Find Academic Supervisors

• Nanotechnology
• Plant Science
• Biophysics
• +4 more

Birte Martin-Bertelsen serves as a Postdoc and Guest Researcher within the Department of Plant and Environmental Sciences at the University of Copenhagen, focusing on lipid-based nanoparticles for foliar fertilization applications. Her biophysics expertise centers on structural characterization and structure-activity relationships of biological macromolecules, bridging plant science and nanotechnology. Her academic background includes: PhD (2017) from the Former Faculty of Pharmaceutical Sciences M.Sc. in Biophysics Dr. Martin-Bertelsen's research integrates biophysical methodologies with agricultural innovation, specializing in SAXS analysis of liquid crystalline phases and nanostructural properties of lipid systems. Her work demonstrates dual expertise: developing plant nutrient delivery systems through lipid nanoparticles while maintaining active contributions to vaccine adjuvant research using synthetic mycobacterial components. This interdisciplinary approach connects structural biology with practical applications in both agriculture and immunology. Publication analysis from 2014-2020 reveals consistent focus on biophysical characterization of lipid assemblies, with significant contributions to understanding nano-self-assembly mechanisms, adjuvant efficacy, and siRNA delivery dynamics. Her work frequently examines structure-property relationships in glycolipids and trehalose esters, employing advanced scattering techniques to correlate molecular architecture with biological function. No scientific awards were documented in available sources. Current information does not specify advisees or grant funding details. Her research appears conducted within collaborative frameworks, particularly with pharmaceutical and immunology research groups at the university. She operates within the Section for Plant and Soil Sciences, where her nanotechnology research contributes to sustainable agricultural solutions through advanced nutrient delivery systems and plant-environment interaction studies.

• Astrophysics
• Black Hole Physics
• Relativistic Jets
• +4 more

Dr. Alexandra Tetarenko is an Assistant Professor in the Department of Physics and Astronomy at the University of Lethbridge. She holds a BSc in Astrophysics from the University of Calgary and earned her MSc (2014) and PhD (2018) from the University of Alberta. Prior to her current role, she worked at the James Clerk Maxwell Telescope in Hawaii and held a NASA Einstein Fellowship at Texas Tech University. Her research focuses on black hole astrophysics and relativistic jet phenomena , using stellar-mass black holes as laboratories to study accretion-jet coupling. She develops novel observational techniques and computational tools for multi-wavelength data analysis, with specialization in radio/submillimeter astronomy. Key research areas include: Jet formation mechanisms in X-ray binaries Accretion dynamics during transient outbursts Submillimeter polarimetry of relativistic outflows Time-domain spectroscopy of compact objects Computational modeling of jet thermodynamics Her recent publications demonstrate strong emphasis on multi-wavelength monitoring of transient jets (particularly in Swift J1727.8–1613 and GRS 1915+105), ALMA/JWST instrumentation development, and black hole accretion physics across spectral states. Research frequently utilizes cutting-edge facilities including ALMA, JWST, and the Event Horizon Telescope. Honors: NASA Einstein Fellowship (postdoctoral award)

• Physics Education
• Materials for Renewable Energy Sources
• Condensed Matter Physics

Nick Childs serves as an Associate Teaching Professor in the Department of Physics at Montana State University's College of Letters & Science, where he teaches calculus-based physics sequences and specialized renewable energy courses for educators through 2025. His academic credentials include: Ph.D. in Physics, Montana State University (2013) M.S. in Physics, Montana State University (2009) M.S. in Science Education - Physics, SUNY College at Buffalo (2006) B.S. in Applied Physics, Rensselaer Polytechnic Institute (1999) Childs' research program bridges physics education with materials science for renewable energy, focusing on double perovskite compounds for energy applications and solid oxide fuel cell components. His physics education work develops classroom demonstrations and teacher-focused curricula, while his materials research investigates electrical properties of complex oxides and energy conversion systems through experimental and computational approaches. Analysis of his 2013 publications reveals a cohesive research trajectory centered on materials characterization for energy technologies, with significant contributions to double perovskite studies and fuel cell systems across materials chemistry, applied physics, and science education journals. These works demonstrate interdisciplinary connections between fundamental materials science and practical educational applications. His scholarly recognition includes: Nominated for Teaching Innovation Award (2019) Provost Presidential Emerging Scholar Award (2018) Childs actively contributes to academic service as a National Science Foundation reviewer and editorial reviewer for Fuel Cells journal, while maintaining university engagement through the Montana State University Science and Engineering Festival. His teaching portfolio emphasizes pedagogical innovation in introductory physics and renewable energy education for K-12 teachers.

