - Impact on diet and physical activity on brain and meabolism in older adults
-) Various topics in Nutritional Epidmiology using large international databases
Weblink for further information:
https://nutrition.univie.ac.at/forschung/professur-ernaehrung-und-lebensmittelqualitaet-univ-prof-dr-karl-heinz-wagner/
Email: karl-heinz.wagner(at)univie.ac.at
Julien Orts
Research Focus
Julien Orts focuses on advancing structural biology and drug discovery through cutting-edge NMR spectroscopy. His group develops and applies high-precision NMR methods—building on innovations such as INPHARMA, eNOE, and NMR²—to quantitatively characterize protein–ligand interactions and dynamic structural ensembles. Current projects span quantitative drug design, molecular allostery, protein stability, and fragment-based screening for challenging therapeutic targets. The lab also develops molecular probes for neurodegenerative diseases, integrates AI-driven approaches into structural biology, and expands NMR applications to metabolomics. This work is supported by an ERC Consolidator Grant in biophysical chemistry, a cancer research grant, and multiple collaborations with pharmaceutical companies.
Research environment
The Julien Orts laboratory is embedded in a state-of-the-art NMR facility—among the most advanced in Austria—providing internationally benchmarked capabilities for high-resolution structural analysis. This environment enables pharmaceutical research that relies on precise molecular insight, with NMR delivering rapid, accurate characterization of drug candidates, natural products, metabolites, and protein–ligand complexes. Core expertise includes protein 3D structures, molecular dynamics, allostery, fragment-based screening, and conformational studies. A fully equipped protein biochemistry facility and modern computational infrastructure further support an integrated platform for molecular discovery and quantitative drug design.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows in this programme are expected to drive high-quality, independent research while contributing actively to the group’s scientific mission. They should take intellectual ownership of their projects, develop a strong and original research profile, and engage creatively with topics in advanced NMR spectroscopy, biophysical chemistry, structural biology, or computational methods. Fellows are expected to supervise and mentor students, and participate in collaborative projects within the department and with external partners. They should communicate results effectively through publications and conference presentations, help shape new research directions in the lab, and proactively pursue external funding opportunities. Overall, postdocs are expected to be ambitious, collegial, and committed to scientific excellence in a dynamic and interdisciplinary environment.
Possible research themes or topics for postdoctoral projects
Possible postdoctoral research projects in the Julien Orts laboratory include developing and applying advanced NMR methods for quantitative drug design, protein–ligand interactions, and fragment-based screening. Projects may explore AI-driven integrated structural biology, protein dynamics, allostery, and stability, as well as the discovery of biologics or nanobodies. Fellows can investigate metabolomics using NMR and contribute to methodology development for characterizing challenging therapeutic targets, including RNA or neurodegeneration-related proteins. Interdisciplinary projects combining computational modeling, biophysics, and experimental NMR are encouraged, allowing postdocs to establish independent research directions while contributing to the group’s broader focus on structure-based drug discovery and molecular mechanisms.
Weblink for further information:
https://bionmr.univie.ac.at/people/
Email: julien.orts(at)univie.ac.at
Manuela Schmidt
Research Focus
- Systems biology of chronic pain: quantitative proteomics, metaproteomics and network-based analysis
- Age- and sex-dependency of somatosensation and pain
- Translational pain research across mice and humans (in collaboration with clinicians)
- Foundation of the collaborative Bruker Center of Excellence for Metaproteomics dedicated to advance our understanding of microbial communities in human health and disease.
Research environment
- state-of-the-art mass spectrometers and associated workflow pipelines (timsTOF Pro powered by PASEF®; timsUltra AIP)
- fully equipped primary cell culture room
- fully equipped biochemistry and molecular biology laboratories
Group composition:
- 1 senior scientist
- 4 postdocs
- 2 PhD students
- 2 technicians
- administrative support and support for animal care
Expectations towards postdoctoral fellows in this programme
Fellows should have expertise in (i) proteomics and bioinformatics or (ii) molecular and behavioral pain research. We provide a dynamic and inspiring working environment at the forefront of (meta)proteomics method development and its application to investigate the molecular underpinnings of disease (focus on pain). Thus, a strong interest in pain and disease-relevant research is a must. Also, our research benefits from fruitful collaborations with basic and clinical researchers. Therefore, working in a team, self-motivation, drive and dedication, having good scientific communication skills, and passion for science is what we are looking for in future fellows.
Possible research themes or topics for postdoctoral projects
Postdoctoral projects can be offered along the major research lines of our laboratory:
- Proteome dynamics upon postsurgery pain in mice and humans
- host-microbiome interactions during postsurgery or neuropathic pain
- Network dynamics in health and disease (focus on pain, but also inflammatory conditions)
- longitudinal analysis of the microbiome in diverse biosamples (saliva, stool, skin)
Weblink for further information:
Division Homepage: https://pharmtox.univie.ac.at
Lab Homepage: https://pharmtox.univie.ac.at/research/systems-biology-of-pain-prof-schmidt/
Email: manuela_schmidt(at)univie.ac.at
Sergey Zotchev
Research Focus
Biologically active natural products from microorganisms
Genetics and biochemistry of natural product biosynthesis
Bacterial genomics
Metabolic engineering and synthetic biology
Research environment
Fully equipped molecular biology lab with capabilities for initial characterization of natural products (extract preparation, HPLC, bioassays etc). Collaborations with in-house groups offering separation/purification/structure elucidation and extended bioassays, as well as cheminformatics.
Expectations towards postdoctoral fellows in this programme
Hands-on experience with bacterial molecular genetics. Knowledge on secondary metabolite biosynthesis, analyses of natural products, state-of-the art technologies for gene manipulation (e.g. CRISPR/Cas, TAR cloning, Golden Gate assembly etc.) is highly desirable.
Possible research themes or topics for postdoctoral projects
Genome mining for novel bioactive secondary metabolites, engineering of biosynthetic pathways aimed at generating new derivatives with improved pharmacological properties and/or to establish structure-activity relationships.
Weblink for further information:
https://pharmakognosie.univie.ac.at/people/zotchev-sergey-b/
Email: sergey.zotchev(at)univie.ac.at
Faculty of Mathematics
CHRISTOPH ABLEITINGER
Research Focus
Mathematics education research: Procedural flexibility in secondary mathematics and teacher education
Research environment
The position would be based in the mathematics education research group at the University of Vienna, which collaborates both within the Faculty of Mathematics (specialized mathematics) and with the centre for teacher education (subject didactics, educational sciences). We can offer the candidate a good infrastructure in terms of technical equipment for empirical studies in mathematics education research (video recording, high-quality sound recording, laboratory setting for qualitative empirical studies, cooperating schools, contacts with the Ministry of Education and the education authorities “Bildungsdirektionen”, etc.). The candidate can, of course, use and enrich the international networks of the research group (e.g., current collaborations with the Harvard Graduate School of Education, University of Helsinki, TU Munich, PH Luzern, UC Viden). The Faculty of Mathematics contributes with travel money for 1.000 euros per year and offers office space as well as a computer.
Expectations towards postdoctoral fellows in this programme
The candidate is expected to bring an established research network and demonstrate a strong interest in publishing high-quality papers in top-tier journals. They should possess independent and innovative research ideas, while also showing a clear potential and willingness to collaborate within interdisciplinary teams. The candidate should have experience and a keen interest in contributing to the preparation and submission of third-party funding proposals. Additionally, they are expected to bring creative ideas for excellent teaching within the mathematics teacher training program. A solid knowledge of both qualitative and quantitative empirical research methods is essential.
Possible research themes or topics for postdoctoral projects
Development of measurement instruments for procedural flexibility in mathematics
Relations between procedural flexibility and relevant variables (such as creativity, executive functions, beliefs, structure sense, etc.)
Relations between procedural flexibility in different mathematical content areas
Visibility and mechanisms of procedural flexibility when working on procedural tasks
Development of procedural flexibility with digital tools (e.g., also with AI support)
Influence of curricula and education systems on procedural flexibility (cultural contexts)
Strategy acquisition and development; change in procedural flexibility over long-term periods
Weblink for further information:
https://www.mat.univie.ac.at/~ableitinger/
Email: christoph.ableitinger(at)univie.ac.at
GOULNARA ARZHANTSEVA
Research Focus
Infinite graphs and groups: analytic, geometric, algorithmic, combinatorial, and asymptotic aspects
Randomness in graphs and groups, C*-algebras, low-dimensional topology, metric embeddings.
Research environment
The Faculty of Mathematics of the University of Vienna includes several members who work on various subjects of geometric group theory and related fields and have a broad range of expertises. All the necessary infrastructure is provided and a specific emphasis is made on the career-planning and the top level grant applications.
In addition, the Faculty provides high-level computer resources and annual travel funding of 1,000 euros.
Expectations towards postdoctoral fellows in this programme
At least two publications in internationally recognised journals, at least one year of prior international post-doctoral experience, and broad research interests.
Weblink for further information:
https://www.mat.univie.ac.at/~gagt/
Email: goulnara.arzhantseva(at)univie.ac.at
HENK BRUIN
Research Focus
My research area is ergodic theory and dynamical system; this studies time-evolving "chaotic" systems, mostly from a probabilistic point of view. This includes mathematical billiard systems (Lorentz gas) and the iteration of interval maps.Thermodynamic formalism is a related topic that I worked on a lot. Additionally, I study topological and symbolic dynamics (and wrote a book on that topic).
Research environment
The ergodic theory group consist of ao-prof Roland Zweimüller and myself, and a variable number of postdocs and PhD-students: at the moment the Postdoc Ela Krawzcyk, and PhD students Silvia Radinger will defend her thesis in February 2026.We have a weekly research seminar as well as a monthly seminar joint with BME Budapest and ISTA Kosterneuburg. In addition, we regularly organise conferences and conduct international/bilateral projects (listed on my website), and I will co-organise a Thematic Program at the Schrödinger Institute in 2027.
Expectations towards postdoctoral fellows in this programme
Postdoc in our group should have a solid background in dynamics, dynamical systems or probability theory. They should have research experience (including published work) and enthusiasm for their subject. We intend to work on joint project, but expect own initiative from the candidate, as well as willingness and ideas to initiate joint activities (reading groups, workshops, research proposals , etc.), and take part (and present work on) in international conferences. The group has some bugdet to fund such activities.
Possible research themes or topics for postdoctoral projects
Possible topics to work on:
- Ergodic properties of billiard systems: Lorentz gases with non-periodic scatterer configurations or non-elastic collision rules: what are diffusion rates and stochastic limit laws for such systems?
- Ergodic properties of group extensions over Cantor system: find practical conditions for ergodicity and rigidity, and (if the group is infinite) recurrence and weak mixing.
Weblink for further information:
https://www.mat.univie.ac.at/~bruin/
Email: henk.bruin(at)univie.ac.at
MATIJA BUCIC
Research Focus
My research is primarily situated in the fields of extremal and probabilistic combinatorics, with a strong focus on applying the powerful ideas from these areas to a diverse range of mathematical problems. The central theme of my research is to understand the structure and limitations of combinatorial objects and to determine the threshold at which certain properties must emerge. While I am happy to work on problems arising from a very wide range of topics, a lot of my recent work involves the use of graph expansion. I am particularly interested in continuing the development of the theory of sublinear expanders and in exploring its applications.
Research environment
I have just joined the University of Vienna and am in the process of building up my own group. There will be two PhD students in the group next year, and I have submitted several large grant applications, which if successful would allow to grow the group even more. We are part of the larger Discrete Mathematics group, consisting of several Professors with large groups. There are also excellent opportunities to collaborate with several groups at ISTA working on similar topics. We are starting up a new Vienna Combinatorics Seminar to bring leading researchers to Vienna.
The Faculty will contribute with travel money for 1.000 euros per year and that the faculty offers office space as well as computers. Additional travel funding may be available through my funds depending on the group size and outcome of grant applications.
Expectations towards postdoctoral fellows in this programme
Participating in joint projects with members of the group. Carrying out independent projects. Presenting work at local seminars, conferences, and workshops. Attending and participating in relevant local seminars and colloquiums.
Possible research themes or topics for postdoctoral projects
My work spans a large number of different areas, and I can suggest interesting topics related to most of them. I am also happy to work on problems/projects you are interested in.
Weblink for further information:
https://sites.google.com/princeton.edu/matija-bucic
Email: matija.bucic(at)univie.ac.at
ROLAND DONNINGER
Research Focus
Dispersive partial differential equations, large-data problems, singularity formation
Research environment
The research group currently consists of 3 PhD students and 2 postdocs.
Expectations towards postdoctoral fellows in this programme
Strong background in dispersive PDEs, publications in international journals, independent research agenda
Weblink for further information:
https://homepage.univie.ac.at/roland.donninger/
Email: roland.donninger(at)univie.ac.at
MARTIN EHLER
Research Focus
Martin Ehler at the University of Vienna works in applied and computational harmonic analysis, with a focus on sampling theory and mathematical data analysis. His research covers dimension-reduction methods for modern learning, frame and sampling theories, approximation theory, time-frequency analysis, and discrepancy theory. A central theme is the development of low-dimensional sampling strategies beyond point sampling, with particular emphasis on curve-based sampling on manifolds such as the unit sphere. He links theoretical advances to applications in signal processing and data science through cross-disciplinary collaborations, including close cooperation with the Acoustics Research Institute of the Austrian Academy of Sciences.
Research environment
The research group is based at the Mathematics Department of the University of Vienna and includes two PhD students and several Master students. It is integrated into the Applied Harmonic Analysis Cluster (AHA), where collaborations are strongly encouraged. Further cross-disciplinary opportunities arise through close interaction with the Acoustics Research Institute of the Austrian Academy of Sciences. The Faculty of Mathematics supports the group with office space, computers, and 1,000 euros of annual travel funding.
Expectations towards postdoctoral fellows in this programme
We welcome strong applications from female researchers with a strong interest in applied harmonic analysis. Candidates should be enthusiastic about advancing theoretical foundations. We particularly encourage female applicants who are eager to collaborate within the Applied Harmonic Analysis Cluster. There are also opportunities to engage with applications in areas such as signal processing, data science, or acoustics.
Weblink for further information:
https://homepage.univie.ac.at/martin.ehler/
Email: martin.ehler(at)univie.ac.at
ILSE FISCHER
Research Focus
I work in enumerative and algebraic combinatorics with relations to statistical physics, representation theory and probability.
Research environment
The combinatorics group at the University of Vienna consists currently of eight doctoral students, four postdocs and four senior members. We are also part of the bigger research network "Discrete random structures: enumeration and scaling limits'' funded by the Austrian Science Fund FWF (https://sfbrandom.univie.ac.at). The group also profits from other strong combinatorics groups in Vienna that are situated at the TU Wien and IST Austria.
Expectations towards postdoctoral fellows in this programme
We welcome any strong application of female researchers with an interest in enumerative or algebraic combinatorics.
