Find Academic Supervisors

• Energy Engineering
• Environmental Science
• Chemical Kinetics
• +3 more

Dr. Matt Oehlschlaeger is a Professor of Mechanical and Aerospace Engineering and Associate Dean for Academic Affairs at Rensselaer Polytechnic Institute (RPI). He holds a B.S. from Virginia Tech (2000), and M.S. and Ph.D. from Stanford University (2002, 2005). His research focuses on energy and environment, particularly chemical kinetics of alternative fuels and optical sensing technologies. He leads government/industrial-funded projects and has received national awards, including the PECASE (2009). Education: B.S., Mechanical Engineering, Virginia Tech (2000) M.S., Mechanical Engineering, Stanford University (2002) Ph.D., Mechanical Engineering, Stanford University (2005) Research Interests: Dr. Oehlschlaeger’s work bridges combustion science and advanced sensing. He develops optical techniques for gas analysis (e.g., THz spectroscopy) and studies fuel ignition mechanisms. His contributions include understanding alternative fuel behavior in combustion systems and environmental monitoring applications. Publications: His recent work emphasizes AI-driven gas sensing and THz spectroscopy for volatile organic compounds (VOCs). He explores machine learning frameworks to classify gas spectra and addresses challenges in aerospace propulsion systems. Awards & Roles: Fellow of the American Society of Mechanical Engineers (ASME) Specialty Chief Editor for Frontiers in Aerospace Engineering Associate Editor for International Journal of Fuels and Lubricants Grants & Advising: He leads multi-million-dollar research initiatives in combustion science and sensor technology. While no named advisees are listed, his labs mentor graduate students in experimental and computational combustion studies. Labs & Teams: His research group at RPI focuses on energy sustainability and advanced sensing, collaborating with industry partners on real-world applications of gas analysis and propulsion systems.

Sara EislerView profile

Professor

• Organic Electronics
• p-Conjugation
• Molecular Switches
• +4 more

Sara Eisler is a Professor in the Department of Chemistry at the University of New Brunswick (Canada). She holds a PhD in Organic Chemistry from the University of Alberta (2004), followed by post-doctoral fellowships at ETH-Zürich (2004–2006) and the University of Montréal (2006–2008). Her research focuses on organic electronics, molecular switches, fluorescence, and heterocycle synthesis. Dr. Eisler leads the Eisler Research Group, whose work bridges fundamental chemical principles with applications in optoelectronics and materials science. Key research interests include designing conjugated systems for electronic devices, developing photoresponsive molecules, and synthesizing novel heterocyclic compounds with tunable properties. Her lab emphasizes interdisciplinary approaches, combining synthetic chemistry with advanced spectroscopic and crystallographic analyses. The group's findings have been published in journals like Organic & Biomolecular Chemistry , Journal of Physical Organic Chemistry , and Chemical European Journal . Publications reflect a strong emphasis on student collaboration, with numerous first-author contributions from her advisees. The Eisler Research Group website provides further details on ongoing projects, including molecular electronics and fluorescent sensor development.

Ann ValentineView profile

Professor

• Bioinorganic Chemistry
• Metal Homeostasis
• Iron Biochemistry
• +3 more

Ann Valentine is a Professor and Department Chair at Temple University's Department of Chemistry within the College of Science and Technology. Her research specializes in bioinorganic chemistry, particularly focusing on biologically relevant metals such as iron and titanium. Her investigations span metal uptake mechanisms, therapeutic applications of metal complexes, and biomineralization processes. Research Interests: Metal homeostasis in biological systems Development of titanium-based therapeutics Nanoparticle-biomolecule interactions Biomineralization mechanisms Environmental fate of engineered nanomaterials Her recent publications demonstrate a strong focus on titanium biochemistry, nanoparticle interactions, and microbial metal processing. Research trends include advanced characterization of metal-biomolecule complexes, nanomaterial environmental impacts, and development of metal-based therapeutics. Computational and experimental approaches are combined to study metal speciation and reactivity in biological contexts. Scientific Awards: American Cancer Society Research Scholar Award Paul D. Saltman Award for Metals in Biology Lindback Distinguished Teaching Award ACS PROGRESS/Dreyfus Lectureship Award Chemical Pioneer Award As principal investigator of the Valentine Lab, she mentors graduate and undergraduate researchers in bioinorganic chemistry. Current research is supported by grants including an NIH R01 from NIGMS. The lab utilizes spectroscopic, microbiological, and nanomaterial characterization techniques to investigate metal processing in biological systems. Laboratory Focus: Spectroscopic analysis of metalloproteins Microbial metal transformation studies Nanoparticle synthesis and characterization Molecular mechanisms of metal homeostasis