Matias BargheerView profile

Professor

• Ultrafast magnetism
• Plasmonics
• Nanoscale heat transport
• +6 more

Prof. Dr. Matias Bargheer is a Professor of Physics at the University of Potsdam, where he leads the "Ultrafast Dynamics in Condensed Matter" research group within the Institute of Physics and Astronomy. He serves as a Principal Investigator in the Transregio Collaborative Research Center TRR 227 "Ultrafast Spin Dynamics" and is the spokesperson for the newly established Collaborative Research Center SFB 1636 "Elementary Processes of Light-Driven Reactions at Nanoscale Metals." His research focuses on understanding non-equilibrium phenomena in condensed matter systems on ultrafast timescales. His research interests span several interconnected areas: Ultrafast magnetism and spin dynamics Plasmonics and light-matter interactions at the nanoscale Nanoscale heat transport and thermalization processes Ultrafast lattice dynamics and strain wave propagation Ferroelectric switching phenomena Development of advanced ultrafast experimental techniques Bargheer's group investigates coherent and incoherent non-equilibrium phenomena at the nanoscale initiated by various external stimuli, particularly light and electromagnetic pulses. While incoherent processes transport heat and charges and may drive phase transitions and chemical reactions, coherent dynamics range from strain- and spin waves to strong coupling in exciton-plasmon systems. His specialty is combining ultrafast x-ray diffraction (UXRD) and transient magneto-optical Kerr effect (MOKE) experiments to selectively probe spin and lattice systems. His recent publications reveal several key trends in his research. Bargheer's group has been investigating laser-induced phase transitions in materials like FeRh, demonstrating how plasmonic absorption can accelerate these transitions in nanostructured materials compared to continuous films. They have also made significant advances in controlling magnetization precession through nanoscale heterostructure design and double-pulse laser excitation techniques. Another major focus has been on understanding spin-phonon interactions and their role in generating coherent THz magnons in antiferromagnetic materials. Among his notable achievements: Development of techniques to shape picosecond strain pulses using magnetostrictive transducers Demonstration of polarization-dependent control of ultrafast demagnetization in iron garnets Insights into finite-size effects in ultrafast remagnetization dynamics Discovery of unconventional picosecond strain pulses resulting from magnetic stress saturation Elucidation of spin stress contributions to lattice dynamics in magnetic materials Bargheer has supervised numerous doctoral and master's students whose research has contributed significantly to the field of ultrafast condensed matter physics. His laboratory maintains advanced experimental capabilities including ultrafast x-ray diffraction at their own PXS source and at synchrotron BESSY II, time-resolved magneto-optical Kerr effect (tr-MOKE), time-domain Brillouin scattering, and specialized techniques for studying ferroelectric switching. The group also develops simulation tools like udkm1Dsim for modeling ultrafast dynamics in 1D nanostructures.

Axel SchwopeView profile

Associate Professor

• Compact Binaries
• White Dwarfs
• Neutron Stars
• +6 more

PD Dr. Axel Schwope serves as head of the X-ray astronomy group at the Leibniz Institute for Astrophysics Potsdam (AIP) and holds the position of Privatdozent (Associate Professor) at the University of Potsdam. He actively supervises Bachelor's, Master's, and doctoral students in astrophysics research, welcoming new students to his research group. Dr. Schwope's research focuses on compact binaries (particularly those with white dwarfs), neutron stars, and large-scale surveys at X-ray and optical wavelengths. He serves as co-investigator of eROSITA and the XMM-Newton Survey Science Centre, and leads activities to identify Compact Binaries in SDSS-V. His work spans multiple areas of high-energy astrophysics, including active galactic nuclei (AGN), clusters of galaxies, light pollution (sky protection), and Doppler tomography. His recent publications demonstrate a strong emphasis on X-ray astronomy, particularly using data from the eROSITA mission, SDSS surveys, and other major astronomical facilities. His research frequently employs multi-wavelength approaches, combining X-ray, optical, and other observations to study compact objects and their environments. A significant portion of his recent work focuses on white dwarfs, cataclysmic variables, and binary star systems. Main-belt asteroid 278513 named in his honor Dr. Schwope maintains extensive collaborations with both professional and amateur astronomers. He is deeply involved in major international projects including eROSITA, XMM-Newton, and SDSS-V, as evidenced by his numerous co-authorships across multiple institutions. His group at AIP appears to be well-integrated with the broader astronomical community, contributing significantly to large-scale survey science. His research group at AIP focuses on X-ray astronomy with particular emphasis on compact objects and large-scale surveys. The group utilizes data from multiple space-based and ground-based observatories, including eROSITA, XMM-Newton, and SDSS, to advance our understanding of high-energy astrophysical phenomena.

