Faculty of Chemistry
With more than 50 principal investigators, a vibrant international research community and a thriving doctoral school with over 200 members, the Faculty of Chemistry provides a dynamic and diverse research environment. It offers excellent opportunities for research and fosters collaboration across several fields, including material chemistry, synthesis and catalysis, analytical sciences, biological and food chemistry, as well as computational chemistry.
State-of-the-art facilities provide advanced infrastructure and expert services in NMR spectroscopy, mass spectrometry, crystallography, materials analysis, and more. The faculty currently hosts seven ERC Grants and provides active support for grant acquisition. It also jointly operates two research facilities with the Medical University of Vienna, dedicated to human metabolomics and medicinal radiochemistry.
Educating more than 1,500 students across Bachelor and Master’s programs, the faculty is the largest unit for chemistry and chemistry teacher education in Austria.
From fundamental to applied research, high-level education and training as well as successful technology transfer into spin-offs, the Faculty of Chemistry addresses many of today’s most pressing societal challenges.
Departments/Research Focus
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/