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Berna MorovaView profile

Assistant Professor

• Femtosecond Laser
• Waveguide Lasers
• Fiber Optics
• +7 more

Berna Morova serves as an Assistant Professor in the Department of Physics Engineering at Istanbul Technical University, where she conducts interdisciplinary research bridging photonics engineering and biomedical applications. Her work spans laser physics, optical imaging, and artificial intelligence applications in microscopy. Research interests focus on femtosecond laser processing , waveguide laser development , and AI-enhanced medical imaging . Key areas include: Mid-infrared waveguide lasers using rare-earth doped fluoride crystals Generative adversarial networks for microscopy contrast enhancement 3D imaging techniques for hepatic fibrosis characterization Bessel beam and vortex beam generation Fiber optic sensor development Publication trends reveal dual research trajectories: fundamental laser physics (65% of output) focusing on waveguide lasers and femtosecond inscription techniques, and applied biomedical imaging (35%) developing AI-powered diagnostic tools. Recent work shows increasing collaboration between physics and medical departments, particularly in liver disease diagnostics. Current research funding includes the principal investigator role for the project "1064 nm Yüksek Güçlü Bessel ve Vorteks Işınlarının Üretimi ve Karakterizasyonu" (2023-2025), which investigates high-power beam generation techniques. The project demonstrates integration of theoretical modeling with experimental validation in optical systems.

Claude CanizaresView profile

Professor

• High-energy astrophysics
• X-ray astronomy
• High-resolution spectroscopy
• +12 more

Claude Canizares is the Bruno Rossi Professor of Physics at the Massachusetts Institute of Technology (MIT), within the Department of Physics in the School of Science. He has been a key figure at MIT since joining as a postdoctoral fellow and later ascending to full faculty, serving in major administrative roles including Director of the MIT-Kavli Institute for Astrophysics and Space Research, Associate Provost, and Vice President for Research. He is currently in a post-tenure faculty position (1974–2024) and serves as Associate Director of the Chandra X-ray Observatory Center. Research Interests: His work centers on high-resolution X-ray spectroscopy and plasma diagnostics of cosmic sources. He is particularly known for leading the development of the High Resolution Transmission Grating Spectrometer (HETG) on NASA’s Chandra X-ray Observatory and prior instruments on the Einstein Observatory. His research spans Galactic and extragalactic systems such as active stars, black-hole and neutron star binaries, supernova remnants, quasars, and galaxy clusters. He also uses X-ray sources to study interstellar and intergalactic matter, contributing significantly to cosmology and baryon census studies. Publication Trends: His recent publications (2011–2015) focus on the distribution of baryons and dark matter in galaxies, metallicity in galaxy clusters, and high-resolution X-ray observations of active galactic nuclei. These works leverage the Chandra HETG instrument and emphasize plasma diagnostics, structure formation, and the chemical evolution of large-scale structures. Scientific Awards & Honors: National Academy of Sciences Member (1993) American Physical Society Fellow (1989) Sloan Research Fellowship (1980) AAAS Fellow (1996) Goddard Medal, American Astronautical Society (1997) NASA Public Service Medal (2001, dual) Meritorious Civilian Service, U.S. Air Force (2003) American Academy of Arts & Sciences Fellow (2004) Basic Sciences Award, International Academy of Astronautics (2017) Advising and Grants: While specific students are not listed, he leads the Canizares Chandra/HETG Group, advising researchers and students in X-ray instrumentation and astrophysics. His leadership in major NASA-funded projects like the Chandra HETG indicates sustained grant support from federal agencies. His roles on national advisory boards (NASA Advisory Council, National Academies’ Space Studies Board) reflect influence in shaping research policy and funding directions. Labs and Teams: He leads the Canizares Chandra/HETG Group at MIT and is affiliated with the MIT-Kavli Institute for Astrophysics and Space Research. He plays a central role in the Chandra X-ray Observatory Center, contributing to both scientific operations and instrument development.