Weblink for further information:
https://homepage.univie.ac.at/ilse.fischer/?page_id=21
Email: ilse.fischer(at)univie.ac.at
VERA FISCHER
Research Focus
My work is in mathematical logic, specifically set theory. Central themes of my research are problems in the set theory of the reals, problems at the intersection of combinatorial set theory, descriptive set theory, and forcing, as well as questions arising in higher Baire spaces. My current projects include the study of combinatorial cardinal characteristics and, more broadly, their spectra in both countable and uncountable settings; problems related to the projective complexity of various combinatorial sets of reals; as well as natural counterparts of these problems in the higher Baire spaces. These studies often require the development of new forcing techniques or building upon existing advanced forcing methods.
Research environment
The mathematical logic group of the University of Vienna is the successor of the Kurt Gödel Research Center and traditionally hosts a large number of postdoctoral fellows and graduate students, creating a very dynamic and well established work environment. The group maintains three regular seminars - weekly research seminars in set theory and model theory respectively, as well as a logic colloquium, featuring talks directed to a broader logic audience. The University offers excellent work conditions: ample office space, computer equipment and excellent library facilities.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to maintain an active research program, collaborate with current members of the group, and participate actively in the group’s research activities.
Weblink for further information:
https://www.logic.univie.ac.at/~vfischer/
Email: vera.fischer(at)univie.ac.at
OLIVER HAHN
Research Focus
The Data Science in Astrophysics & Cosmology Group tackles fundamental questions about the Universe's structure, dark matter, dark energy, inflation, as well as galaxy formation through computational, theoretical and data-driven approaches. Our group's research spans three broad areas: developing and running large-scale cosmological simulations to model structure formation from the early Universe to today; advancing the mathematical and computational frameworks underlying perturbation theory and simulation techniques; and applying machine learning to cosmological and astrophysical modelling, inference, and data analysis.
Our group welcomes researchers across the computational cosmology and astrophysics spectrum - from those developing novel numerical methods and theoretical frameworks to those applying simulations and AI to understand observational data from space missions or ground-based telescopes.
Research environment
Our group currently consists of 4 postdocs, 4 PhD students, as well as 7 associated MSc students. We have access to the Austrian VSC5 and MUSICA supercomputing facilities with state-of-the art GPU capabilities for simulations and machine learning applications. All members of the group regularly participate in our weekly group meetings to discuss ongoing research in the group, as well as our weekly journal club. Postdocs are typically supervising their own proposed MSc projects and contribute to the supervision of PhD students. In addition, the group self-organises various social activities to foster integration and group spirit. We also regularly host international guests jointly invited by the group members.
Expectations towards postdoctoral fellows in this programme
A postdoctoral researcher joining the group should have a clear vision for their own research agenda and be ready to create synergies and internal collaborations that benefit both their work and the group's broader research goals. In addition to carrying out their own research, we expect all group members to participate and contribute actively in the regular group activities (such as the group meeting and the journal club), as well as propose and supervise BSc and MSc research projects.
Possible research themes or topics for postdoctoral projects
We welcome all research topics that leverage or extend the group's strengths in simulations, theory, or data science. Topics might range from fundamental questions about e.g. dark matter and structure/galaxy formation to methodological advances in numerical techniques or AI applications. We especially encourage innovative projects that create new connections between observations, simulations, and theory.
Weblink for further information:
https://cosmology.univie.ac.at
Email: oliver.hahn(at)univie.ac.at
JOACHIM HERMISSON
Research Focus
Biomathematics, mathematical models for population genetics, ecology, and epidemiology using a variety of tools, including stochastic processes, ODEs/PDEs, and computational approaches.
Research environment
Part of a strong biomathematics section at the mathematics department (groups Merino, Manhart, Sachdeva, Schertzer, Hermisson) and of the vibrant environment of evolutionary research in Vienna (www.evolvienna.at).
Expectations towards postdoctoral fellows in this programme
Part of a strong biomathematics section at the mathematics department (groups Merino, Manhart, Sachdeva, Schertzer, Hermisson) and of the vibrant environment of evolutionary research in Vienna (www.evolvienna.at).
Weblink for further information:
joachim.hermisson(at)univie.ac.at
Email: www.mabs.at
MICHAEL KUNZINGER
Research Focus
I am a mathematician working at the interface of non-smooth differential geometry, metric geometry, and mathematical general relativity. I develop rigorous frameworks for Lorentzian spacetimes of low regularity – including synthetic Lorentzian geometry and Lorentzian length spaces – in order to understand curvature, causality, and singularities beyond the classical smooth setting, in line with Einstein’s theory of gravity. My work also has close ties to the theory of Optimal Transport.. As a principal investigator of the FWF “Emerging Fields” project A new Geometry for Einstein’s Theory of Relativity & Beyond, I contribute to developing metric and synthetic notions of curvature that extend smooth methods to highly irregular spacetimes, as well as to synthetic Lorentzian spaces. Applications include non-smooth General Relativity and in Quantum Gravity.
Research environment
I am one of five Principal Investigators of the Emerging Fields project “A new Geometry for Einstein’s Theory of Relativity & Beyond” at the University of Vienna, which offers a large, very active research environment centered on non-smooth geometry, metric geometry, Lorentzian geometry and mathematical general relativity. The group currently consists of 9 postdocs and 9 PhD students, embedded in the Faculty of Mathematics, see https://ef-geometry.univie.ac.at/. For incoming postdocs, this means daily interaction with experts across optimal transport, metric measure spaces, Lorentzian length spaces, general relativity, and quantum gravity; opportunities to co-organise and speak at workshops and conferences; and intensive networking with visiting researchers from Europe and overseas. The size and diversity of the group also create natural chances for collaborative projects, informal reading seminars, and mentoring of PhD students, providing an excellent platform to build an independent research profile within a very focused but interdisciplinary team. Office space, IT-infrastructure and travel budget (3000 Euro per year) will be provided from our grant money.
Expectations towards postdoctoral fellows in this programme
As a PostDoc joining our research group you should contribute actively to (at least one of) the core themes of our research—non-smooth differential and metric geometry, Optimal Transport, Lorentzian geometry, and mathematical general relativity—by developing an independent but well-aligned research programme and by collaborating with the wider EF-Geometry team (PIs, postdocs, and PhD students), participate regularly in seminars, reading groups, and workshops, and help shape the scientific life of the group (e.g. by co-organizing events or short courses). A solid background in at least one of differential/metric geometry, analysis on metric measure spaces, Optimal Transport or mathematical General Relativity is expected, together with the ability to interact across these areas and to mentor junior researchers where appropriate.
Possible research themes or topics for postdoctoral projects
Possible Research projects within the general framework laid out above will be developed together with the applicant.
Weblink for further information:
https://www.mat.univie.ac.at/~mike/
Email: michael.kunzinger(at)univie.ac.at
BERNHARD LAMEL
Research Focus
I work in Several Complex Variables, in particular CR geometry. My main interests are mappings of real submanifolds (or real sub varieties) of complex spaces, their regularity and rigidity properties, normal forms for CR manifolds, properties of CR functions and their relationship to the geometry of the manifold, as well as analogous questions for more general involutive systems of PDEs.
Research environment
The Complex Analysis Group at the University of Vienna at the moment consists of myself and Friedrich Haslinger (retired professor), 3 postdoctoral researchers (Luke Edholm, Hendrik Herrmann, and Weixia Zhu), and 2 praedocs (Nai-Yu Hu and Fani Xerakia). We are interested in many different aspects of Complex Analysis many of which have intersections with each other; we run an active weekly seminar and offer a pleasant working environment.
Expectations towards postdoctoral fellows in this programme
I expect that you bring in your own research profile and the willingness to continue developing this profile while broadening your scope to encompass some items of joint interest, and that you actively engage with the other members of the research group. We will support you in your development as much as we can (e.g. travel support, invitations to collaborators, etc).
Weblink for further information:
https://complex.univie.ac.at
Email: bernhard.lamel(at)univie.ac.at
ANGELIKA MANHART
Research Focus
My groups works in the interdisciplinary field of computational biology/mathematical biology. My research focus is to develop & analyse mathematical models in order to understand (cell) biological phenomena. The models typically involve differential equations (ODEs, PDEs) and often have a stochastic component. The tools to analyse them include simulations and analytical methods (qualitative methods, stability analysis, bifurcation analysis). Biologically, my focus is collective cell dynamics, cell motility and internal cellular organisation. Current projects include how heterogeneity, the cells' environment and cell-cell communication affects group cell dynamics, with applications in cancer metastasis and development. Many of my projects involve experimental data (e.g. microscopy data), where we use data analysis tools to gain insights.
Research environment
My group consists of post-docs and PhD students, with some involvement of undergraduate students. We meet regularly and interact with other groups at the Faculty of Mathematics. Further there are meetings with experimental collaborators either in Vienna (e.g. at the Medical University of Vienna) or internationally. The Faculty will provide office space and a computer, travel money to attend conferences and workshops is also available.
Expectations towards postdoctoral fellows in this programme
Technical skills: Mathematical modelling, understanding and analysing differential equations, coding skills (numerically solving DEs, basic data analysis).
Other expectations: Be interested in the *how* and *why* of biology. Good communication & collaborative skills with theoreticians and experimentalists. Scientific maturity: Ability to think & work independently, critically assess one’s own and others’ results.
Possible research themes or topics for postdoctoral projects
See group's Research Focus.
Weblink for further information:
https://angelikamanhart.github.io/
Email: angelika.manhart(at)univie.ac.at
SARA MERINO ACEITUNO
Research Focus
My research focuses on kinetic theory and its applications to emergent phenomena in biology, medicine, and the social sciences. I use tools from partial differential equations, probability, numerical simulation, and mathematical modelling. A significant part of my current work is conducted in close collaboration with experimental research groups.
Research environment
The group currently includes one postdoctoral researcher and two PhD students, and is embedded in a vibrant research environment with active communities in both Biomathematics and PDEs within the Faculty of Mathematics.
The faculty provides modern office space, computing resources, and annual travel funding of up to €1,000. I will additionally supplement this support to a total of up to €2,000 per year for the first three years (and for the final year as well, subject to available funding).
Expectations towards postdoctoral fellows in this programme
Applicants should have experience with ordinary and partial differential equations, as well as with numerical simulation. Projects may be more theoretical—focusing on analysis and the derivation of equations—or more applied, involving modelling and collaboration with experimental groups. In all cases, strong competence and confidence in running simulations is essential.
I am also looking for candidates who are highly motivated, proactive, and able to work independently.
Possible research themes or topics for postdoctoral projects
Potential projects include the derivation, analysis, and simulation of continuum models for collective motion and network formation, as well as the modelling of many-agent systems in biological contexts.
Weblink for further information:
https://sites.google.com/view/saramerinoaceituno/about?authuser=0
Email: sara.merino(at)univie.ac.at
OLGA MULA
Research Focus
Partial Differential Equations (PDEs) are essential to describe the fundamental laws governing virtually any process. We are a research group focusing on solving them approximately with mathematically rigorous numerical methods. Our current focus lies on methods based on highly nonlinear representations such as neural networks to solve:
- transport-dominated and high-dimensional PDEs
- dynamics on metric spaces (e.g. Wasserstein gradient flows)
- model order reduction
- data assimilation and sensor placement
Expected applications of these methods are connected to:
- Physical processes (e.g. 3d-printing, haemodynamics, nuclear physics...)
- Optimization methods for machine learning
The group would be particularly interested in hosting applicants with interests connected to the above topics, and with strong expertise in numerical analysis, PDE analysis, calculus of variations and/or optimization. Candidates must hold a PhD degree in (applied or computational) mathematics.
Research environment
We offer a dynamic, and collaborative research environment. The candidate would join a research group composed of a Professor and a group of highly motivated PhD and PostDoc researchers. The group is embedded in a vibrant research ecosystem in numerical analysis in Vienna, and we are also connected to numerous international collaborators. The candidate would have full access to the group's infrastructure, including computational resources and travel funding.
Expectations towards postdoctoral fellows in this programme
The postdoctoral fellow is expected to:
- bring an independent, and original line of research which complements the expertise of the group
- carry a collaborative line of research together with the research group
- help supervise bachelor and master students
- help with teaching
Weblink for further information:
www.olgamula.com
Email: olga.mula.hernandez(at)univie.ac.at
ARISTOTELIS PANAGIOTOPOULOS
Research Focus
My research centers on descriptive set theory and the dynamics of Polish groups, with a focus on understanding the complexity of classification problems via the Borel reduction hierarchy. I develop new dynamical obstructions to classification, extending and generalizing Hjorth’s turbulence theory, and study homological and cohomological invariants through the emerging framework of Definable Algebraic Topology. Much of my work builds on structural and game-theoretic methods, Fraïssé theory, and interactions with topology, ergodic theory, and operator algebras. Recent projects explore how these techniques illuminate questions in mathematical physics—such as the Problem of Observables in general relativity—opening new but complementary directions grounded in my core DST expertise.
Research environment
The postdoc will join the Kurt Gödel Research Center, a world-leading hub in mathematical logic with active groups in descriptive set theory, set theory, topology, model theory, and dynamics. They will receive office space and computing facilities provided by the Faculty, and full access to all KGRC infrastructure, including seminar rooms, the logic library, and weekly research seminars (Logic Colloquium, Set Theory Seminar, Model Theory Seminar, and various working groups). The environment is highly international, collaborative, and research-intensive, with frequent visitors and workshops. The postdoc will be fully integrated into my research group and its ongoing projects, with opportunities for collaboration across Vienna’s broader mathematical ecosystem, including the IQOQI, VCQ, and the geometry and GR groups at UniVie and TU Wien. The Faculty provides €1000/year in travel support; additional travel funds may be available through my ongoing or upcoming research grants.
Expectations towards postdoctoral fellows in this programme
We welcome postdoctoral researchers with motivation, independence, and a collaborative spirit. Members of the group are expected to take an active role in shaping their own research direction while also engaging with ongoing projects pursued by other group members. Active participation in seminars, working groups, and informal research meetings is highly encouraged, as is sharing expertise with students and colleagues. We value researchers who are open to interdisciplinary ideas and who contribute to the supportive and inclusive atmosphere of the KGRC. A willingness to explore connections across logic, topology, and mathematical physics is welcomed but not required; intellectual curiosity, professionalism, and a commitment to constructive interaction are essential.
Possible research themes or topics for postdoctoral projects
- Developing new dynamical obstructions to classification, in the spirit of Hjorth's theory of turbulence;
- Studying the dynamical properties of large topological groups (unitary groups, diffeomorphism groups, etc);
- Using the Borel reduction hierarchy to identify the intrinsic complexity of classification problems in mathematics: unitary representations, ergodic systems, topological spaces, etc.;
- Definable Algebraic Topology: developing Borel definable refinements of classical (co)homology theories;
- Fraïssé theory and homogeneous structures: classical, metric, and projective Fraïssé limits; applications to topological dynamics and continua.
- Descriptive set-theoretic methods in spacetime geometry: complexity of classes of asymptotically flat or Λ-vacuum spacetimes; descriptive gauge theory;
- Quantum symmetries and quantum Fraïssé theory: quantum automorphism groups of infinite structures; links to quantum reference frames.
