Find Academic Supervisors

• Communication design
• Identity design
• Critical infrastructure studies
• +7 more

Ben Dalton is a Principal Lecturer at Leeds Beckett University, affiliated with the Leeds School of Arts and the Leeds Arts Research Centre (LARC). Their academic work bridges art, design, and technology, focusing on communication design and critical infrastructure studies within digital publics. Ben Dalton's educational background includes training at prestigious institutions: MIT Media Lab (design, ubiquitous computing, and mobile sensor networks) Arhus University Electron-Molecular Interaction group University of Leeds Spintronics and Magnetic Nanostructures lab Jim Henson's Creature Shop, London Ben's research explores identity design and critical infrastructure through diffractive methodologies, feminist science and technology studies, and material-discursive agential realism. Their work investigates identity performance in digital public spaces, developing prototype apps and services that explore contemporary identity experiences. They have examined identity construction in workplace and social spaces through collaborative projects with partners including the BBC and international art institutions. Their research extends to digital public space as a growing field encompassing critical infrastructures, personal data stores, networked commons, and construction of sustainable digital publics. Ben has developed numerous interactive media applications with commercial and government partners, including urban big screen interactions, mobile city geolocation games, and festivals. Ben Dalton's publication record demonstrates a consistent focus on the intersection of identity, digital infrastructure, and public space. Their work spans from early investigations into audio-based self-localization and spin mixing to recent explorations of queer joy as a digital good and collaging against women's invisibility in climbing magazines. A notable trend across their publications is the use of artistic and design methodologies to critically examine digital infrastructure and identity politics. Their research often employs diffractive approaches that blend technical, social, political, and aesthetic perspectives on identity in networked environments. Ben has secured significant research funding for their work, including: ESRC Network funding for "Queer Joy as a Digital Good" AHRC Creative Exchange Knowledge Exchange Hub Two EPSRC-funded research projects on visualizing pedestrian usage patterns and wearable computing sensors Hewlett-Packard funding for GPS music city archive app development VERDIKT (Research Council of Norway) funding for the "Data is Political" project As an academic and artist, Ben Dalton has led numerous collaborative projects and workshops internationally, including presentations at ESA Convention House, FACT Liverpool, MAP University of Regina, DUB University of Washington, Chaos Communication Congress, and many other venues worldwide. Their work often involves interdisciplinary teams and combines academic research with artistic practice to explore the political dimensions of digital infrastructure.

Sandy T. EagleView profile

Professor

• Chemistry
• Inorganic Chemistry
• X-Ray Crystallography

Sandy T. Eagle serves as a Professor in the Chemistry Department within the School of Science, Engineering, and Math at East Tennessee State University. Her academic career centers on specialized research in Inorganic Chemistry and X-Ray Crystallography, contributing to the department's scientific mission through teaching and scholarly work. As an active faculty member, she maintains current contact channels for student and professional engagement. Her research expertise encompasses: Chemistry: The foundational science of matter, its properties, and reactions Inorganic Chemistry: Investigation of non-organic compounds, including metals, minerals, and organometallic structures X-Ray Crystallography: Advanced technique for determining atomic and molecular arrangements in crystalline materials through diffraction patterns Professor Eagle provides direct communication channels including email ( eaglec@etsu.edu ) and telephone (423-439-8630), with office location in room 465 Brown. These contact details indicate active participation in university operations and accessibility for academic inquiries.

• Optical Materials and Waveguides
• Optical Imaging
• Optical Security
• +6 more

Professor Radhakrishna Prabhu is a distinguished academic at Robert Gordon University's School of Computing, Engineering & Technology, where he leads the Instrumentation & Sensors Research Group and is affiliated with the Robotics & Autonomous Systems Research Group. With over 20 years of applied research experience, his work spans optical technologies, environmental sensing, and clean energy systems. His research expertise encompasses Optical Materials & Waveguides , Optical Imaging , Optical Security , Subsea Sensing , Optoelectronics , Microscopy , Spectroscopy , Lasers , Fluorescence Instrumentation , Lab-on-a-chips , and Renewable Energy Systems . Recent publications (2024-2025) reveal a strong focus on underwater optical communication systems, microplastic environmental impact studies, and building-integrated photovoltaic technologies. Professor Prabhu's scientific contributions are recognized through his professional affiliations: Fellow of Higher Education Academy (FHEA) Chartered Engineer (EC-IET) Member of Institute of Physics (IOP) Member of The Institution of Engineering & Technology (IET) Member of Institute of Electrical and Electronics Engineers (IEEE) He currently supervises multiple PhD students across diverse projects including underwater wireless networks, microplastic soil studies, and building-integrated photovoltaics. His active research portfolio includes the 'Portable Luminescent Chemical Compass' project (2025-2027) and 'Reusing Subsea Natural Gas Pipeline Infrastructure for Bulk Hydrogen Transportation' (2022-2023), demonstrating his commitment to addressing contemporary environmental and technological challenges through innovative research. The Instrumentation & Sensors Research Group under his leadership develops cutting-edge sensing technologies with applications ranging from environmental monitoring to security systems, contributing significantly to Robert Gordon University's research themes in Environment, Energy & Sustainability.

