Find Academic Supervisors

• Radiotherapy
• Medical Physics
• Artificial Intelligence in Medicine
• +5 more

Dr. Wouter Crijns is an Assistant Professor at the KU Leuven Faculty of Medicine , affiliated with the Department of Oncology and the Laboratory of Experimental Radiotherapy . He serves as promotor and co-promotor for multiple advanced radiotherapy projects including AI-driven treatment planning and additive manufacturing applications. Active in both research and education, he teaches courses on radiotherapy technology, dosimetry, and computational methods in medical physics. Assistant Professor (Faculty of Medicine) Promotor roles in AI-based RT planning (2022-2028) and OSL dosimetry (2021-2025) Co-promotor for additive manufacturing projects (2023-2027) Member of Faculty and Department of Oncology councils Research Focus: His work bridges artificial intelligence and radiation oncology , developing automated treatment planning systems and innovative dosimetry solutions using optically stimulated luminescence and real-time measurement technologies . Current projects explore personalized radiotherapy immobilization through 3D printing and machine learning strategies for adaptive treatment protocols. Publications Analysis: Recent works demonstrate expertise in automated VMAT planning , proton therapy dosimetry , and quality assurance innovations. