جست‌وجوی استاد و پژوهشگر

• Thermal Physics
• Nanophysics
• Superconductivity
• +۳ مورد دیگر

Zhuoran Geng serves as a Postdoctoral Researcher within the Department of Physics at the Faculty of Mathematics and Science, University of Jyväskylä. His office is located in room YNC 221, with contact available via email (zhuoran.z.geng@jyu.fi) and mobile (+358408054441). His research falls under Physical Sciences (field code 114) with focus on experimental nanoscale phenomena. Dr. Geng's primary research interests center on thermal nanophysics and superconducting quantum devices. He investigates phononic crystals, near-field thermal transport, and acoustic wave tunneling in piezoelectric systems. His secondary focus involves developing superconductor-ferromagnet hybrid structures for quantum applications including non-reciprocal electronics, cryogenic detectors, and qubit systems. This work bridges condensed matter physics, materials engineering, and quantum information science. Analysis of his 2018-2024 publications reveals consistent exploration of phonon-mediated energy transfer mechanisms, particularly through vacuum gaps and piezoelectric interfaces. His research demonstrates increasing convergence between thermal transport phenomena and quantum device engineering, with recent work emphasizing biomimetic material design and superconductor-ferromagnet coupling for next-generation sensors. Key methodological approaches include nanofabrication, analytical modeling of thermoelectric responses, and experimental characterization of quantum tunneling effects. He actively contributes to the Thermal Nanophysics and Superconducting Devices research group at JYU, which maintains dual focus on fundamental nanoscale thermal transport phenomena and applied quantum device development. The group's experimental work leverages advanced fabrication techniques and cryogenic measurement systems to explore quantum thermal effects and hybrid quantum systems.

• Nanofabrication
• Focused Ion Beam Technology
• Electron Microscopy
• +۴ مورد دیگر

Dr. David Cox is a Senior Research Fellow at the Advanced Technology Institute (ATI) at the University of Surrey, where he leads research in nanofabrication and ion beam technologies. He joined the university in 2001 following a PhD in Materials Science from the University of Cambridge. His work focuses on Focused Ion Beam (FIB) applications for quantum technologies, including the development of single-ion implantation facilities and liquid metal alloy ion sources. Cox also pioneered X-ray fluorescence microscopy for atomic-scale defect detection and contributed to superconducting nanobridge SQUID sensors for quantum measurement. His research spans semiconductor engineering, biomedical prosthetics, and materials for space applications. Education: PhD in Materials Science, University of Cambridge (pre-2001) Research Interests: His primary interests include: - Focused Ion Beam nanofabrication for quantum devices - Ion beam implantation for semiconductor doping and quantum sensors - Electron microscopy techniques for material characterization - Development of solid-state electrolytes for batteries - Nanobridge SQUID-based sensors for low-temperature applications - Atomic-scale defect detection in crystals using XRF microscopy Publications: Recent work highlights advances in single-ion implantation precision, XRF sensitivity for sub-atomic detection, and novel materials for space environments. His studies on conjugated polymers for retinal prosthetics bridge materials science with biomedical engineering. Awards & Grants: While no specific awards are listed, his contributions to quantum technology and ion beam applications have likely received institutional and collaborative funding support. Key collaborations include the National Physical Laboratory (UK), NTT Basic Research Laboratory (Japan), and the National Ion Beam Centre. Labs & Teams: Leads the Focused Ion Beam laboratories at ATI, managing cutting-edge tools like the SIMPLE implanter. Collaborates with the Nanofabrication and Quantum Technology groups at Surrey, alongside international partners in Japan and Europe.

Koos Zevenhovenمشاهده پروفایل

استاد مهمان

• Biomedical Engineering
• Magnetic Resonance Imaging (MRI)
• Medical Imaging Technology
• +۳ مورد دیگر

Koos Zevenhoven is a Visiting Professor and Research Group Leader at Aalto University's Department of Neuroscience and Biomedical Engineering. He holds a Doctoral degree in Engineering Physics and Biomedical Engineering (2023) from Aalto University, along with prior degrees in Engineering and Technology. His work focuses on advancing ultra-low-field MRI systems, hybrid MEG-MRI instrumentation, and computational modeling of magnetic fields. Key contributions include developing the bfieldtools software for magnetic field simulation and optimizing MRI calibration techniques. Research interests span biomedical engineering, magnetic resonance imaging, and sensor technology. He has authored over 35 publications and received awards including the Aalto Scientific Communication Award (2017) and Aalto University Doctoral Thesis Award (2024). His activities include organizing international bioelectromagnetism conferences and presenting at major neuroscience and imaging events. Education: BEng (2011), MEng (2011), PhD (2023) in Engineering and Biomedical fields from Aalto University Research emphasizes ultra-low-field MRI innovations for improved cancer and brain disease diagnostics. Collaborations include work on SQUID-based sensors and hybrid imaging systems. Current projects involve refining scanner technology, noise reduction methods, and data consistency algorithms for medical imaging.