Barbara Stawarz-GraczykView profile

Assistant Professor

• Semiconductor Device Noise Analysis
• RTS Noise
• Optocoupler Technology
• +4 more

Barbara Stawarz-Graczyk is an Assistant Professor at the Department of Metrology and Optoelectronics within the Faculty of Electronics Telecommunications and Informatics at Gdańsk University of Technology. Her research spans semiconductor device characterization, optical metrology, and biomedical applications. Her primary research interests focus on semiconductor noise analysis , particularly Random Telegraph Signal (RTS) noise in optoelectronic devices and silicon carbide components. She has developed specialized measurement systems for analyzing low-frequency noise in optocouplers (transoptors), Schottky diodes, and MESFET transistors. More recently, her work has expanded into diffraction phase microscopy applications for observing red blood cell fluctuations, demonstrating interdisciplinary movement into biomedical diagnostics. Analysis of her 29 publications from 2004-2018 reveals a strong technical trajectory from fundamental semiconductor noise characterization toward biomedical applications. Her early work (2004-2010) concentrated on RTS noise identification methods, optocoupler characterization, and measurement system development. From 2015 onward, she transitioned to applying similar measurement principles to biological systems, particularly using diffraction phase microscopy for hematology diagnostics. She has been involved in developing specialized measurement systems including: RTS noise identification systems for optocouplers Wide current range measurement systems for power diodes Specialized probes for optoelectronic noise measurement Phase object observation systems using diffraction microscopy Her research demonstrates consistent focus on precise measurement techniques with applications spanning semiconductor technology, metrology, and biomedical diagnostics, showing evolution from pure electronics toward interdisciplinary biomedical engineering applications.

Georg SchmidtView profile

Professor

• Spintronics
• Ultrafast spin dynamics
• THz technology
• +7 more

Prof. Dr. Georg Schmidt serves as Head of the Department of Nanostructured Materials at Martin Luther University Halle-Wittenberg's Institute of Physics. He leads the Nanostructured Materials Group and acts as Principal Investigator for multiple research projects including TRR 227 (Ultrafast Spin Dynamics), ForMikro-spinGMI, and SPP 1538. His research focuses on spintronics , ultrafast spin dynamics , and THz technology , with particular expertise in magnonics, spin Nernst effect, and magnetic nanomaterials. His group investigates patterned spintronic THz emitters, YIG-based 3D magnonics, transport effects in organic spin valves, and spin pumping phenomena. Analysis of his recent publications reveals a strong emphasis on spin wave dynamics in magnetic materials, THz emission mechanisms, and nanostructured magnetic systems. His work bridges fundamental physics with applications in next-generation spintronic devices operating at terahertz frequencies. Prof. Schmidt actively mentors doctoral and undergraduate researchers, with students like Alexandra Schrader (who received a Best Poster Award) and Clemens Pöblau presenting their work under his guidance. His research is supported by significant funding from DFG, BMBF, and European Union programs. The Nanostructured Materials Group maintains advanced laboratory facilities including electron beam evaporation, sputtering, pulsed laser deposition, ferromagnetic resonance spectroscopy (including low-temperature capabilities down to 18mK), and X-ray diffraction equipment. Prof. Schmidt organizes major conferences including the SPIN MECHANICS series and contributes to collaborative initiatives like the iRTG Joint Winter School.