Anastasia GalkinView profile

Researcher

• Astrophysics
• Solar Physics
• Extragalactic Astrophysics
• +3 more

Anastasia Galkin is a Scientific Staff member at the Leibniz Institute for Astrophysics Potsdam (AIP), specializing in the Supercomputing and E-Science section. Her work bridges computational infrastructure development with cutting-edge astrophysical research in solar physics and extragalactic phenomena, contributing to major international projects including Solar Orbiter and the Close AGN Reference Survey. Her research spans solar physics—focusing on energetic particle events, space weather forecasting, and multi-messenger solar observations—and extragalactic astrophysics, where she investigates active galactic nuclei (AGN) variability and black hole-galaxy co-evolution. She leverages high-performance computing, data-intensive methodologies, and advanced statistical techniques to analyze complex datasets from space missions and ground-based telescopes. Recent publications reveal a dual focus: her 2025 work on the CoSEE-Cat solar electron catalogue integrates in situ and remote-sensing data to model particle acceleration mechanisms, while her 2022 CARS project uses integral field spectroscopy to establish correlations between supermassive black hole mass and long-term AGN variability patterns. Scientific Awards: No awards documented in available sources. Advising and Grants: Public records indicate no formal student advisement roles; grant leadership details remain unspecified in institutional materials. Labs and Teams: Core contributor to AIP's Supercomputing and E-Science section, developing computational frameworks for solar physics (collaborating with Solar Physics group), extragalactic research (Galaxies and Quasars/X-ray Astronomy groups), and public data infrastructure projects.

Alexander WarmuthView profile

Researcher

• Solar Physics
• Solar Flares
• Particle Acceleration
• +5 more

Dr. Alexander Warmuth is a senior researcher in the Solar Physics section at the Leibniz Institute for Astrophysics Potsdam (AIP). His primary research focuses on energetic processes in solar eruptive events, particularly energy release and particle acceleration mechanisms in solar flares. He utilizes multiwavelength observations from space-based instruments to study coronal waves, shocks, and space weather phenomena. Research Interests: Dr. Warmuth's work spans solar-terrestrial relations, stellar activity analogs, and the development of space instrumentation. Key areas include: Energy release processes in solar flares Particle acceleration mechanisms Coronal wave and shock dynamics Space weather forecasting Solar-stellar connection studies Design/operation of space telescopes Mission Involvement: He serves as Co-Investigator for two instruments aboard ESA's Solar Orbiter mission: STIX (Spectrometer/Telescope for Imaging X-rays) EPD (Energetic Particle Detector) Additionally, he holds positions on the Science Committee of China's ASO-S mission and governance boards of CESRA (Community of European Solar Radio Astronomers) and AEF (Arbeitsgemeinschaft Extraterrestrische Forschung). Publication Trends: His recent research (2024-2025) demonstrates strong focus on particle acceleration mechanisms during solar eruptive events, utilizing data from Solar Orbiter, Fermi-LAT, and STEREO missions. Studies frequently combine X-ray, radio, and in-situ measurements to analyze electron/ion dynamics, magnetic topology, and space weather impacts.