• Superconductivity
• Materials Science
• Quantum Physics
• +۹ مورد دیگر

Roles & Affiliations: Dag Winkler is a Professor at Chalmers University of Technology, specializing in Quantum Component Physics. He has held academic roles including Head of the Department of Microtechnology and Nanoscience – MC2 (2007–2016) and previously served as a lecturer at the University of Gothenburg. His research focuses on superconductivity, quantum devices, and applications in bioassays and neuroimaging. Education: PhD in Physics from Chalmers (1987). Postdoctoral research at Yale University (1988–1990). Research Interests: Tunneling phenomena in superconductors, HTS SQUIDs for MEG/ULF-MRI, and 2D electronic properties at oxide interfaces. Key projects include multifunctional materials, Josephson junctions, and magnetic sensor systems. He has pioneered advancements in cryogenic electronics and superconducting quantum interference devices (SQUIDs). Publications: Over 100 peer-reviewed articles, including work on superconducting interfaces, SQUID magnetometers, and bioassay technologies. Recent research emphasizes nanoscale patterning and applications in neuroimaging systems. Advising & Grants: Extensive leadership in research projects funded by VR, SSF, and the EU. Contributions span nanotechnology, quantum sensing, and biomedical applications. Notable collaborations include ABB Corporate Research (cryogenic systems) and Acreo (microwave technology). Labs & Teams: Former head of the Quantum Device Physics Laboratory and MC2 Department. Active in developing cutting-edge SQUID-based systems and bioassay platforms for medical diagnostics.

• Superconductivity
• Quantum Chaos
• Metamaterials
• +۴ مورد دیگر

Steven Anlage is a Professor in the Department of Physics at the University of Maryland, College Park, and a member of the Quantum Materials Center (QMC). His research focuses on experimental studies of superconductivity, quantum chaos, metamaterials, and high-resolution microwave microscopy. He leads the Anlage Research Group, which explores topics like superconducting metamaterials, nonlinear dynamics in GHz circuits, and the electrodynamics of nanostructured materials like carbon nanotubes and graphene. His work includes developing applications for time-reversed wave propagation and wireless power transfer. Anlage holds the UMD Distinguished Scholar-Teacher award and has advised PhD students including Chung-Yang Wang and Jingnan Cai. His affiliations include the MRSEC (Materials Research Science and Engineering Center), MURI projects, and initiatives like Chaos@UMD and the Institute for Research in Electronics and Applied Physics (IREAP). Recent research highlights include the experimental realization of photonic topological insulator graphs, studies of UTe2 superconductivity, and investigations into exceptional points in non-Hermitian systems. He collaborates with institutions such as UCLA and CNAM/UMD on nanophysics projects. Anlage's experimental facilities support advanced microscopy and scattering studies, with grants funding work on complex wave systems and metamaterials. His lab's innovations include a world-record superconducting single-photon camera and contributions to understanding electromagnetic field imaging in chaotic systems.

Matthew Birkمشاهده پروفایل

استادیار

• Marine Biology
• Cephalopod Physiology
• Environmental Physiology
• +۴ مورد دیگر

Dr. Matthew Birk is an Assistant Professor of Biology at Saint Francis University, leading the Birk Lab of Cephalopod Physiology. He holds a Ph.D. in Marine Science (University of South Florida) and a B.Sc. in Marine Biology (University of North Carolina Wilmington). His research focuses on physiological adaptations of marine animals to environmental challenges, particularly oxygen regulation in cephalopods. By integrating biochemistry, genetics, and ecology, his work explores how organisms balance oxygen supply and demand under extreme conditions. Recent articles highlight studies on sodium pump mechanisms, temperature-dependent RNA editing in octopuses, and oxygen dynamics in marine ecosystems. The Birk Lab emphasizes the ecological roles of cephalopods and their resilience to environmental stressors. Collaborations involve R package development for respirometry and fiber optic data analysis, reflecting his commitment to advancing experimental tools in marine biology.

Abolfazl Zahediمشاهده پروفایل

مدرس ارشد

• Computational Material Modelling
• Additive Manufacturing
• Biomechanics
• +۷ مورد دیگر

Dr. Abolfazl Zahedi is a Senior Lecturer in Mechanical Engineering at De Montfort University, affiliated with the School of Engineering and Sustainable Development within the Faculty of Computing, Engineering and Media. He earned his PhD from Loughborough University in 2013 and has held research positions at the University of Strathclyde and the University of Manchester before joining DMU in 2016. His educational background includes an MSc and PhD in Mechanical Engineering, and he is a Fellow of the Higher Education Academy (FHEA). His research spans computational material modelling, additive manufacturing, biomechanics, and tissue engineering, with a strong emphasis on using mathematical and numerical methods to enhance medical device design and reduce patient recovery times. Dr. Zahedi's recent publications reflect a strong focus on numerical simulations in biomechanics and materials science, particularly in bone cutting, fracture mechanics, and 3D-printed biomaterials. His work integrates finite element and SPH methods to model complex material behaviors in medical and industrial applications, demonstrating a consistent theme of bridging theoretical mechanics with practical engineering solutions. Scientific Awards: Most impactful publication award in DMU Engineering School (2019) Dr. Zahedi actively supervises PhD students and has secured research funding, including the Newton Travel Fund and internal HEIF grants for developing hybrid biomaterial implants. He serves as a module leader for courses in mechanical vibrations and control systems, and as deputy program leader for the MSc Mechatronics program. He also contributes to peer review through EPSRC and as a board member for the journal Symmetry . His current research involves manufacturing splints and bone implants using hybrid materials via 3D printing, supported by Higher Education Innovation Fund projects. He collaborates across disciplines in biomaterials and biosensors, particularly through international workshops.

Daniel B. Leznoffمشاهده پروفایل

استاد

• Inorganic Chemistry
• Coordination Chemistry
• Organometallic Chemistry
• +۳ مورد دیگر

Daniel B. Leznoff is a Distinguished Professor in the Department of Chemistry at Simon Fraser University (SFU). He holds academic positions in both the Department of Chemistry and through TRIUMF collaboration. His research focuses on inorganic coordination chemistry, encompassing coordination polymers, organometallic compounds, and actinide chemistry. Leznoff obtained his B.Sc. from York University and his Ph.D. from the University of British Columbia. He leads a multidisciplinary group advancing synthetic, structural, and spectroscopic techniques, including X-ray crystallography, NMR, and magnetic measurements. His research programs span Supramolecular cyanometallate coordination polymers for sensing and materials applications Non-traditional metal phthalocyanines for catalysis and magnetism Actinide chemistry exploring novel uranium/thorium complexes Paramagnetic organometallic systems and their reactivity Students in his group gain expertise in advanced techniques like SQUID magnetometry and muon-spin resonance. He emphasizes international collaboration, with partnerships in France, Japan, and beyond. Leznoff teaches courses like Special Topics in Inorganic Chemistry and mentors students in both MSc/PhD programs. His lab utilizes state-of-the-art facilities including glovebox systems and NMR spectroscopy. His work is funded by agencies such as NSERC, with projects addressing material design for CO 2 electroreduction and luminescent sensors. Collaborations include physicists for advanced measurements and industry partnerships for application development.

Brad Seibelمشاهده پروفایل

استاد

• Marine Physiology
• Climate Change Ocean Impacts
• Ocean Acidification
• +۴ مورد دیگر

Brad Seibel serves as Professor of Biological Oceanography at the University of South Florida's College of Marine Science, where he directs the Comparative Environmental Physiology (CEPh) Lab. His research program integrates field and laboratory approaches to investigate physiological responses of marine organisms to climate-driven stressors including ocean acidification, deoxygenation, and warming across polar to tropical ecosystems and surface to abyssal environments. Dr. Seibel's work focuses on marine physiological ecology with emphasis on oxygen dynamics, metabolic constraints, and climate change impacts. His comparative studies span phylogenetic scales from microzooplankton to fishes and examine evolutionary limits through mitochondrial to ecosystem-level integration. Key specialties include polar biology, deep-sea adaptation mechanisms, and mollusk physiology—particularly cephalopod responses to environmental extremes. Analysis of recent publications (2021-2024) reveals intensifying focus on metabolic habitat modeling, oxygen measurement methodologies, and vertical migrator vulnerability. His work demonstrates methodological innovation in respirometry while addressing critical gaps in predicting climate-driven habitat loss through metabolic indices and oxygen supply capacity frameworks. The CEPh Lab conducts collaborative field campaigns aboard research vessels like the R/V Sikuliaq, with recent projects examining metabolic barriers for vertical migrators and synergistic CO 2 -temperature effects on Antarctic krill. Dr. Seibel's research provides foundational physiological insights for ecosystem-based climate adaptation strategies in marine resource management.

