Find Academic Supervisors

• Inorganic Chemistry
• Coordination Chemistry
• Photochemistry
• +4 more

Prof. Dr. Katja Heinze is a Professor of Inorganic Chemistry at Johannes Gutenberg University Mainz. Her research focuses on sustainable coordination chemistry and photochemistry , particularly on designing luminescent and catalytically active metal complexes. She leads the Heinze Lab, which explores interactions between 3d transition metal complexes and light, including ultrafast pulsed laser studies. Her work addresses spin-flip dynamics , photoredox catalysis , and NIR-II emission mechanisms. She emphasizes environmental sustainability in chemical applications, such as visible-light-driven sulfur dioxide fixation. Scientific Awards : Heisenberg Fellowship, Theodor-Förster Memorial Lectureship, Elisabeth and Horst-Dietrich Hardt Prize, Falling Walls finalist. Students : Mentored numerous PhD and Master’s students, including Thomas Reuter, Winald Kitzmann, and Laura Stein. Grants : Coordinator of DFG priority program SPP 2102, participant in SPP 2491 and CRC 1633. Labs/Teams : Leads the Heinze Lab with advanced facilities like fs-transient absorption spectrometers and Raman spectrometers.

Kim DunbarView profile

Professor

• Molecular Magnets
• Conducting Metal-Organic Solids
• Spin-Crossover Compounds
• +7 more

Kim Dunbar is a Senior Professor in the Department of Chemistry at Texas A&M University. Her research focuses on molecular magnets, conducting metal-organic solids, spin-crossover compounds, and metals in medicinal applications. She explores anion-pi interactions and cyanide chemistry to design novel materials with tailored electronic and magnetic properties. Dunbar has pioneered studies on single-molecule magnets (SMMs) and their integration into metal-organic frameworks for nanostructuring. Her work bridges inorganic, bioinorganic, and materials chemistry, with applications in photodynamic therapy and energy conversion. Education: B.S., 1980, Westminster College Ph.D., 1984, Purdue University Research Interests: Her group investigates hybrid materials combining magnetic and conductive properties, including molecular squares/cubes with single-molecule magnetism, dirhodium anticancer agents, and photoactive ruthenium complexes. They employ X-ray crystallography, magnetometry, and spectroscopy to study structure-property relationships in transition metal systems. Awards: Dunbar has received numerous honors, including the ACS Distinguished Service Award (2015), Eminent Scholar Award (2012), and AAAS Fellowship (2004). She is a frequent plenary speaker at international conferences and has been recognized for her mentoring and teaching excellence. Labs/Teams: The Dunbar Research Group collaborates across disciplines, leveraging computational and synthetic chemistry to design functional materials. Their work has led to breakthroughs in SMM design, cyanide-based magnetism, and photodynamic therapy drug development.

Alan F. HeydukView profile

Professor

• Inorganic Chemistry
• Organometallic Chemistry
• Redox-Active Ligands
• +3 more

Alan F. Heyduk is a Professor and Chair of the Department of Chemistry at the University of California, Irvine (UCI). His research focuses on harnessing redox-active ligands for multi-electron reactivity, with emphasis on small molecule activation, group/atom transfer reactivity, and artificial photosynthesis. He leads the Heyduk Group, which investigates ligand-centered electron/hydrogen transfer mechanisms and designs catalysts for sustainable chemical transformations. Education : Ph.D., Massachusetts Institute of Technology (2001), Advisor: Prof. Daniel G. Nocera Postdoctoral Research, California Institute of Technology (2001–2003), Advisor: Prof. John E. Bercaw B.S., The Ohio State University (1995), Advisor: Prof. Bruce E. Bursten Research Interests : The Heyduk Group explores redox-active ligands as platforms for multi-electron chemistry. Key areas include: Design of catalysts for N 2 , CO 2 , and small molecule reduction Development of group-transfer reactivity in early transition metal complexes Modular approaches to artificial photosynthesis (light absorption, charge separation, fuel/oxidant formation) Lab Members : Current graduate students include Jennifer Jaimes (6th year), Isis Lee (6th year), Bach Nguyen (1st year), Jake Stofan (5th year), and Vivian Yuen (3rd year). The group emphasizes collaborative, student-run research with annual lab retreats, ACS conference participation, and interdisciplinary projects. Awards & Recognition : While no specific awards are listed, the group’s work has been published in high-impact journals like J. Am. Chem. Soc. , Inorganic Chemistry , and Chemical Science . Future Directions : Current projects aim to integrate redox-active ligands into systems for solar-to-chemical energy conversion and sustainable C–H bond functionalization.

