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Thomas M. ErnstView profile

Professor

• Magnetic Resonance Imaging (MRI)
• Magnetic Resonance Spectroscopy (MRS)
• Prospective Motion Correction
• +4 more

Dr. Thomas M. Ernst is a Professor in the Department of Diagnostic Radiology and Nuclear Medicine at the University of Maryland School of Medicine. He serves as Technical Director of the Center for Advanced Imaging Research (CAIR) and leads multi-institutional research programs in magnetic resonance imaging (MRI) and spectroscopy (MRS), focusing on prospective motion correction and pediatric neuroimaging. His work spans clinical applications in HIV, drug abuse, and post-COVID-19 brain effects. Education : PhD in Physics (University of Freiburg, Germany), Post-Doctoral Fellowship in MR Spectroscopy (HMRI/Caltech) Research Interests : Dr. Ernst specializes in advanced MRI/MRS techniques to study brain development, motion correction in neuroimaging, and neurological impacts of HIV, methamphetamine abuse, and post-COVID-19 conditions. His lab develops real-time adaptive MRI methods to eliminate motion artifacts. Recent Publications highlight trends in genome-wide association studies of visceral fat , neurovirology of long-term COVID-19 effects , and innovations in diffusion-weighted imaging . Scientific Awards : Fellow, International Society for Magnetic Resonance in Medicine (2011); Deputy Editor, Magnetic Resonance in Medicine (2013). Grants : He leads NIH/NIDA-funded projects including the Adolescent Brain Cognitive Development (ABCD) Study and neural correlates of working memory training in HIV patients. Past grants include a Bioengineering Research Partnership (BRP) for motion correction techniques. Labs : Dr. Ernst directs the Center for Advanced Imaging Research (CAIR) at UMB, collaborating with institutions like Johns Hopkins and the University of Freiburg. His lab works on commercializing motion correction technologies via KinetiCor Inc.

Thomas Günther-PomorskiView profile

Professor

• Membrane Protein Biophysics
• Lipid Transport Mechanisms
• P-type ATPases
• +4 more

Thomas Günther-Pomorski serves as Full Professor at Ruhr-University Bochum and holds a part-time position at the University of Copenhagen's Department of Plant and Environmental Sciences (Section for Transport Biology). His research bridges plant biology and membrane biophysics, focusing on molecular mechanisms of lipid transport. His primary research interests include: Biophysical characterization of membrane proteins Function and dynamics of P4 ATPases in vesicular transport Molecular analysis of P-type ATPases ABC protein roles in sterol transport Plant plasma membrane H⁺-ATPase mechanisms Recent publications (2023-2025) demonstrate advanced methodologies including single-vesicle analysis , fluorescence-based flippase assays , and giant unilamellar vesicle reconstitution . Key trends show increasing focus on lipid-protein interactions , membrane asymmetry , and quantitative sterol analysis with applications in cellular trafficking and plant physiology. Professional activities include organizing the 9th Yeast Lipid Conference (2009) and presenting on lipid pump mechanisms at international venues. His ORCID profile (0000-0002-4889-0829) documents extensive collaborative work across membrane biology disciplines.

• Cognitive Neuroscience
• Brain Stimulation
• Decision-Making
• +3 more

Dr. Shane Edward Ehrhardt is a cognitive neuroscientist at the School of Psychology, The University of Queensland, specializing in brain stimulation and cognitive enhancement. His research integrates transcranial direct current stimulation (tDCS), neuroimaging, and neurochemical analysis to investigate learning generalization and decision-making mechanisms. Education: PhD in Psychology, The University of Queensland (2023) Dr. Ehrhardt's research centers on cognitive neuroscience with emphasis on neuromodulation techniques and individual differences . His work examines how prefrontal cortex stimulation interacts with neurochemical profiles (GABA/glutamate) and cortical morphology to influence cognitive training transfer. Key methodologies include multimodal neuroimaging (fMRI, MRS, DTI), computational modeling of decision processes, and rigorous behavioral paradigms assessing multitasking and learning generalization. Analysis of his 12 publications (2019-2025) reveals consistent focus on tDCS parameter optimization , neurochemical predictors of response , and structural brain correlates of cognitive enhancement. His work demonstrates that individual differences in cortical morphology and neurochemistry critically determine stimulation efficacy, with significant implications for personalized cognitive interventions. Dr. Ehrhardt actively collaborates within UQ's cognitive neuroscience group, particularly with Professor Paul Dux and Dr. Hannah Filmer, utilizing shared resources including 3T MRI facilities and specialized neurostimulation laboratories. His research program integrates computational modeling with multimodal neuroimaging to develop mechanistic accounts of cognitive enhancement.

Kenneth R. PoeppelmeierView profile

Professor

• Inorganic Solid-State Chemistry
• Transparent Conductors
• Oxide-Fluoride Materials
• +5 more

Professor Kenneth R. Poeppelmeier, the Charles E. & Emma H. Morrison Professor of Chemistry at Northwestern University, is a leading figure in inorganic solid-state chemistry. His research spans synthesis, structure, and properties of oxide and oxide-fluoride materials with applications in energy, catalysis, and electronics. He obtained his B.S. from the University of Missouri (1971) and Ph.D. from Iowa State University (1978), followed by industrial experience at Exxon (1978-1984). His group develops innovative synthetic methods like hydrothermal and flux growth to create materials for transparent conductors, battery cathodes, and non-linear optical devices. Research Focus : Transparent conductors (ZITO), oxide-fluorides (SVOF), solid oxide fuel cells (LSFeCr anodes), noncentrosymmetric materials, and catalytic oxides Techniques : Hydrothermal synthesis, flux growth, microwave-assisted synthesis, combinatorial exploration Collaborations : Materials Research Science and Engineering Center (MRSEC), Argonne-Northwestern Solar Energy Research Center (ANSER), Center for Inverse Design His group's work on Ag4V2O6F2 (SVOF) for implantable medical device batteries highlights his translational impact. Recent publications emphasize polar distortions in [MOxF6-x] anions, high-pressure synthesis, and p-type transparent conductors. Awards include AAAS Fellowship (1993), NSF Creativity Extension Award (2000-2002), and recognition by the Spanish National Academy (2016). He has mentored over 50 graduate students and postdocs, including current Ph.D. candidates Makayla Baxter and Patrick Ding. Collaborations with theorists (James Rondinelli) and industrial partners (Air Products, Argonne National Lab) underline his interdisciplinary approach. His lab (Tech GG23-GG33) explores materials for energy storage, catalysis, and optical applications.

Victor Torben Rene JacobsenView profile

Researcher

• Solid Oxide Fuel Cells
• Electrochemistry
• Material Science
• +3 more

Victor Torben Rene Jacobsen is a researcher at the Department of Chemistry , Technical University of Denmark (DTU), specializing in electrochemical systems and material science. His work primarily focuses on degradation mechanisms in solid oxide fuel cells (SOFCs) and electrolysis cells, particularly Ni migration in electrodes and interfacial dynamics in PtIr-YSZ systems. His research interests include: Solid Oxide Fuel Cells (SOFCs) and Electrolysis Cells Dielectric Spectroscopy Material degradation and polarization effects Intermetallic compounds and cermet electrodes Oxide compound stability under operational conditions Recent publications highlight his contributions to understanding Ni migration trends, electrode passivation, and structural-performance correlations in SOFC anodes. He collaborates with institutions across Denmark and beyond, with a strong emphasis on sustainable energy technologies aligned with UN SDGs like affordable clean energy (SDG 7) and industry innovation (SDG 9). As a main supervisor for multiple PhD projects, he mentors graduate researchers in topics related to intercalation reactions, lithium-based materials, and advanced oxidation processes. His work involves experimental techniques such as scanning electron microscopy and impedance analysis.

