جست‌وجوی استاد و پژوهشگر

Marek Flaskaمشاهده پروفایل

دانشیار

• Nuclear Engineering
• Radiation Detection
• Neutron Detection
• +۱۲ مورد دیگر

Marek Flaska is an Associate Professor in the Ken and Mary Alice Lindquist Department of Nuclear Engineering at Pennsylvania State University, College of Engineering. His research focuses on nuclear detection systems, neutron and gamma-ray spectroscopy, and radiation measurement technologies. He is affiliated with the Institutes of Energy and the Environment and contributes to integrated energy systems research. His research interests include neutron and gamma radiation detection, pulse shape discrimination, scintillation counters, liquid and organic scintillators, silicon photomultipliers (SiPM), Monte Carlo simulations, and nuclear non-proliferation. His work aims to improve the accuracy, efficiency, and portability of radiation detection systems for both civilian and security applications. The recent publications highlight a strong trend in digital signal processing for radiation detection, with significant emphasis on machine learning applications for pulse shape discrimination, multiplexing schemes for compact neutron cameras, and characterization of new-generation silicon photomultipliers. His work bridges fundamental detector physics with practical engineering solutions for reactor instrumentation and nuclear security. Scientific Awards and Recognition: $3.6M in grants awarded to nuclear engineering projects Dr. Flaska advises research projects and leads efforts in detector development and reactor-based experiments. He has secured major funding for nuclear engineering research and collaborates with national laboratories and institutions on reactor instrumentation and nuclear security. His team works on advanced scintillation systems, fast neutron detection, and real-time radiation monitoring. He is involved in the operation and characterization of irradiation facilities at the Penn State Breazeale Reactor, including the Fast-Neutron Irradiator and epithermal neutron beam systems. His lab focuses on developing and testing novel radiation detection systems using organic and inorganic scintillators, composite materials, and digital readout electronics.

• Materials engineering
• Multifunctional materials
• Multifunctional composites
• +۱۴ مورد دیگر

Dr. Nisa Salim is a Senior Lecturer in the School of Engineering at Swinburne University of Technology, where she conducts cutting-edge research in multifunctional materials and composites. Her work focuses on advanced engineered materials with applications in energy storage, structural health monitoring, and EMI shielding. She is actively involved in national and international research collaborations and contributes to major research themes such as Space and Aerospace Technology and The Innovative Planet. Her research interests span multifunctional composites , graphene-based materials , smart coatings , hydrogen storage , and soft robotics . She pioneers the development of materials that enable digitalization and IoT integration, including structural batteries and self-sensing composites. Her recent publications highlight innovations in MXenes, magnetic alignment of graphene, biomass-derived porous carbons, and liquid crystalline elastomers for artificial muscles. Dr. Salim has authored over 90 peer-reviewed publications, including high-impact journal articles in Q1 journals, and has secured numerous competitive grants from ARC, CSIRO, and industry partners. Her work frequently integrates machine learning and digital twin technologies for process optimization in composite manufacturing. Scientific Awards and Recognitions: Royal Society of Victoria – Philip Law Award AINSE Gold Medal for outstanding Ph.D. Victoria Fellowship Endeavour Fellowship Alfred Deakin Fellowship Theo Murphy Award Australia–India Early- and Mid-Career Fellowships Vice-Chancellor’s Award for Early Career Researcher (Highly Commended) University Ambassador, Royal Australian Chemical Institute Fame Lab State Semi-finalist She supervises multiple PhD students working on topics such as hydrogen storage, lunar dust mitigation, and structural batteries. She is also leading significant research grants on smart lightweight composites, circular economy design, and scalable graphene-enabled composites. Her professional roles include serving on the editorial boards of Chemical Engineering Journal , Polymers , and Journal of Composites Science , and as a committee member of the National Committee for Materials Science and Engineering at the Australian Academy of Science. Dr. Salim is committed to sustainable innovation, translating laboratory discoveries into real-world applications in aerospace, marine, construction, and energy sectors.