Jitendra K. BeraView profile

Professor

• Organometallic Catalysis
• Bimetallic Synergism
• Small Molecule Activation
• +7 more

Jitendra K. Bera is a Professor in the Department of Chemistry at the Indian Institute of Technology Kanpur (IIT Kanpur) . He earned his PhD from the Indian Institute of Science (IISc), Bangalore, in 1999 and conducted postdoctoral research at Purdue University and Texas A&M University before joining IIT Kanpur in 2003. He was promoted to Associate Professor in 2008 and to full Professor in 2011. His research is centered on organometallic catalysis , with a focus on bimetallic synergism , small molecule activation , and metal-ligand cooperativity . His group designs novel organometallic compounds, particularly bimetallic constructs like dicopper, diruthenium, and dipalladium complexes, to explore their catalytic utility in cycloaddition, carbene transfer, and C-C coupling reactions. A key theme is understanding how metal-metal cooperation influences catalysis. He also develops catalysts that use water as a reagent through bifunctional activation strategies, contributing significantly to the field of green chemistry . His recent publications highlight a strong trend in synthesizing and characterizing complex organometallic frameworks, particularly dirhodium and diruthenium systems, and studying their reactivity in C-H activation, oxidative scission, and dehydrogenative coupling. The work often involves detailed mechanistic studies to understand the fundamental processes of chemical transformations. His scientific achievements have been recognized with several prestigious honors: Fellow of the Indian Academy of Sciences (2013) Fellow of the National Academy of Sciences, India (2014) Swarnajayanti Fellowship (DST) Ramanna Fellowship (DST) Bronze medal of the Chemical Research Society of India Selected for the C.N.R. Rao National Award in Chemistry (2018) Professor Bera leads an active research group at IIT Kanpur, advising students and securing research funding to advance his work in sustainable and efficient catalytic processes. His lab is equipped to perform a wide range of experimental techniques, including X-ray crystallography, NMR, GC-MS, and kinetic studies, supported by computational tools for mechanistic insights.

Christian BrücknerView profile

Professor

• Porphyrin Chemistry
• Organic Synthesis
• Photochemistry
• +4 more

Christian Brückner is a Professor in the Department of Chemistry at the University of Connecticut's College of Liberal Arts and Sciences. He holds a Dipl. Chem. from the University of Technology Aachen (Germany), a Ph.D. from the University of British Columbia (Canada), and completed postdoctoral training at the University of California, Berkeley (USA). His research focuses on developing synthetic strategies for porphyrinoids and their applications in photochemical systems, biomedical technologies, and materials science. Education: Postdoctoral Research: University of California, Berkeley (1996–1998) Ph.D.: University of British Columbia, Canada Dipl. Chem.: University of Technology Aachen, Germany His research interests include modifying porphyrins to study their reactivity, conformational flexibility, and photochemical properties. These compounds are used as models for natural photosynthetic systems and applied in photodynamic therapy, fluorescence labeling, and environmental sensing. Brückner has pioneered methods for synthesizing porphyrinoids with non-pyrrolic heterocycles, enabling novel applications in diagnostics and materials science. Recent work includes stimuli-responsive polymers, solid-state ion-selective sensors for wastewater monitoring, and mechanistic studies of porphyrinoid reactivity under mechanochemical conditions. His lab also explores the educational aspects of intercultural competence for teaching assistants in chemistry. Brückner's research has been published in over 100 peer-reviewed articles, with a focus on organic synthesis, photochemistry, and material applications. His group operates from the University of Connecticut's Storrs Campus, and further details are available at his research page .

