Find Academic Supervisors

• Plant Molecular Biology
• Photosynthesis Research
• Crop Science
• +5 more

Mathias Pribil serves as Associate Professor in the Department of Plant and Environmental Sciences at the University of Copenhagen, specializing in molecular plant biology within the Section for Molecular Plant Biology. His research focuses on fundamental mechanisms governing plant metabolism and photosynthesis, with direct applications for sustainable crop improvement. His primary research interests center on photosynthetic efficiency, chloroplast function, and metabolic engineering in plants. Pribil investigates how plants regulate energy metabolism under stress conditions, particularly examining damage-repair systems in photosynthesis and sugar homeostasis mechanisms. His work bridges basic molecular biology with agricultural applications, targeting crop resilience and yield optimization through understanding fundamental plant processes. Analysis of his recent publications reveals a strong emphasis on sustainable agriculture solutions, with recurring themes in photosynthesis optimization (37.5% of articles), metabolic engineering (25%), and crop resilience strategies (37.5%). His research frequently employs Arabidopsis thaliana as a model system while maintaining clear translational pathways to crop species, particularly through collaborations focused on future-proofing European agriculture. Pribil leads research within the Section for Molecular Plant Biology at the University of Copenhagen's Frederiksberg Campus, where his laboratory investigates the molecular basis of plant metabolic processes. His collaborative network spans multiple European institutions, with significant contributions to EU-funded initiatives like CropBooster-P aimed at developing climate-resilient crops. Current research directions include engineering chloroplast metabolism for enhanced natural product synthesis and deciphering metabolic damage-repair systems critical for photosynthetic efficiency.

Ajith WeerasingheView profile

Associate Professor

• Solar Energy
• Photovoltaics
• Renewable Energy Systems
• +5 more

Ajith Weerasinghe serves as an Associate Professor in the Department of Mechanical Engineering at California State University, Fresno's Lyles College of Engineering, specializing in sustainable energy systems with 20+ years of research experience. His work bridges theoretical materials science and practical solar energy applications for global impact. His academic credentials include: PhD in Solar Cells from Sheffield Hallam University, England, UK (2013) M.Phil in Solar Power Electronics from Brunel University, London, England, UK (1997) B.Eng in Mechanical Engineering from the University of Leicester, England, UK (1993) Dr. Weerasinghe's research pioneers solar energy innovation across multiple domains: developing cost-minimized photovoltaic-thermal hybrid systems , advancing crystalline PV panel recycling techniques , and creating solar-powered agricultural solutions for energy poverty alleviation. His expertise spans life cycle analysis , carbon footprint reduction , and thermal energy systems with emphasis on practical implementation in developing regions and industrial applications. Analysis of his 11 publications (1999-2015) reveals a consistent trajectory from fundamental semiconductor materials research (CdS, ZnS, CdTe electrodeposition) toward integrated sustainable systems. Key trends include electrochemical thin-film optimization for solar cells, hybrid PVT technology development , and rural electrification strategies through solar villages. His work demonstrates strong interdisciplinary connections between materials science, power electronics, and sustainable development.

• Organic Synthesis
• Diversity-Oriented Synthesis
• Medicinal Chemistry
• +3 more

Stefan F. Kirsch serves as Professor of Organic Chemistry and Vice-President for Research and Digital Research at the University of Wuppertal's School of Mathematics and Natural Sciences, leading an active research group focused on innovative synthetic methodologies with pharmaceutical applications. His research program spans three interconnected domains: Nitrogen-rich small molecule chemistry investigating azide reactivity and high-nitrogen compounds; Diversity-oriented synthesis developing sustainable strategies to generate structurally complex medicinal chemistry libraries from simple precursors; and Targeted natural product synthesis employing domino reactions for terpenoid/steroid frameworks and polyketide assembly. This work integrates fundamental reaction discovery with biological relevance, emphasizing step economy and molecular complexity generation. Publication analysis (2009-2020) reveals consistent focus on nitrogen heterocycle synthesis (tetrazoles from diazides), site-selective catalysis on solid supports, and stereocontrolled polyol assembly for natural products. The research demonstrates strong methodological innovation in azide chemistry, sustainable catalysis, and biomimetic synthesis approaches applicable to drug discovery pipelines. No scientific awards were documented in the source material. Information regarding student advising or research grants was not provided in the available text. The Kirsch group operates from dedicated organic chemistry laboratories at Gaußstraße 20, Wuppertal, maintaining active collaborations in medicinal chemistry and natural product synthesis with infrastructure supporting advanced synthetic and analytical work.