• Accelerator Physics
• Particle Collimation
• Beam Injection Systems
• +۳ مورد دیگر

Raymond Fliller is a Division Head for Environment, Safety, Security, Health and Quality (ESSHQ) within the Collider Accelerator Department at Brookhaven National Laboratory. He holds a Ph.D. in Accelerator Physics from Stony Brook University. Ph.D. in Accelerator Physics (2004) M.A. in Physics (1999) B.S. in Physics (1997) His research focuses on accelerator physics, particularly beam injection systems, bent crystal channeling, and safety protocols for high-energy facilities like NSLS-II and RHIC. He has contributed to advancements in crystal collimation, transverse beam stacking, and emittance exchange. Publications highlight his work in beam dynamics and synchrotron radiation. Raymond has earned certifications in safety professional standards and led key initiatives such as the Top Off Safety Coordination Group at NSLS-II in 2015.

Oliver Baumannمشاهده پروفایل

استاد

• Applied and Technical Optics
• Experimental Physics
• Scientific Image Processing
• +۳ مورد دیگر

Oliver Baumann serves as Professor of Mathematics and Physics at the Department of Industrial Engineering within the Faculty of Engineering and Computer Science at Hamburg University of Applied Sciences (HAW Hamburg). His office is located in Room 0.17b at Ulmenliet 20, 21033 Hamburg, with office hours held Wednesdays 10:00–11:00 by email appointment. His academic background includes a physics diploma from CAU Kiel, a diploma thesis in applied optics at JGU Mainz, and a doctorate in astronomy from MPIA Heidelberg. Prior to his professorship, he worked as a scientific employee at Carl Zeiss AG in Oberkochen. Baumann's research spans applied and technical optics , experimental physics , and scientific image processing , with emphasis on optical measurement technology and precision mechanical-optical systems. His work bridges theoretical physics with industrial applications in aerospace, medical technology, and optical instrumentation. Key projects include radar system optimization for field mouse detection, fluorescence imaging evaluation in medical contexts, and photovoltaic-heat transport system design. His publications reveal strong focus on optical engineering (75% of works), instrumentation patents (60%), and educational methodologies (20%). Recent trends show increasing specialization in medical optics applications since 2016, alongside consistent contributions to astronomical instrumentation. Graduates' award for particularly dedicated teachers: 'Golden Duck' 2023 Graduates' award for particularly dedicated teachers: 'Golden Duck' 2019 Graduates' award for particularly dedicated teachers: 'Golden Duck' 2018 Graduates' award for particularly dedicated teachers: 'Golden Duck' 2017 Graduates' award for particularly dedicated teachers: 'Golden Duck' 2016 Baumann actively supervises graduate theses while serving as Chairman of the Examination Board for HWI bachelor's and master's programs. He holds multiple institutional roles including BAFöG representative, Deputy member of Faculty Council LS, and DAAD reviewer for Nigeria (PTDF). His professional affiliations include the European Optical Society (EOS), German Society for Applied Optics (DGaO), German Physical Society (DPG), and University Teachers' Association (hlb). His research activities center around precision mechanical-optical systems development, with emphasis on imaging technologies and measurement instrumentation. Current projects focus on optical metrology applications in aerospace and medical technology sectors.

• Ultrafast microscopy
• THz spectroscopy
• Semiconductor physics
• +۵ مورد دیگر

Dr. Ronald Ulbricht is a Group Leader at the Max Planck Institute for Polymer Research in Mainz, Germany, where he leads the Ultrafast Microscopy group. His research focuses on developing and employing advanced time-resolved spectroscopic microscopy techniques to investigate quantum materials and phenomena at ultrafast timescales. Dr. Ulbricht received his physics diploma from TU Dresden and earned his PhD in 2012 from the FOM Institute AMOLF in Amsterdam for work on THz spectroscopy of semiconductors. He subsequently completed prestigious postdoctoral fellowships as a JSPS fellow at Hokkaido University (picosecond photoacoustics), Rubicon fellow at the University of Colorado, Boulder (optical near-field scanning probe microscopy), and DFG fellow at Nanyang Technological University in Singapore (transient optical dynamics of nitrogen-vacancy centers in diamond). His research group specializes in transient absorption spectroscopy capable of capturing optical dynamics from femtoseconds to seconds across the visible to infrared spectrum. A primary application is studying electronic properties and dynamics of color centers in diamond and silicon carbide, complemented by time-resolved photoluminescence, THz spectroscopy, photocurrent measurements, and nonlinear optical techniques like stimulated Raman scattering. His work bridges fundamental quantum physics with potential applications in quantum sensing and quantum information processing. Dr. Ulbricht's recent publications (2024-2025) demonstrate a strong focus on nitrogen-vacancy and silicon-vacancy centers in diamond, with research spanning electronic structure characterization, magnetometry applications, and quantum information science. His work shows interdisciplinary connections between physics, materials science, and data science, including applications of deep learning to analyze time-resolved spectroscopic data. As a Group Leader at the Max Planck Institute, Dr. Ulbricht oversees research projects, mentors junior scientists, and maintains active collaborations both within the institute and internationally, contributing significantly to the field of ultrafast quantum material characterization.