Huichun ZhangView profile

Professor

• Environmental Engineering
• Water/Wastewater Treatment Technologies
• Environmental Contaminants Fate and Transformation
• +4 more

Huichun (Judy) Zhang is a Frank H. Neff Professor in the Department of Civil and Environmental Engineering at Case Western Reserve University's Case School of Engineering. Her work focuses on environmental contaminants' fate and transformation, advanced water/wastewater treatment technologies, and predictive modeling using AI/ML. She has held editorial roles at journals like ACS ES&T Water and has been recognized with awards such as the 2023 CAPEES Award and C. Ellen Gonter Award. Education PhD in Environmental Engineering, Georgia Institute of Technology (2004) MS in Environmental Science, Nanjing University (1997) BS in Environmental Chemistry, Nanjing University (1994) Research Interests Dr. Zhang’s research integrates AI/ML with environmental engineering to model contaminant reactivity, develop novel redox-active materials (e.g., Fe/Mn oxides), and optimize sorbent technologies. Key areas include: Predictive modeling of contaminant reactivity using QSAR and machine learning Redox processes in complex mixtures (e.g., Fe(II)/Tiron complexes) Advanced oxidation processes (AOPs) for organic contaminant degradation Design of polymeric sorbents for targeted contaminant removal Publications Her work spans over 100 peer-reviewed articles, emphasizing: Machine learning applications in contaminant fate prediction Redox mechanisms in manganese oxide-catalyzed reactions Novel materials for environmental remediation Awards & Professional Roles CAPEES President (2017), Board Member of AEESP (2016–present) Recipient of the 2023 CAPEES Award for Environmental Application of AI/ML and 2023 ACS Gonter Award Associate Editor, ACS ES&T Water (2023–present) Grants & Advising While specific grants are not listed, her research has been supported by major funding agencies. She has advised numerous graduate students and postdocs in environmental engineering and chemistry.

• Structural Biochemistry
• Inorganic Chemistry
• Organometallic Chemistry
• +3 more

Dr. Martin Lutz is an external collaboration coordinator in the Department of Chemistry at Utrecht University , specializing in Structural Biochemistry . He chairs the SIG9: Crystallographic Computing group under the European Crystallographic Association and serves on the editorial board of the journal Crystals . His research focuses on organometallic chemistry , inorganic catalysis , and structural crystallography , with significant contributions to transition metal reactivity, ligand design, and crystal structure analysis. Key Research Areas: Metal-ligand cooperation, asymmetric catalysis, hydrogen storage, and renewable materials. Scientific Honors: Chair of SIG9 (2025), editorial board member for Crystals (2025). Collaborations: Regularly works with teams in biomolecular sciences, materials chemistry, and inorganic catalysis. His recent publications (2025–2023) highlight advancements in nickelacyclobutane reactivity, copper hydride mechanisms, and phosphine-borane coordination. Articles span top-tier journals like Organometallics , Angewandte Chemie , and Nature Chemistry , with keywords reflecting interdisciplinary ties between biochemistry, catalysis, and materials science.

Moritz MalischewskiView profile

Assistant Professor

• Inorganic Chemistry
• Organometallic Chemistry
• Coordination Chemistry
• +3 more

Dr. Moritz Malischewski serves as a Junior Research Group Leader in the Department of Chemistry at the Faculty of Biology, Chemistry and Pharmacy, Free University of Berlin, where he leads the Malischewski Group focused on advancing inorganic and organometallic frontiers. His research spans Inorganic Chemistry , Organometallic Chemistry , Coordination Chemistry , Superacid Chemistry , Crystallography , and Oxidation Chemistry , with emphasis on synthesizing novel metal complexes using perfluorinated ligands to access extreme oxidation states and stimuli-responsive behavior. Key investigations include superacid-mediated generation of reactive intermediates, structural characterization via X-ray diffraction, and exploration of photo/thermal switching in metallocene systems. Analysis of his 2024-2025 publications reveals dominant themes in perfluorinated Cp* chemistry enabling unprecedented ferrocenium superoxidizers, reversible ligand coordination switches, and high-valent iron/osmium complexes. These works consistently integrate crystallographic validation with redox and magnetic property studies, targeting applications in molecular electronics and spintronics through multifunctional heterometallic architectures. As a Junior Research Group Leader, Dr. Malischewski directs independent research operations including grant acquisition, laboratory management, and graduate student mentorship within FU Berlin's Inorganic Chemistry division, maintaining active collaboration through his university contact channels.