Luis Eduardo Ardila Perezمشاهده پروفایل

پژوهشگر

• High Energy Physics
• Particle Physics
• Detector Technology
• +۳ مورد دیگر

Luis Eduardo Ardila Perez is a Researcher at the Institute for Data Processing and Electronics (IPE) within the Karlsruhe Institute of Technology , affiliated with the Karlsruhe School of Elementary Particle and Astroparticle Physics . His work focuses on high-performance computing architectures for particle physics experiments. PhD Topic: Real-Time High-Performance Readout System (100 Tb/s) for the CMS Track Trigger Supervisor: Prof. Dr. Marc Weber His research spans high-energy physics detector systems , with expertise in: FPGA-based track triggering GPU acceleration for real-time processing ATCA modular electronics High-throughput data acquisition Cryogenic sensor readout Publication trends highlight: Advancements in quantum computing interfaces (RFSoC, SQUID multiplexers) Innovations in detector electronics (CMS, PANDA) Optimization of real-time data systems for extreme environments Development of scalable hardware architectures for large-scale experiments He contributes to: CMS experiment at CERN KSETA collaborative research school OpenIPMC open-source hardware initiatives

Mark Edwardsمشاهده پروفایل

استاد

• Quantum Computing
• Ultra-cold Atomic Gases
• Bose-Einstein Condensates
• +۳ مورد دیگر

Mark Edwards serves as the Fuller E. Callaway Professor of Physics within the Department of Biochemistry, Chemistry, and Physics at Georgia Southern University's College of Science and Mathematics. His research program focuses on theoretical ultra-cold quantum atomic gases through active collaborations with the University of Maryland, NIST, and the University of Sheffield. His academic credentials include: B.S. in Physics from Georgia Southern University (1977) M.A. in Physics from Johns Hopkins University (1980) Ph.D. in Physics from Johns Hopkins University (1984) Dr. Edwards' research centers on quantum computing implementations using laser-manipulated ultra-cold atoms, Bose-Einstein condensate dynamics during cooling processes, and advanced atom interferometer design for precision navigation and metrology applications. His theoretical work explores quantum simulation frameworks and atomtronic circuit behavior, specifically examining superfluid transport phenomena and quantum fluid dynamics in ring-shaped condensates. Analysis of his 2013-2016 publications reveals concentrated research on atomtronic SQUIDs (Superconducting Quantum Interference Device analogs), with recurring themes of hysteresis effects, shock wave propagation, and phase detection in superfluid circuits. These investigations consistently target enhanced robustness and sensitivity for quantum sensor development. Collaborative research activities form the cornerstone of his work, with sustained partnerships at the University of Maryland at College Park, the National Institute of Standards and Technology, and the University of Sheffield enabling experimental validation of theoretical models in ultra-cold atom systems.

Nancy Aggarwalمشاهده پروفایل

استاد

• Gravitational Wave Astronomy
• Astrophysics
• Particle Physics
• +۴ مورد دیگر

Dr. Nancy Aggarwal is a Professor in the Department of Physics at the University of California, Davis. Her research focuses on gravitational wave astronomy, dark matter detection, and experimental astrophysics. She is actively involved in collaborations such as LIGO, Virgo, IceCube, and ARIADNE, contributing to groundbreaking studies of compact binary mergers, axion clouds around black holes, and high-frequency gravitational wave detection using optical trapping technologies. Her work bridges quantum optics, cosmology, and particle physics, aiming to explore fundamental questions in astrophysics and dark matter. Key research areas include: Gravitational wave detection via novel methods like optical trapping of microdisks Searches for axion dark matter and primordial black holes Neutrino astrophysics using IceCube data Development of ultra-sensitive sensors for high-frequency gravitational waves Analysis of binary coalescence events in LIGO/Virgo data Her recent publications explore challenges in gravitational wave searches above 10 kHz, constraints on dark photon dark matter, and optimization of SQUID gradiometers for axion experiments. Dr. Aggarwal’s contributions have advanced both observational and theoretical frameworks in multi-messenger astronomy and quantum metrology.

Menno Pootمشاهده پروفایل

استاد

• Quantum Technologies
• Nanomechanical Resonators
• Integrated Quantum Optics
• +۳ مورد دیگر

Prof. Menno Poot holds the Rudolph Mössbauer Chair in the Department of Physics at the Technische Universität München (TUM). He leads a research group focusing on quantum technologies, with expertise in optomechanical systems, nanomechanical resonators at ultra-low temperatures, and integrated quantum optics. His work includes developing photonic chips for single-photon manipulation and superconducting detector arrays. Education: Applied Physics degrees (BSc/MSc/PhD) from TU Delft (Kavli Institute of Nanoscience), followed by a Rubicon Fellowship at Yale University's Electrical Engineering Department. Research interests center on quantum optomechanics, nanomechanical systems in quantum regimes, and hybrid photonic circuits. Key projects involve creating silicon nitride-based photonic components for quantum computing and space applications, as well as studying nonlinear dynamics in micromechanical resonators. Awards include the NWO Rubicon Scholarship (2010) and multiple TU Delft academic honors. His lab focuses on advancing quantum technologies through integrated photonic platforms and optomechanical interfaces.