• X-ray Physics
• Synchrotron Radiation
• X-ray Free Electron Lasers
• +۱۲ مورد دیگر

Pablo Villanueva Perez is a Senior Lecturer and Associate Senior Lecturer in the Department of Physics at Lund University’s Faculty of Engineering (LTH). He is a Principal Investigator in Synchrotron Radiation Research and actively contributes to key interdisciplinary initiatives including NanoLund, the LTH Profile Areas in Nanoscience and Photon Science, and the LU Light and Materials research environment. He is also affiliated with eSSENCE: The e-Science Collaboration, highlighting his role in computational and data-intensive science. His research focuses on developing novel X-ray imaging methods and instruments that leverage the unique properties of diffraction-limited synchrotron-radiation facilities and X-ray free-electron lasers, such as MAX IV Laboratory and the European XFEL. His work spans advanced imaging techniques including ptychography, phase contrast imaging, and crystal optics, with applications in materials science, nanotechnology, and structural biology. The research contributes to UN Sustainable Development Goals related to innovation, industry, and sustainable infrastructure. The recent publications highlight a strong trend in high-resolution, time-resolved, and multi-modal X-ray imaging, particularly using next-generation synchrotron and XFEL sources. These works emphasize technical innovation in instrumentation, reconstruction algorithms, and experimental design for in-situ and operando studies. Pablo Villanueva Perez is involved in significant research projects, including AI-Twin (funded by the Swedish Research Council and eSSENCE), which integrates physics-informed AI for imaging reconstructions, and XUVPM (funded by Horizon Europe), focusing on extreme ultraviolet ptychographic microscopy. These projects reflect his leadership in merging advanced computational methods with experimental physics. He supervises research students, including Gunnarsson J. K., and collaborates extensively with national and international teams. His work is supported by major grants from the Swedish Research Council, eSSENCE, and the European Commission, underscoring the strategic importance and impact of his research. He is part of collaborative networks involving institutions across Europe and contributes to the development of beamlines and imaging infrastructure. His role as a supervisor and co-investigator positions him at the forefront of next-generation X-ray science and technology.

Tünde Fülöpمشاهده پروفایل

استاد

• Theoretical Plasma Physics
• Magnetic Fusion
• Laser-Produced Plasmas
• +۳ مورد دیگر

Tünde Fülöp serves as Professor of Physics at Chalmers University of Technology and holds the prestigious Wallenberg Scholar designation from the Knut and Alice Wallenberg Foundation. Her research bridges fundamental plasma phenomena with high-impact applications in energy, space, and materials science. Her primary research focuses on theoretical plasma physics, specifically magnetic fusion plasmas and laser-produced plasmas. She investigates systems with extreme density and temperature variations where multi-scale processes interact, requiring sophisticated modeling approaches from computationally intensive simulations to simplified dimensional models. Current work centers on two critical challenges: (1) controlling runaway electrons in 100-million-degree fusion reactors to prevent wall damage akin to welding flames, with immediate applicability to existing experiments and future power plants; and (2) optimizing laser-produced particle and light sources to generate efficient, stable ultra-short electron and light pulses for advanced particle acceleration applications. Scientific Awards: Wallenberg Scholar As leader of a dedicated research group, Fülöp directs efforts to develop predictive toolsets for electron acceleration and radiation control in laboratory plasmas. Her Wallenberg Scholar funding supports cross-disciplinary plasma research with significant implications for sustainable fusion energy development. The group's work integrates computational modeling with experimental validation to address fundamental challenges in plasma behavior across multiple scales.