• Deep Learning
• Computer Hardware
• Biomedical Signal Processing
• +3 more

Zhenya Zang is a researcher specializing in deep learning applications for biomedical optics and hardware-accelerated signal processing, with recent focus on diffuse correlation spectroscopy for medical diagnostics. Education PhD completed January 2025 with thesis: "Towards highly efficient algorithms and hardware architecture design for single-photon signal processing" Research Focus Zang's work bridges computer science and biomedical engineering through: Development of back-propagation-free neural network algorithms Hardware-embedded data processors for real-time imaging Optimization of deep learning architectures for optical diagnostics Extreme learning machine implementations in medical hardware Publication Trends 2025 research demonstrates a clear trajectory toward deployable medical AI systems, emphasizing hardware-software co-design to solve latency challenges in blood flow monitoring. Key innovations include convolutional neural network adaptations for diode array sensors and accuracy-focused detection frameworks. Scientific Awards No awards documented in available records. Grants & Collaboration Researcher on "Smart Hardware-embedded Data Processors for Rapid 3D Ranging & Imaging" (2019-2022), a studentship project led by Principal Investigator D. Li Current work shows no student supervision activity. Research Infrastructure Publications indicate work within embedded hardware development environments for medical imaging, though specific laboratory affiliations remain undocumented.

Nicola ColonnaView profile

Researcher

• Computational Materials Science
• Electronic Structure
• Koopmans Functionals
• +1 more

Nicola Colonna is a Tenure Track Scientist (mapped to Researcher) at Paul Scherrer Institute's Laboratory for Materials Simulations. Focuses on Koopmans spectral functionals and electronic structure theory. Research develops computational methods for predicting electronic properties of quantum materials, perovskites, and nanoporous systems using orbital-density-dependent functionals. Recent publications (2021-2024) demonstrate: 60% focus on Koopmans functional methodology development, 25% on perovskite electronic structures, and 15% on quantum material characterization. Common themes include spectral accuracy, high-throughput screening, and validation against experimental benchmarks. Software Development: Contributed to open-source koopmans package for spectral property prediction.

• Cementitious Materials
• Concrete Durability
• Carbonation Mechanisms
• +6 more

Philippe Turcry is a Teacher-Researcher at the University of La Rochelle, affiliated with the E3-TDVM research team. His work focuses on reactive transfers in porous media, cementitious materials, and the durability of reinforced concrete structures. He leads significant research on carbonation mechanisms, concrete formulation with recycled materials, and environmental impact assessment of construction technologies. Research interests center on sustainable construction materials, including: Carbonation kinetics and CO 2 sequestration in cement-based systems Durability modeling of concrete structures under corrosion Valorization of construction waste through advanced recycling techniques Multi-scale analysis of transport phenomena in porous media Development of low-environmental-impact concretes His publication portfolio demonstrates consistent focus on concrete durability and sustainability, with recent emphasis on recycled aggregate performance, accelerated carbonation techniques, and computational modeling of degradation processes. Dominant themes include CO 2 uptake quantification, microstructural analysis of carbonated materials, and AI applications in material characterization. Major research projects include: FASTCARB (Accelerated carbonation of recycled aggregates) PERFDUB (Performance-based durability of concrete structures) ECOCORAIL (Sustainable marine materials for coastal preservation) ECOBETON (Low-environmental-impact concrete) MODEVIE (Modeling aging of concrete structures) Supervised doctoral researchers include Mouna Boumaaza (gas diffusivity in cementitious materials) and Anas El Farissi (service life prediction of reinforced concrete). Collaborates extensively with national research consortia and industry partners on sustainable construction initiatives.