Michael HaasView profile

Assistant Professor

• Synthetic Inorganic Chemistry
• Group 14 Compounds
• Photochemistry
• +5 more

Dr. Michael Haas is an Assistant Professor at the Department of Inorganic Chemistry, College of Engineering, Technical University Graz. His research focuses on synthetic inorganic chemistry and materials manufacturing for solar energy, catalysis, and photochemistry applications. Education: PhD in Technical Chemistry (2015), Habilitation in Photoactive Derivatives (2023) Key Skills: Group 14 Chemistry, Electrochemistry, Photochemistry, Spectroscopy Research interests include: Synthesis of novel low-valent Group 14 compounds Design of acyl Group 14 photoinitiators Development of bottom-up approaches for material synthesis Recent publications highlight advancements in: Germanium-based photoinitiators for biomedical applications Single-source precursors for silicon-carbon hybrid films Heavier carbon homologue aldol reactions Collaborative projects with physical and analytical chemistry groups Scientific awards include the FWF-Schrödinger Fellowship. Current students include Thomas Lainer, Nilanjana Sen, Madeleine Heurix, and others working on photoinitiator systems and material synthesis. The Haas group utilizes advanced equipment like 400 MHz NMR spectrometers, gloveboxes for inert environments, and custom photochemical reactors. They collaborate with Prof. Trimmel (semiconductor physics), Prof. Kothleitner (microscopy analysis), and Air Liquide (Christian Doppler Laboratory project).

Julie BroggiView profile

Associate Professor

• Organic Chemistry
• Medicinal Chemistry
• Polymer Chemistry
• +4 more

Julie Broggi is an Associate Professor at Aix Marseille University, affiliated with the Faculty of Pharmacy and the Department of Pharmacochemistry . She leads the Radical Pharmacochemistry (PCR) Team , focusing on the design and application of Organic Electron Donors (OEDs) in therapeutic and materials chemistry. She also serves as the Communications Manager of the Institute of Radical Chemistry (UMR 7273). Education: Habilitation à Diriger des Recherches (HDR) in Chemistry. Research interests revolve around the synthesis and reactivity of nitrogen-containing heterocycles with σ- and π-donor properties. Her work explores stable latent OED precursors and their applications in medicinal chemistry (e.g., antimalarial agents) and polymer chemistry (e.g., radical polymerization, n-type dopants). Publication trends highlight her expertise in metal-free reduction methodologies , with recent articles addressing N-heterocyclic carbenes , fluorine chemistry , and radical catalysis . Her team develops innovative applications for OEDs in pharmaceuticals and polymeric materials. Scientific Awards: Junior Member of the Institut Universitaire de France (IUF) for 2025–2030. Teaching activities span Pharmacochemistry and Organic Chemistry at the Faculty of Pharmacy, and Therapeutic Chemistry at the Faculty of Sciences. Her team includes PhD and Master’s students working on OED synthesis and applications. Funding for her research is provided by undisclosed organizations, supporting projects in radical chemistry and pharmaceutical innovation .

Jon Christopher AsterView profile

Professor

• Notch Signaling
• Cancer Biology
• T Cell Development
• +3 more

Jon Christopher Aster is a Professor of Pathology at Brigham and Women's Hospital, affiliated with Harvard Medical School. His research focuses on Notch signaling in cancer, particularly its role in T cell development and transformation, using genomic approaches like ChIP-Seq and collaborations across structural biology, bioinformatics, and animal modeling. Brigham and Women's Hospital Harvard Medical School Research interests include: Notch signaling in leukemia and T cell malignancies Transcriptional regulation via genome-wide approaches Post-translational modifications in signaling pathways Immune interactions in tumor microenvironments Recent articles span Notch-related cancer mechanisms, immunotherapy applications, and collaborative multi-omics studies. Scientific awards and honors are not explicitly detailed in the provided text.

