John J. Sunderland is an Associate Professor at the University of Iowa with primary appointments in the Department of Radiology and secondary appointments in the Department of Physics and Astronomy. As Director of the PET Imaging Center, he spearheads advancements in positron emission tomography, nuclear spectroscopy, and image analysis algorithms. Institution: University of Iowa Academic Rank: Associate Professor Departments: Radiology, Physics and Astronomy Research Interests His research focuses on medical physics, particularly in radiation detector development, physiological modeling of radiopharmaceutical kinetics, and cross-disciplinary collaboration between engineers, physicians, and physicists. Current projects emphasize improving PET scanner calibration, reducing dosimetry variability, and integrating artificial intelligence into nuclear medicine. Article Trends Recent publications highlight innovations in PET/CT standardization, Monte Carlo-based dosimetry, and AI-driven image analysis. Key subfields include radiopharmaceutical safety, image harmonization, and computational modeling for precision therapies. Labs & Facilities The PET Imaging Center at Iowa houses a medical cyclotron, three hybrid PET/CT scanners, and a research-dedicated PET scanner, supporting multidisciplinary training in cyclotron operations, imaging software, and simulation tools.
Mark A. Arnold is the Edwin B. Green Professor in Laser Chemistry and Director of the Center for Biocatalysis and Bioprocessing at the University of Iowa. He holds a PhD from the University of Delaware and a BS from Indiana University-Purdue University Indianapolis. His primary affiliation is with the Department of Chemistry within the College of Liberal Arts and Sciences. His research focuses on developing spectroscopic chemical sensors for real-time, noninvasive monitoring of analytes in complex biological and environmental matrices. Key areas include noninvasive blood glucose sensing for diabetes management, terahertz spectroscopy for gaseous analytes, and near-infrared monitoring of bioprocesses. Innovations include the Kromoscopy technique for high-signal-to-noise measurements and radioluminescent sensors for long-term stability. Publications highlight advancements in bioprocess optimization (e.g., Pichia pastoris antibody production), material characterization via terahertz spectroscopy, and instrumental innovations like Hadamard transform-based chemical imaging. Collaborations with the Fraternal Order of Eagles Diabetes Research Center extend his work to clinical applications. Awards and grants are not explicitly listed in the provided materials. His advisory role involves directing interdisciplinary teams at the Arnold Research Group and the Center for Biocatalysis, focusing on biocatalytic processes, sensor development, and translational research. Infrastructure includes access to advanced facilities like the Iowa Advanced Technology Laboratories.
Dr. Yixin Liu is an Assistant Professor in Chemical Engineering and Affiliated Assistant Professor in Biomedical Engineering at Michigan Technological University. She holds a PhD from the University of Connecticut and previously worked at ABB US Corporate Research Center. Her research specializes in chemical/biosensors, nanomaterials, and data-driven sensor optimization. Key areas include non-enzymatic glucose detection, cortisol monitoring, and gas/explosive sensing using advanced materials (e.g., laser-induced graphene, carbon nanotubes). She develops electronic nose/tongue systems and applies machine learning for sensor analytics. Liu teaches Fundamentals of Chemical Engineering and serves as a reviewer for leading materials science journals. Her industrial experience informs product-translatable sensor designs.
Al N. Yvette is a Researcher affiliated with Demovivo University. Their work spans interdisciplinary research in Ecology, Mathematics, Chemistry, Psychiatry, Biology, and Neuroscience. They have contributed to over 30 publications across prestigious journals like the Journal of Ecology, Acta Mathematica, and Science. Research Interests: Dr. Yvette's research focuses on the intersection of ecological systems, mathematical modeling, and biomedical applications. Their work emphasizes quantitative approaches to environmental challenges, theoretical frameworks in biology, and clinical psychiatry innovations. Key areas include ecosystem dynamics, mathematical ecology, and neurobiological mechanisms. Publications Trends: The top 15 articles reflect a strong emphasis on ecological modeling, mathematical applications in biological systems, and translational research in psychiatry. Themes like climate impacts, neural networks, and drug design are recurrent. Grants and Advising: No specific grants or advisees are listed in the provided data. Collaborations include cross-disciplinary projects with co-authors from diverse fields. Labs/Teams: No formal lab associations are mentioned, though collaborations with international networks are implied through co-authorship patterns.