Mark DeanView profile

Researcher

• Quantum Materials
• Resonant Inelastic X-ray Scattering (RIXS)
• Complex Oxides
• +4 more

Mark Dean is a Physicist with Tenure at Brookhaven National Laboratory's Condensed Matter Physics and Materials Science Department , leading the Dynamics and Control research program. His work focuses on quantum materials , including high-temperature superconductors , spin-orbit coupled systems , and non-equilibrium states . Education : Ph.D. in Physics (University of Cambridge, 2010), M.Sci. in Physics (University of Nottingham, 2006) Dean's research centers on resonant inelastic x-ray scattering (RIXS) to unravel electronic and magnetic excitations in quantum materials. His recent work explores machine learning integration for Hamiltonian inference and ultrafast dynamics in van der Waals antiferromagnets and nickelates . His scientific awards include: Distinction of Tenure (BNL, 2022) American Physical Society Outstanding Referee Department of Energy Early Career Award Dean actively collaborates on quantum material characterization using advanced x-ray facilities, mentoring junior researchers in RIXS methodology and quantum heterostructure analysis .

Eric SenningView profile

Assistant Professor

• Molecular Biology
• Genetics & Genomics
• Electrophysiology
• +7 more

Eric Senning is an Assistant Professor in the Department of Neuroscience at the University of Texas at Austin, where he leads the Senning Lab focused on TRPV1 ion channel mechanisms in nociceptors. His research integrates biophysics, fluorescence imaging, and electrophysiology to investigate pain sensation pathways. Dr. Senning's educational background includes: B.A. in Biochemistry from Colorado College Ph.D. in Chemistry from the University of Oregon (research on mitochondrial transport using Fourier Imaging Correlation Spectroscopy) Postdoctoral fellowship at the University of Washington under Dr. Sharona Gordon studying TRPV1 with single-molecule fluorescence and electrophysiology The Senning Lab investigates TRPV1 regulation through three interconnected frameworks: (1) polymodal activation by capsaicin, heat, acid, and oxidation; (2) inflammatory modulation via calcium and PIP2 signaling; and (3) spatial recruitment mechanisms in pseudo-unipolar nociceptors. The lab employs cutting-edge techniques including tmFRET, single-molecule imaging, and electrophysiology to dissect channel dynamics at molecular resolution. Dr. Senning's publication record (2010-2019) reveals a cohesive trajectory in TRPV1 biophysics, emphasizing phosphoinositide regulation, membrane asymmetry effects, and structural organization. His work consistently bridges molecular mechanisms with physiological pain responses through advanced optical methodologies. Scientific Awards: No individual awards documented in source materials Dr. Senning actively mentors undergraduate researchers like Grace (Dean's Honored Graduate for TRPV1 variant research), graduate students, and postdoctoral fellows. His lab recruits across academic levels for projects spanning ion channel biophysics and pain mechanisms, supported by institutional resources within UT Austin's neuroscience infrastructure. The Senning Lab operates as an interdisciplinary biophysics team utilizing specialized fluorescence microscopy and electrophysiology platforms. Current work focuses on TRPV1 spatial organization in sensory neurons, with implications for developing targeted analgesics through precise channel modulation.

Pui-man LamView profile

Professor

• Statistical Physics
• Theoretical Biophysics
• Surface Growth
• +3 more

Dr. Pui-man Lam serves as a Professor in the Department of Physics at Southern University and A&M College, Baton Rouge. His academic career spans over four decades, with significant contributions to statistical physics and theoretical biophysics through computational and theoretical research. His educational qualifications include: B.S. in Physics from San Diego State University (1972) Ph.D. in Physics from Washington University (1977) Dr. Lam's research focuses on statistical physics, theoretical biophysics, and surface growth phenomena. He utilizes Monte Carlo simulations to investigate epitaxial growth, kinetic roughening, polymer scaling, percolation theory, and ground-state properties of liquid helium. His work often bridges theoretical models with computational approaches to unravel complex physical systems. An analysis of his publication record indicates a strong emphasis on Monte Carlo methods applied to biophysical systems (such as DNA dynamics) and surface growth. His articles consistently explore critical phenomena, scaling laws, and the statistical mechanics of polymers and surfaces, demonstrating a cohesive research trajectory from the 1980s through the 2000s. Dr. Lam has supervised numerous master's theses and undergraduate research projects. In teaching, he covers undergraduate courses including General Physics for science majors, Intermediate Electrodynamics, and Physics for non-science majors, as well as graduate courses in Mathematical Methods and Statistical Mechanics. No specific scientific awards are mentioned in the provided information.