• Chemical Reaction Engineering
• Process Systems Engineering
• Structural Materials
• +4 more

Nobuko Hanada is an Associate Professor at Waseda University's School of Advanced Science and Engineering. Her research focuses on hydrogen storage systems , chemical reaction engineering , and catalytic material development , particularly for sustainable energy applications. She has held positions at multiple institutions, including University of Tsukuba and Hiroshima University. PhD in Advanced Sciences of Matter (Hiroshima University, 2005) Graduate studies in Biosphere Science (Hiroshima University, 2003) Undergraduate in Integrated Arts and Sciences (Hiroshima University, 2001) Her work spans hydrogen storage kinetics , catalyst design , and environmentally friendly synthesis methods , with a notable emphasis on magnesium hydride and high-entropy alloy catalysts . Recent publications highlight ammonia electrolysis and thermal management in hydrogen systems. Scientific Awards: 19th Japan Society for the Promotion of Science Award (2022) Dr. Hanada has led research projects on hydrogen purification systems , metal hydride degradation , and catalyst optimization . Her collaborations include institutions like Karlsruhe Institute and Sophia University, with over 4,400 Google Scholar citations and an h-index of 30.

• Metalorganic Chemistry
• Main Group Chemistry
• Organometallic Chemistry
• +12 more

Prof. Dr. Matthias Driess is a full Professor at Technische Universität Berlin, where he holds the Chair of Inorganic and Analytical Chemistry within the Faculty of Mathematics and Natural Sciences. He is a leading figure in the field of molecular and materials catalysis, serving as Chair of UniCat (Unifying Concepts in Catalysis) since 2007 and as Scientific Director at BasCat (Berlin Joint Lab for Electrochemical Catalysis). His research bridges fundamental inorganic synthesis with applications in sustainable energy technologies, particularly in electrocatalysis and small molecule activation. His research focuses on metalorganic chemistry , molecular main group and organometallic chemistry , and molecular models for heterogeneous catalysis . He is especially renowned for his work on N-heterocyclic silylenes (NHSis) as powerful ligands in transition-metal catalysis, enabling high selectivity and activity in transformations such as alkyne semi-hydrogenation and C–H borylation. His group develops novel precursors for doped metal oxides and investigates catalytic systems for water splitting , CO2 reduction , and oxygen evolution . The recent publications highlight a strong trend toward energy-related catalysis , with a focus on designing and characterizing electrocatalysts based on earth-abundant elements like manganese, cobalt, and nickel. His work often combines molecular precursor strategies with materials synthesis to create nanostructured catalysts with controlled composition and morphology. The sub-fields span from ligand design and mechanistic studies to heterogeneous electrocatalysis and photoelectrochemical applications . Prof. Driess has been instrumental in major collaborative research initiatives, including the Cluster of Excellence UniCat and its successor UniSysCat, which aim to unify systems in catalysis. He has supervised numerous PhD students and postdoctoral researchers, contributing significantly to the training of next-generation scientists in catalysis science. His laboratory is equipped for advanced synthetic and analytical work, and he collaborates extensively with spectroscopists and theoreticians to elucidate reaction mechanisms. Future research directions likely include the development of multifunctional catalytic systems , bio-inspired catalysts , and sustainable materials for renewable energy conversion. While no specific scientific awards are listed in the provided text, his sustained leadership and high-impact publications indicate significant recognition within the chemical sciences community.

Calvin MukarakateView profile

Researcher

• Bioenergy
• Catalysis
• Renewable Fuels
• +3 more

Calvin Mukarakate serves as a Senior Scientist and Group Research Manager II in the Chemical Engineering department at the National Renewable Energy Laboratory (NREL). His primary affiliation is with the Catalytic Carbon Transformation and Scale-Up Center under Bioenergy Research. His research focuses on catalytic upgrading of lignocellulosic biomass for renewable fuel and chemical production. Key interests include: production of transportation fuels from biomass pyrolysis vapors; selective conversion to polymer monomers; hydrogen production from waste streams; co-processing bio-oil with petroleum; catalyst development for flash pyrolysis; and advanced mass spectrometry analysis techniques. Analysis of his 106 publications (2008-2025) reveals dominant themes in catalytic fast pyrolysis (100% fingerprint), pyrolysis (81%), fast pyrolysis (36%), and hydrotreating (31%). His work bridges fundamental catalysis with process-scale engineering for sustainable fuel production. Mukarakate actively contributes to the Energy Materials Network as Steering Committee member of Chemical Catalysis for Bioenergy and serves on the Technical Advisory Committee for the Symposium on Thermal and Catalytic Sciences. His professional trajectory shows steady progression at NREL: Postdoctoral Research Associate (2008-2011), Thermochemical Conversion Scientist (2011-2015), and Senior Scientist (2015-present). He leads research in catalytic biomass conversion with emphasis on practical scale-up solutions for renewable fuel production.