Sara SohailView profile

Assistant Professor

• Biophysical Chemistry
• Amyloid Fibrils
• Fluorescence Microscopy
• +2 more

Dr. Sara Sohail is an Assistant Professor of Chemistry & Biochemistry at Swarthmore College. She holds a B.S. in Chemistry from Haverford College, a Ph.D. in Chemistry from the University of Chicago, and completed her postdoctoral training as a Nancy Nossal Fellow at the NIH's Laboratory of Chemical Physics. Her research focuses on the physical mechanisms of amyloid assembly using advanced fluorescence techniques: Fluorescence lifetime imaging microscopy (FLIM) to characterize amyloid polymorphism Physical forces driving polymorphic amyloid assembly Functional and disease-related amyloids Peptide self-assembly pathways Nanobiomaterial applications Dr. Sohail's recent publications demonstrate a strong interdisciplinary focus combining biophysical techniques with chemical biology. Her work frequently employs single-molecule spectroscopy, FRET imaging, and computational approaches to study protein aggregation phenomena, particularly in neurodegenerative disease contexts. The research shows consistent application of ultrafast spectroscopic methods to photosynthetic systems and protein dynamics. She currently advises undergraduate researchers including Jai Rapaka and Bella Thoen in her lab, which focuses on single-fibril characterization using FLIM. Her team investigates solution conditions affecting amyloid polymorphism for both disease-related and functional amyloids.

• Geology
• Education Technology
• Cognitive Science
• +3 more

Scott Brande is an Associate Professor at the University of Alabama at Birmingham (UAB), holding appointments in the Department of Chemistry (College of Arts and Sciences) and the Department of Electrical & Computer Engineering (School of Engineering). He transitioned from the closed geology department in 1998 to chemistry, emphasizing interdisciplinary collaboration. His research focuses on geoscience education technology, cognitive science applications in teaching, and innovative educational software. He co-invented web-based teaching tools recognized in the 2012 Alabama Launchpad competition. Brande also serves on graduate committees across disciplines and engages in public outreach. Education: Ph.D. in Earth and Planetary Sciences from Stony Brook University (1979). His career spans geology, paleontology, and educational technology, with collaborations in Turkey and Israel. Professional highlights include discovering the fish species Sterropterygion brandei and analyzing the Jordan River's prehistoric hippopotamus fossils. Research interests bridge geology, education systems, and technology, emphasizing cross-disciplinary approaches. His articles explore 3D models in geoscience education, cognitive science in learning, and digital media in student engagement. He advocates against knowledge silos, integrating geology, biology, and engineering in teaching. Publications (2024) reflect ongoing contributions to analytical chemistry, environmental science, and materials innovation. His work addresses challenges in education during disruptions, such as the pandemic's impact on teaching methods. Brande remains active in entrepreneurship and community education through speaking engagements and K-12 outreach.

Jan KrabickaView profile

Lecturer

• Computer Engineering
• Electrical and Electronic Engineering
• Engineering Management
• +4 more

Dr Jan Krabicka is a Lecturer and Programme Leader in the School of Engineering at the University of Greenwich . His academic roles include coordinating courses in digital electronics, embedded systems, and engineering mathematics, as well as overseeing final-year projects and programme administration for computer engineering programmes. Previously, he served as a Research Associate at the University of Kent, where his work on combustion flame radical imaging earned him the Best Poster Prize at the 2009 Institute of Physics Conference for 'Sensors and Their Applications XV.' Dr Krabicka’s research interests span computer engineering , electrical and electronic engineering , and engineering management . His work integrates environmental sustainability with technological innovation, particularly in healthcare settings. He has developed systems to monitor energy usage and induce pro-environmental behavior in clinical environments, such as the NHS case studies highlighted in his recent publications. His earlier research focused on combustion processes, leveraging spectroscopic imaging and neural networks to predict emissions and optimize industrial processes. His publications reflect a dual focus: energy efficiency in healthcare and sensor-based solutions for industrial optimization. Key contributions include thermal imaging for occupancy monitoring, electrostatic sensors for particle velocity measurement, and persuasive technology to reduce energy costs. Dr Krabicka’s interdisciplinary approach bridges engineering, environmental science, and healthcare management, addressing both technical and human factors in sustainable systems.