• Organometallic Chemistry
• Inorganic Chemistry
• Ligand Design
• +4 more

Matt F. Cain serves as an Assistant Professor in the Department of Chemistry at the University of Hawai‘i at Mānoa, where he has led an active research group since summer 2014. His work bridges synthetic inorganic chemistry and catalytic applications with emphasis on novel ligand design. His educational foundation includes: B.S. in Chemistry from SUNY Geneseo (2007) Ph.D. in Chemistry from Dartmouth College (2012) under Dave Glueck, focusing on Cu(I)-catalyzed P-C bond formation and P-stereogenic triphosphine ligands Postdoctoral research at MIT (2012-2014) with Dick Schrock on TREN-based macrocyclic ligands for Mo-catalyzed N 2 reduction Dr. Cain's research program centers on developing multidentate, non-innocent, and chiral ligands for transition metal catalysis. Key initiatives include engineering C1-symmetric P-stereogenic ligands, designing multidentate systems for dinitrogen reduction, and creating phosphaalkene-based redox-active platforms. His group leverages advanced air-sensitive techniques like Schlenk lines and glovebox manipulations to explore phosphorus chemistry for asymmetric catalysis and alternative energy processes. Analysis of his 2016-2023 publications reveals consistent innovation in phosphorus-containing ligands (particularly benzazaphospholes and phosphaalkenes), with structural studies of Pt/Ru complexes and reactivity investigations enabling new catalytic pathways in small-molecule activation. Dr. Cain actively mentors approximately 12 researchers through his "Synthesis in Paradise" group, which maintains strong technical capabilities in ligand synthesis and metal complex characterization. Current projects focus on unexplored C1-symmetric ligand architectures and redox-active platforms for energy-relevant transformations, supported by collaborative instrumentation access across the department.

Anne JonesView profile

Professor

• Electrocatalysis
• Biological Electron Transfer
• Hydrogenase Research
• +3 more

Anne Jones is a Professor at Arizona State University (ASU) within the School of Molecular Sciences under the College of Liberal Arts and Sciences. She also serves as Vice Provost for Undergraduate Education, leading university-wide curriculum initiatives and student success projects. Her academic career spans roles as Associate Director of the School of Molecular Sciences and co-leader of the first online biochemistry degree in the U.S. Doctorate: D. Phil. in Inorganic Chemistry (Rhodes Scholar/NSF Fellow) - University of Oxford, UK (2002) Undergraduate: B.Sc. in Chemistry and Mathematics (summa cum laude) - University of the South, TN (1998) Her research focuses on redox enzymes and their synthetic counterparts, primarily in electrocatalysis, biological electron transfer, and artificial photosynthesis. She explores: Redox enzyme catalytic mechanisms Re-engineering enzymes for fuel cells and biosensors Multifactorial redox cofactor interactions De novo redox enzyme design for electronic/biomedicine applications Her publications cover hydrogenase research, electron bifurcation, and bioelectrochemical systems. Techniques include molecular biology, protein electrochemistry, FTIR, CD, and computational modeling. Scientific honors include: Alexander von Humboldt Fellowship DOE Faculty Early Career Award (2012-2017) AFOSR Young Investigator Award (2007-2011) ASU Founder’s Day & Zebulon Pearce Teaching Awards NSF Graduate Fellowship She has secured funding from NSF, DOE, DoD, and private foundations for bioenergy research and educational innovation. Her laboratory develops systems for: Transparent gold spectroelectrochemistry Peptide-based hydrogenase models Electroactive protein platforms CO2 reduction catalysts Biophotovoltaic fuel cells Electron bifurcation studies