Balpreet Singh AhluwaliaView profile

Professor

• Optical Microscopy
• Super-resolution Microscopy
• Nanoscopy
• +7 more

Professor Balpreet Singh Ahluwalia is a distinguished academic at UiT The Arctic University of Norway, where he serves in the Department of Physics and Technology. His expertise lies at the intersection of advanced optical technologies and biomedical applications, with a focus on developing cutting-edge microscopy techniques for life science research. As a principal investigator of multiple high-impact research projects, including ERC-funded initiatives, he leads a dynamic research group focused on optical nanoscopy and bio-imaging. Dr. Ahluwalia's research spans several critical areas in modern optical science: Development of super-resolution optical nanoscopy techniques Quantitative phase imaging for live-cell analysis Integrated photonic circuits for biomedical applications Optical trapping and manipulation of biological specimens Raman spectroscopy for molecular fingerprinting His work has established UiT as a leading center for optical nanoscopy in Northern Europe, with particular emphasis on applications in marine biology, liver physiology, and pathogen detection. The research group has pioneered several novel approaches to high-speed, label-free imaging that overcome traditional limitations in resolution and speed. Analysis of Dr. Ahluwalia's recent publication record reveals a strong trajectory toward computational and AI-enhanced microscopy, with increasing focus on real-time imaging of dynamic cellular processes. His work bridges fundamental optical engineering with practical biomedical applications, particularly in the areas of nanoparticle-cell interactions, bacterial identification, and tissue imaging of marine organisms. Dr. Ahluwalia has received significant recognition through competitive research funding: ERC Starting Grant (16 M NOK) for high-speed chip-based nanoscopy ERC Proof-of-Concept grant (1.5 M NOK) for affordable photonic-chip based optical nanoscopy UiT Strategic Funding (13 M NOK) for Centre for Advanced Nanoscopy Multiple international collaborations including EU MSCA projects As an educator, Dr. Ahluwalia teaches FYS-8029 Optical Nanoscopy and mentors PhD students through multiple funded projects. His laboratory, part of the Ultrasound, Microwaves and Optics research group, maintains state-of-the-art facilities for optical nanoscopy, including custom-built super-resolution microscopes and integrated photonic platforms. The research environment fosters interdisciplinary collaboration between physicists, biologists, and computer scientists working toward next-generation imaging solutions.

• correlated electron systems
• low-dimensional quantum magnets
• unconventional superconductors
• +4 more

Dr. Christian Heß is a Full Professor at the University of Wuppertal and Group Leader for Quantum Matter - Transport and Tunneling at the Institute for Solid State Research (IFW Dresden). His research spans quantum materials with focus on correlated electron systems, topological matter, and unconventional superconductors. He leads experimental investigations using scanning tunneling microscopy/spectroscopy at ultra-low temperatures and high magnetic fields. His research interests include: low-dimensional quantum magnets, spin-heat transport phenomena, and electronic properties of quantum materials. He specializes in transport measurements under extreme conditions to probe nematic fluctuations, topological phases, and magnetic excitations. His work frequently reveals novel quantum states through thermal, thermoelectric, and spin-resolved transport signatures. His publication trends show consistent leadership in quantum transport phenomena, particularly in iron-based superconductors, topological materials (WTe 2 , MnBi 2 Te 4 ), and Kitaev magnets (α-RuCl 3 ). Key themes include Berry curvature effects, spin-phonon coupling, and disorder-induced topological transitions. His group develops advanced STM techniques for spin-resolved measurements at sub-Kelvin temperatures. Scientific Awards: ERC Consolidator Grant (2015): Electronic Order, Magnetism, and Unconventional Superconductivity probed in Real-Space His group coordinates major collaborative projects including the Marie-Curie Initial Training Network LOTHERM (2009-2013) and Specific Targeted Research Project NOVMAG (2007-2010). His research bridges fundamental quantum phenomena with potential applications in spintronics and quantum computing. He maintains strong collaborations with neutron scattering facilities and synchrotron radiation centers for complementary characterization. The IFW Dresden laboratory he leads features specialized cryogenic equipment including a sub-Kelvin STM with spin resolution, enabling unique studies of quantum magnetic excitations and topological edge states.