Silvio MünchView profile

Researcher

• Physical Chemistry
• Catalysis
• Spectroscopy
• +3 more

Silvio Münch is a Researcher at the Institute of Physical Chemistry, University of Stuttgart. His work focuses on the spectroscopic characterization of cobalt complexes for asymmetric catalysis, aiming to elucidate reaction mechanisms and optimize catalyst design. Research interests include the application of advanced spectroscopic techniques to study electronic structures under varying conditions. His current project investigates cobalt-based catalysts to enhance understanding of their catalytic behavior. He is affiliated with the van Slageren Group and contributes to collaborative research within the Institute. No academic awards or publications are explicitly listed in the provided text.

David HungerView profile

Researcher

• Molecular Magnetism
• Single-Molecule Magnets
• Quantum Information Science
• +3 more

David Hunger is a Post-Doctoral Researcher at the Institute of Smart Sensors, University of Stuttgart, working within the van Slageren Group since 2025. His research focuses on molecular magnetism and quantum materials, with a specialization in single-molecule magnets and spin dynamics. His educational background includes: PhD in Chemistry from the University of Stuttgart (2019-2025) Master of Chemistry from the University of Stuttgart (2016-2018), with thesis on "EPR Investigations in the Strong Coupling Regime" Bachelor of Chemistry from the University of Stuttgart (2013-2016), with thesis on "Magnetic and spectroscopic investigations of tetrahedrally coordinated transition metal complexes" Hunger's research centers on the electronic structure and magnetic properties of transition metal complexes, particularly cobalt(II), iron(II), and dysprosium(III) systems. He employs electron paramagnetic resonance (EPR) spectroscopy, magnetic susceptibility measurements, and quantum chemical calculations to investigate spin-phonon coupling, magnetic anisotropy, and quantum coherence in molecular systems. His work bridges fundamental quantum physics with materials design for next-generation quantum technologies. Analysis of his 15 most recent publications (2021-2025) reveals three dominant research thrusts: (1) radical-bridged dinuclear complexes for enhanced magnetic coupling, (2) fluorine-functionalized ligands to control spin crossover behavior, and (3) cobalt-based single-molecule magnets with tailored relaxation dynamics. His publications span high-impact journals including Nature Communications , ACS Central Science , and Inorganic Chemistry , demonstrating consistent contributions to molecular quantum magnetism. As a core member of the van Slageren Group at the Institute of Smart Sensors, Hunger contributes to experimental efforts in quantum memory development and molecular spin ensemble characterization. His laboratory work focuses on synthesizing coordination compounds and measuring their magnetic and spectroscopic properties at cryogenic temperatures.

Dennis L. ParkerView profile

Professor

• Medical Imaging
• Magnetic Resonance Imaging (MRI)
• Magnetic Resonance Angiography (MRA)
• +4 more

Dennis L. Parker is a Professor in the Departments of Radiology & Imaging Sciences and Biomedical Informatics at the University of Utah. He serves as the Mark H. Huntsman Endowed Professor and founded the Utah Center for Advanced Imaging Research (UCAR), directing it from 2003–2016. His work focuses on the mathematics and physics of medical imaging , particularly MRI and MR-guided thermal therapies . Education: PhD in Medical Biophysics and Computing (University of Utah), MS in Physics (Brigham Young University), BS in Physics (Brigham Young University) Dr. Parker has pioneered MRI thermometry for thermal therapy guidance, MR angiography techniques (MOTSA), and carotid plaque analysis using diffusion-weighted MRI. His research integrates acoustic radiation force , shear wave elastography , and focused ultrasound for non-invasive interventions. Recent publications emphasize dynamic T1/T2* mapping , skull microstructure modeling , and AI-driven tissue property estimation . His work has been funded by NIH R01 grants and VA Merit Awards . Scientific Recognition: Distinguished Research Award, University of Utah (2000) Fellow, American Institute for Medical and Biomedical Engineering (2008) Fellow, International Society for Magnetic Resonance in Medicine (2015) He has mentored over 80 trainees , many of whom now hold academic positions. His Neurovascular Imaging Group develops non-invasive MRI methods to replace risky X-ray angiography, advancing global standards in vessel wall imaging and atherosclerosis detection .