Greg NoctonView profile

Associate Professor

• Organometallic Chemistry
• Catalysis
• Small Molecule Activation
• +5 more

Greg Nocton is an Associate Professor at École polytechnique, affiliated with the Laboratoire de Chimie Moléculaire (CNRS) in France. He specializes in organometallic chemistry of f-elements for sustainable chemistry and quantum technologies, focusing on small molecule activation, catalysis, and electronic structure analysis of lanthanide complexes. Born in Reims, France (1983) B.Sc., M.Sc. (Inorganic & Bio-inorganic Chemistry), PhD (2006-2009) on uranium coordination chemistry with Marinella Mazzanti (CEA Grenoble) Postdoctoral Researcher at UC Berkeley (2010-2011) under Dick Andersen His research investigates low-valent organometallics, heterobimetallic complexes, and magnetic properties of lanthanides. He leads the ANR RelaxMax (2020-2024) and previously secured an ERC Starting Grant (2017-2022). Key projects include CO2 valorization, divalent lanthanide precursors, and photochemical cross-coupling. Recent publications highlight trends in lanthanide-based catalysis (CO2 functionalization, alkene isomerization), quantum technologies (single molecule magnets), and electronic structure tuning of f-elements for modular reactivity. He has received prestigious awards including the CNRS Bronze Medal (2016), French Chemical Society's Coordination Chemistry Division Junior Award (2021), and multiple Best Talk/Poster Awards. Recipient of the CNRS Bronze Medal (2016) Principal Investigator for ANR RelaxMax (2020-2024) and ERC Starting Grant (2017-2022) Active in teaching symmetry/spectroscopy and supramolecular chemistry at École polytechnique since 2018 Collaborates internationally with labs in France, Germany, USA, and Japan

• Inorganic Chemistry
• Bioinorganic Chemistry
• Metal Coordination Chemistry
• +2 more

Dr. Scott Pattenaude serves as Assistant Professor and Chemistry Program Director at Greenville University's College of Arts and Sciences, where he also holds the position of Chemical Hygiene Officer. His multifaceted role encompasses teaching undergraduate chemistry courses and leading an active research program in inorganic and bioinorganic chemistry. His educational background includes a Ph.D. in Inorganic Chemistry from Purdue University (2018), B.S. in Chemistry from University of Illinois (2012), and A.S. in Chemistry from Lake Land College (2010). He holds certificates in Experiential Learning and Facilitating Experiential Learning Online. Dr. Pattenaude's research focuses on metal/amino acid coordination chemistry and local well water quality analysis , with particular expertise in air- and moisture-sensitive inorganic synthesis. His recent work examines actinide/lanthanide chemistry, bioinorganic enzyme mechanisms, and environmental applications. He maintains strong inter-departmental collaborations across the university and emphasizes experiential learning in his pedagogy. His publication record demonstrates significant contributions to actinide chemistry, hydrogenase enzymology, and coordination chemistry, with 9 publications in high-impact journals between 2015-2021. These works reveal consistent focus on f-element chemistry, redox processes, and biomimetic synthesis. 2021 Outstanding Educator in Experiential Learning (Greenville University) 2018 Ian P. Rothwell Distinguished Inorganic Seminar Award (Purdue University) 2017 PINDU Inorganic Conference Best Oral Presentation (Indiana University) 2016 Chemistry Division Symposium Award Winner (Los Alamos National Lab) 2016/2017 Seaborg Institute Summer Research Fellowship (Los Alamos National Lab) Dr. Pattenaude secured recent research funding including a 2021 Faith in the Vaccine Ambassadors Grant ($16,500) and 2020 Mallinckrodt Pharmaceuticals Research Grant ($25,000). His professional affiliations include the American Chemical Society (ACS) and Laboratory Safety Institute (LSI). He teaches core chemistry courses including General Chemistry, Organic Chemistry, Biochemistry, and Instrumental Analysis, alongside interdisciplinary seminars in Science and Christianity.

Terrance J. HadlingtonView profile

Research Fellow

• Inorganic Chemistry
• Catalysis
• Main Group Chemistry
• +3 more

Dr. Terrance J. Hadlington is a Research Fellow at the Technical University of Munich (TUM), leading the Chair of Inorganic Chemistry with Focus on New Materials under the TUM School of Natural Sciences. His research explores novel catalytic processes leveraging earth-abundant main group and transition metals. Education: MChem from the University of Bath (2011), PhD at Monash University (Australia) with Prof. Cameron Jones Research focuses on non-innocent ligand systems (e.g., Single-Center ambiphiles, polyphosphinidenes) enabling cooperative catalysis with transition metals, particularly targeting ammonia activation and hydroamination of alkenes. His group investigates bond activation pathways and ligand-metal synergies for sustainable catalytic applications. Recent publications highlight work in hydrogenation catalysis, dihydrogen activation, and ligand design across nickel, iron, and main-group metal complexes, reflecting trends in organometallic chemistry and sustainable catalytic mechanisms. Scientific Awards ERC Starting Grant (2023) ADUC Prize (2023) BASF-Nachwuchpreis (2022) Boehringer Ingelheim Stiftung Exploration Grant (2022) His research is supported by grants from the DFG, Boehringer Ingelheim Stiftung, and the Liebig Fellowship (FCI). The Hadlington Group operates at the forefront of main-group and transition-metal cooperative catalysis.