Martin Paul GellerView profile

Senior Lecturer

• Quantum Optics
• Semiconductor Nanostructures
• Quantum Dots
• +3 more

Dr. Martin Paul Geller serves as a Senior Lecturer in the Faculty of Physics at the University of Duisburg-Essen, Germany, holding the position of 'Akademischer Oberrat' since 2015. His research focuses on semiconductor nanostructures and quantum dots for quantum information technologies, with expertise spanning device fabrication to optical characterization. Academic credentials include: Habilitation in experimental physics (University of Duisburg-Essen, 2019) PhD in physics with distinction (TU Berlin, 2007) Master's degree in physics (TU Berlin, 2001) Geller's work centers on fundamental limitations of quantum dots as single photon emitters, particularly Auger recombination processes critical for quantum computing applications. His experimental approach combines time-resolved electrical transport measurements with high-resolution resonance fluorescence spectroscopy, supported by advanced device fabrication techniques including focused ion beam lithography. Publication trends from 2024-2011 reveal consistent focus on quantum dot dynamics, with increasing emphasis on real-time measurement techniques and Auger recombination phenomena. His work bridges condensed matter physics and quantum information science, primarily utilizing semiconductor nanostructures for quantum device development. Key honors include: Teaching award from Faculty of Medicine, University of Duisburg-Essen (2023) Nanowissenschaftspreis from AGeNT-D (2011) Carl-Ramsauer Award in physics (2007) DFG Research Fellowship for Cambridge research stay (2011/2012) Geller leads multiple DFG-funded projects including 'Deep-level transient spectroscopy of defect characterization' (2024-present) and 'Auger recombination in self-assembled quantum dots' (2018-2021). He previously coordinated EU projects SANDiE and NANOMAT, demonstrating sustained success in securing third-party funding for quantum nanostructure research. He operates within Prof. Axel Lorke's research group at the University of Duisburg-Essen and served on the board of the Center for Nanointegration Duisburg-Essen (CeNIDE) from 2016-2020, contributing to institutional nanotechnology strategy.

• Bioanalytical and biophysical tools
• Cancer cell signaling and metabolism
• Protein-protein interactions
• +3 more

Minjoung Kyoung is an Associate Professor at the Department of Chemistry & Biochemistry at the University of Maryland, Baltimore County (UMBC). Her research focuses on developing bioanalytical and biophysical tools to study the 4D (spatiotemporal) dynamics of cellular pathways, particularly the interplay between signaling and metabolic networks in cancer cells. She received her Ph.D. from Pennsylvania State University (2008) and completed postdoctoral training at Stanford University and UC Berkeley (2012). Education: Ph.D. (Penn State), Postdoc (Stanford/UC Berkeley) Key Projects: Nano-reaction chamber for transient protein interactions; Lattice Light Sheet Microscope for 4D metabolic network mapping Kyoung's cross-disciplinary lab integrates chemistry, biology, and physics to build microscopy systems, fabricate nanoscale chambers, and analyze biomolecular interactions. Her work has attracted significant NIH funding, including a 5-year R01 grant (2019). Publications span high-impact journals like eLife and Nature Protocols , with methodological innovations in vesicle fusion and super-resolution imaging. Scientific awards include the 2007 Graduate Exhibition Award (Penn State), Dalalian Fellowship, and SPIE Research Excellence Travel Award. Lab alumni include Erin Kennedy (CBI Fellow), Tao Zhang (graduate student), and Keynon Bell (poster presenter). Collaborations with institutions like NIGMS, Janelia Research Campus, and Cold Spring Harbor Laboratory highlight her national impact.

• Photometry
• Gravitational Microlensing
• Light Curve Analysis
• +5 more

Professor Jan Pel is a distinguished astronomer at the University of Groningen's Faculty of Science and Engineering, where he specializes in the Astronomy department as part of the Kapteyn Astronomical Institute. With over two decades of research experience, Professor Pel has made significant contributions to the fields of photometry, stellar physics, and astronomical instrumentation. His work has been instrumental in advancing our understanding of Cepheid variables, infrared astronomy, and space telescope technology. Professor Pel's research interests span a diverse range of astronomical phenomena and methodologies. His primary focus lies in Photometry , where he has developed advanced techniques for differential photometry and light curve analysis. He has made substantial contributions to the understanding of Gravitational Microlensing , which has applications in detecting exoplanets and dark matter. His work with the Baade-Wesselink Method has refined our ability to determine stellar distances and radii, particularly for Cepheid variable stars. Professor Pel has also conducted extensive research on Metallicity effects in stellar populations and has utilized the Very Large Telescope for observational studies of the Galactic Bulge . His expertise in analyzing Polycyclic Aromatic Hydrocarbons has provided insights into the chemical composition of interstellar media. Professor Pel's publication record demonstrates a clear evolution from fundamental stellar physics to cutting-edge astronomical instrumentation. His early work focused on Cepheid variables and the Baade-Wesselink method, establishing precise period-radius and period-luminosity relations. More recently, he has contributed significantly to the development of the Mid-Infrared Instrument for the James Webb Space Telescope, showcasing his transition from pure research to instrumental development. His most recent publication on cloud lightning imaging represents an interdisciplinary expansion of his expertise into atmospheric physics. Collectively, his work spans observational astronomy, theoretical modeling, and instrumental innovation, with a consistent emphasis on precision measurement techniques. Professor Pel has supervised numerous graduate students and research fellows throughout his career, though specific names are not listed in the available documentation. His research has been supported by multiple grants from national and international funding agencies, including collaborations with NASA on the James Webb Space Telescope project and European research consortia focused on stellar astrophysics. Professor Pel is actively involved with the Kapteyn Astronomical Institute's research teams, particularly those focused on stellar astrophysics and instrumentation development. He has been a key contributor to international collaborations including the James Webb Space Telescope project and various European astronomical initiatives. His laboratory work has centered on precision photometric techniques and the development of instrumentation for space-based observatories.