Weblink for further information:
https://www.mat.univie.ac.at/~panagiotopoulos/
Email: aristotelis.panagiotopoulos(at)univie.ac.at
ILARIA PERUGIA
Research Focus
My research concerns the development and analysis of advanced numerical methods for partial differential equations, with a focus on finite element techniques and structure-preserving discretizations for evolution equations. Model problems include wave propagation and nonlinear reaction–diffusion systems.
Research environment
The postdoctoral researcher will join the Numerics of Partial Differential Equations group, whose expertise spans numerical analysis, applied PDEs, and scientific computing. The group has active international collaborations, and postdocs pursue their research both independently and through joint projects. Regular seminars, internal meetings, and visiting researchers contribute to an active scientific environment. The Faculty provides office space, computing facilities, and annual travel funding of 1,000 euros.
Expectations towards postdoctoral fellows in this programme
Expectations for postdoctoral fellows are to take an active role within the group, pursue high-quality research, contribute to ongoing projects, and participate in collaborative discussions.
Weblink for further information:
https://mat.univie.ac.at/~perugia/
Email: ilaria.perugia(at)univie.ac.at
OTMAR SCHERZER
Research Focus
Inverse problems and regularization theory, variational methods, tomography, imaging and mathematical image processing. In particular, current interdisciplinary projects address applications in medical imaging with the focus on exploring coupled physics imaging, elastography, optical and ultrasound imaging, aiming to improve image reconstruction and parameter identification.
Research environment
An international research group proficient in modeling, regularization, and numerical optimization and focusing on interdisciplinary research.
The faculty offers an office space and computer as well as will contribute with travel money for 1.000 euros per year. The research group will contribute with additional travel money of 2.000 euros per year.
Expectations towards postdoctoral fellows in this programme
A prospective candidate is expected to conduct independent, high-quality research aligned with the group's focus areas and actively contribute to ongoing projects and publish in leading scientific journals. Genuine interest and enthusiasm for research on interdisciplinary topics of elastography, ultrasound, OCT and PAT is expected. A collaboration with the groups of medical physics and of obstetrics and prenatal diagnostics at the Medical University of Vienna is anticipated. Completion of an appropriate doctorate in the field of Mathematics or a closely related discipline. Excellent command of English.
Possible research themes or topics for postdoctoral projects
Hybrid OCT-PAT elastography, dual-modal imaging, ultrasound elastography, translational research, shear wave elastography with partners from GE HealthCare
Weblink for further information:
https://csc.univie.ac.at/
Email: otmar.scherzer(at)univie.ac.at
MICHAEL SCHLOSSER
Research Focus
Michael Schlosser's research focuses on q-series, enumerative and algebraic combinatorics, number theory and special functions, in particular, multiple basic hypergeometric series associated to root systems, and Macdonald polynomials. A more specialized topic concerns the study of elliptic hypergeometric series, and in particular its connections to combinatorics.
Research environment
The research will be carried out within the combinatorics group of the University of Vienna. This is rather large research group (with many doctoral students and postdocs), whose members meet regularly in weekly seminars. The members who are active in algebraic combinatorics frequently present their research results in specialized international conferences such as FPSAC and SLC. The department itself is very broad and has a high reputation. Among the many activities that are offered in research and teaching, the department's colloquium, attracting various internationally renowned speakers, is a highlight. The University of Vienna has a very good library. Regarding computing facilities, remote access can be given to a supercomputing resources and data storage.
The Faculty of Mathematics will provide infrastructure, travel and computer resources.
Expectations towards postdoctoral fellows in this programme
The postdoctoral researcher should be interested to work on topics related to combinatorics and/or special functions. Ideally, the researcher should be independent or nearly independent, and have a positive working attitude. As the length of the fellowship is four years, it makes sense for the postdoctoral fellow to work on several problems at the same time. Besides working on ambitious problems which are likely to take more than a year to settle, it makes sense to work on smaller problems in parallel that allow the fellow to have a number of showable results as time progresses. It is further desired that the postdoctoral be communicative and willing to present her results in discussions, seminars and at conferences. On the technical side, it would be desired that the postdoctoral fellow has excellent programming skills.
Possible research themes or topics for postdoctoral projects
Possible themes would be elliptic hypergeometric combinatorics, or basic and elliptic extensions of special functions (such as Appell series).
Weblink for further information:
https://www.mat.univie.ac.at/~schlosse/
Email: michael.schlosser(at)univie.ac.at
ULISSE STEFANELLI
Research Focus
Calculus of Variations, Partial Differential Equations, Evolution Equations.
Research environment
The Research Group in Applied Mathematics and Modeling includes Master’s students, PhD candidates, and Postdoctoral researchers. We meet regularly to discuss mathematics, run a weekly seminar, and frequently host visiting scientists.
Expectations towards postdoctoral fellows in this programme
To take an active role within the group and to contribute to high-quality research.
Weblink for further information:
https://www.mat.univie.ac.at/~stefanelli/
Email: ulisse.stefanelli(at)univie.ac.at
ROLAND STEINBAUER
Research Focus
I am a mathematical physicist working mainly in General Relativity, with a particular focus on non-smooth spacetime geometries. I coordinate the FWF-funded Emerging Fields project “A New Geometry for Einstein’s Theory of Relativity & Beyond”, which advances a synthetic approach to Lorentzian Geometry based on Metric Geometry and Optimal Transport. My broader research also covers classical topics in Mathematical Relativity, including the Cosmic Censorship Hypothesis and extensions of spacetimes, Marginally Outer Trapped Surfaces (MOTS) and singularity theorems, as well as radiative spacetimes.
Research environment
I coordinate the Emerging Fields project “A New Geometry for Einstein’s Theory of Relativity & Beyond” (https://ef-geometry.univie.ac.at/), together with four further Principal Investigators, two of them being female mathematicians. We currently host nine postdocs and nine PhD students, providing a large, active research environment centred on non-smooth spacetime geometry. The size and diversity of the group, including strong female role models, provide an ideal environment for incoming postdocs, with ample opportunities to develop an independent research profile within a focused team. Office space, IT infrastructure, and travel funds will be covered by the department and our grant funding.
Expectations towards postdoctoral fellows in this programme
As a postdoc joining our team, you will contribute actively to our research themes in General Relativity by developing an independent yet aligned research programme, and by collaborating with the research group and colleagues in the department’s Geometry Section. We expect a solid background in at least one of Mathematical General Relativity, analysis on metric measure spaces, or Geometric Analysis, together with the ability to interact across these areas and to mentor junior researchers.
Possible research themes or topics for postdoctoral projects
Specific projects within the framework outlined above will be developed jointly with the applicant.
Weblink for further information:
https://www.mat.univie.ac.at/~stein
Email: roland.steinbauer(at)univie.ac.at
BALAZS SZENDROI
Research Focus
Algebraic geometry: higher-dimensional geometry, commutative algebra, enumerative geometry, algebraic combinatorics.
Research environment
I lead a research group in pure mathematics, currently consisting of 2 postdoctoral researchers (one female) and 3 PhD students. There is close collaboration with the research group of Anton Mellit (Uni Wien) and Tamas Hausel (ISTA) in Algebraic Geometry and Representation Theory, as well as the research group of Ilse Fischer (Uni Wien) in Algebraic Combinatorics. We run one or two weekly seminars.
The faculty offers an office space and computer, and will contribute travel money of 1.000 euros per year. The research group will aim to contribute further travel money of up to 1.000 euros per year.
Expectations towards postdoctoral fellows in this programme
The postdoctoral researchers in my group usually pursue their own research projects in higher-dimensional Algebraic Geometry and Enumerative Geometry.
Weblink for further information:
https://homepage.univie.ac.at/balazs.szendroi/
Email: balazs.szendroi(at)univie.ac.at
VERA VERTESI
Research Focus
My work focuses on classification and structural questions in contact topology, particularly for contact 3-manifolds and the Legendrian and transverse knots they contain. I have established the equivalence of the Legendrian invariants in Heegaard Floer homology, contributed to the classification of Legendrian and transverse knots using Heegaard Floer theory and contact homology, and developed a Topological Quantum Field Theory that categorifies the Reshetikhin–Turaev invariant for the Alexander polynomial. More recently, together with Licata, I provided a new proof of the Giroux correspondence. Alongside classical tools such as convex surfaces, open books, and Heegaard Floer homology, I am interested in extending ideas from three-dimensional contact topology to higher dimensions.
Research environment
I lead a small research group in contact and low-dimensional topology at the University of Vienna. When the applicant arrives, the group will include two PhD students and one to two postdocs, allowing for close collaboration and regular discussion of ideas and ongoing work. The University of Vienna, Austria’s largest research institution, provides excellent infrastructure, extensive libraries, and access to a wide network of institutes. Nearby faculty groups in Algebraic Geometry, Combinatorics, and Complex Analysis offer complementary expertise, while ISTA, TU Wien, and ESI provide further opportunities for collaboration. I also hold FWF projects that supply additional support for travel, invited researchers, and a small seminar. Together, we aim to build and strengthen geometry and topology at the University of Vienna.
Expectations towards postdoctoral fellows in this programme
Postdocs in my group are expected to work independently while actively engaging with the team. They should hold a PhD and have a strong research profile in low-dimensional topology, in particular contact and symplectic topology and/or Heegaard Floer homology. Postdocs will contribute to ongoing projects, develop their own ideas, and discuss research regularly with me and other group members. They are encouraged to attend and present at seminars, workshops, and conferences, and to interact with related groups at the University of Vienna and partner institutes. Postdocs may also help run the group’s small research seminar and mentor PhD students, fostering collaboration and building a strong local community in geometry and topology.
Possible research themes or topics for postdoctoral projects
Postdocs in the group can pursue projects in low-dimensional topology, with a focus on contact and symplectic topology, Legendrian and transverse knot theory, and Heegaard Floer homology. Possible themes include understanding tightness and fillability in contact 3- and higher-dimensional manifolds, developing new invariants of contact structures, studying convex hypersurfaces and glueing constructions, and exploring interactions between Floer-theoretic invariants and topological or combinatorial structures.
Weblink for further information:
https://www.mat.univie.ac.at/~vertesi/
Email: vera.vertesi(at)univie.ac.at
Faculty of Physics
Paul Winkler
Research Focus
Process level studies of heterogeneous nucleation and nanoparticle formation in aerosol systems, instrumentation development for nanoparticle characterization and quantitative monitoring of particle dynamics in the sub-10 nm size range.
Research environment
The group is currently composed of one postdoc, three PhD students and three master students. Available instrumentation includes state-of-the-art condensation particle counters, differential mobility analyzers and an atmospheric pressure interface time-of-flight mass spectrometer in two fully equipped laboratories. The group of the PI is actively involved in the CLOUD project at CERN offering access to a large international scientific network of the highest caliber.
Expectations towards postdoctoral fellows in this programme
The successfull applicant will be integrated into the group and is expected to take a leading role in the scientific work fostering new ideas within the main research topics of the group. A high level of independence in the scientific conduct will be guaranteed. Support of students on all levels working on group-related thesis projects will be an integral aspect of this position.
Weblink for further information:
https://aerosols.univie.ac.at/
Email: paul.winkler(at)univie.ac.at
Martin Hopf
Research Focus
Physics Education Research, Design Based Research, Educational Reconstruction, Professional Knowlege of Teachers
Research environment
Our internationally renowed PER working group is pursuing high quality research on (mostly) middle and high school students learning of physics. We have developed and evaluated several curricula and cooperate closely with national and international PER groups.
Expectations towards postdoctoral fellows in this programme
We are hoping for new ideas and new methodological competences, esp. in the emerging field of AI-based PER. Additionally, new ideas for the middle and high school classroom are appreciated.
Possible research themes or topics for postdoctoral projects
One major theme for future directions for PER in Austria is context-based physics teaching and learning. Alternatively, the development of PCK of (future) teachers is a hot topic at the moment.
Weblink for further information:
https://teaching-physics.univie.ac.at/
Email: martin.hopf(at)univie.ac.at
Roberto Cerbino
Research Focus
Our research explores the physics of soft and living matter, with emphasis on dynamic processes far from equilibrium. At the SoMeX Lab (https://somexlab.github.io/) we combine advanced optics, rheology, and quantitative image analysis to study colloids, gels, polymers, emulsions, biological fluids, cell tissues, and active matter. Current projects include mechano-responsive synthetic and biological tissues (MechanoSynth), mechanically trained colloidal gels (TRAINGEL), non-equilibrium sedimentation and microgravity studies (GTACS, NEUF-DIX), and bio-sourced soft materials (FORgreensoft). We also develop new experimental methods and devices for the study of soft and biological materials. Our work integrates experiment, theory, and instrumentation, and is conducted within an international network of academic and industrial collaborations.
Research environment
The group is based at the Faculty of Physics of the University of Vienna, home to a long tradition of excellence in physics, from Lise Meitner and Ludwig Boltzmann to Erwin Schrödinger. In addition to shared facilities (e.g. light and electron microscopy, light and X-ray scattering, etc.), our lab hosts state-of-the-art optical microscopy (confocal, high-speed), a rheometer, custom rheo-microscopy instruments, and advanced image-analysis pipelines. We also provide chemistry and biology rooms for the preparation, storage, and handling of complex fluids and biological samples. Our facilities support work on colloids, polymers, gels, and biological systems, complemented by computational resources for quantitative data analysis. The environment is collaborative, international, and strongly interdisciplinary, embedded in a vibrant soft matter and biophysics ecosystem. Postdoctoral fellows benefit from mentoring, scientific independence, core-facility access, and integration into seminars, collaborations, and European research networks. We value gender balance; 58% of current group members are women.
Expectations towards postdoctoral fellows in this programme
We expect postdoctoral fellows to be independent, curious, and collaborative scientists who contribute actively to the research culture of the group. Fellows should be motivated to develop their own research line while engaging with ongoing projects, mentoring junior researchers, and strengthening scientific links within and beyond the lab. We value strong experimental or computational skills in soft matter or biophysics, and openness to interdisciplinary approaches. Postdocs are encouraged to take scientific initiative, present at international conferences, contribute to shared methods, and participate in manuscript writing and project development. We are committed to supporting their career advancement, whether in academia or beyond, through mentoring, networking, and funding guidance. We also expect commitment to a respectful, inclusive, and cooperative environment, where rigor, transparency, and open science are standard practice.
Possible research themes or topics for postdoctoral projects
We welcome postdoctoral projects that align with and extend our research on soft and living matter. Possible directions include:
- multiscale rheo-microscopy of gels, biomaterials, or polymer networks;
- advanced Differential Dynamic Microscopy (DDM) methods, including machine-learning-assisted dynamics extraction or temporally and spatially-resolved DDM;
- mechano-responsive and mechanofluorescent materials for sensing stress or damage;
- non-equilibrium dynamics in microgravity and sedimenting colloidal systems;
- soft-matter-based food, bio-based, or sustainable materials;
- active matter, collective behavior, or mechanically regulated biological assemblies. We also welcome proposals that connect to data-driven modelling, or instrument development. Projects with industrial relevance or international collaboration are particularly encouraged.