David GoldbergView profile

Professor

• Inorganic Chemistry
• Bioinorganic Chemistry
• Coordination Chemistry
• +7 more

David Goldberg is a Professor in the Department of Chemistry at Johns Hopkins University, within the Zanvyl Krieger School of Arts and Sciences. His research focuses on inorganic and bioinorganic chemistry, particularly synthetic modeling of metalloenzymes involved in small-molecule activation and catalytic oxidation processes. Research Interests: Synthetic Inorganic Chemistry Bioinorganic Mechanisms High-Valent Metal-Oxo and Metal-Imido Complexes Dioxygen and Nitric Oxide Activation Ligand Design and Secondary Coordination Sphere Effects Hydrogen- and Oxygen-Atom Transfer Reactions Spectroscopic and Computational Analysis of Reactive Intermediates His work bridges fundamental mechanistic inquiry with applications in energy, environment, and human health. The research employs a multidisciplinary approach combining synthesis, spectroscopy (EPR, Mössbauer, resonance Raman, XAS), and DFT calculations to understand transition metal reactivity in biological and synthetic systems. The recent publications reflect a strong focus on biomimetic modeling of heme and nonheme enzymes, with particular emphasis on reactive oxygen and nitrogen species, valence tautomerism, and photocatalytic activation of dioxygen. The overarching themes include elucidating bond-making and bond-breaking steps at metal centers, designing functional analogs of enzyme active sites, and developing novel catalysts inspired by nature. Scientific Awards: Advising and Grants: Dr. Goldberg mentors graduate students and postdoctoral researchers in a collaborative, interdisciplinary environment. While specific grant details are not listed, his research is supported by instrumentation and collaborative resources at Johns Hopkins and external partners. The lab actively contributes to training the next generation of inorganic chemists and advancing fundamental knowledge in bioinorganic mechanisms. Laboratory and Research Team: The Goldberg Research Group operates a well-equipped laboratory in the New Chemistry Building at JHU, utilizing advanced synthetic and analytical techniques. The team includes graduate students and postdocs working on diverse projects related to metalloenzyme mimicry, small-molecule activation, and catalyst design. The group collaborates with spectroscopists and computational chemists to gain comprehensive insights into reaction mechanisms.

Kasper Steen PedersenView profile

Professor

• Inorganic Chemistry
• Metal-Organic Frameworks
• Redox Non-Innocence
• +7 more

Kasper Steen Pedersen is a Professor in the Department of Chemistry at the Technical University of Denmark (DTU), affiliated with the Inorganic Chemistry section and the Center for Quantum Technologies. His research integrates synthesis, spectroscopy, and materials design to explore advanced inorganic systems, particularly metal-organic frameworks (MOFs) with tailored electronic and magnetic properties. Research Interests: His work centers on redox non-innocence in MOFs, where traditionally innocent ligands become electronically active in the presence of reducing metal centers. This enables the design of air-stable radical materials with unique optical, electronic, and magnetic behaviors. His group investigates d- and f-block complexes, lanthanide-based systems, and frustrated magnetic architectures. The research spans synthesis, structural characterization, and advanced physical measurements using synchrotron radiation, neutron scattering, and muon spectroscopy. Publication Trends: Recent publications focus on valence tautomerism, geometric frustration, zero-valent metal clusters, and magnetic refrigeration at sub-Kelvin temperatures. His work frequently appears in high-impact journals such as Nature Communications , Journal of the American Chemical Society , and Chemical Science , highlighting interdisciplinary advances in molecular magnetism and functional materials. Supervision and Projects: He is the main supervisor for multiple PhD projects, including research on geometric frustration in magnetic MOFs, organometallic frameworks, redox-active MOFs, and zero-valent systems for small molecule activation. He also co-supervises projects on organic nanomaterials self-assembly. His collaborative network spans Europe and includes work at major research facilities. Laboratories and Teams: His research group operates within DTU’s Department of Chemistry and collaborates with the Center for Quantum Technologies, leveraging national and international infrastructure for advanced spectroscopic analysis. The team combines synthetic inorganic chemistry with solid-state physics approaches to develop next-generation quantum and magnetic materials.