• Astronomical Sciences
• Space Sciences
• Particle and High Energy Physics
• +2 more

Dr. Themiya Nanayakkara is a Research Fellow at the Swinburne University of Technology , associated with the School of Science, Computing and Emerging Technologies. Her research focuses on high-redshift galaxy formation, cosmology, and astrophysical applications of JWST data. Active in galaxy spectral modeling and chemical evolution studies Key participant in the UNCOVER and GLASS-JWST programs Recipient of grants like the Space Data Analysis Workshop for African Researchers (2024) Her recent work analyzes stellar mass gradients , ionizing photon production , and dust distribution in quiescent galaxies using NIRSpec , NIRCam , and ALMA data. Publications demonstrate expertise in galaxy morphology , metallicity calibration , and reionization-era AGN detection . As a Laureate Postdoctoral Research Associate , she develops 3D spectroscopy pipelines for slit-stepping techniques and explores non-parametric star formation histories that challenge traditional models. Her work bridges observational data with cosmological simulations (IllustrisTNG, SHARK) to understand early galaxy quenching mechanisms.

• Raman Spectroscopy
• Molecular Imaging
• Biomedical Engineering
• +4 more

Magnus Jensen is a Postdoctoral Researcher at the Department of Green Technology (IGT) and SDU Chemical Engineering at the University of Southern Denmark. His work focuses on advanced molecular imaging techniques, particularly Raman spectroscopy and tomography, with applications in biomedical research and tissue engineering. University: University of Southern Denmark Department: Department of Green Technology (IGT), SDU Chemical Engineering Academic Role: Researcher Jensen's research spans label-free 3D imaging, spatial lipidomics, and hybrid spectroscopic systems. He has developed innovative methods such as Raman spectral projection tomography and polarized hypodermic probes for cartilage analysis, contributing to fields like osteoarthritis diagnostics and glioma classification. His publications highlight collaborations in cardiovascular mortality meta-analyses and clinical studies on COPD exacerbations. Jensen's work bridges chemistry, biomedical engineering, and clinical medicine, with recent patents and conference presentations on Raman-based technologies. Research Themes Raman Spectroscopy Molecular Imaging Tissue Engineering Lipidomics Biomedical Diagnostics