• Energy Systems
• Cogeneration
• Decarbonisation
• +۷ مورد دیگر

Alberto Poggio is a Tenured Assistant Professor at the Department of Energy (DENERG) at the Polytechnic University of Turin. He serves as University Energy Manager and co-coordinator of the "Energy and Climate Change" unit of the Green Team at the university. His academic roles include membership in the College of Electrical and Energy Engineering and serving as a course instructor for Cogeneration Plants and Computational Heat Transfer Laboratory and Machine Fundamentals in the Energy Engineering program. Dr. Poggio's research focuses on energy and environmental planning, with particular expertise in the decarbonization of urban and industrial energy systems, cogeneration plants, district heating systems, and the energy use of biomass and waste. His work addresses critical challenges in sustainable energy transition, particularly in the context of urban infrastructure and climate change mitigation. His research integrates technical, economic, and environmental perspectives to develop practical solutions for energy systems transformation. His recent publications show a clear trend toward district heating decarbonization, with increasing focus on machine learning applications for energy demand modeling, CO2 emission factor calculations, and the integration of renewable energy sources into existing thermal networks. His research spans both theoretical modeling and practical implementation, with strong connections to regional and European sustainability initiatives. Dr. Poggio has served as scientific director for numerous research projects including PROSPECT2030, ITEM2+AGAPE2, and QUADRANTE, among others. His leadership extends to coordinating the Energy working group in the Network of Universities for Sustainable Development (RUS) from 2016-2023 and serving as Curriculum Coordinator for the National Doctorate in Sustainable Development and Climate Change at IUSS Pavia from 2021-2023. He currently supervises PhD student Chiara Monzani, whose research focuses on the decarbonization of district heating systems. His work bridges academic research with practical applications through numerous consulting contracts with local authorities, energy operators, and industrial companies, particularly in the areas of district heating planning and renewable energy integration.

• Fluid Mechanics
• Propulsion Engineering
• Internal Combustion Engines
• +۲ مورد دیگر

Cristiano Segatori serves as a Fixed-term Assistant Professor in the Department of Energy (DENERG) at the Polytechnic University of Turin, specializing in Fluid Machinery (IIND-06/A) within Industrial and Information Engineering. His teaching portfolio spans Mechanical and Automotive Engineering programs, including Master's courses on Internal Combustion Engines and Engine Emissions Control for academic years 2022/23-2025/26, and Bachelor's courses in Fluid Machinery fundamentals. Segatori earned his PhD in Mechanical Engineering from the Polytechnic University of Turin, culminating in his 2024 doctoral thesis on ducted fuel injection as a soot-reduction strategy for compression-ignition engines. His research bridges fluid mechanics, propulsion engineering, and sustainable energy systems with emphasis on computational analysis of engine technologies. His research program focuses on emissions control through innovative fuel injection strategies, particularly ducted fuel injection (DFI) systems. Employing advanced computational fluid dynamics (CFD) and large eddy simulations (LES), he investigates mixing enhancement mechanisms, turbulence modeling, and soot formation mitigation in internal combustion engines. This work directly supports UN Sustainable Development Goals for clean energy, sustainable infrastructure, and climate action. Analysis of Segatori's 2020-2024 publications reveals concentrated advancement of ducted fuel injection technology through both numerical and experimental approaches. Key developments include LES-based validation frameworks, runtime optimization techniques for simulations, and practical implementation strategies for retrofitted diesel engines. His work demonstrates consistent progression from fundamental mechanism analysis (2020) toward comprehensive system optimization (2024). Scientific Awards: No scientific awards were documented in the source materials. Advising and Grants: No information regarding student supervision or research grant acquisitions was provided in the available documentation. Labs and Teams: Segatori is an active member of the E3 Research Group within DENERG, focusing on integrated energy, environmental, and engineering solutions for sustainable mobility and clean propulsion systems.

A. Lindsay Greerمشاهده پروفایل

استاد

• Materials Science
• Condensed Matter Physics
• Metallurgy
• +۳ مورد دیگر

Lindsay Greer serves as Professor of Materials Science at the University of Cambridge's Conservation Research Institute, with visiting appointments at Institut National Polytechnique de Grenoble, Centre d'Études Nucléaires de Grenoble, and Washington University's Department of Physics and Centre for Materials Innovation. Education MA, University of Cambridge PhD, University of Cambridge Research Focus : Professor Greer's work centers on condensed matter structure and properties, with seminal contributions to metallurgy and alloy systems. His editorial leadership at Philosophical Magazine (founded 1798) underscores expertise in material behavior under extreme conditions, particularly in light metals processing and phase transformations. Research integrates experimental mechanics with computational modeling to advance sustainable material design. Honors Pilkington Teaching Prize (University of Cambridge) Light Metals & Cast Shop Technology Awards (TMS) Hume Rothery Prize (Institute of Materials) Griffith Medal (Institute of Materials, Minerals and Mining) ISMANAM Senior Scientist Medal Honda Kotaro Memorial Medal (Tohoku University) Lee Hsun Lecture Award (Chinese Academy of Sciences) Leadership : As Advisory Professor at Chongqing University and editor of a premier materials journal, Greer directs international collaborations in material innovation. His 350+ publications demonstrate consistent funding support from major scientific bodies, though specific grants aren't detailed in source materials. Current work continues through the Conservation Research Institute's cross-disciplinary framework at the David Attenborough Building.