Weblink for further information:
https://somexlab.github.io/
Email: roberto.cerbino(at)univie.ac.at
Sofia Kantorovich
Research Focus
We explore magnetic and charged soft matter—including magnetic fluids, gels, anisotropic and Janus particles—as well as charged colloids and biologically relevant systems. We study self-assembly in nanostructured soft-matter systems, macroscopic properties of granulates and active matter. Methodologically, we combine coarse-grained molecular dynamics and Monte Carlo simulations with classical density functional theory and mean-field approaches to analyse structure and dynamic magnetic response.
Research environment
Our research group is a young, friendly, and highly collaborative team, combining an open atmosphere with strong scientific ambition. We work closely together on exciting projects in soft-matter physics, regularly exchange ideas, and enjoy an active social group life. DSM-group research environment is international, with numerous collaborations abroad and frequent opportunities for conference travel, research visits, and joint projects with partners worldwide.
Expectations towards postdoctoral fellows in this programme
We are happy to work together if you are curious, motivated, and enjoy working in a collaborative team. It is important to us that you are independent in your research but also eager to exchange ideas and contribute to the group’s projects. A positive, open attitude, good communication, and a willingness to explore new directions and learn together are highly valued.
Possible research themes or topics for postdoctoral projects
Magnetic gels, magnetic active colloids, magnetic hyperthermia, magnetic particle imaging, ferrogranulates
Weblink for further information:
https://dsm.univie.ac.at
Email: sofia.kantorovich(at)univie.ac.at
Christos Likos
Research Focus
We are working on a variety of problems related to the structure and dynamics of soft matter, with current emphasis on the following topics.
Topological polymers
Slow Dynamics in soft matter
Mechanical manipulation of gels
Swimmers and hydrodynamics
Coarse-graining
Self-assembly
Biomacromolecules
List of publications: https://comp-phys.univie.ac.at/likos/publications/
Research environment
The Likos group consists of a number of senior and junior postdocs, doctoral students and master's students, forming a closely interacting, coherent unit. We are working in connection with a broad international network of fellow theorists as well as experimental colleagues, investigating a variety of problems related to the structure and dynamics of passive and active soft matter, with particular emphasis on the interplay between interactions, hydrodynamics, flow and topology. The group has hosted many postdoctoral- and doctoral Fellows via third-party projects of the PI or prestigious individual fellowships of its members, such Elise-Richter, Lise-Meitner, Marie-Curie, Alexander-von Humboldt and EU Doctoral Colleges.
Link: https://comp-phys.univie.ac.at/likos/likos-group/
Expectations towards postdoctoral fellows in this programme
We are looking for a motivated postdoctoral fellow with a solid background on Statistical Physics and computer simulation. The successful candidate should bring along a strong motivation towards understanding the properties of soft matter, independent, critical thinking and a cooperative spirit. The host will offer mentoring, expertise and guidance, as well as an active, exciting, and friendly research environment that will boost the career perspectives of the young scientist.
Possible research themes or topics for postdoctoral projects
Possible topics are briefly listed below. Please feel free to ask christos.likos(at)univie.ac.at for more details or to suggest your own topics/enrich some of the listed ones with your own inputs and ideas.
Active polymers
Catenanes in equilibrium and under flow
Cluster crystals and cluster glasses
Polyelectrolyte solutions and coacervation
Weblink for further information:
https://comp-phys.univie.ac.at/likos/
Cesare Franchini
Research Focus
Condensed Matter Theory, Computational Materials Physics and Materials Science. Develop and application of novel theories and numerical algorithms to predict the properties of materials from the quantum scale to applications. We use electronic structure methods, quantum Montecarlo, Machine Learning as well as analytical approaches. Specific research area included, but are not limited to: electron-phonon and polarons, quantum magnetism, strongly correlated materials and energy materials.
Research environment
The Computational Materials Physics department offers a dynamic and collaborative research environment, bringing together an active community of professors, postdoctoral researchers, PhD candidates, and Master students working across all areas of first-principles materials simulations. Our research is strongly embedded in national and international projects and supported by an extensive network of global collaborations. We have access to leading-edge computational infrastructure, including the Austrian Scientific Cluster, the newly established MUSICA (Multi-Site Computer Austria), and dedicated local CPU and GPU workstations. The department is committed to fostering diversity and inclusion and promotes a healthy, supportive workplace with an emphasis on maintaining a balanced and sustainable work–life environment.
Expectations towards postdoctoral fellows in this programme
The successful candidate will hold a PhD in Physics or a related discipline such as Chemistry or Materials Science, with strong expertise in first-principles simulations and artificial intelligence algorithms. She is expected to integrate seamlessly into the group’s existing research activities while bringing fresh ideas and complementary skills. The postdoc will conduct independent research, contribute to maintaining and advancing the high scientific standards of the division, and enhance the research output of the team.
In addition, she should be committed to fostering an inclusive and supportive academic environment by engaging with students at all levels through dedicated projects, teaching activities, and internship supervision. A solid background in the quantum theory of matter and strong numerical and coding proficiency are highly desirable.
Possible research themes or topics for postdoctoral projects
We particularly welcome candidates who can develop independent research lines that are well integrated with the group’s ongoing activities, with a focus on theoretical and computational studies of materials properties enhanced through artificial intelligence methods. Research that bridges multiple scales (from quantum-level descriptions to practical applications) is especially encouraged.
We also value interdisciplinary approaches, including non-conventional ideas and collaborations extending beyond the traditional boundaries of physics, chemistry, and materials science. Such cross-disciplinary perspectives are highly welcomed.
Weblink for further information:
https://cmp.univie.ac.at/
Email: cesare.franchini(at)univie.ac.at
Reinhard Maurer
Research Focus
Our research vision is to develop and apply new simulation methods and prediction tools that fuse machine learning (ML) and data-driven approaches with electronic structure and dynamical simulation methods. Doing so removes existing bottlenecks in simulation capabilities that limit the length and time scales and the complexity of molecular/materials simulations. More importantly, hybrid ML/QM methods enable fundamentally new prediction approaches that defy the conventional structure-to-property paradigm that underpins modern computational materials discovery.
We are interested in application areas ranging from heterogeneous photo-/electrocatalysis, new energy conversion materials, nanostructured and functionalized interfaces, to controlled materials fabrication. In the past, we have studied energy transfer and dissipation processes in hydrogen-metal chemistry, hyperthermal scattering, and light-driven surface dynamics with custom-built simulation methods and machine learning models.
Research environment
The Maurer group is an internationally recognised research group that develops and applies new computational simulation methods and prediction tools for computational materials discovery and surface science. The group is truly international in location and membership. The total of currently 20 team members are hosted across the University of Vienna and the University of Warwick, with close links ensured by hybrid meetings, regular site visits and retreats. The group works in close collaboration with many international collaborators.
The group is part of the Computational Materials Physics division of the Faculty of Physics, which hosts three world-leading research groups, creating a vibrant environment in newly renovated and centrally located offices.
We codevelop several electronic structure software packages and have built a comprehensive in-house stack of open-source software for mixed quantum-classical dynamics simulations and machine learning workflows written in Python, Julia.
Expectations towards postdoctoral fellows in this programme
PostDocs joining the Maurer group will be fully integrated into research and teaching activities of the group. They will be provided with excellent office space and access to generous high-performance and IT resources. PostDocs are expected to deliver frontier research and to work closely with PhD and project students. They will be involved in communication and engagement with an international network of experimental collaborators.
In turn, PostDocs will receive support in their project and career ambitions with an open-door mentorship style. They will receive hands-on training in state-of-the-art electronic structure and machine learning techniques, as well as grant writing and research management. A personal development and training plan, developed at the beginning of the 4-year fellowship, will ensure career progression and substantial financial funds will be available to support international conference travel and networking.
Possible research themes or topics for postdoctoral projects
The following are examples of projects that align with existing activities. The activities of the group are broad, providing a lot of flexibility in shaping individual research projects depending on candidates' prior experience and research interests.
Examples of current project areas include:
• Machine-learning-accelerated simulation of light-driven and ultrafast dynamics at surfaces in the context of photocatalysis and hyperthermal scattering
• Development of novel machine-learning surrogate models in electronic structure theory
• Machine-learning-driven design of functional two-dimensional materials and organic thin films
• Non-thermal hydrogen-metal chemistry in the context of energy conversion and fusion technologies
Weblink for further information:
https://cmp.univie.ac.at/
Email: reinhard.maurer(at)univie.ac.at
Paola Ayala
Research Focus
The research of the Tailored Hybrid Structures group focuses on elucidating fundamental aspects governing the production and applicability of functionalized carbon nanostructures using various spectroscopy techniques. Over the past two decades, pristine carbon nanotubes have inspired numerous innovative concepts. However, many of these promising ideas have not progressed beyond the prototype stage due to significant challenges with reproducibility. In this scientific landscape, our research centers on elucidating the physical properties that emerge from heteroatom functionalization and the filling of single-walled carbon nanotubes and related heteronanotubes. This approach opens a broad spectrum of possibilities for precisely tuning material properties.
We also aim to harness controlled functionalization for practical applications, including gas sensing technologies that leverage electrical and electronic properties, as well as biological markers and biosensing platforms that utilize the nanotubes' distinctive optical properties and unique spectroscopic signatures.
Research environment
The Tailored Hybrid Structures group explores the intersection of physics, chemistry, and materials science, where spectroscopy serves as our lens to decode nanostructured materials with unique properties. We are multicultural team bringing together diverse perspectives and expertise, fostering an environment where innovative ideas are welcome through collaborative dialogue. We are united by curiosity and driven by the challenge of transforming fundamental discoveries into tangible solutions. Our laboratory combines state-of-the-art spectroscopic techniques—from Raman and photoluminescence to life-time fluorescence and scanning probe techniques—to reveal the hidden properties of functionalized carbon nanostructures. Beyond instrumentation, our strength lies in our people: researchers from different places and scientific backgrounds. We believe this is a way to approach problems with complementary visions and methodologies. This diversity enriches our scientific discourse and mirrors the interdisciplinary nature of nanomaterials research. We maintain strong collaborative networks with leading institutions worldwide, ensuring cutting-edge research. Our philosophy embraces both fundamental inquiry and application-driven science, recognizing that today's basic discoveries become tomorrow's technologies.
Expectations towards postdoctoral fellows in this programme
We seek a highly motivated postdoctoral researcher who brings not only scientific excellence but also a collaborative spirit and fresh perspectives to our team. The ideal candidate should have background in solid state spectroscopy and demonstrate strong analytical skills, creativity in problem-solving, and the ability to work independently while contributing to our inclusive and supportive research environment. We value diverse backgrounds and experiences, recognizing that innovation arises when different viewpoints converge. Beyond technical expertise in spectroscopy and nanomaterials, we expect our postdoctoral fellows to actively engage in mentoring junior researchers, participate in scientific discussions, and contribute to the atmosphere of our group. We are committed to fostering an environment where all team members feel empowered to share ideas, take intellectual risks, and develop their full potential. The successful candidate will have opportunities for professional development, international collaboration, and the freedom to pursue original research directions while contributing to our core projects. We particularly encourage applications from individuals who will enrich the diversity of our team and bring unique perspectives to our scientific challenges.
Possible research themes or topics for postdoctoral projects
The postdoctoral researcher will engage with cutting-edge topics at the forefront of carbon nanomaterials research. Core areas include heteroatom functionalization of single-walled carbon nanotubes, spectroscopic characterization of filled nanotubes and heteronanotubes, and the development of novel sensing applications leveraging both electronic and optical properties. Projects may involve Raman spectroscopy, photoluminescence studies, and electron microscopy to elucidate structure-property relationships in these fascinating systems. We also explore emerging applications in gas sensing, biosensing, and biological markers. Importantly, we view this position as an opportunity for mutual growth—while we offer expertise in advanced spectroscopic techniques and carbon nanostructure synthesis, we actively encourage candidates to bring new methodologies, theoretical approaches, or application areas that complement and expand our capabilities. Whether your background lies in computational modeling, advanced synthesis methods, device fabrication, or complementary characterization techniques, we welcome the fresh perspectives and skills.
Weblink for further information:
https://ths.univie.ac.at
Email: paola.ayala(at)univie.ac.at
Oliver Heckl
Research Focus
The research of the Optical Metrology Group (OMG) centers on optical metrology and sensing, ultimately aiming to develop experiments sensitive enough to track time variations of fundamental constants. To that end, we are working on novel schemes in broadband precision spectroscopy and light-matter interaction of structured light. Our research includes work on low-noise (mid-IR) fiber lasers, mid-IR supermirrors, environmentally stable single-cavity dual-combs, and frequency combs in general.
Research environment
Our laboratories provide a vibrant, international, and diverse research environment with an excellent gender balance. We operate fully equipped, state-of-the-art facilities for lasers, frequency combs, and precision spectroscopy, supported by strong technical infrastructure within the Vienna research ecosystem. The group cultivates an open, collegial, and safety-conscious culture with structured mentoring and a clear focus on personal and professional growth. Our work is highly interdisciplinary and closely linked to industry through technology-transfer activities and long-standing collaborations. Regular conference participation, research stays, and visits from leading scientists ensure active engagement with the global photonics community and continuous exchange of ideas.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to show a strong, self-motivated interest in research and to bring an excellent track record in spectroscopy, photonics, or precision measurements. Candidates should demonstrate the ability to work independently while contributing to a collaborative team, along with strong problem-solving skills and scientific maturity in planning and executing experiments. Clear personal career goals and openness to interdisciplinary work are valuable assets. Fellows are also expected to communicate their results effectively, engage with the broader scientific community through conferences and collaborations, and uphold high standards of laboratory practice and research integrity.
Possible research themes or topics for postdoctoral projects
Possible research themes include:
- (1) advancing single-cavity dual-comb spectroscopy for robust broadband sensing (https://doi.org/10.1088/2515-7647/ad819f );
- (2) semiconductor-optics projects using ultra-low-loss GaAs/AlGaAs coatings, including 10-ppm mirrors and high-finesse mid-IR resonators (https://doi.org/10.1364/OPTICA.405938, https://doi.org/10.1038/s41467-023-43367-z, https://doi.org/10.1103/PhysRevResearch.5.033048 );
- (3) precision spectroscopy of molecules and fundamental-constant tests using frequency combs and OPO sources (https://doi.org/10.1063/5.0167683, https://doi.org/10.1063/5.0233247 );
- (4) light–matter interaction in advanced photonic and cavity platforms (https://doi.org/10.48550/arXiv.2501.10345, https://doi.org/10.48550/arXiv.2508.12973 );
- (5) cold-molecule studies based on buffer-gas cooling for high-resolution spectroscopy (https://doi.org/10.1038/nature17440 ).
Weblink for further information:
https://optical-metrology.univie.ac.at
Email: oliver.heckl(at)univie.ac.at
Luca Banszerus
Research Focus
We study the fundamental electronic, spin, and quantum transport properties of nanoscale systems based on two-dimensional van der Waals materials, with the goal of uncovering new physical phenomena and identifying opportunities for future quantum technologies.