Dr. Emma Morrison is an Assistant Professor in the Department of Biochemistry at the Medical College of Wisconsin. She holds a PhD in Molecular Biophysics from Washington University in St. Louis and a BA in Chemistry from Johns Hopkins University. Her postdoctoral training at the University of Iowa focused on chromatin regulation, where she studied nucleosome structure and dynamics. Dr. Morrison’s research explores molecular mechanisms of chromatin regulation, particularly the role of histone tails in nucleosome function. She uses biophysical techniques like NMR spectroscopy to investigate histone tail conformation, accessibility, and interactions with regulatory machinery. Her work highlights how histone post-translational modifications (PTMs) and variants modulate nucleosome dynamics, impacting gene regulation and human health. Key findings include the reduced accessibility of histone tails within nucleosomes and the influence of histone tails on phase separation. Dr. Morrison has been awarded a Beckman Foundation fellowship for her postdoctoral research. Her lab develops protocols for nucleosome reconstitution and employs interdisciplinary approaches to advance chromatin biology. Major interests: Nucleosome structure, histone PTMs, chromatin accessibility, biophysical methods Techniques: NMR spectroscopy, molecular dynamics simulations Awards: Arnold and Mabel Beckman Foundation Fellowship (2014-2019) Lab focus: Quantitative analysis of histone tail dynamics in chromatin contexts. Collaborates on projects involving histone variants, epigenetic modifiers, and disease mechanisms.
Jochen Kolb is Professor at the Institute of Applied Geosciences at Karlsruhe Institute of Technology (KIT), serving as spokesperson for Geological Resources at KIT's Climate and Environment Center. His research program addresses critical geological resources and mineral deposit formation. Research focuses on: Critical metal enrichment mechanisms in carbonatites and brines Geothermal systems as sources of raw materials Ore-forming processes in volcanic and hydrothermal systems Advanced geochemical exploration methods Tectonic controls on mineralization Recent publications emphasize lithium resource characterization, rare earth element enrichment processes, and seafloor massive sulfide formation. His work integrates field geology with cutting-edge analytical techniques like LA-ICP-MS geochronology and fluid inclusion analysis to develop mineral exploration models. Kolb leads research on geothermal brines in the Upper Rhine Graben and coordinates international projects on critical mineral resources. His group develops innovative lithium extraction technologies and resource assessment methodologies.
Associate Professor of Biology at Clark University specializing in mathematical models of gene regulation. PhD in Mathematics and Quantitative Biology from Michigan State University. Research integrates computational approaches with biological experimentation to understand transcriptional mechanisms. Research focuses on quantitative analysis of gene regulatory networks in Drosophila, employing reaction-diffusion modeling, parameter estimation, and bioinformatics. Current projects investigate enhancer-promoter interactions and transcriptional dynamics during embryonic development. Teaching responsibilities include Calculus, Linear Algebra, Differential Equations, Numerical Analysis, and Mathematical Biology courses.
Dr. José Paulo Domingues is an Assistant Professor in the Department of Physics at the University of Coimbra, affiliated with the Faculty of Sciences and Technology. He has held this position since 1998, following earlier roles as a Researcher at CNC.IBILI and academic positions since 1984. His research focuses on biomedical optics and medical imaging, particularly in developing novel instrumentation for corneal and retinal diagnostics. He earned his PhD in Physics from the University of Coimbra in 1998 with a thesis on ocular fluorescence instrumentation, which received the 'Distinção e Louvor por Unanimidade' award. His academic contributions include advanced projects funded by the Portuguese Foundation for Science and Technology (FCT), such as optical coherence elastography for retinal imaging and corneal nerve analysis for diabetes diagnosis. He has coordinated the Integrated Master's in Engineering Physics and held leadership roles in academic governance, including membership in the Scientific Committee and Pedagogical Council. His work spans optical coherence tomography (OCT), fluorescence lifetime imaging (FLIM), and biomedical instrumentation for clinical applications. Research interests include non-invasive diagnostic tools, tissue elasticity studies, and corneal metabolism analysis. Key projects include the neuroCornea initiative for early diabetes detection and the ElastoOCT project for retinal mechanical property imaging. His articles address technical advancements in biomedical optics, such as phase-stabilized OCT setups and algorithms for tissue displacement estimation. Dr. Domingues has received continuous research funding since 1996, including grants for developing laser Doppler flowmeters and fluorescence lifetime microscopes. He has advised numerous collaborative projects and contributed to educational initiatives, such as Arduino-based programming pedagogy. His lab's innovations in medical imaging hardware and software have advanced clinical applications in ophthalmology and biomedical engineering.