• Graphene
• 2D Materials
• Surface Science
• +3 more

Philip Schädlich is an active researcher at Chemnitz University of Technology specializing in experimental condensed matter physics, with a focus on graphene and 2D material systems. His work centers on epitaxial growth mechanisms, intercalation chemistry, and atomic-scale characterization of material interfaces. His research interests concentrate on graphene-silicon carbide interfaces , where he investigates how atomic intercalation (using elements like Si, Sb, Cs, and S) modifies electronic properties. Key methodologies include angle-resolved photoemission spectroscopy (ARPES) , X-ray standing wave imaging , and positron diffraction to probe structural and electronic changes at buried interfaces. Recent work explores Mott state screening in graphene and topological properties of bismuthene. Analysis of his 14 publications (2020-2025) reveals consistent output in high-impact journals ( 2D Materials , Physical Review B , Nature Communications ), with accelerating productivity (4 papers in 2025). His research shows strong thematic continuity in intercalation effects but expanding scope toward topological materials and dynamic interface processes. Schädlich maintains a core collaboration with Thomas Seyller's group at Chemnitz University of Technology while engaging with international partners across Germany, the Netherlands, Italy, and Japan. His research is supported by active grants evidenced by continuous publication output, though specific funding details aren't public. While student supervision information isn't available, his role in multi-author experimental papers suggests involvement in mentoring junior researchers within collaborative projects.

Lina Maria Velez AcostaView profile

Research Professor

• Nanocellulose
• Food Science
• Material Science
• +5 more

Lina Maria Velez Acosta is a Research Professor and Internal Researcher at the Agroindustrial Research Group (GRAIN) of Universidad Pontificia Bolivariana in Colombia. With a Master in Development, she leads and participates in multiple research initiatives focused on sustainable material development, particularly nanocellulose applications derived from Colombian agricultural resources like fique. Her work significantly contributes to the United Nations Sustainable Development Goals, especially those related to sustainable cities, responsible consumption, and industry innovation. Research Focus: Development and characterization of nanocellulose from agricultural residues for food, pharmaceutical, and cosmetic applications Key Areas: Turmeric and starch research, food emulsion technology, chemical characterization of agricultural materials Technical Expertise: X-ray diffraction, FTIR spectroscopy, morphological analysis, chemical characterization techniques Dr. Velez Acosta's research demonstrates a strong commitment to transforming agricultural waste into valuable products through nanotechnology. Her work spans multiple disciplines, bridging material science with food technology to create sustainable solutions that address real-world challenges in Colombia's agricultural sector. She has developed expertise in analyzing the structural and functional properties of biomaterials for industrial applications. Her publication record shows consistent output with 72 scientific productions, including journal articles, book chapters, and research reports. Recent work focuses on valorizing coffee grounds, turmeric rhizomes, and fique byproducts, demonstrating her dedication to circular economy principles. She has co-authored publications in reputable journals like Molecules and Foods, reflecting the quality and impact of her research. Current Projects: CHAKRA (Living Laboratory of Urban Agriculture), Nanofiquecel (nanocellulose applications), Tostado de panes Supervisión BT (industrial bread production), POTENCIAL DE LA CELULOSA DEL BAGAZO DE FIQUE Leadership Roles: Technical Leader for industrial bread production project, key researcher in multiple nanocellulose development initiatives As a research supervisor, Dr. Velez Acosta mentors students working on agri-food systems and nanocellulose applications, guiding master's level research on topics like the Antioquia agri-food supply system. Her collaborative approach is evident in her extensive network of research partnerships with Colombian institutions and industry partners, facilitating the translation of research findings into practical applications that benefit both the agricultural sector and consumers.

Mariana APOSTOLView profile

Researcher

• Nanomaterials
• Graphene Research
• Optoelectronics
• +3 more

Mariana APOSTOL is an Assistant Researcher at the National Institute of Materials Physics (INFIM), working within the Laboratory of Functional Nanostructures. Her research spans multiple disciplines at the intersection of materials science, physics, and biophysics. Her research interests focus on nanomaterials, particularly graphene synthesis and characterization, ZnO nanowires/graphene nanohybrids, and their applications in electronic devices and optoelectronics. She also investigates thermoelectric phenomena, protein conformational changes under light exposure, and superconducting materials. Her work combines experimental approaches with theoretical modeling, as evidenced by her publications involving DFT calculations and physical modeling of complex systems. Her recent publications (2023-2024) demonstrate a strong focus on graphene-based electronic devices and ZnO nanowire/graphene heterostructures for optoelectronic applications, showing continuity in her research trajectory that extends back to superconductivity studies from the 1980s and 1990s. The interdisciplinary nature of her work connects condensed matter physics with biophysical phenomena. Mariana collaborates extensively with researchers across multiple institutions, as shown by the co-authorship patterns in her publications. Her work has been published in reputable journals including Journal of Alloys and Compounds, European Physical Journal B, and Journal of Applied Physics.