Deborah O'ConnellView profile

Professor

• Low-Temperature Plasma Technology
• Plasma Medicine
• Environmental Plasma Applications
• +4 more

Prof. Deborah O'Connell is a Full Professor and Director of the National Centre for Plasma Science and Technology (NCPST) at Dublin City University (DCU). She holds a PhD from DCU and has held prestigious positions including Chair at the University of York (UK) and EU Marie Curie Fellowship at Queen’s University Belfast. Her research focuses on plasma-based technologies addressing global challenges in biomedical and environmental sectors, including plasma medicine, antimicrobial applications, and green chemistry solutions. Her work emphasizes atmospheric pressure plasmas, plasma activated liquids, and diagnostic techniques. She has pioneered advancements in plasma-jet design and reactive species control. Key achievements include the Quantemol database development and co-founding the International Conference on Data-Driven Plasma Science. Prof. O'Connell has received international recognition, including the EPS/IoP Crookes Prize (2018) and the IoP Hershkowitz Award (2013). She actively contributes to global plasma science through leadership roles in the International Plasma Chemistry Society and IUVSTA's Plasma Science & Techniques Division. Her interdisciplinary research integrates plasma physics, chemistry, and biology to advance therapies and sustainable technologies. Current work explores plasma applications in agriculture, cancer treatment, and environmental remediation.

Mark FiliaggiView profile

Professor

• Biomaterials Engineering
• Medical Device Development
• Drug Delivery Systems
• +3 more

Dr. Mark Filiaggi is a Professor affiliated with the Faculty of Dentistry and School of Biomedical Engineering at Dalhousie University. He holds cross-appointments in the Department of Radiology and is an Affiliated Scientist in the Department of Diagnostic Imaging at the QEII Health Sciences Centre. His research focuses on developing novel biomaterials for medical devices, particularly for bone-interfacing and cardiovascular applications, emphasizing materials science principles and clinical collaboration. His work integrates multidisciplinary approaches, including collaborations with basic science (Chemistry, Physics) and clinical communities (orthopaedics, interventional radiology). Key areas include phosphate glass processing for drug delivery systems targeting osteomyelitis and liver cancer, as well as surface modification strategies for metallic implants to enhance osteopromotive and antimicrobial properties. Recent publications highlight advancements in polyphosphate-based materials, drug delivery systems, and biomedical applications. His group’s research has explored hemostatic biomaterials, chemoembolization agents, and imaging-compatible materials for clinical use. Collaborative efforts emphasize translating materials science into clinical solutions, with a focus on translational medicine and patient outcomes. Dr. Filiaggi’s research has been disseminated through journals such as Acta Biomaterialia , Journal of Biomaterials Applications , and Materials Letters . His work bridges fundamental materials science with clinical applications, addressing unmet needs in orthopaedic, dental, and oncological therapies.

Ganesh PokharelView profile

Assistant Professor

• Quantum Materials
• Condensed Matter Physics
• Solid-State Chemistry
• +3 more

Ganesh Pokharel, Ph.D., is an Assistant Professor of Physics at the University of West Georgia within the Dr. Perry College of Mathematics, Computing, and Sciences. His research focuses on quantum materials with applications in energy storage and magnetism, utilizing solid-state reactions and advanced characterization techniques. Prior to this role, he held postdoctoral positions at the University of California-Santa Barbara (UCSB) and completed his education at Tribhuvan University (Nepal), the University of Memphis, and the University of Tennessee-Knoxville. Dr. Pokharel has taught a wide range of physics courses at both high school and university levels, including introductory physics, experimental physics, and materials science. He actively mentors students in research programs such as the Quantum Foundry summer internship at UCSB, emphasizing hands-on experimental learning and integration of cutting-edge technologies into curricula. His research interests span the synthesis and characterization of magnetic materials, charge density wave phenomena in kagome metals, and topological electronic states. Recent work includes studies on Fermi surface reconstruction under pressure, nanoscale charge order visualization, and the interplay between electronic and structural phases in quantum materials. Dr. Pokharel’s advising and grant activities include coordinating mentorship programs for undergraduate researchers and contributing to initiatives in materials synthesis and high-pressure crystal growth. He is affiliated with laboratories exploring advanced materials characterization techniques and has collaborated on projects involving neutron scattering, angle-resolved photoemission, and in situ spectroscopic methods.