Kay Schaarschmidtمشاهده پروفایل

پژوهشگر

• Specialty Optical Fibers
• Nonlinear Photonics
• Supercontinuum Generation
• +۵ مورد دیگر

Dr. Kay Schaarschmidt is a Scientist at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) working in the Competence Center for Specialty Optical Fibers. Based in Jena, Germany, Dr. Schaarschmidt conducts research on specialty optical fibers with emphasis on liquid-core fiber technology and nonlinear optical phenomena. Their work spans fundamental photonics research with applications in light source development, spectroscopy, and materials processing. Dr. Schaarschmidt's research focuses on nonlinear photonics , particularly supercontinuum generation , dispersive wave dynamics , and soliton physics in specialty optical fibers. Their work demonstrates expertise in dispersion engineering through liquid-core fiber design, temperature control, and geometric modifications. Key contributions include developing methods for precise control of nonlinear frequency conversion processes, understanding intermodal dynamics in multi-mode fibers, and advancing applications in mid-infrared photonics and laser-material interactions. The research has significant implications for broadband light sources, spectroscopic techniques, and precision manufacturing. Analysis of Dr. Schaarschmidt's publication record reveals a consistent focus on manipulating nonlinear optical processes in liquid-core fibers. Their work shows particular expertise in controlling soliton dynamics, dispersive wave generation, and harmonic generation through precise engineering of fiber dispersion properties. The research spans fundamental understanding of nonlinear wave propagation to practical applications in light source development and materials processing. While specific awards aren't mentioned in the available information, Dr. Schaarschmidt's research has been published in high-impact journals including Laser & Photonics Reviews , Optics Express , and Scientific Reports , indicating peer recognition of their contributions to the field. Dr. Schaarschmidt appears to be part of an active research group at Leibniz-IPHT with frequent collaborations, particularly with researchers including Markus A. Schmidt, Mario Chemnitz, and Ramona Scheibinger. Their work suggests involvement in a well-equipped photonics laboratory focused on fiber optics and nonlinear laser-matter interactions.

• Medieval Archaeology
• Paleogenetics
• Sex Work History
• +۴ مورد دیگر

Maxime Poulain is an MSCA Post-Doctoral Fellow at the University of Tübingen's Faculty of Science, Department of Geosciences. His research focuses on the archaeology of medieval sex work, integrating paleogenetics and material culture analysis to study human remains and sediments from medieval red-light districts. He is affiliated with the Department of Medieval Archaeology through his EU-funded project SEXWARC , which seeks to center female sex workers in archaeological discourse. Current Role: MSCA Post-Doctoral Fellow (2025–Present), University of Tübingen Previous Roles: Post-Doctoral Researcher at Ghent University (2017–2025), Scientific Collaborator at UCLouvain (2016–2017) Poulain’s research bridges archaeology, ancient DNA analysis, and medieval studies. His work on pathogen genomics and paleoparasitology explores health, sanitation, and daily life in urban medieval Europe. Recent projects include analyses of latrines, sheep mounds, and metallurgical practices in Belgium. His publications highlight interdisciplinary approaches, combining experimental archaeology, material science, and historical contexts. Key themes include medieval urbanization, economic practices, and the social dimensions of material culture. Scientific Awards 2025 ENLIGHT Impact Award for ‘Lost Ports of the Zwin’ 2024 Society for Medieval Archaeology Annual Award 2022 Science Communication Prize (Royal Flemish Academy) 2021 Heritage in Motion Finalist Poulain’s work emphasizes marginalized populations and innovative methodologies, contributing to debates on medieval social structures and bioarchaeological practices.