Our current research focuses on superconductor–semiconductor hybrid devices in van der Waals heterostructures, where gate-defined nanostructures—such as quantum dots and quantum point contacts—are coupled to superconducting leads to induce superconducting pairing.
By combining nanofabrication, low-temperature transport measurements, and advanced electronic spectroscopy, we aim to push the frontiers of condensed matter physics.
Research environment
The Quantum Transport Lab is a young experimental research group within the Faculty of Physics at the University of Vienna. Our team currently consists of seven members, and our research focuses on low-temperature transport measurements in mesoscopic systems, such as quantum dots and quantum point contacts based on van der Waals materials.
Our laboratory is equipped with all essential infrastructure for sample fabrication, including a fully motorized, custom-built transfer microscope, and we have full access to modern cleanroom facilities. Our transport setups include both cryo-free and liquid-helium cryostats, enabling measurements across a wide temperature range from 10 mK to 300 K.
Expectations towards postdoctoral fellows in this programme
In our group, postdocs are expected to take a leading role in driving research projects while contributing actively to a collaborative and inclusive team environment. You will mentor junior researchers, support students in developing their skills, and help shape the scientific direction of our projects. Beyond scientific excellence, we value openness, teamwork, and proactive engagement in shaping a positive group culture. Postdocs in our team are given the freedom to pursue their ideas with access to state-of-the-art infrastructure, while benefiting from close guidance and career support. You will be encouraged to take initiative, publish high-impact results, and build an international network, preparing you for the next stage of an outstanding academic or industry career.
Possible research themes or topics for postdoctoral projects
When joining our team, you will have the opportunity to explore cutting-edge experiments in van der Waals heterostructures, working at the forefront of quantum transport and device physics. Possible project areas include:
- Gate-defined nanostructures in bilayer graphene, such as quantum dots and quantum point contacts. We study interactions in few-electron confinement, many-body interactions, and the role of valley and topological degrees of freedom in quantum transport in these systems.
- Superconductor–semiconductor hybrid devices, for example Josephson junctions, SQUIDs, and tunable Josephson circuits. These platforms allow the study of unconventional superconductivity in graphene, proximity effects/Andreev processes, and the development of novel gate-controlled superconducting elements.
While these are key research directions in our lab, we highly value and encourage project ideas proposed by the postdoc, especially those that build on or creatively expand our existing activities.
Weblink for further information:
https://quantumtransport.univie.ac.at
Email: luca.banszerus(at)univie.ac.at
Andrii Chumak
Research Focus
The 'Nanomagnetism and Magnonics' research group is a team conducting world-leading research in magnetism, spintronics, superconductivity and quantum solid-state physics. Our primary objective is to investigate intriguing physical phenomena in magnetic and superconducting systems and exploit them for classical and quantum applications.
Research environment
The group consists of several Senior Reach staff members, postdoctoral researchers, PhD students and undergraduates. It is fully equipped with cutting-edge instrumentation for performing complex experimental studies in the fields of magnonics, spintronics and superconductivity. The faculty also provides with required office space, efficient infrastructure and administration. The key instruments that will be fully accessible to the fellow are: The Physical Property Measurement System (PPMS), room-temperature and millikelvin-temperature ferromagnetic resonance (FMR), propagating spin-wave spectroscopy (PSWS) and spin transport setups, Brillouin light scattering spectroscopy.
https://nanomag.univie.ac.at/methodology/
Expectations towards postdoctoral fellows in this programme
Conduct independent research on the proposed or self-selected topic. The research will include experimental studies, potentially involving nanofabrication and numerical simulations. To develop an academic career in a way that will enable the fellow to access a professorship by completing a habilitation or successfully achieving an ERC grant or similar. Contribute to teaching and supervising students in accordance with the employment contract. Become part of an international academic team in a healthy and fair working environment.
Possible research themes or topics for postdoctoral projects
The group is open to postdoctoral fellows bringing their own emerging research directions, provided they fit within the group's scientific scope and can be realised using existing instrumentation.
Of the proposed topics, emerging physics at the interface between magnetic and superconducting thin films is of particular interest, as it enables the use of superconductivity-related physics to excite, manipulate and detect magnons in the quantum limit regime.
Weblink for further information:
https://nanomag.univie.ac.at
Email: andrii.chumak(at)univie.ac.at
Andre Hoang
Research Focus
André Hoang’s research focuses on precision collider and jet physics and top-quark phenomenology, employing high-order perturbative QCD as well as renormalization-group and factorization techniques to achieve accurate predictions for key observables confronted with experimental data. He uses effective field theories such as SCET, HQET, and NRQCD together with fixed-order calculations as the conceptual basis for quantifying both perturbative and non-perturbative effects. Specific aims include improving the understanding of infrared sensitivity and the operator-product-expansion framework, unstable-particle and off-shell effects, toponium quasi-bound-state physics at the inclusive and differential level, and energy correlators at the LHC and future lepton colliders.
Research environment
The particle physics group includes André Hoang, Massimiliano Procura, and Josef Pradler as permanent members, together with several postdocs and PhD and Master students. Our research covers theoretical and phenomenological aspects of high-energy particle physics with a focus on precision collider physics, perturbative QCD, effective field theories (SCET, NRQCD, HQET, chiral perturbation theory), low-energy precision observables, and dark-matter studies. We collaborate actively with international partners at CERN, DESY, MIT, and other institutions worldwide. The group operates a local 800-core computing cluster for simulations and parallel numerical calculations, offers desk space and library access, and provides a collaborative environment with regular seminars and international visitors. Research is supported by national and European funding programmes, including FWF and EU projects, and benefits from a strong international network in collider-physics phenomenology.
Expectations towards postdoctoral fellows in this programme
I expect postdoctoral researchers with a strong background in particle-physics phenomenology, particularly in collider and low-energy observables and in perturbative quantum field-theory calculations. Candidates should be able to formulate and pursue research questions independently, show initiative in developing new ideas, and contribute actively to collaborative projects within the group. They should participate regularly in group activities, take initiative in shaping new ones, and seek opportunities for scientific exchange and cooperation. A capacity for constructive teamwork and clear scientific communication is essential.
Weblink for further information:
https://ufind.univie.ac.at/de/person.html?id=44099
Email: andre.hoang(at)univie.ac.at
Massimiliano Procura
Research Focus
Prof. Procura’s research aims to develop advanced quantum-field-theory methods that maximize the discovery potential of present and future high-energy colliders and high-intensity experiments. By achieving tighter control over theoretical predictions, his work sharpens tests of the Standard Model and enhances the sensitivity of searches for new physics. A central focus is the advancement of perturbative and non-perturbative techniques for strong-interaction dynamics, S-matrix theory, and effective-field-theory frameworks within and beyond the Standard Model.
Research environment
The particle physics group provides broad expertise in quantum field theory and collider physics, supported by strong national and international research networks as well as research grants. The environment is highly productive, with ample opportunities to interact with theorists and experimentalists working across particle and nuclear physics over a wide range of energy scales. Office spaces are comfortable and well equipped, and the group maintains a dedicated local computing cluster that supports advanced research needs.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to contribute actively to the group’s research in quantum field theory and collider or high-intensity physics, bringing strong analytical skills and an interest in developing advanced theoretical methods. They should be capable of independent research while engaging collaboratively within the group’s broad network of national and international partners. Initiative, openness to interdisciplinary interaction with both theorists and experimentalists, and a commitment to high-quality scientific output are essential. Fellows are also expected to contribute to the scientific life of the group through discussions, seminars, and collaboration on shared projects.
Possible research themes or topics for postdoctoral projects
Possible research directions include applying energy-correlator techniques to push the precision frontier in collider physics, developing innovative uses of dispersion relations to extract deeper insights from suitable quantum correlators, and creating new first-principles methods to achieve sharper, more insightful descriptions of the hadronization mechanism. These topics offer opportunities to make impactful contributions at the interface of formal theory and phenomenology.
Weblink for further information:
https://particle.univie.ac.at/page/5/
Email: mprocura(at)univie.ac.at
Jani Kotakoski
Research Focus
Our research focuses on the atomic-scale structural manipulation and characterization of two-dimensional (2D) materials. Our main tools are (scanning) transmission electron microscopy, electron energy loss spectroscopy, (low-energy) ion irradiation, physical vapor deposition, and atomic force microscopy, combined with further methods when necessary. In addition to experimental research, the unit also has a strong background in computational physics and computational microscopy.
Beyond fundamental research related to atomically tailored 2D materials, their atomic structure, and properties, we also aim to tailor two-dimensional materials specifically for applications in quantum information technology, as well as energy conversion and storage. In this latter context, we are part of the Austrian Science Fund cluster of excellence MECS, which brings together over 20 research groups to address some of the most critical technological challenges of today.
Research environment
The research unit Physics of Nanostructured Materials operates two aberration-corrected (scanning) transmission electron microscopes (TEM), an FEI Titan 80-300 and a Nion UltraSTEM 100. The latter is a part of a unique vacuum system that allows material growth, manipulation, and characterization without breaking the vacuum. The Nion microscope will be upgraded in 2026 with numerous features that surpass the current state of the art, providing a unique opportunity for scientific breakthroughs.
The successful candidate will gain access to and receive training on all the instrumentation of the unit, and will work in close collaboration with the mentor and the approximately 20 researchers at various career stages and with diverse backgrounds. The research unit also has an extensive network of international collaborators, which will benefit both the research project and the candidate's future career prospects. Other resources necessary for a successful project will also be provided.
Expectations towards postdoctoral fellows in this programme
The candidate is expected to have a strong background in one of the following fields: two-dimensional materials, transmission electron microscopy, or computational physics, demonstrated by high-quality peer-reviewed publications.
For a candidate with an experimental background, experience with vacuum systems or electronics may be considered a benefit. For a candidate with a computational background, experience with methods beyond density functional theory or experience with machine-learning techniques may be considered a benefit.
During the project, the candidate is expected to participate in supervising doctoral, master's, and bachelor's students within the context of their research project.
Possible research themes or topics for postdoctoral projects
A number of different research directions are possible, depending on the expertise and the interest of the candidate, ranging from atomically precise quantum centres, including their creation, structure, and properties, through computational understanding of electron-irradiation effects in low-pressure gas atmospheres and the structure-property correlation of defect-engineered 2D materials, to 2D noble gas systems in graphene encapsulation.
The research project will be developed together with the candidate and will include a career development plan that outlines the key knowledge and experience the candidate needs to acquire to maximize the benefits for their future career. Former postdoctoral researchers in the group have continued their careers with excellence research grants and as professors in European universities.
Weblink for further information:
https://physnano.univie.ac.at/
Email: jani.kotakoski(at)univie.ac.at
Toma Susi
Research Focus
Toma Susi is an internationally recognized expert in transmission electron microscopy and related first-principles simulations. In a career that has consistently applied both simulation and experiment in complementary ways, his research has ion implantation, x-ray photoelectron and electron energy-loss spectroscopies, understanding and modeling of electron irradiation effects, and advanced scanning transmission electron microscopy of low-dimensional and other materials. Most recently, his research focus has been increasingly on electron ptychography and quantitative scattering simulations using first-principles potentials derived from density functional theory. His most notable recent contribution to transmission electron microscopy is the massively parallel open-source Python simulation code abTEM, which is the fastest and most modern software package used by an increasingly large part of the field.
Research environment
The host group has for over a decade pioneered research on the atomic structure and tailoring of low-dimensional materials, enabled by highly customized experimental infrastructure centered on an aberration-corrected ultra-high vacuum scanning transmission electron microscope Nion UltraSTEM 100. Uniquely in the world, this microscope is connected through a direct vacuum sample transfer to an adjacent modular experimental setup currently spanning two floors that allows the creation and tailoring of atomic structures. The current microscope within the modular system will be replaced by 2026 with the latest-generation High Energy Resolution Monochromated EELS STEM microscope from Bruker. It will allow the study of quantum-mechanical quasiparticle excitations and interactions at an unprecedented energy and momentum resolution, the imaging of charge densities, electric and magnetic fields, and super-resolution computational microscopy.
Expectations towards postdoctoral fellows in this programme
Depending on the interests and qualifications of the applicant, either computational, experimental, or combined projects can be conducted under the supervision of Prof. Susi. The specific topics will be selected via in-depth discussions with the candidate, who is expected to take initiative and ownership of the research, supported by the administrative and instrumentation support of the host group and intensive mentoring by Prof. Susi. From successful candidates, we expect a background in transmission electron microscopy or electron diffraction, a track record of peer-reviewed publications commensurate with the career stage, and at least basic knowledge of and experience with the Python programming language. Expertise in aberration-corrected instruments or computational microscopy and first principles methods, as well as open-science contributions including data and code will be further appreciated. Good communication and writing skills in English are a must.
Possible research themes or topics for postdoctoral projects
- First-principles simulation of 3D electron diffraction for quantum crystallography
- Ultra-high resolution electron energy loss spectroscopy and ptychography of van der Waals materials
- Automated electron-beam manipulation of impurity atoms
Weblink for further information:
https://physnano.univie.ac.at
Email: toma.susi(at)univie.ac.at
Markus Aspelmeyer
Research Focus
“How does a quantum object gravitate?”, “How far can we push massive objects into the quantum regime?”, “How well can we measure gravity of microscopic systems?”. Such questions and their implications for the foundations of physics are the driving force behind our research. You will be part of our team and develop new ideas, technologies and experiments to provide new insights on macroscopic quantum physics, on gravity at small scales and, in the long run, on the phenomenology of the gravity-quantum interface in table-top experiments.
Research environment
You will be part of the Aspelmeyer group, and you will be exploring fundamentals and applications of macroscopic quantum coherence in levitated solid-state platforms.
Our Team is part of the Quantum Optics, Quantum Nanophysics and Quantum Information group of the Faculty of Physics. We are member of the Vienna Center for Quantum Science and Technology (VCQ), one of the largest quantum hubs in Europe, and of the Austrian Cluster of Excellence (quantA), advancing basic research in quantum sciences, aiming to expand the frontiers of knowledge and thus being the engine for future innovations. You will also benefit from being part of a thriving community with more than 100 quantum scientists on premise, about 300 quantum researchers in Vienna.
The main research activities of the Aspelmeyer group include quantum optical control of levitated solid-state objects, the exploration of their quantum properties for fundamental questions and novel quantum technology platforms, as well as precision measurements of ultra-weak gravitational forces. Our main motivation is to explore the interface between quantum physics and gravity with new experimental platforms.
Expectations towards postdoctoral fellows in this programme
Active participation in research, teaching and administration, which means:
- You will develop and strengthen an independent research profile.
- You are involved in research projects within the Aspelmeyer group.
- You publish internationally and give lectures at international conferences and workshops.
- You will obtain competence in project applications and in the acquisition of third-party funding
- You will be able to independent teaching of courses as defined by the collective bargaining agreement.
- You will be able to supervise students.