Jena JohnsonView profile

Assistant Professor

• Geomicrobiology
• Geochemistry
• Sedimentology
• +3 more

Jena Johnson is an Assistant Professor in the Department of Earth and Environmental Sciences at the University of Michigan, part of the College of Literature, Science, and the Arts (LSA). She holds a Ph.D. in Geobiology from the California Institute of Technology (2015). Her research focuses on understanding the interplay between geology, chemistry, and biology, particularly how microbial activity shaped Earth’s early environments. Central themes include reconstructing the record of early life through geochemical analysis of Precambrian rocks and modern microbial experiments, with emphasis on iron and manganese cycles. Her work employs advanced techniques like microscale and nanoscale geochemistry to study ancient sedimentary rocks and modern mineralizing microbes. Notable contributions include proposing iron as life’s original transition metal, challenging assumptions about early ocean chemistry. She leads the Microbe-Mineral Lab, committed to DEI initiatives in academia, emphasizing anti-racist practices and inclusive science. Recent publications highlight diagenetic processes in banded iron formations, dissolved silica’s role in iron redox dynamics, and metal availability in ancient seas. Her lab integrates fieldwork, experimental simulations, and theoretical modeling to address fundamental questions in Geobiology. Collaborations span institutions like Caltech and UCLA, reflecting interdisciplinary approaches to Earth’s history.

Marco ConteView profile

Lecturer

• Analytical Chemistry
• Physical Chemistry
• Catalysis
• +3 more

Dr. Marco Conte is a Lecturer in Physical Chemistry at the University of Sheffield, affiliated with the School of Mathematical and Physical Sciences. He specializes in catalysis, analytical chemistry, and physical chemistry, focusing on scale-up applications. He holds a Laurea in Chemistry from the University of Padova (2003) and a PhD from Cardiff University (2006). His postdoctoral research included roles at the University of York, Cardiff School of Chemistry, Cardiff Catalysis Institute, and Rutherford Appleton Laboratories. Since 2013, he has been at Sheffield, expanding his role from teaching to include research in physical chemistry and catalysis. His research focuses on developing novel heterogeneous catalysts for sustainable chemical processes, including fine chemical synthesis, hydrogen production, and biomass-to-fuel conversion. Techniques employed include advanced spectroscopic methods like NMR, EPR, and XPS. He has over 50 publications, an H-index of 30, and 4,000+ citations. He serves on the editorial board of Molecular Catalysis . Teaching interests include physical chemistry, catalysis, and sustainable technologies. He teaches modules such as Chemistry at Surfaces and Physical Chemistry of Heterogeneous Catalysis , emphasizing communication of scientific concepts to non-specialists. Awards: MRSC (Royal Society of Chemistry), FHEA (Fellow of the Higher Education Academy). Lab/Research Group: Focuses on catalyst design and sustainable chemical processes.

Sunil SaxenaView profile

Professor

• Pulsed Electron Spin Resonance
• Protein-DNA Interactions
• Biomolecular Dynamics
• +2 more

Sunil Saxena is Professor of Chemistry at the University of Pittsburgh's Dietrich School of Arts and Sciences. His research develops pulsed electron spin resonance (ESR) methods to study protein-DNA interactions, biomolecular dynamics, and conformational changes in biological systems. The Saxena Group innovates ESR methodology for distance measurements (1-9 nm) in spin-labeled complexes and pioneered site-directed Cu(II) labeling for proteins and nucleic acids. This enables direct measurement of protein backbone dynamics and high-precision structural analysis. Research combines spectroscopy with molecular dynamics simulations to investigate transcriptional regulation and enzyme mechanisms. Awards and leadership roles include Vice-President of the International ESR/EPR Society (2025-2028), Provost's Award for Doctoral Mentoring (2024), and NSF CAREER Award (2004-2009). The lab trains students in interdisciplinary techniques spanning spectroscopy, molecular modeling, and protein biochemistry.