Detlef Bornمشاهده پروفایل

پژوهشگر

• Superconducting Detectors
• Terahertz Imaging
• Security Camera Technology
• +۵ مورد دیگر

Dr. Detlef Born is a Researcher at the Leibniz Institute of Photonic Technology (IPHT) in Jena, Germany, working within the Research Department Photonics and Quantum Detection and specifically in the Work group Radiometry. His research focuses on developing advanced imaging systems using superconducting detector technologies for security applications and fundamental physics investigations. Dr. Born's primary research interests center around superconducting detector technology, particularly transition-edge sensors (TES) and superconducting quantum interference devices (SQUIDs) for submillimeter-wave and terahertz imaging. His work spans both applied security technology and fundamental physics, with significant contributions to understanding fluxoid dynamics in type-II superconductors, Josephson junction behavior, and quantum detection phenomena. His research has enabled the development of passive video imaging systems operating at 350 GHz with exceptional sensitivity (pixel NETD well below 1 K), allowing for security screening at standoff distances of up to 25 meters with high spatial resolution. Analysis of Dr. Born's publication record from 2012-2025 reveals a consistent focus on advancing superconducting detector technology for security applications while simultaneously exploring fundamental superconducting phenomena. His work demonstrates a progression from foundational research on detector materials and quantum effects toward increasingly sophisticated integrated imaging systems capable of real-time video at practical standoff distances. The research spans multiple subfields including cryogenic detector physics, quantum transport phenomena, and optical system design for submillimeter radiation. Dr. Born collaborates extensively with researchers across multiple institutions, as evidenced by his publication record. His work involves sophisticated experimental setups requiring cryogenic systems operating below 1 K, precision optical components including free-form mirrors, and advanced electronic readout systems. The research group he works within at IPHT appears to be a leading center for developing practical applications of superconducting detector technology for security screening and scientific instrumentation.

Jürgen Kunertمشاهده پروفایل

پژوهشگر

• Low Temperature Superconductor Electronics
• Josephson Junction Technology
• SQUID Sensor Development
• +۵ مورد دیگر

Dr. Jürgen Kunert is a Researcher at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany, working within the Competence Center for Micro- and Nanotechnologies (CMNT). His position involves development and fabrication of low temperature superconductor electronics, quality management for CMNT, serving as occupational safety officer, and handling circuit layout, data preparation, and lithography masks. His work is centered in the Microsystem and Nanotechnology department, focusing on advanced superconducting devices and quantum circuit technologies. Dr. Kunert's research spans multiple specialized areas in superconducting electronics, with particular expertise in Josephson junction technology, SQUID sensor development, and cryogenic quantum circuits. His work bridges fundamental physics with practical applications in quantum computing, security imaging, and particle beam diagnostics. His research demonstrates strong interdisciplinary connections between micro- and nanofabrication techniques, low-temperature physics, and advanced electronic circuit design for quantum applications. An analysis of his recent publications (2019-2025) reveals a consistent focus on improving superconducting device performance through advanced fabrication techniques. His work shows progression from fundamental studies of Josephson junctions and SQUID noise characteristics toward more complex integrated systems for quantum computing interfaces and practical applications like terahertz security cameras. The research demonstrates a strategic shift toward wafer-scale fabrication processes and mixed-signal circuit integration that addresses scalability challenges in quantum technologies. Dr. Kunert actively collaborates with multiple research groups at Leibniz-IPHT and external partners, as evidenced by his co-authorship on numerous publications with colleagues including Matthias Schmelz, Ronny Stolz, Vyacheslav Zakosarenko, and others. His work appears in leading journals including Superconductor Science & Technology, IEEE Transactions on Applied Superconductivity, and Physical Review B, reflecting the high impact of his research in the superconducting electronics community. His laboratory work focuses on the Competence Center for Micro- and Nanotechnologies at Leibniz-IPHT, where he contributes to developing advanced fabrication processes for superconducting devices. The research environment supports both fundamental investigations of quantum phenomena and practical applications requiring high-sensitivity detection systems operating at millikelvin temperatures.