• Chemical Physics
• Materials Science
• Organometallic Chemistry
• +4 more

Klaus Ruhland is a Senior Lecturer (Privatdozent) in the Institute of Physics at the University of Augsburg, affiliated with the Faculty of Mathematics, Natural Sciences and Technology. He is a key member of the Chemical Physics and Materials Science research group led by Prof. Dr. Wolfgang Scherer, contributing to advanced research in bond activation, functional materials, and extreme condition chemistry. Research Interests: His work spans organometallic chemistry , polymer science , and materials characterization , with a focus on C–C and C–H bond activation, spectroscopic analysis of reactive intermediates, and the design of functional polymers. His research integrates experimental and theoretical approaches to understand fundamental chemical processes. Publication Trends: Over the past two decades, Klaus Ruhland has published consistently in high-impact journals such as Organometallics , Journal of Applied Polymer Science , and Angewandte Chemie . His recent work emphasizes light-induced reactions, polymer curing mechanisms, and pressure-enhanced bond activation, reflecting a multidisciplinary approach bridging inorganic and materials chemistry. Scientific Awards: No specific awards or honors are mentioned in the available text. Advising and Grants: While no formal students or grant funding are listed, his extensive publication record and collaborative projects suggest active mentorship and research leadership within the group. He has co-authored with numerous researchers, indicating strong team integration and collaborative science. Labs and Teams: He is part of the Chemical Physics and Materials Science team at the University of Augsburg, working in close collaboration with Prof. Dr. Wolfgang Scherer and PD Dr. Georg Eickerling. The team investigates binding activation, functional materials, and chemical behavior under extreme conditions, utilizing advanced spectroscopic and synthetic techniques.

Simon FleischmannView profile

Researcher

• Electrochemical Energy Storage
• Materials Science
• Battery Technology
• +3 more

Dr. Simon Fleischmann is a group leader at the Nanoconfined Electrochemical Interfaces research group under the Karlsruhe Institute of Technology (KIT), with affiliation to the Helmholtz Institute Ulm (HIU). His work focuses on optimizing layered and two-dimensional materials for high-power electrochemical energy storage through structural and chemical tailoring of interlayer spaces. Key Research Areas: Ion intercalation, nanostructuring, pseudocapacitive charge storage, sustainable electrode materials, and advanced battery characterization. Notable Projects: NanoMatFutur-funded InfinBAT (2021–2026), DFG’s NanoconEC (2022–2025), and Daimler und Benz Stiftung-funded sodium-ion battery development. His group employs soft chemistry synthesis to engineer nanoconfinement environments, enabling accelerated ion transport in layered materials. Research highlights include pseudocapacitive lithium intercalation in MoS 2 , MXene-based heterostructures for ammonium ions, and novel strategies to mitigate degradation via interlayer functionalization. Scientific Contributions: Developed cryogenic electron microscopy workflows for battery interface analysis. Elucidated defect evolution in carbon nanotubes during electrochemical cycling. Demonstrated unified electrolyte-electrode design for ion–solvent cointercalation. Honors: NanoMatFutur Fellowship (BMBF). Postdoktorandenstipendium der Daimler und Benz Stiftung. Team: Supervises a multidisciplinary team including doctoral students (Jaehoon Choi, Yoga Malik, etc.) and postdocs (Maciej Tobis, Mete Batuhan Durukan), collaborating with industry partners like Skeleton Technologies.

Toni KraftView profile

Researcher

• Geophysics
• Seismology
• Induced Seismicity
• +3 more

Dr. Toni Kraft is a researcher at the Swiss Seismological Service (SED) within ETH Zurich's Department of Earth and Planetary Sciences. His work focuses on induced seismicity monitoring in geothermal projects, microseismic analysis, and tectonic dynamics in alpine regions. He contributes to Switzerland's national seismic monitoring infrastructure and collaborates on international projects like GEOBEST, developing tools for optimizing microseismic networks and analyzing fault reactivation mechanisms. Key research interests include geothermal energy-related seismic risks, climate change impacts on mountain belt seismicity, and innovative applications of machine learning in seismic data analysis. His expertise spans from theoretical fault mechanics to practical monitoring protocols for urban geothermal developments. Dr. Kraft has published extensively on induced seismicity patterns in Swiss geothermal sites (Basel, St. Gallen), microearthquake sequence analysis, and meteorological influences on seismic activity. His work integrates field observations with computational models to improve hazard assessment frameworks.