Ruslan PodviianiukView profile

Assistant Professor

• Particle Physics
• Dark Matter Research
• Nuclear Physics
• +2 more

Ruslan Podviianiuk is a Research Assistant Professor in the Department of Physics at Syracuse University's College of Arts and Sciences, specializing in experimental particle physics with focus on dark matter detection and cryogenic detector development. His educational background includes: Ph.D. in Nuclear, Particle and High Energy Physics from the National Academy of Sciences of Ukraine (NASU), 2011. Dissertation: Scintillation Detectors Based on Molybdates and Tungstates for Investigation of Double-Beta Decay and Search for Dark Matter Particles. M.Sc. in Nuclear and Elementary Particle Physics from Taras Shevchenko National University of Kyiv, 2001. Dissertation: Digital Signal Processing in Nuclear Spectroscopy. B.Sc. in Physics from Taras Shevchenko National University of Kyiv, 2000. A.S. in Radio Instrumentation from Kyiv Professional College of Electronic Devices, 1995. Dissertation: Microphone with a Sharp Directional Diaphragm. Dr. Podviianiuk's research centers on direct dark matter detection using cryogenic semiconductor detectors, with expertise in low-energy nuclear recoil measurements, background characterization, and signal processing. His work bridges particle physics and detector engineering, focusing on sub-keV energy thresholds for low-mass dark matter candidates through experiments like SuperCDMS. He has pioneered techniques for ionization yield measurements in silicon/germanium and developed novel approaches using the Migdal effect and bremsstrahlung radiation. Analysis of his recent publications reveals a clear progression from surface-based detector characterization to underground operation at SNOLAB, with increasing emphasis on background rejection and low-mass sensitivity. His research spans experimental design, data analysis, and theoretical interpretation across multiple detector technologies. He has received institutional recognition for academic contributions: Statement of Achievement for Course Development and Pedagogy (2021) Statement of Achievement for Inclusive Mentoring (2021) While specific grant details are not provided, his active role in the SuperCDMS collaboration indicates significant research funding involvement. No formal student advising relationships are documented in available sources. Dr. Podviianiuk operates within the SuperCDMS international collaboration framework, conducting research at underground facilities including Soudan Laboratory and SNOLAB. His laboratory work focuses on cryogenic detector arrays for dark matter searches, incorporating advanced electronics and signal processing systems for rare-event detection.

• Ultrafast Electron Microscopy
• Condensed Matter Physics
• Materials Science
• +3 more

Spencer Reisbick is a Research Associate in the Condensed Matter Physics and Materials Science Department at Brookhaven National Laboratory. His work focuses on ultrafast electron microscopy (UEM) for studying dynamic structural and electronic processes in materials. University of Minnesota: PhD (2020) and MS (2017) in Chemical Physics Ripon College: BA (2014) in Chemistry and Physics Research interests include ultrafast imaging , structural defects , photoinduced phase transitions , and spin dynamics . His publications highlight advancements in UEM technology, defect-mediated phonon dynamics, and laser-free GHz stroboscopic techniques. Recent work (2025) explores tunability of electrically driven UEM, spin-wave propagation, and acoustic excitation mechanisms in piezoelectric materials. Earlier studies (2023–2024) address artifact elimination, RF-based pulse generation, and magnetic crosstie formation. 2018 Microscopy and Microanalysis Student Scholar Award 2023 Microscopy and Microanalysis Postdoctoral Scholar Award He develops open-source frameworks like UEMtomaton to support UEM lab startups, emphasizing technological accessibility and educational training in advanced microscopy.

• Stellar evolution
• Galaxy chemodynamics
• Chemical abundances
• +2 more

Dr. Šarūnas Mikolaitis is an Associate Professor and Senior Researcher at Vilnius University's Institute of Theoretical Physics and Astronomy (ITPA). His research focuses on stellar evolution, galaxy chemodynamics, and chemical abundances in stars, with a particular emphasis on understanding the chemical composition of planetary host stars and Galactic structure using data from the Gaia-ESO Survey and other international collaborations. Institution: Institute of Theoretical Physics and Astronomy (ITPA), Vilnius University Research Area: Stellar evolution, chemodynamics of the Galaxy Key Collaborations: Gaia-ESO Survey, AMBRE project, PLATO mission Research Trends: Analysis of elemental abundances (C, N, O, Fe, neutron-capture elements) in open clusters and field stars, using high-resolution spectroscopy and machine learning techniques to trace Galactic chemical evolution, age-abundance relations, and star-planet connections. Publication Highlights: Contributions to the Gaia-ESO Survey data releases, studies on neutron-capture elements in planetary hosts, and investigations of mixing processes in RS CVn and hot subdwarf stars. His work often involves international consortia and large-scale spectroscopic datasets.