• Fluorescence Correlation Spectroscopy
• Polymer Science
• Colloid Science
• +4 more

Dr. Kaloian Koynov serves as a Group Leader at the Max Planck Institute for Polymer Research in Mainz, Germany, where he leads the Fluorescence Correlation Spectroscopy group and heads the Mechanical/Dielectric Properties service laboratory. His position places him at the forefront of polymer and materials research within one of Europe's premier scientific institutions. Dr. Koynov's educational background includes a physics diploma from Sofia University (1993) followed by a doctorate from the same institution (1997) with research on cascaded nonlinear optical processes. His postdoctoral career included work at the Institute of Fundamental Electronics at the University of Paris Sud and as an EU Marie Curie Fellow at the MPI for Polymer Research. His research focuses on applying Fluorescence Correlation Spectroscopy to study molecular mobility in diverse environments including polymer melts, hydrogels, and biological fluids. His work has significant applications in drug delivery systems, particularly for monitoring nanocarriers in blood plasma and whole blood. Additional research interests include microscopy of sliding droplets, thermo-mechanical properties of polymer materials, and nonlinear photonic crystals. Analysis of his recent publications (2018-2022) reveals a strong emphasis on biomedical applications of FCS, particularly in characterizing drug nanocarriers and their behavior in biological systems. His work spans multiple disciplines including polymer science, nanotechnology, and biomedical engineering, demonstrating interdisciplinary research that bridges fundamental physics with practical medical applications. EU Marie Curie Fellowship As group leader, Dr. Koynov oversees research projects investigating macromolecular materials and their properties. His Mechanical/Dielectric Properties service laboratory provides characterization facilities for researchers studying polymer materials. His collaborative approach is evident in his numerous co-authored publications with researchers across multiple institutions. The FCS Group under his leadership develops and applies fluorescence correlation spectroscopy techniques to address questions in polymer, colloid, and interface science, with particular focus on understanding molecular behavior at interfaces and in complex biological environments.

Peter SimpsonView profile

Professor

• Positron Annihilation Spectroscopy
• Silicon Photonics
• Space Weathering
• +3 more

Prof. Peter Simpson is a Professor in the Department of Physics and Astronomy at the University of Western Ontario. He leads the Positron Beam Laboratory, which uses positron annihilation spectroscopy to study defects in electronic materials. His research focuses on silicon photonics, space weathering, and defect engineering in semiconductors. Collaborations with industry and universities explore novel materials and processing techniques, including ion implantation simulations of space weathering effects and positronium formation in polymers. Students gain expertise in advanced experimental methods through projects involving nanocrystal characterization and defect analysis. Research interests include quantum confinement in nanocrystals, vacancy dynamics, and the development of optical materials for silicon-based technologies. His work bridges fundamental physics and applied engineering, addressing challenges in semiconductor device miniaturization and optoelectronic systems. The laboratory employs cutting-edge techniques such as positron beam analysis and transmission electron microscopy to study material microstructure at atomic scales. Key projects: Space weathering simulations, silicon nanocrystal luminescence, and void formation in semiconductors Techniques: Positron annihilation, ion implantation, and advanced microscopy Collaborations: Interface Science Western and planetary science teams Publications highlight advancements in defect characterization, quantum dot properties, and the interplay between vacancy structures and material performance. Graduate and undergraduate opportunities are available in experimental condensed matter physics, emphasizing hands-on training in high-tech methodologies.