Arron Carter is a Professor and O.A. Vogel Endowed Chair of Wheat Breeding and Genetics at Washington State University (WSU), part of the College of Agricultural, Human, and Natural Resource Sciences (CAHNRS) and the Department of Crop and Soil Sciences . He leads the winter wheat breeding and genetics program, focusing on developing high-yielding, disease-resistant wheat varieties with superior end-use quality for Pacific Northwest agriculture. Education: PhD in Crop Science (WSU, 2009), MS and BS in Plant Science (University of Idaho, 2006 and 2003). Research Interests: Winter wheat genetics, molecular breeding, high-throughput phenotyping (UAVs/sensors), stripe rust resistance, water-use efficiency, and end-use quality traits like baking performance. His work integrates genomic selection, remote sensing, and biotechnology to enhance wheat adaptation to climate variability. Awards: 2023 Outstanding Paper-Original Research (co-author) for editorial on crop genetics advancements. Advising & Grants: Supervises graduate students and postdocs; leverages USDA grants for phenotyping and genomic technologies. Collaborates with USDA-ARS and industry on breeding programs. Labs/Teams: Leads the WSU Winter Wheat Breeding Lab, Spillman Agronomy Farm trials, and interdisciplinary teams in precision agriculture and genomics.
Uzay Emir is a Joint Associate Professor in Radiology at UNC-Chapel Hill, with cross-institutional roles including Principal Investigator at the University of Oxford and prior experience as an Assistant Professor at Purdue University. His research focuses on advancing MRI/MRS methodologies for neurodegenerative disease biomarker discovery, particularly using ultra-short echo time (UTE) and Rosette trajectory-based imaging techniques. Emir's work emphasizes translational applications across preclinical and clinical settings, including 3T to 9.4T field strengths. He pioneered the PETALUTE sequence for accelerated phosphorus spectroscopic imaging and led the multicenter 'Repeat it with me challenge' for test-retest reproducibility in Rosette MRI(S)I. His innovations include density-weighted concentric ring trajectories and 3D Rosette-based methods for brain iron content mapping and myelin fraction analysis. Research interests span neurochemical profiling, metabolic imaging, and functional MRI-fMRS integration at 7T. Education: PhD in imaging modalities (fMRI signal transients), postdoctoral training in MRS methods at the University of Minnesota's Center for Magnetic Resonance Research Key Methods: UTE MRI/MRSI, Rosette trajectory, 31P-MRSI, PETALUTE sequence Key Projects: ME/CFS metabolic studies, lead toxicity neuroimaging, sodium cartilage quantification Research trends in his articles highlight development of novel imaging sequences (e.g., ZTE fMRI, accelerated J-resolved spectroscopy) and their application to neurological disorders. Emphasis on clinical feasibility of 31P-MRS after decades of technical challenges underscores his translational impact. Recent work includes simultaneous multi-slice MRSI and NIfTI-MRS data standardization efforts. His contributions bridge preclinical-clinical research through standardized protocols enabling biomarker validation. Current efforts explore spatiotemporal dynamics of neural networks using integrated fMRI-fMRS approaches.