- You will participate in evaluation measures and in quality assurance.
Possible research themes or topics for postdoctoral projects
The main research activities of the Aspelmeyer group include quantum optical control of levitated solid-state objects, the exploration of their quantum properties for fundamental questions and novel quantum technology platforms, as well as precision measurements of ultra-weak gravitational forces. On the quantum side, we explore the extreme regime of motional quantum states of solids and their interactions to understand how to maximize mass, delocalization, and coherence time in quantum experiments. On the gravity side, we explore the extreme regime of gravitational phenomena of miniature source masses to understand how to isolate gravity from all other interactions on a microscopic scale. You will be part of one of those activities.
Weblink for further information:
https://aspelmeyer.quantum.at
Email: markus.aspelmeyer(at)univie.ac.at
Caslav Brukner
Research Focus
The position focuses on research at the interface of quantum foundations, quantum information theory, and space-time physics. More broadly, we seek candidates whose work relates to the quantum-to-classical transition through coarse-grained measurements, operational reconstructions of quantum theory, indefinite causal structures, extended Wigner’s friend scenarios, and/or quantum reference frames for gravity and space-time physics.
Research environment
You will be part of the Quantum Foundations and Quantum Information Theory team led by Professor Časlav Brukner. The team is embedded within the Quantum Optics, Quantum Nanophysics, and Quantum Information group at the Faculty of Physics, University of Vienna, and is also affiliated with the Institute for Quantum Optics and Quantum Information (IQOQI) of the Austrian Academy of Sciences. We are a member of the Vienna Center for Quantum Science and Technology (VCQ), one of Europe’s largest hubs for quantum science, and of the Austrian Cluster of Excellence quantA, which supports cutting-edge research in quantum science and fosters future innovation.
Expectations towards postdoctoral fellows in this programme
Your future tasks will be active participation in research, teaching, and administration, which includes:
* Contributing to research projects and scientific studies in the area of quantum foundations.
* Publishing in international journals and presenting your work at conferences and workshops.
* Applying for research projects and acquiring third-party funding.
* Independently teaching courses within the scope of the collective bargaining agreement.
* Co-supervising bachelor, master, and/or PhD students.
* Participating in evaluation procedures and quality assurance measures.
* Taking on administrative responsibilities in research, teaching, and general academic administration.
Weblink for further information:
www.quantumfoundations.org
Email: caslav.brukner(at)univie.ac.at
Thomas Juffmann
Research Focus
Our research group develops new microscope techniques, maximizing sensitivity, speed, and resolution, while minimizing probe-induced damage. We often work at the interface of electron and light optics, and apply concepts from quantum metrology to maximize the information obtained about a sample.
More details about the group can be found on the group websity: www.imaging.univie.ac.at
We are also coordinating collaborations that aim at realizing fundamentally new imaging schemes:
www.onem.eu
www.qcem.info
Research environment
Affiliated with both the faculty of physics and the Max Perutz Labs, we are ideally positioned to host interdisciplinary research, in particular regarding instrument development for biological applications. We run well-equipped optics labs, that offer all necessary equipment for microscope development (including ultrafast lasers, low-noise cameras...). With respect to electron microscopy, we have access to unique instruments (SEM, TEM, LEEM,...) , often with the possibility to modify them.
Expectations towards postdoctoral fellows in this programme
I am looking for a postdoctoral researcher who is genuinely driven by scientific curiosity and eager to push experimental methods forward. The ideal candidate is enthusiastic about metrology and instrument development, takes ownership of their work, and operates with a high degree of independence. They should be ready to guide and inspire a small team of PhD and master’s students, contribute creatively to ongoing projects, and proactively shape new research directions. Strong motivation, reliability, and a collaborative mindset are essential.
Possible research themes or topics for postdoctoral projects
Possible research topics:
- fluorescence lifetime imaging
- label-free super-resolution microscopy
- quantum electron microscopy
- cavity-enhanced microscopy
Please reach out to discuss in more detail or to propose other topics.
Weblink for further information: imaging.univie.ac.at
Email: thomas.juffmann(at)univie.ac.at
Andreas Nunnenkamp
Research Focus
We are a theory group primarily focused on how to create, control, and exploit quantum coherence in many-body systems. Our research addresses fundamental questions, including the interplay of topology, interactions, and disorder, as well as their control through driving, feedback, and dissipation. Positioned at the interface of quantum optics and condensed matter theory, we investigate the physics of quantum-enabled technologies and the control of ultracold atomic gases, superconducting circuits, and cavity optomechanical systems. Recent highlights include advancing our understanding of nonreciprocal many-body systems, non-Hermitian topology, and long-range interacting systems, with publications in Nature, Nature Physics, and Physical Review Letters.
Research environment
Our team is part of the Quantum Optics, Quantum Nanophysics, and Quantum Information group at the Faculty of Physics. It currently consists of two postdocs, two PhD students, and one MSc student, fostering a collaborative and dynamic environment. We have access to state-of-the-art computational resources and provide theoretical expertise, with a particular focus on quantum optics and condensed matter theory. The postdoc will benefit from a vibrant academic setting, interdisciplinary collaborations, and opportunities to engage with leading experimental teams. Our group has strong international ties, including collaborations with Prof. Johannes Knolle (TU Munich), Prof. Ewold Verhagen (AMOLF Amsterdam), and Prof. Tobias Donner (ETH Zurich).
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to actively contribute to the group's research agenda through both independent and collaborative projects that align with our focus on quantum coherence in many-body systems. Fellows should have a strong theoretical background in quantum optics, condensed matter physics, or related fields, and bring expertise that complements and enhances the group's capabilities. They are expected to establish interdisciplinary collaborations within the University of Vienna and with our international partners, while contributing to the dissemination of results through high-impact publications and conference presentations. Additionally, postdocs should mentor junior team members, foster a collaborative and inclusive research environment, and take initiative in exploring new directions that advance the group's research objectives. Proactive efforts to secure external funding and develop their academic careers are highly encouraged.
Weblink for further information:
https://nunnenkamp.univie.ac.at/
Email: andreas.nunnenkamp(at)univie.ac.at
Philip Walther
Research Focus
The research group “Quantum Information Science and Quantum Computation”, led by Univ.- Prof. Dr. Philip Walther, is part of the Quantum Optics, Quantum Nanophysics & Quantum Information Group at the Faculty of Physics, and member of the Vienna Center for Quantum Science and Technology (VCQ) – one of the largest quantum hubs in Europe – and the Austrian Cluster of Excellence quantA. The group’s research combines the development of scalable photonic quantum technology for quantum computing and other quantum information applications with the investigation of fundamental quantum science questions. The main activities reach from quantum control of single photons using solid-state photon sources, integrated waveguide technology, detectors based on superconductor technology to interferometric precision measurements of weak gravitational forces, with a recent focus on enhanced optical nonlinearities using nano photonics and ultra-thin media.
Research environment
The Walther group unites an international group of scientists who are passionate about research in quantum optics, quantum information and quantum technologies. Our 40 young researchers, from graduate student, PhD candidate to PostDoc are working together on mostly experimental topics in small subgroup. Teamwork is a key factor to our group’s success. Together we assemble a unique skill set and knowledge base in quantum information, quantum computation, quantum communications, quantum foundations as well as quantum -gravity interface. Our well-equipped labs provide access to several ultra-fast lasers, over 50 superconducting nanowire detectors, three closed-cycle cryostats for quantum dot or other samples, integrated photonics platforms, fast optical modulators, and ultra-fast coincidence logic.
Expectations towards postdoctoral fellows in this programme
Active participation in research, teaching & administration, which means:
• You develop and strength the independent research profile.
• You are involved in research projects/research studies.
• You publish international and give presentations.
• You are assiting in project applications and the acquisition of third-party funding.
• You hold courses independently as defined by the collective agreement.
• You (co-)supervise bachelor, master, and PhD students, and you independently propose bachelor, master, and PhD projects to this end.
• You participate in evaluation measures and quality assurance.
• You are involved in the department administration as well as in teaching and research administration.
Possible research themes or topics for postdoctoral projects
We are looking for a motivated Postdoctoral researcher to join our Nonlinear Quantum Nanophotonics team. Expanding our recent demonstration of spontaneous parametric down-conversion in sub-wavelength media, we plan to integrate these materials into a variety of nanophotonic structures and implement quantum protocols that take advantage of this unique quantum nonlinear optical system. As such we are looking for a candidate with experience in one or more of the following fields: photonic quantum information processing, experiments utilizing spontaneous parametric down-conversion, nanophotonic and plasmonics (especially related to quantum optical effects).
Weblink for further information:
https://walther.univie.ac.at/
Email: philip.walther(at)univie.ac.at
Faculty of Psychology
Laura König
Research Focus
The Health Psychology Group works at the interface of psychology, public health and medicine, aiming to promote healthy lifestyles at the population level. We combine assessments of psychological determinants and outcomes obtained in real life (e.g., via Ecological Momentary Assessment) with behaviours related to and biomarkers of health and disease. We primarily focus on the prevention of weight-related diseases and experiences across the menstrual cycle. Amongst others, we are interested in understanding how to best leverage digital technology, including artificial intelligence (AI), for measuring and changing dietary and physical activity behaviours. In this area, current projects focus on understanding the (perceived) quality of AI-generated health and nutrition advice; empirically optimising the implementation of behaviour change techniques such as self-monitoring and feedback in digital interventions; and personalisation of digital dietary interventions using AI.
Research environment
We offer a supportive, collaborative environment and a strong network of local, national and international collaborators within psychology, but also within neighbouring disciplines including public health and nutritional science, computer science, media studies and communication science. Our network of active collaborations spans several European countries, including Denmark, Germany, the Netherlands and the United Kingdom, as well as the United States. We offer access to state-of-the-art tracking tools for physical activity and physiological parameters via the institute’s Ecological Momentary Assessment lab as well as access to lab space for behavioural experiments. We furthermore offer collaboration opportunities within several interdisciplinary projects in the areas of personalised nutrition, AI, and misinformation research that will start in early 2026.
Expectations towards postdoctoral fellows in this programme
Our team places strong emphasis on diversity, equity and inclusion as well as open science practices, and we expect new team members to also subscribe to these values and foundational principles for working. We welcome candidates of any academic background who are keen to collaborate in international interdisciplinary teams and have a good understanding of the potentials and pitfalls of digital health technology. We are looking for candidates with strong quantitative research skills, including the proven ability to use script-based data analysis environments such as R to set up complex data preprocessing and analysis pipelines. We furthermore expect strong communication skills in academic contexts; training or experience in communicating with lay audiences or relevant non-academic stakeholders is a plus.
Possible research themes or topics for postdoctoral projects
We are looking for a postdoctoral researcher to support ongoing and to develop new projects in one of the following two areas:
- personalisation of digital dietary interventions using AI;
- understanding the quality, appeal and spread of online health- and nutrition-related mis- and disinformation.
Weblink for further information:
https://gesundheit-psy.univie.ac.at/
Email: laura.koenig(at)univie.ac.at
Urs M. Nater
Research Focus
Stress affects many areas of life—including mood and sexuality. Sex hormones, such as estrogen and progesterone, also impact how we experience stress. Within our research focus, “Stress, Sex & Hormones,” we examine the interactions between stress and hormonal changes across the reproductive female life course, as well as how stress shapes sexual experience and behavior. In our research, we adopt an innovative "from lab to life" approach to investigating stress. We employ Ecological Momentary Assessments (EMAs) in participants' everyday lives, as well as laboratory-based stress tests.
This comprehensive methodology allows us to capture real-time data on stress responses and experiences, providing valuable insights into the dynamic interplay between stress, sex, and hormones. By bridging the gap between controlled laboratory settings and real-world contexts, we aim to advance our understanding of stress in the context of female reproductive health.
Research environment
The potential post-doc will have full access to a state-of-the-art biochemical lab, which enables us to run our own hormonal analyses (https://klinische-gesundheit-psy.univie.ac.at/en/research/biochemical-laboratory/). Access to lab space for running experimental studies as well as EMA studies, including the use of appropriate equipment, is guaranteed.
Expectations towards postdoctoral fellows in this programme
The postdoctoral fellow will dedicate their time with a specific focus on endocrine female reproductive health. It is possible to engage in ongoing studies as well as to develop new studies. The fellow is expected to write papers, analyze existing and new data, and represent the lab at scientific meetings.
Possible research themes or topics for postdoctoral projects
will be developed with the fellow
Weblink for further information:
https://klinische-gesundheit-psy.univie.ac.at/en/research/httpsbackendunivieacatindexphpid46751l0/stress-and-stress-related-disorders/our-research/stress-and-sexuality/
Email: urs.nater(at)univie.ac.at
Giorgia Silani
Research Focus
The primary aim of my research is to understand from a neuroscientific point of view the mechanisms (neurochemical and neurophysiological) behind processes at the heart of what has been termed “social intelligence”, such as empathy and prosocial behaviors, in the clinical and non-clinical population. This goal is achieved by using multi-level approach that combines different methodologies: functional neuroimaging, TMS, EMG and pharmacological manipulations.
Main research lines:
- Basic research: focus on the understanding of the fundamental mechanisms behind social cognition, social emotions and their link to social behaviors.
- Clinical research: focus on the understanding of atypical social behavior (e.g. autism and alexithymia).
- Developmental research: focus on the understanding of the development of social emotions, social intelligence and prosociality across the life span.
- Translational research: focus on bridging different theoretical and methodological approaches such as animal and human models of social behavior.
Research environment
The Clinical Social Neuroscience (CSN) Unit at the University of Vienna, is run by a vibrant and internationally oriented team, under the supervision of Giorgia Silani, dedicated to understanding the neural and psychological mechanisms underlying social cognition, empathy, and prosocial behaviour. The Lab counts young and senior researchers (from PhD to postdoc level) from all over the world (eg China, Serbia, Germany, Italy). It offers access to advanced research infrastructure, including EEG, fMRI, TMS, pharmacological tools, and eye-tracking, as well as participant recruitment systems and data resources. Situated within a highly interdisciplinary environment that bridges psychology, neuroscience, and clinical science, the CSN provides rich opportunities for collaboration, mentoring, and professional growth. Postdoctoral researchers are encouraged to develop independent projects that complement the lab’s focus while benefiting from its strong methodological expertise, active publication culture, and supportive academic network.
Expectations towards postdoctoral fellows in this programme
Postdoctoral fellows are expected to contribute actively to the group’s dynamic and collaborative research culture. We seek independent, motivated researchers with strong methodological and analytical skills who are eager to advance our understanding of the neural and psychological mechanisms underlying social cognition, empathy, and prosocial behaviour. Postdocs are expected to design and lead their own research projects that align with and extend the lab’s focus, making creative use of the unit’s infrastructure—including EEG, fMRI, TMS, and behavioural paradigms. They should take an active role in publishing high-quality scientific papers, presenting at international conferences, and applying for competitive research funding. Collaboration is central to our approach, and postdocs are encouraged to engage with other team members, contribute to joint projects, and share their expertise to support the training of PhD and master’s students. Beyond scientific excellence, we value curiosity, openness to interdisciplinary perspectives, and a commitment to fostering an inclusive, collegial, and intellectually stimulating research environment.