Patrick EppenbergerView profile

Associate Professor

• Evolutionary Medicine
• Paleopathology
• Medical Imaging
• +5 more

Patrick Eppenberger Patrick Eppenberger is an Associate Professor and co-head of the Evolutionary Pathophysiology and Mummy Studies Group at the University of Zurich's Institute of Evolutionary Medicine. He holds a dual background in industrial design and medicine, with a doctorate in medicine (2012), an Executive MBA (2024), and a Habilitation thesis (2023) focused on medical imaging of ancient human remains. His research integrates evolutionary medicine, paleopathology, and advanced imaging technologies to study human health evolution and ancient diseases. Education & Background: Industrial Design Degree, Zurich University of Art and Design (2002) Medical Doctorate, University of Zurich (2012) Executive MBA, University of Zurich (2024) Habilitation Thesis: 'Adaptation of medical imaging modalities for the diagnostic evaluation of ancient human remains' (2023) Research Focus: Eppenberger’s work spans evolutionary medicine, non-communicable disease epidemiology, and the application of cutting-edge imaging techniques (CT, MRI, Raman spectroscopy) to analyze ancient human remains. Key projects include: SNF Weave/Lead Agency project on the PIEZO1 ion channel’s role in red blood cell physiology Experimental mummification and paleoradiology studies Global demographic and economic trends analysis via geospatial methods Imaging Facilities: He leads the IEM Clinical & Investigational Imaging Lab , equipped with portable and advanced stationary imaging systems for on-site archaeological studies and clinical diagnostics. Grants & Collaborations: Co-Principal Investigator in the PIEZO1 ion channel project International collaborations in Egyptology, Japanese mummy studies, and medieval dental anthropology Labs & Teams: His lab develops interdisciplinary methods for studying ancient populations, including multi-modal imaging and experimental replication of embalming techniques.

Silviya ZustiakView profile

Professor

• Hydrogel biomaterials
• Tissue engineering
• Drug delivery systems
• +6 more

Silviya Zustiak is a Professor and Associate Chair in the Department of Biomedical Engineering at Saint Louis University (SLU), where she also serves as Co-Director of the Institute of Drug and Biotherapeutic Innovation. She holds a joint appointment in Pharmacology and Physiology. Her research focuses on hydrogel biomaterials for drug delivery, tissue engineering, and regenerative medicine. Dr. Zustiak earned a Ph.D. in Chemical and Biochemical Engineering from the University of Maryland Baltimore County (UMBC) and conducted postdoctoral studies in Biophysics at NIH. She completed her B.S./M.S. in Bioelectrical Engineering at Sofia Technical University, Bulgaria. Her educational background includes interdisciplinary training in engineering, materials science, and biology. Research interests span biomaterials design, cell-matrix interactions, and translational applications in oncology and musculoskeletal disorders. Her lab, the Zustiak Soft Tissue Engineering Laboratory, develops injectable hydrogels and nanocomposites for therapeutic delivery and 3D cell culture platforms. Key research trends in her articles include advancing hydrogel-based drug delivery systems (e.g., for Morquio syndrome, osteoarthritis), modeling tumor microenvironments using 3D spheroids, and optimizing biomaterial properties for clinical translation. Recent work explores super-lubricious hydrogels for joint therapy and nanosilicate composites for sustained drug release. Awards: 2023 SLU Women’s Commission Woman of the Year, NIH FARE Award (2011), SLU Scholarly Works Award (2018) Leadership: Keynote speaker at Society of Engineering Science (2019), Director of SLU’s drug innovation institute Dr. Zustiak’s work bridges engineering and medicine, with collaborative projects in drug screening platforms, immunotherapy biomaterials, and bioreactor systems. Ongoing efforts include FDA-ready hydrogel depots for enzyme replacement therapy and microfluidic devices for high-throughput cell culture.