• Solar Physics
• Astronomy
• Astrophysics
• +3 more

Matt Penn serves as an Adjunct Assistant Professor of Practice in the Department of Physics at Southern Illinois University Carbondale, actively contributing to solar physics research through the Dynamic Eclipse Broadcast Initiative and the Citizen CATE Experiment. His work bridges academic instruction with practical observational campaigns during solar eclipses. His research spans Solar Physics, Astronomy, and Astrophysics with specialized focus on solar eclipses, coronal mass ejections, solar flares, and infrared spectroscopy of solar phenomena. He investigates plasma dynamics in the solar corona and energy release mechanisms during flares, utilizing innovative citizen science frameworks to gather high-resolution eclipse data across continental-scale networks. Recent publications demonstrate a strong trend toward collaborative, large-scale observational studies using distributed telescope networks, particularly the Citizen CATE Experiment. His work emphasizes infrared analysis of solar flares and instrumentation development for eclipse campaigns, revealing new insights into coronal acceleration processes and thermal radiation mechanisms during transient solar events. Dr. Penn is a principal investigator for the Citizen CATE Experiment, which coordinates over 60 telescope sites across the United States during total solar eclipses. This initiative employs volunteer observers and standardized instrumentation to produce continuous high-cadence imagery of the solar corona, enabling unprecedented studies of its magnetic structure and plasma dynamics during totality.

• Low-temperature Spectroscopy
• High-pressure Physics
• Biophysics
• +4 more

Kristjan Leiger is a Research Fellow of Biophysics at the Institute of Physics, Faculty of Science and Technology, University of Tartu. He has maintained continuous research appointments at the University of Tartu since 2002, with his current position extending through July 2025. His career progression shows increasing specialization from general research fellow to Solid State Physics researcher and finally to Biophysics researcher, reflecting his evolving research focus. Dr. Leiger completed all his formal education at the University of Tartu: Doctor's Degree (2002): 'Pressure-induced effects in inhomogeneous spectra of doped solids' supervised by Jaak Kikas Research Master's Degree (1995): 'Effect of hydrostatic pressure on the high-resolution optical spectra of impurity molecules in solids' supervised by Jaak Kikas and Arlentin Laisaar Bachelor's degree in Physics (1988-1992) Dr. Leiger's research program centers on the application of high-pressure techniques to investigate molecular and biological systems. His primary expertise lies in low-temperature spectroscopy of doped solids under high pressure, pressure-induced effects on spectral holes in crystalline and glassy matrices, and biomolecular spectroscopy under pressure conditions. His work bridges fundamental physics with biological applications, particularly in photosynthetic systems, where he examines how pressure perturbations affect protein structure, energy transfer mechanisms, and spectral properties. This interdisciplinary approach has positioned him as a specialist in using pressure as a tool to probe molecular interactions that are difficult to study under normal conditions. Analysis of Dr. Leiger's publication record reveals a clear research trajectory evolving from fundamental studies of pressure effects on simple molecular systems toward increasingly complex biological structures. His early work focused on spectral hole burning in crystals and glasses, while his more recent publications demonstrate sophisticated applications of high-pressure spectroscopy to photosynthetic complexes. A unifying theme across his career is the use of pressure as a precise experimental parameter to manipulate and understand molecular interactions, particularly in systems relevant to energy conversion processes. His collaborative work with researchers like Arvi Freiberg and Margus Rätsep has produced significant insights into photosynthetic mechanisms under extreme conditions. Dr. Leiger has participated in seven major research projects funded by Estonian research agencies, with total funding exceeding 3.9 million EUR. His largest project, 'New Insights into Photosynthetic Excitations Enabled by High-pressure Perturbation Spectroscopy' (2020-2024), received 1,311,375 EUR from the Estonian Research Council. These projects consistently position him as a key researcher within teams investigating photosynthetic systems, with principal investigators typically being senior colleagues like Arvi Freiberg. His research demonstrates strong continuity and increasing complexity, moving from basic physical studies to sophisticated investigations of biological energy conversion mechanisms.

• Bioinorganic chemistry
• Gas phase ion chemistry
• Metabolomics
• +5 more

Maria Elisa Crestoni is a Full Professor at the Department of Chemistry and Pharmaceutical Technologies , Università degli Studi di Roma "La Sapienza". Her research focuses on bioinorganic chemistry , gas-phase ion chemistry , metabolomics , and vibrational spectroscopy with specialization in IRMPD spectroscopy and FT-ICR mass spectrometry . Her research explores: Metal-antibiotic interactions Platinum-based drug mechanisms Non-covalent biomolecular complexes Characterization of bioactive compounds Gas-phase reaction dynamics Metabolic profiling of food products Publications (2025-2022) reveal sustained work on platinum drug interactions with DNA/nucleophiles, antioxidant flavonoids, and metal complex reactivity using advanced spectroscopic and computational methods. She leads the FT-ICR-MS@SAPIENZA laboratory and teaches General and Inorganic Chemistry to pharmacy students.