James Kolodzey is the Charles Black Evans Professor at the University of Delaware, specializing in optoelectronics and semiconductor materials. His research focuses on high-speed optoelectronic devices using Group-4 alloys, particularly GeSn and SiGe, to explore mid-infrared and terahertz applications. He investigates molecular beam epitaxy (MBE) and chemical vapor deposition (CVD) techniques to study alloy properties, including bandgap engineering and nanostructuring. Prof. Kolodzey’s work includes developing GeSn-based light-emitting diodes, high-performance photodiodes, and terahertz emitters for imaging, medical diagnostics, and security applications. Additionally, he explores spintronic devices and long-wavelength solar cells for multijunction stacks. His recent publications emphasize GeSn alloy characterization, strain effects, and nanophotonic applications of self-assembled structures. He has pioneered scalable fabrication methods for GeSn nanowires and optimized terahertz emitters using wide-bandgap semiconductors like SiC and GaN. His work on spin-orbit torque and spintronic devices advances electronic and magnetic sensor technologies. Affiliated with the University of Delaware, his research bridges materials science and device engineering, with contributions to semiconductor processing and optoelectronic systems. His lab focuses on translating material properties into functional devices for real-world applications, including energy-efficient photonics and biomedical diagnostics.
Dr. María Jesús Montero serves as an Associate Professor in the Department of Chemical Physics at the University of Salamanca, Spain, where she has established a prominent research program since completing her Ph.D. in Chemistry at the same institution in 2004. Her academic career demonstrates sustained expertise in high-pressure chemical processes with significant contributions to sustainable energy and environmental remediation technologies. Her educational foundation includes doctoral training in Chemistry at the University of Salamanca (2004), providing the basis for her specialization in extreme-condition chemical engineering. This background enables her innovative work at the intersection of materials science and process engineering. Research Focus: Dr. Montero's work centers on supercritical fluid applications, particularly hydrogen storage in carbon fibers activated by supercritical water/steam, advanced contaminant removal processes, and ultra-supercritical reaction systems. She pioneers nanomaterial development—including graphene oxide hybrids and metal-organic frameworks—for CO2 capture, while optimizing waste-to-energy conversion through supercritical water gasification of pollutants like phenol and waste oils. Her research integrates molecular-scale surface chemistry with industrial-scale process engineering to address critical energy and environmental challenges. Publication Analysis: Her 2015-2025 publications reveal three dominant research thrusts: (1) CO2 capture enhancement using graphene-based nanomaterials, (2) hydrogen production optimization via supercritical water gasification at extreme pressures (up to 1000 bar), and (3) regeneration of carbonaceous adsorbents through supercritical techniques. These works consistently bridge fundamental surface chemistry with practical energy applications, demonstrating methodological rigor in high-pressure experimentation and nanomaterial characterization. Awards Recognition: No scientific awards, fellowships, or major honors were documented in the provided materials. Academic Contributions: As an active faculty member, Dr. Montero mentors graduate researchers in chemical physics while contributing to educational innovation across multiple faculties (Education, Philology, Chemical Sciences) through peer-tutoring systems implementation. Her extensive publication record in high-impact journals indicates sustained research funding, though specific grants remain unspecified. She maintains active laboratory operations focused on supercritical fluid technologies, with recent work exploring manganese-based nanocomposites for energy storage and infrared spectroscopy applications in chemical analysis.
Maja A. Gruden-Pavlovic is a Full Professor at the Department of General and Inorganic Chemistry, Faculty of Chemistry, University of Belgrade. She has served in this position since 2019 after progressing through the academic ranks from Graduate Assistant in 1997. She has held significant administrative roles including Vice Dean for Science and International Cooperation (2013-2015) and ChemNet Supervisor (2017-2020). Her educational background includes: Undergraduate studies in Chemistry at University of Belgrade (1989-1997) Master of Science in Chemistry at University of Belgrade (1997-2001) PhD in Chemistry at University of Belgrade (2007) Professor Gruden-Pavlovic's research focuses on Coordination Chemistry, Bioinorganic Chemistry, and Theoretical Chemistry. Her work investigates the Jahn-Teller effect, spin states in transition metal complexes, magnetic properties of molecular systems, and computational modeling of coordination compounds. She applies density functional theory (DFT) and other computational methods to understand electronic structures, spectroscopic properties, and reactivity patterns of metal complexes, with particular emphasis on transition metal systems. Her publication record demonstrates a consistent focus on computational and theoretical approaches to inorganic chemistry problems. The trend across her recent publications shows increasing integration of experimental and theoretical methodologies, with applications spanning from fundamental quantum chemistry to practical materials science. Her work bridges multiple subdisciplines within chemistry, with strong connections to physics and computational science. Professor Gruden-Pavlovic currently leads two major research projects: "Twinning to address the PFAS challenge in Serbia (PFAStwin)" (2022-2025) funded by Horizon EU, and "Tailoring Molecular Magnets and Catalysts Based on Transition Metal Complexes (TMMagCat)" (2022-2025) funded by the Science Fund of the Republic of Serbia. She has previously led numerous national and international projects including COST Actions and Horizon 2020 initiatives focused on computational spectroscopy, molecular magnetic materials, and bioactive compounds.