Sofia Diaz-MorenoView profile

Professor

• X-ray Absorption Spectroscopy
• Solution Chemistry
• Structural Characterization
• +3 more

Professor Sofia Diaz-Moreno serves as the Science Group Leader of the Spectroscopy Group at Diamond Light Source, the UK's national synchrotron science facility located at the Harwell Science and Innovation Campus in Oxfordshire. Her leadership drives advanced spectroscopic research across beamlines I18, B18, and I20, supporting diverse scientific investigations in chemistry, materials science, and biochemistry. Her expertise centers on X-ray absorption spectroscopy (XAS), particularly EXAFS and XANES, for probing local atomic structures in solution chemistry. She pioneers time-resolved studies of chemical reactions using stopped-flow technology integrated with Energy Dispersive XAS, enabling kinetic analysis from milliseconds to seconds through combined structural and electronic perspectives. Complementary work involves computational XANES simulation to refine structural models and link electronic environments to chemical reactivity, alongside developing real-time spectral analysis methods for high-volume time-resolved data. Scientific Awards: No specific awards are documented in the provided text. Professor Diaz-Moreno leads the Spectroscopy Group's operational and developmental efforts, maintaining beamline capabilities for microfocus spectroscopy (I18), soft X-ray spectroscopy (B18), and dispersive EXAFS (I20). Her team facilitates cutting-edge research for academic and industrial users, focusing on methodological innovation and user support across catalysis, environmental science, and biological systems.

Gianfelice CinqueView profile

Researcher

• Infrared Spectroscopy
• Synchrotron Radiation
• Biomedical Physics
• +4 more

Dr Gianfelice Cinque serves as Principal Beamline Scientist for the Multimode InfraRed Microscopy And Imaging (MIRIAM) beamline B22 at Diamond Light Source, a role he has held since joining the facility at the inception of the B22 project in 2006 after transitioning from INFN labs in Frascati, Rome, where he managed Soft X-ray and IR beamlines. His research spans Infrared Spectroscopy, Synchrotron Radiation applications, and advanced imaging techniques with critical impacts across biomedical physics, materials engineering, and cultural heritage analysis. He pioneers synchrotron-enhanced IR microspectroscopy for single-cell chemotherapy response assessment, stem cell biomarker identification, catalyst microstructure characterization under mechanical stress, and XV-century pigment evolution studies in historical artworks. Current innovations include developing full-field IR microscopy using broadband synchrotron illumination for high-magnification (74x) molecular mapping and advancing near-field IR spectroscopy via submicron cantilever tips to achieve organelle-scale imaging in living cells. His THz spectroscopy work leverages Diamond's Coherent Synchrotron Radiation in low-alpha mode to probe molecular collective modes and superconductor gaps across the broadest ( Diamond Light Source, the UK's national synchrotron facility at Harwell Science and Innovation Campus, provides the infrastructure for his work, which fundamentally enhances molecular sensitivity and spatial resolution beyond conventional IR methods through synchrotron radiation's unique properties.

Gwyndaf EvansView profile

Research Fellow

• Macromolecular Crystallography
• X-ray Instrumentation
• Scientific Software Development
• +3 more

Gwyndaf Evans serves as Principal Beamline Scientist for VMXm and Diamond Research Fellow at Diamond Light Source, the UK's national synchrotron facility located at Harwell Science and Innovation Campus. His work focuses on advancing macromolecular crystallography through cutting-edge instrumentation and computational methods development. His research group concentrates on three core areas: development of scientific software algorithms (DIALS, BLEND, CHOOCH) for macromolecular crystallography data processing; creation of automated pipelines for high-throughput analysis; and innovation in X-ray diffraction instrumentation including sample preparation, mounting systems, and microbeam technologies. This interdisciplinary work bridges computational science, engineering, and structural biology to solve challenges in protein structure determination. Recent publications demonstrate leadership in developing the HeXI electron diffraction instrument and VMXm sub-micron beamline, with methodological advances spanning data integration algorithms, microcrystal analysis techniques, and structural studies of antibiotic mechanisms. His work shows strong integration of software development with experimental instrumentation design. Evans leads the DIALS project funded by Diamond Light Source, EU BioStruct-X grant, and CCP4, collaborating with MRC Laboratory of Molecular Biology (Cambridge), EMBL Hamburg, and Berkeley Laboratory. His team includes Graeme Winter, David Waterman, James Parkhurst, Luis Fuentes-Montero, and Richard Gildea. Based at the VMXm beamline within Diamond's Macromolecular Crystallography division, his work supports global structural biology research through specialized instrumentation and open-source software tools used by the international crystallography community.