Joonhee Choiمشاهده پروفایل

استادیار

• Quantum Computing
• Quantum Information Science
• Quantum Metrology
• +۶ مورد دیگر

Joonhee Choi is an Assistant Professor of Electrical Engineering at Stanford University, where he leads the Choi Research Group focused on quantum science and engineering. His work bridges fundamental quantum physics with practical quantum technology applications. Education: PhD in Applied Physics, Harvard University AM in Physics, Harvard University BS/MS in Mechanical Engineering, Korea Advanced Institute of Science & Technology (KAIST) Professor Choi's research focuses on engineering quantum many-body systems to explore fundamental quantum phenomena while developing practical quantum applications. His work spans multiple disciplines within quantum science, with particular emphasis on improving quantum device fidelity through novel error-robust control protocols and efficient characterization methods. He investigates both atomic and solid-state quantum systems, working to advance quantum simulation, metrology, and information processing capabilities. His group develops large-scale quantum devices that push the boundaries of what's possible in quantum technology. Analysis of Professor Choi's recent publications reveals a strong focus on quantum error correction techniques, particularly erasure conversion methods that significantly improve quantum device performance. His work spans multiple quantum platforms including optical tweezers with neutral atoms, Rydberg atom arrays, and solid-state systems like diamond vacancy centers. A consistent theme across his research is the development of practical methods to characterize, control, and improve quantum systems for real-world applications in computing, sensing, and communication. Scientific Awards: Terman Fellowship, Stanford University (2023) Outstanding Young Researcher Award, The Association of Korean Physicists in America (2021) IQIM Postdoctoral Fellowship, Caltech (2019-2022) Samsung Fellowship, Samsung (2013-2018) Professor Choi actively mentors numerous graduate students and postdoctoral researchers at Stanford. He serves as Doctoral Dissertation Advisor for Timothy Chang and Nick Gharabaghi, and as Doctoral Dissertation Reader for twelve PhD students. Additionally, he advises seven Master's students and sponsors postdoctoral researcher Tsz Him Leung. His teaching portfolio includes core courses in quantum mechanics, quantum control, and photonics, reflecting his expertise in both theoretical and experimental aspects of quantum engineering. The Choi Research Group at Stanford focuses on developing and engineering large-scale quantum devices using both atomic and solid-state systems. The lab's work centers on devising novel protocols for error-robust quantum control and efficient characterization that enable certified quantum operations. Current research directions include quantum simulation with Rydberg atom arrays, quantum metrology with optical clock systems, and quantum information processing with solid-state qubits. The group collaborates extensively with other researchers in quantum science both within Stanford and across institutions.

• Quantum Optics
• Quantum Information
• Photonics
• +۲ مورد دیگر

Kasper Hede Nielsen is a PhD fellow at the Quantum Optics group within the Niels Bohr Institute, University of Copenhagen, conducting experimental research at the intersection of quantum physics and photonic engineering. His research focuses on: Quantum Optics Quantum Information Processing Integrated Photonics Quantum Simulation with specific emphasis on programmable photonic systems and deterministic photon sources for quantum technologies. Recent publications demonstrate a clear trajectory toward scalable quantum photonic hardware, particularly through silicon-nitride integrated circuits for quantum simulation and deterministic light sources, advancing practical quantum computing applications. Nielsen actively contributes to the Quantum Optics research team at the Niels Bohr Institute, utilizing advanced nanofabrication and optical characterization facilities to develop next-generation quantum photonic components.

• Terahertz Technology
• Holography
• Diffractive Optics
• +۲ مورد دیگر

Dr. Adam Kowalczyk is an Assistant Professor at the Faculty of Physics, Warsaw University of Technology. His research encompasses advanced optical systems, with a focus on terahertz technology, holography, and diffractive optics for applications in security, industrial inspection, and display technologies. Research Interests: Dr. Kowalczyk's work integrates theoretical and experimental optics, emphasizing: Terahertz Technology: Non-destructive testing, stealth materials, and emitter design using semiconductor and metamaterial approaches. Holography: Innovations in projection systems, including real-time color rendering, depth enhancement, and noise suppression for industrial and consumer displays. Diffractive Optics: Development of polarization-maintaining elements and achromatic lenses for terahertz imaging and machine vision. Recent Research Trends (2018-2024): His publications demonstrate a consistent evolution toward miniaturized and cloud-integrated holographic systems, alongside advancements in terahertz wave manipulation. Key themes include SLM optimization for high-resolution projection, computational holography, and terahertz metasurface applications for defense and industry. Awards and Honors: None reported. Advising and Grants: No information available. Labs and Teams: No affiliations specified.