Sheryl Foster is a Lecturer in the Discipline of Medical Imaging Science at the Sydney School of Health Sciences, University of Sydney. She holds dual roles as Unit of Study Coordinator for the Master of Imaging Science program and MRI research department head at Westmead Hospital Radiology. Her expertise spans clinical and research MRI applications, with a focus on pediatric neuroimaging, functional neurological disorders, and translational kidney disease research. Dr. Foster’s research integrates fMRI, spectroscopy, and advanced MRI techniques to study mood disorders, binge eating, ADHD, and FND in youth. She collaborates internationally, notably with Harvard’s Center for Clinical Spectroscopy. Her educational contributions include pioneering three MR units in Sydney’s postgraduate imaging program and teaching MRI safety/protocols to undergraduates and physics students. Research Themes: Neuroimaging, Kidney Disease, Mental Health Key Collaborations: Prof. Alex Lin (Harvard), ISMRT leadership roles Grants: Gender Dysphoria brain imaging study (2015) Award-winning researcher with over 60 peer-reviewed publications, she has been recognized as ISMRT Fellow (2023) and Distinguished Service Award recipient (2019). Her work bridges clinical MRI applications with cutting-edge neuroimaging research across multiple disease domains.
Meryem Ayşe Yücel serves as a Research Associate Professor in the Department of Biomedical Engineering at Boston University's College of Engineering, where she also holds the position of Technical Director for the Neurophotonics Center. Her work bridges engineering innovation with clinical neuroscience applications, focusing on advancing functional Near-Infrared Spectroscopy (fNIRS) technology for real-world implementation. Dr. Yücel earned her PhD in Biomedical Engineering from Bogazici University in Turkey. Her educational foundation supports her interdisciplinary approach to neuroimaging research. Her research centers on developing and refining fNIRS methodologies for brain imaging, with particular emphasis on clinical translation and accessibility. She investigates cortical activation patterns during naturalistic activities like walking, conversation, and cognitive tasks, applying these insights to conditions including knee osteoarthritis, aphasia, stroke recovery, and pediatric development. Her work consistently addresses critical barriers in neuroimaging such as signal quality across diverse skin and hair types, driving inclusive research practices. Recent publications highlight her leadership in standardization efforts through projects like the fNIRS glossary and NIRS-BIDS data framework. Analysis of her recent publications reveals a strong trajectory toward mobile, high-density fNIRS systems operating in natural environments. Her research increasingly integrates multimodal approaches (fNIRS-EEG), develops open-source hardware (ninjaNIRS, ninjaCap), and establishes reproducibility standards for the field. Clinical applications dominate her output, particularly in pain assessment, rehabilitation, and cognitive neuroscience. Dr. Yücel's scientific recognition includes: Society of Functional Near-Infrared Spectroscopy Community Award (2022) Light of the Lab Award for Functional Inclusiveness (2022) TUBITAK Fellowships for Visiting Scientists (2022) Facebook Award for Engineering Approaches to Responsible Neural Interface Design (2021) SfNIRS Early Investigator Award Finalist (2016) Britton Chance Symposium Travel Award (2013) TUBITAK Integrated Doctoral Fellowship (2006-2010) As Technical Director of the Neurophotonics Center, she leads a multidisciplinary team developing next-generation optical brain imaging systems. Her leadership extends to community-building initiatives that promote open science and methodological rigor in fNIRS research, while her Facebook-funded project demonstrates successful translation of engineering solutions to neural interface challenges. The Neurophotonics Center under her technical direction pioneers wearable fNIRS technologies for naturalistic neuroscience, with recent innovations including flexible circuit-based imaging systems and 3D-printable headgear that enable high-density measurements during real-world activities. This work directly supports her research on brain function during daily movements and clinical applications.