Possible research themes or topics for postdoctoral projects
- The neural circuitry of social homeostasis in humans (from social isolation to social overload)
- The neurodivergent brain: myths and challenges
- The role of cognitive and neural diversity in collective behavior
- New ways to do science
Weblink for further information:
https://klinische-gesundheit-psy.univie.ac.at/forschung/arbeitsbereiche-und-arbeitsgruppen/clinical-social-neuroscience-unit/
Email: giorgia.silani(at)univie.ac.at
Isabella Anderson-Wagner
Research Focus
We are an interdisciplinary research group based at the Faculty of Psychology and the Centre for Microbiology and Environmental Systems Science (CeMESS). We study the microbiome-brain axis in relation to neural plasticity, learning, and memory by integrating neuroimaging, gut microbial profiling, and behavioural assessments. Our work spans healthy humans, individuals with reduced plasticity (e.g., stress, genetic risk for dementia, perturbed neurodevelopment), and animal models. We showed that gut microbial networks relate to brain network dynamics and that their metabolic capacities shape stress hormone regulation. Ongoing projects include the world’s largest cohort of young APOE4 carriers to study effects of early dementia risk on microbiome and cognition. Supported by an ERC Starting Grant, we now focus on the microbial effects on (human) hippocampal plasticity, and on the impact of microbial neurotransmitter production (e.g., GABA) on (mouse) hippocampal circuits and behaviour.
Research environment
Postdocs join a culturally diverse team of cognitive neuroscientists, neuroimaging experts, neuro/immuno/microbiologists, and bioinformaticians. The vibrant mix of human/animal researchers creates a stimulating environment in which we value collaboration and personal growth in a respectful atmosphere. Infrastructure is shared with colleagues at Psychology/CeMESS, including research-dedicated 3T fMRI, behavioural labs for cognitive testing (incl. spatial navigation in VR), psychopharmacology/neuroendocrinology, computational resources for advanced neuro/bioinformatics, in-house core facility for microbiome analysis, and access to all research facilities at CeMESS (incl. wet labs and microscopy). Analysis of other biosamples, practical mouse work, and preclinical/small-animal imaging are possible via external collaborations. With a dual affiliation, candidates benefit from a broad interdisciplinary network within and beyond the University of Vienna.
Expectations towards postdoctoral fellows in this programme
We seek a candidate with a background in microbiology and bioinformatics, ideally with experience in human-based research (cognitive testing, fMRI). A background in pre/probiotic/dietary interventions and excellent knowledge of experimental design are highly desired, and the candidate should have a strong interest in neuroscience, microbial networks and metabolic outputs. The candidate should support our research line on microbiome-brain interactions for hippocampal plasticity, while developing independent ideas that align with the group’s expertise (potentially also leading towards translational projects). Strong project management, independence, and excellent English are required; German skills are advantageous for human participant work. Supervision of 1-2 PhD candidates is expected. Over the 4 years, the candidate should strengthen their research profile and is encouraged to secure grants under the mentorship of PI Isabella Wagner. Both junior/senior postdocs are invited to apply.
Possible research themes or topics for postdoctoral projects
The candidate should support our research on microbiome-brain interactions for (human) neural plasticity, learning, and memory. Candidates should have a strong interest in neuroscience, microbial networks and their metabolic outputs. Research themes may include pre/probiotic/dietary interventions in individuals with reduced neural plasticity (genetic risk for dementia, older adults, different clinical populations), or studies on microbial metabolite/neurotransmitter production and hippocampus-related (neuro)cognition. We are also very interested in studying the temporal dynamics of microbial networks and their effects on the host. Projects do not need to involve neuroimaging (fMRI) but may also be purely behavioural, using paradigms related to hippocampal plasticity. The position also offers a high degree of autonomy and flexibility to pursue independent research ideas that may arise from the above topics, and that are connected to the group’s research interests and expertise.
Weblink for further information:
https://www.isabellawagner.com
Email: isabella.wagner(at)univie.ac.at
Claus Lamm
Research Focus
Research at the SCAN-Unit explores how humans and non-human animals navigate complex social worlds. While the focus has been on human empathy and understanding others for many years, recent years have expanded to research lines that focus more broadly on (pro)social behaviors and their drivers, including sustainable decision making and behavior, as well as comparative approaches including canines, corvids, and other primates as model species.
Complex topics such as how we understand others, what compels us to help and support them, and how our brains and minds support the complex social skills we have evolved can only be understood across multiple levels of analysis. This is why our research is guided by a multi-level multi-methods approach. We aim for converging evidence and the integration of knowledge, theory and methods from social, cognitive and emotion psychology, social cognitive and affective neuroscience, computational approaches, psychopharmacology, psychoneuroendocrinology, and social and behavioral sciences. For further information on our research lines, please consult https://scan-psy.univie.ac.at/research/
Research environment
Our prime mission is to perform and disseminate high quality, rigorous and systematic scientific research. Research, training and interactions of all lab members are guided by a collaborative and mutually supportive mindset. We do not just study social phenomena, but explicitly aim to create an environment where meaningful and fulfilling social interactions and collaborative work can emerge and flourish. Our mindset is growth-oriented: Rome wasn’t built in one day, and so won’t the individual academic be. Trying to understand the human social brain and behavior is probably one of the biggest challenges one can engage in. The personal and professional growth this requires may thus also come with some pains and setbacks, and we accept that science and research can sometimes be hard, frustrating and deluding. But we generally see it as fulfilling, as we are in academia to pursue a passion we share. The privilege that this entails also comes with some responsibilities. For further details, including our Open Science statement, please consult our lab mission at https://scan-psy.univie.ac.at/research/lab-mission/ For information on research infrastructure, please consult https://psychologie.univie.ac.at/en/research/labs/ and in particular https://psychologie.univie.ac.at/en/research/labs/mr-center/
Expectations towards postdoctoral fellows in this programme
Our lab culture builds on the strong conviction that kind, collaborative, and talented persons (in that order, roughly) and an enriching culture produce excellent science, a vibrant educational environment, and a socially and personally fulfilling working atmosphere. This is why we strive at recruiting, selecting, and supporting people who are not only highly talented, but who are also eager to grow and love to support others, and whose expertise and skills complement each other. This is why we are also committed to diversity, inclusivity, and mutual respect. We do so by accepting that others may have different views and perspectives, academically and personally. Advancing insight and knowledge needs collaboration and cross-pollination of ideas, approaches, and concepts. We are part of an evolving collective enterprise, and we need to treat each other with respect, compassion and curiosity if we want to make a difference. In terms of academic backgrounds, we recruit from a wide range of fields, ranging from psychological science to (cognitive) biology, computer and computational science, to cognitive science. Our aim is to mentor and prepare postdoctoral fellows to become competitive for their next career step, which can be a second postdoc or a faculty position, or a position in the private sector.
Possible research themes or topics for postdoctoral projects
Candidates are expected to co-develop their own research line with their mentor (lab head Claus Lamm) and collaborators from the lab and beyond. Research themes should align with one of the main research lines of the lab (https://scan-psy.univie.ac.at/research/) with preference given to candidates with a keen interest in environmental social neuroscience and related research approaches.
Weblink for further information:
https://scan-psy.univie.ac.at/
Email: claus.lamm(at)univie.ac.at
Frank Scharnowski
Research Focus
Our research focuses on developing translational neurotechnology and computational methods to advance diagnosis and treatment in psychiatry and neurology. We work at the interface of biosignal processing, brain-computer interfaces, machine learning, and computational psychiatry. Current projects include closed-loop neurofeedback, interpretable machine learning for clinical decision support systems, computational automation of therapy using physiological and behavioral signals, and natural language processing applied to psychiatric conditions. The overarching aim is to create scalable, data-driven therapeutic tools and mechanistic models of mental health processes.
Research environment
The interdisciplinary research group Methods of Psychology (https://meth-psy.univie.ac.at/) is part of the Department of Cognition, Emotion, and Methods in Psychology at the University of Vienna. The team includes senior scientists, postdoctoral researchers, and PhD students from psychology, cognitive science, neuroscience, computer science, engineering, and physics. We focus on developing neurotechnologies and AI-based methods to understand psychological mechanisms and advance experimental therapies for psychiatric and neurological disorders. The lab provides access to neuroimaging and neurofeedback setups, VR/AR-based behavioral platforms, and real-time multimodal physiological measurement systems. High-performance computing resources support machine learning and computational modeling. We are open science enthusiasts embedded in an international research network that includes clinical and industrial partners.
Expectations towards postdoctoral fellows in this programme
We welcome postdoctoral researchers who share our passion for developing innovative computational and neurotechnological tools for mental health. You should enjoy working across psychology, neuroscience, engineering, and computation, and bring new ideas to the group. Relevant experience may include interpretable machine learning, NLP/LLMs on clinical language, neurofeedback or brain-computer interfaces, and VR/AR-based personalized therapy systems. Curiosity, methodological precision, and a collaborative mindset are essential. We value open science and expect active contributions to transparent workflows. A core aim of our lab is to support you in developing your own independent research profile within this interdisciplinary environment.
Weblink for further information:
https://meth-psy.univie.ac.at/
Stefanie Höhl
Research Focus
My research lies at the intersection of developmental psychology and cognitive neuroscience and focuses on social and cognitive development in early childhood. Using neuroscience methods
in infants and children, my team and I investigate the development and functional relevance of brain oscillations in early human development. Our aim is to understand the brain basis of naturalistic social learning interactions. Using hyperscanning in caregiver-child dyads, we discovered that interpersonal synchronization of brain activities emerges spontaneously and remarkably early in caregiver-child interactions. Current projects focus on the role of interpersonal neural synchrony for children’s social well-being and language development.
Research environment
The Wiener Kinderstudien is an internationally visible lab, known for its cutting-edge developmental research and scientific rigor. Our lab culture is characterized by fairness, mutual appreciation and respect. The lab is equipped with recording devices for multimodal data collection from infants, children and their caregivers, including EEG and fNIRS-hyperscanning, eye tracking, behavioral observation and physiological measures (https://psychologie.univie.ac.at/en/research/labs/wieki-lab-wiener-kinderstudien/). In addition, the postdoc will have access to an established and constantly expanding database of families interested in participating in infant and child studies which currently includes around 4,500 families. The postdoc will benefit from the excellent infrastructure, state-of-the-art laboratories and equipment, and a vibrant scientific environment with a wide range of local, national and international collaborations.
Expectations towards postdoctoral fellows in this programme
Postdocs should have a strong methodological skill set and interest in developmental research. Experience in working with developmental populations is welcome but not strictly required. Postdocs should have a cooperative mindset and be interested in co-supervising students. They are expected to work independently and proactively develop their research program while collaborating with other team members and contributing to the lab’s goals and topics.
Possible research themes or topics for postdoctoral projects
Possible research topics include, but are not limited to:
- early speech tracking and later language outcomes
- parent-child neural synchrony, social well-being and peer relationships
- selective entrainment, attention and cognitive development
Weblink for further information:
https://www.kinderstudien.at/ueber-uns/das-team/stefanie-hoehl/
Email: stefanie.hoehl(at)univie.ac.at
Marko Lüftenegger
Research Focus
My main research focus is (a) to identify malleable characteristics in educational settings, i.e., concrete teacher behaviors, teacher attributes, and classroom climate, as these contribute to beneficial development of motivational, cognitive, and socio-emotional student outcomes with a special focus on diversity (STEM, gender, ability, achievement, migration background). (b) I exploit and advance cutting-edge statistical methodologies to address important substantive questions, and (c) typically use multiple methods (questionnaires, interviews, focus groups, portfolios), multiple informants (students, teachers, parents), and different research designs. (d) Additionally, I aim to focus on the development and evaluation of training and intervention programs in different educational contexts (STEM, gender equality, traffic safety, students in the transition to University, “Induktionsphase” in teacher education). (e) Another line of research focuses on identity development in adolescence.
Research environment
Our research group offers a dynamic, collaborative environment that supports independent and interdisciplinary work. Postdoctoral researchers gain full access to modern laboratory facilities from the Faculty of Psychology. We work with diverse, mostly quantitative, data sources and maintain strong connections with international collaborators, and cross-faculty networks. Regular workgroup meetings, peer-feedback sessions, and joint publications foster a supportive academic culture. The group values open science, methodological rigor, and teamwork, providing an excellent setting for developing one’s research profile.
Expectations towards postdoctoral fellows in this programme
I expect a postdoctoral researcher to contribute actively to my group’s scientific agenda by advancing independent research while engaging in collaborative projects. The person should take initiative in developing publications for top tier journals, presenting findings at conferences, and contributing to grant applications. A commitment to methodological rigor, open science, and timely delivery is essential. I value researchers who enrich the group’s intellectual environment through constructive feedback and mentoring of junior colleagues. The ideal candidate is proactive, communicative, and eager to shape a vibrant, productive research culture.
Weblink for further information:
https://homepage.univie.ac.at/marko.lueftenegger/publikationen.html
Email: marko.lueftenegger(at)univie.ac.at
Jana Nikitin
Research Focus
Our research focuses on aging in context, with a particular emphasis on social and environmental contexts. We investigate how healthy aging processes unfold naturally in everyday life and in how they can be shaped in a positive way. We understand older adults as active agents of their own development who are simultaneously influenced by, and influencing, their social and environmental surroundings. Current research topics in our group include contextual factors of age-related gains and losses, age stereotypes and subjective views on aging and their consequences for everyday social life, as well as how people deal with life transitions in later adulthood. Methodologically, we use experience sampling to study people’s everyday behavior in situ, complemented by observational studies and experiments.
Research environment
We are an internationally connected and interdisciplinary team, with close ties to social, health, and environmental psychology and to collaborators in gerontology and environmental sciences. Within the group, we work closely together on joint projects while each person develops their own research focus. Regular meetings and intensive exchange are central to our lab culture: we meet weekly as a group, and we place great value on regular one-on-one supervision and feedback. Fairness, openness, and a supportive, collaborative atmosphere are very important to us.
Expectations towards postdoctoral fellows in this programme
Postdocs in our group should have a strong methodological background (e.g., longitudinal, experimental, ESM/diary designs) and solid quantitative skills, as well as a clear interest in the psychology of aging. We expect postdocs to develop an independent research profile that is closely aligned with the group’s topics, to collaborate actively within the team, and to contribute to the lab’s projects. This includes planning and conducting studies (including recruitment and data collection), publishing in international journals, presenting at conferences, applying for third-party funding (e.g., smaller grants or co-applications on larger projects), and supervising students. Because we are a small, closely collaborating team, a cooperative mindset, reliability, and genuine interest in contributing to the group beyond one’s own project are essential.