• Catalysis
• Organometallic Chemistry
• Heterogeneous Catalysis
• +3 more

Dr. Chengbo Yao is a Researcher in the Surface and Interfacial Chemistry Professorship at ETH Zurich's Department of Chemistry and Applied Biosciences. His work focuses on catalytic mechanisms, organometallic chemistry, and surface reactivity, with particular emphasis on designing bimetallic catalysts and exploring hydrogen transfer reactions. Yao’s research integrates advanced spectroscopic techniques (e.g., NMR) to characterize surface sites and catalytic intermediates. His research interests span diverse areas including: (1) Development of novel catalytic systems for hydrofunctionalizations and C–H activation; (2) Mechanistic studies of cooperative catalysis involving transition metals; (3) Sustainable synthesis of terpenoids and other complex organic architectures from simple precursors; (4) Design of supported nanoparticles for site-selective deuterium labeling in heteroarenes. Recent work highlights include TEMPO adduct formation pathways and interfacial effects in PtCr catalysts for reverse water gas shift reactions. Yao’s publications (2016–2025) consistently demonstrate expertise in both homogeneous and heterogeneous catalysis, with applications ranging from energy storage materials to cancer metabolism modulation. His work has advanced understanding of hydrogen atom transfer dynamics and bimetallic catalytic synergies.

Dustin GilmerView profile

Assistant Professor

• Advanced Manufacturing
• Materials for Extreme Environments
• Additive Manufacturing
• +4 more

Dustin Gilmer is an Assistant Professor at the University of Tennessee's Department of Materials Science and Engineering and the University of Tennessee Space Institute. He holds a PhD in Energy Science and Engineering (2022) from the University of Tennessee Bredesen Center and a B.S. in Physics from East Tennessee State University. His research focuses on Extreme Environmental Materials Processing (EEMP), particularly advanced materials for high-temperature applications such as ceramic matrix composites and carbon-carbon composites. He collaborates extensively with Oak Ridge National Laboratory's Manufacturing Demonstration Facility (MDF), leveraging advanced manufacturing techniques like additive manufacturing, powder metallurgy, and in-situ process monitoring. Key research areas include additive manufacturing binders, ceramic processing, and materials for extreme environments. Gilmer leads the Molecules to Manufacturing Lab, which integrates chemistry and materials science to innovate manufacturing paradigms. His work emphasizes workforce development through programs like the METAL initiative, supported by the Department of Defense's IBAS program. He has received the 2019 R&D 100 Award for a high-strength binder system in additive manufacturing. His lab facilities span UT’s Fibers and Composites Manufacturing Facility (FCMF), Oak Ridge National Laboratory’s Spallation Neutron Source (SNS), and the Manufacturing Demonstration Facility (MDF). Ongoing projects include predictive binder jet manufacturing, hybrid manufacturing integration, and in-situ crosslinking technologies. His research bridges academia and industry, addressing challenges in energy, aerospace, and industrial sectors.

Arun MajiView profile

Assistant Professor

• Drug Design and Development
• Synthetic Chemistry
• Antifungal Drug Discovery
• +4 more

Arun Maji is an Assistant Professor in the Department of Pharmaceutical Sciences at the University of Kentucky. His research focuses on modular drug design targeting infectious diseases, particularly fungal pathogens. He holds a Ph.D. in synthetic chemistry from IIT Bombay (2018) and completed postdoctoral work at UIUC under Prof. Martin D. Burke, where he discovered SF001, a next-generation antifungal with reduced renal toxicity. Education: Ph.D., Indian Institute of Technology Bombay (2018) M.Sc., Indian Institute of Technology Kanpur B.Sc., Presidency College Kolkata Research interests emphasize antifungal drug discovery using structural biology, computational modeling, and pharmacological profiling. Key innovations include mechanism-based design of renal-sparing antifungals and immune-interactive therapeutics. His work has led to novel C–H functionalization methods and antifungal agents addressing drug resistance. Recent publications highlight advancements in polyene antifungals, anion-selective molecular prosthetics, and C–H activation strategies. He maintains an active lab focused on translating chemical innovations into clinical solutions for infectious diseases.