Erico T. F. FreitasView profile

Adjunct Assistant Professor

• Materials Science
• Nanotechnology
• Electron Microscopy
• +2 more

Erico T. F. Freitas serves as Research Scientist and Adjunct Assistant Professor in Materials Science and Engineering at Michigan Technological University, managing the FEI 200kV Titan Themis STEM at ACMAL's Electron Optics Facility. Previously, he operated UFMG's TEM facility for 12+ years (2009-2021), including 4 years as TEM lab manager. Education: PhD in Materials Sciences and Engineering, Universidade Federal de Minas Gerais, Brazil MS in Education, Universidade Federal de Minas Gerais, Brazil BS in Physics, Universidade Federal de Minas Gerais (UFMG), Brazil Specializing in TEM, STEM, EELS, EFTEM, EDX, and electron diffraction techniques, his research centers on nanostructured materials characterization with dual environmental and biomedical applications. Key focuses include arsenic contamination remediation through nanostructured iron oxides and development of medical nanomaterials for tissue engineering and oncology, leveraging advanced microscopy to solve real-world health and ecological challenges. Analysis of his 2015-2023 publications reveals consistent methodology: applying electron microscopy to environmental arsenic speciation (particularly in iron oxides) and biomedical nanomaterial development. This dual-track approach demonstrates how fundamental materials characterization enables practical solutions in environmental remediation and healthcare, with recurring themes of nanoparticle synthesis, contaminant immobilization, and medical device innovation. No information regarding student advising or research grants appears in source materials. As lead operator of ACMAL's state-of-the-art FEI 200kV Titan Themis STEM, Dr. Freitas provides critical microscopy support across disciplines. His expertise in advanced characterization techniques enables research in environmental science, biomedical engineering, and metallurgy, making him a central resource for Michigan Tech's materials research community.

• Polymer Science
• Nanotechnology
• Theranostics
• +4 more

Dr. Quinn A. Besford serves as Group Leader for Functional Polymer Architectures and Research Cluster Leader for Bio-Applied Polymers at the Leibniz Institute of Polymer Research Dresden (IPF), a renowned research institution in Germany. As part of the Division Physical Chemistry and Physics of Polymers, Dr. Besford leads a dynamic research team dedicated to advancing polymer science with biomedical applications. The research program bridges fundamental polymer physics with practical applications in nanomedicine and sensing technologies. Dr. Besford's research focuses on two primary areas: theranostics and polymer-based sensing technologies. In theranostics, the team develops specific nanoparticle architectures to achieve desirable bio-nano interactions in vivo, aiming to overcome biological barriers against nanomedicine for successful disease treatment and diagnosis. The polymer-based sensing research involves high-precision synthesis of unique polymer architectures with integrated fluorophores, enabling 'touch'-based sensing at the nanoscale where changes in polymer conformation can be spatially resolved. This work has significant implications for developing new functional materials for biomedical applications. Analysis of Dr. Besford's recent publications reveals a strong focus on polymer architectures, particularly polymer brushes and glycogen-based nanoparticles. The research trajectory shows increasing sophistication in nanoscale sensing technologies with applications in biomedicine, demonstrating particular strength in fluorescence-based characterization techniques and nanoparticle engineering for biological interfaces. The work consistently bridges fundamental polymer science with practical applications in nanomedicine. Dr. Besford has received several prestigious awards: 2022 IPF Innovation Prize for 'The Development of Mechanofluorescent Polymer Brush Surfaces: Towards Nanoscopic Touch-Sensitive Surfaces' 2022 Discovery Early Career Researcher Award (DECRA) from the Australian Research Council 2019 Ludwig Leichhardt Memorial Fellowship from the Alexander von Humboldt Foundation Dr. Besford mentors multiple PhD candidates and postdoctoral researchers, with a diverse international team. The research program is supported by significant funding from multiple sources including the Deutsche Forschungsgemeinschaft (DFG), Australian Research Council (ARC), IPF Leibniz Research Alliance, PEPSA-MATE Marie Sklodowska-Curie Actions, and the Alexander von Humboldt Foundation. Current projects focus on mechanofluorescent surfaces for investigating microscopic contact forces and understanding cell traction forces. The Besford Lab utilizes advanced techniques including Atomic Radical Transfer Polymerisation (ATRP), Reversible Addition-Fragmentation Chain Transfer (RAFT) polymerisation, Fluorescence Lifetime Imaging Microscopy (FLIM), Confocal Laser Scanning Microscopy (CLSM), Atomic Force Microscopy (AFM), and Small Angle X-ray Scattering (SAXS). The team comprises postdocs, PhD candidates, and research assistants working collaboratively on cutting-edge polymer research with direct biomedical applications.