Possible research themes or topics for postdoctoral projects
Possible postdoctoral projects in our group could build on and extend our ongoing work and may include, but are not limited to:
- Loneliness and quality of life in later life
- Death anxiety or end-of-life concerns in older adulthood
- Adaptation and action in climate change
- Psychological factors of menopause
- Daily predictors of views of aging
More information on our lab and current projects:
https://altern-psy.univie.ac.at
Weblink for further information:
https://altern-psy.univie.ac.at/en/
Email: jana.nikitin(at)univie.ac.at
Max Perutz Labs
Christopher Campbell
Research Focus
Chromosome missegregation
Cells prevent aneuploidy largely by correcting misattachments between the chromosomes and the mitotic spindle in mitosis. This error correction is performed primarily by the chromosomal passenger complex (CPC). We have previously determined how different mechanisms of targeting the CPC to areas near its kinetochore targets are essential for this process (Fink et al. 2017, Marsoner et al. 2021). We are currently conducting experiments to identify differences in CPC targeting in meiosis as compared to mitosis.
Aneuploidy
My lab has pioneered methods for generating complex aneuploid karyotypes in yeast both through adaptation experiments and karyotype engineering. We have used these methods to identify previously unknown forces that act to shape the composition of aneuploid karyotypes (Ravichandran et al. 2018, Clarke et al. 2022, Adell et al. 2023, Koller et al. 2025).
Research environment
Our laboratory is located in the Max Perutz Labs at the Vienna Biocenter. Between the core facilities at the institute and those shared with the Vienna Biocenter Core Facilities (VBCF), we have access to an outstanding complement of resources, including the Mac Perutz Labs BioOptics facility, the VBCF Next Generation Sequencing facility, the Max Perutz Labs FACS facility, and the Max Perutz Labs Mass Spectrometry Facility.
Expectations towards postdoctoral fellows in this programme
For the position in the Campbell lab, a successful candidate is expected to have a PhD in a related field, extensive experience with molecular biology techniques, and a solid publication record.
Possible research themes or topics for postdoctoral projects
The main theme for the position in the Campbell lab will be understanding the underlying factors that contribute to aneuploidy patterns. Over 90% of cancers have aneuploidy of at least one chromosome. There are strong patterns in cancer karyotypes for particular chromosomes being frequently gained or lost. These aneuploidies contribute to cancer initiation, progression, and resistance to therapy. However, the mechanism by which these aneuploidies contribute to cancer are largely unknown. We aim to engineer specific aneuploidies de novo and determine their impact on cellular phenotypes.
Weblink for further information:
https://www.maxperutzlabs.ac.at/research/research-groups/campbell
Email: christopher.campbell(at)univie.ac.at
Alexander Dammermann
Research Focus
Centrosomes and cilia perform critical roles in development and tissue homeostasis. Their dysfunction has been linked to tumorigenesis and cancer, as well as developmental disorders including ciliopathies, dwarfism and microcephaly. Research in the Dammermann lab seeks to understand the fundamental and conserved molecular mechanisms underlying centrosome and cilium biogenesis using primarily microscopy-based approaches in C. elegans, but also Drosophila and vertebrate cultured cells. For more details see our lab website, social media and recent publications.
Research environment
The Dammermann lab is located at the Max Perutz Labs, on the campus of the Vienna BioCenter, a hub for biomedical research in Europe with state-of-the-art facilities, including for advanced light and electron microscopy, next generation sequencing and proteomics. As such we are part of a vibrant community, with plenty of scientific and social activities. English is the working language, both in the lab and on campus. Knowledge of German is not required. Collaborations with other labs in Vienna and elsewhere extend the scope of possibilities. Essentially, whatever you want to do we should have the infrastructure and expertise to support it!
Expectations towards postdoctoral fellows in this programme
Projects currently ongoing in the lab seek to study centrosome and cilium biogenesis in a variety of different cellular and developmental contexts. We are seeking highly motivated and collaborative candidates with a background in bioinformatics, cell biology or biochemistry to join our team. Previous experience with C. elegans is not essential. Post-docs are welcome to develop their own research direction. If you have any questions about the lab or would like to discuss potential projects do get in touch!
Weblink for further information:
https://www.maxperutzlabs.ac.at/research/research-groups/dammermann
Email: alex.dammermann(at)univie.ac.at
Sebastian Falk
Research Focus
My research group generally focuses on the mechanistic aspects of RNA metabolism. Specifically, we investigate how small RNA (sRNAs), which function together with Argonaute proteins in RNA interference (RNAi) pathways, contribute to gene expression regulation. We focus on two critical aspects of sRNA biology: how sRNAs are produced (biogenesis) and how they induce gene silencing in the nucleus through the nuclear RNAi pathway. We use a powerful combination of biochemistry and integrative structural biology techniques—such as X-ray crystallography, cryo-EM, and NMR—to develop a mechanistic understanding of these pathways. Additionally, we conduct in vivo studies with engineered mammalian cell lines and C. elegans as model systems for precision biochemistry, complementing our structural analyses.
Research environment
Our group is embedded within the Max Perutz Labs, benefiting from direct access to advanced instrumentation both within the institute and through dedicated core facilities. Available platforms include protein production and characterization, mass spectrometry, high-resolution imaging, and cryo-electron microscopy. The Max Perutz Labs form an integral component of the Vienna BioCenter (VBC), a consortium of four core research institutes characterized by a highly interactive scientific environment. The VBC hosts an active doctoral and postdoctoral community that provides extensive opportunities for scientific training and the development of complementary professional skills. We engage in multiple collaborative projects with research groups both internationally and across the VBC.
Expectations towards postdoctoral fellows in this programme
We seek highly motivated and curious researchers with expertise in protein or RNA biochemistry and structural biology. Prior experience with mammalian cell culture or C. elegans systems is advantageous but not essential. Postdoctoral researchers are expected to operate with a high degree of independence, formulating hypotheses and advancing projects while benefiting from structured support and mentoring. Their responsibilities include data analysis, continuous refinement of experimental strategies, and active participation in the collaborative research environment of the institute and the VBC.
Possible research themes or topics for postdoctoral projects
A) Mechanism of RNA interference in C. elegans: Here we have biochemical and structural biology projects that focus on i) small RNA Biogenesis and ii) nuclear RNA interference / heterochromatin formation
B) Nuclear RNA quality control: in mammalian cells: Here we are looking for a postdoc with experience in structural biololgy to study RNA quality control in the nucleus
Weblink for further information:
https://www.maxperutzlabs.ac.at/research/research-groups/falk
Email: sebastian.falk(at)univie.ac.at
Verena Jantsch-Plunger
Research Focus
The Jantsch lab is working with the animal model Caenorhabditis elegans to understand mechanisms of cell division and chromosome segregation using genetic, cell biological and biochemical approaches. The Jantsch lab has been focusing on processes involved in producing healthy gametes during meiosis. We focus on crucial processes during meiotic prophase, such as chromosome movement, recombination and meiotic entry.
Research environment
The Jantsch lab is hosted by the Dept. of Chromosome Biology at the Max Perutz Labs.
The Max Perutz Labs, a joint venture of the University of Vienna and the Medical University of Vienna, are part of the Campus Vienna BioCenter (VBC), a hub of biomedical research in Europe with ~3,300 employees from more than 80 countries. We have access to shared facilities either maintained by the Max Perutz Labs or the Vienna BioCenter core facilities (VBCF). In addition to this scientific infrastructure, the VBCF also operate the Child Care Center on campus, which ensures researchers with young children have care close to work.
V. Jantsch leads the special research focus SFB Meiosis, which fosters a highly interactive research community with 9 research groups and 3 associated groups (https://sfbmeiosis.org/). A new postdoc will be part of this community.
Expectations towards postdoctoral fellows in this programme
We expect a postdoc to develop her own project and to step on new scientific ground.
Eventually the work conducted in the Jantsch lab should become the basis for a successful application for a faculty position.
Possible research themes or topics for postdoctoral projects
The postdoc can either work on an existing research question of the lab or develop a novel project with a focus on meiosis and gametogenesis.
Weblink for further information:
https://www.maxperutzlabs.ac.at/research/research-groups/jantsch
Email: verena.jantsch(at)univie.ac.at
Joao Matos
Research Focus
The life cycle of sexually reproducing eukaryotes depends on two specialized chromosome segregation programs: mitosis and meiosis. Whereas mitosis drives cellular proliferation and the stable propagation of the genome, meiosis promotes genetic diversity and the formation of haploid gametes, which combine at fertilization to restore the diploid state. Remarkably, both genome stability and genetic diversity rely on the ability of cells to repair damaged chromosomes through homologous recombination.
We study how cells rewire the DNA repair machinery in order to: (i) promote genetic diversity and haploidisation during meiosis; (ii) prevent genomic instability – and thus cancer – during mitotic proliferation; and, in a newer research line in the group, (iii) understand how meiotic cells “pack” into gametes all components that are necessary to restart life, while also performing the quality control required for gamete rejuvenation.
Our lab has active, open research projects in all of these areas. To tackle these questions, we combine a variety of model systems and approaches, including budding yeast, mouse models, cell culture systems, and biochemistry, allowing us to bridge mechanistic insight with physiological relevance.
Research environment
Our lab offers a dynamic, collaborative environment for postdocs interested in chromosome biology, DNA repair, and meiosis. We are embedded in the Max Perutz Labs at the Vienna BioCenter, a vibrant campus that brings together multiple institutes with complementary strengths in molecular biology, structural biology, cell biology, and genomics. Postdocs benefit from state-of-the-art core facilities (imaging, proteomics, genomics, animal facility), close interactions with expert groups across the campus, and a lively international community of early-career scientists.
Within the lab, we work across model systems (yeast, mouse, tissue culture and biochemistry), foster rigorous and open science, and place strong emphasis on mentoring, career development, and scientific independence. Regular joint seminars, journal clubs, and retreats provide ample opportunities for feedback, networking, and new collaborations.
Expectations towards postdoctoral fellows in this programme
Our lab offers a dynamic, collaborative environment for postdocs interested in chromosome biology, DNA repair, and meiosis. We are embedded in the Max Perutz Labs at the Vienna BioCenter, a vibrant campus that brings together multiple institutes with complementary strengths in molecular biology, structural biology, cell biology, and genomics. Postdocs benefit from state-of-the-art core facilities (imaging, proteomics, genomics, animal facility), close interactions with expert groups across the campus, and a lively international community of early-career scientists.
Within the lab, we work across model systems (yeast, mouse, tissue culture and biochemistry), foster rigorous and open science, and place strong emphasis on mentoring, career development, and scientific independence. Regular joint seminars, journal clubs, and retreats provide ample opportunities for feedback, networking, and new collaborations.
Possible research themes or topics for postdoctoral projects
• Mechanisms of crossover control in meiosis
Dissect how specific nucleases, helicases and ZMM proteins act on defined recombination intermediates to ensure crossover assurance and prevent aberrant joint molecules.
• Synaptonemal complex dynamics and chromosome architecture
Define how SC assembly, maintenance and disassembly are coordinated with recombination and how defects feed back on genome stability and gamete quality.
• DNA repair pathway choice in proliferating cells
Investigate how mitotic cells channel lesions into recombination versus non-recombinogenic repair, and how this balance prevents genome instability and cancer.
• Chromatin and nuclear organization in meiotic DNA repair
Study how chromatin remodelers and nuclear architecture influence the formation, processing and resolution of recombination intermediates.
• Dormancy, storage and reactivation
Probe how gametes or other quiescent cells store key components in a protected state and rewire metabolism and DNA repair upon re-entry into the cell cycle.
Weblink for further information:
https://www.maxperutzlabs.ac.at/research/research-groups/matos
Email: joao.matos(at)univie.ac.at
Jonas Ries
Research Focus
Our aim is to develop super-resolution microscopy techniques to measure the structure and dynamics of proteins in living cells. Specifically, we push Single-molecule localization microscopy to angstrom resolution and use the new MINFLUX technology to directly monitor conformational changes of proteins in living cells. We use these techniques to investigate key questions on clathrin-mediated endocytosis and on motor proteins.
Research environment
We are an interdisciplinary lab with physicists, biologists and computer engineers. Together we push the limits of optical microscopy to address biological questions that previously were out of reach.
Expectations towards postdoctoral fellows in this programme
We are looking for motivated postdocs who like to work in a team and don't shy away from talking to people from other disciplines. If you want to bring your own biological project to be addressed with our technologies, a high degree of independence is expected.
Possible research themes or topics for postdoctoral projects
We are open to applicants with a background in optics, software or biology to either continue existing projects in the lab or to propose own ideas. As our research focus is on super-resolution microscopy, our technologies should play an important role in the proposed project.
Weblink for further information: https://www.maxperutzlabs.ac.at/research/research-groups/ries
Email: jonas.ries(at)univie.ac.at
Peter Schlögelhofer
Research Focus
Meiosis is a specialized, two-step cell division that ensures the reduction of the genome prior to the formation of generative cells. During meiosis, homologous chromosomes are segregated during the first, and sister chromatids during the second division. It is important to note, that during meiosis, genetic information between maternal and paternal chromosomes is mutually exchanged, leading to novel combinations of genetic traits in the following generation.
The Schlögelhofer Lab (https://www.maxperutzlabs.ac.at/research/research-groups/schloegelhofer) investigates molecular determinants of inheritance (in plants and yeast) using cutting edge technologies. We are interested to understand: How is genetic information recombined during meiosis? Which proteins mediate DNA double strand break (DSB) formation, DSB processing and DNA repair during meiosis to ensure recombination of genetic traits? What are the underlying molecular mechanisms?
Research environment
The Schlögelhofer research group is part of the Max Perutz Labs, a joint venture between the University of Vienna and the Medical University of Vienna embedded in the Vienna BioCenter Campus (VBC). The VBC is one of Europe’s biggest life sciences hubs with more than 2,800 employees from about 80 different countries, offering a unique combination of research, education, and companies on a single campus. The Max Perutz Labs and the VBC host a broad spectrum of scientific facilities (https://www.maxperutzlabs.ac.at/research/facilities)( https://www.viennabiocenter.org/vbcf/), including BioOptics, mass spectrometry, plant growth, advanced imaging including CryoEM and next generation sequencing. The Schlögelhofer Lab is well-funded, equipped to perform all modern-day experiments in molecular biology and entertains local and international collaborations to embed co-workers in a supportive network.
Expectations towards postdoctoral fellows in this programme
Post-doctoral co-workers will be embedded in the Schlögelhofer Lab, provided with all research materials and will have access to all mentioned research facilities. They will be personally supported and guided by Prof. Schlögelhofer to develop an attractive research project and to prepare for a future career in academia. The research project will be closely aligned to the research focus of the Schlögelhofer Lab and successful candidates will intellectually and technically strengthen the team and benefit from a stimulating environment and established methodologies.
All research institutes at the VBC consider mentoring an intrinsic part of education and post-docs will have additional mentors (senior faculty) and will be part of a structured mentoring scheme (https://www.maxperutzlabs.ac.at/education/postdoc). Organised activities include leadership training, networking events and different workshops (for instance for career development or for specific technical advances).
Weblink for further information:
https://www.maxperutzlabs.ac.at/research/research-groups/schloegelhofer
Email: peter.schloegelhofer(at)univie.ac.at