Vadim BurwitzView profile

Researcher

• high-energy astrophysics
• X-ray astronomy
• stellar variability

Dr. Vadim Burwitz serves as a Senior Scientist at the Max Planck Institute for Extraterrestrial Physics (MPE) in Garching, Germany, where he leads the PANTER X-ray test facility and is a key member of MPE's High Energy Astrophysics Group. His professional work centers on high-energy astrophysical phenomena and X-ray observational techniques. Dr. Burwitz's primary research interests focus on high-energy astrophysics, X-ray astronomy, and stellar variability phenomena. His work involves detailed investigation of celestial objects emitting X-rays, with particular attention to binary star systems and supersoft X-ray sources. His research contributes significantly to our understanding of accretion processes and evolutionary pathways of compact stellar objects. His publication record demonstrates consistent expertise in analyzing variable phenomena in high-energy astrophysical systems, with emphasis on temporal behavior of X-ray sources. His work bridges observational data with theoretical models to advance our understanding of extreme physical processes in the universe. As Head of the PANTER X-ray test facility, Dr. Burwitz oversees critical instrumentation development, calibration procedures, and testing protocols for X-ray astronomy missions. The facility plays an essential role in verifying performance characteristics of X-ray telescopes and detectors prior to space deployment, ensuring mission success for international X-ray observatories.

• Atmospheric Chemistry
• Atmospheric Aerosols
• Air Pollution
• +4 more

Willy Maenhaut is a Professor in the Department of Chemistry at Ghent University's Faculty of Science, specializing in atmospheric chemistry and aerosol research. His work focuses on the chemical characterization of atmospheric particulate matter, source apportionment, and the development of analytical methods for aerosol analysis. His research spans multiple continents with significant contributions from studies conducted in Belgium (particularly Flanders), China (Beijing), South Africa, Norway, and Brazil. Maenhaut has published extensively on topics including PM2.5 and PM10 characterization, carbonaceous aerosols, organic compounds in atmospheric particles, and the impact of various emission sources on air quality. His research frequently employs advanced analytical techniques such as mass spectrometry, PIXE (Particle Induced X-ray Emission), and thermal-optical analysis. Analysis of his recent publications (2016-2021) reveals a consistent focus on source apportionment methodologies, secondary organic aerosol formation mechanisms, and the impact of specific events (such as the COVID-19 pandemic) on air quality. His work demonstrates strong international collaboration, particularly with researchers in China and with Magda Claeys at Ghent University. Specializes in atmospheric aerosol chemistry and source apportionment Extensive work on carbonaceous aerosols and organic compounds in particulate matter Develops and compares analytical methods for aerosol characterization Conducts research across multiple international locations Focuses on both urban and rural air quality issues Maenhaut serves as a reviewer for numerous prestigious journals including Atmosphere , Environmental Science & Technology , and Atmospheric Chemistry and Physics , demonstrating his standing as a respected expert in the field of atmospheric science.

David LisgartenView profile

Research Fellow

• Structural Biology
• X-ray Crystallography
• Medicinal Chemistry
• +3 more

David Lisgarten serves as a Principal Research Fellow and Technician in Science/Natural and Applied Sciences at the University of Kent's Canterbury campus, based in the School of Sciences, Psychology, Arts and Humanities, Computing, Engineering and Sports within Technical Services and Natural Sciences. His office is located in Verena Holmes building (VH.3.05). His research centers on high-resolution structural analysis using X-ray crystallography, with expertise in cryogenic techniques (100K-150K) for biological macromolecules and synthetic compounds. Key focus areas include protein structure-function relationships (ribonuclease, insulin), antimalarial/anticancer natural products (cryptolepine derivatives), and mesogenic materials. His work integrates computational methods like DFT calculations and molecular modeling to elucidate molecular interactions and mechanisms. Publication trends (2017-2025) reveal consistent advancement in ultra-high resolution structural techniques applied to drug discovery for neglected tropical diseases and cancer, alongside fundamental studies in protein chemistry and materials science. His interdisciplinary approach bridges experimental crystallography with computational pharmacology, emphasizing sustainable drug development from natural product scaffolds. As a technical and research specialist, Lisgarten maintains critical infrastructure for structural biology research while contributing to collaborative projects across chemistry, biochemistry, and pharmacology departments, supporting both research and teaching missions at the university.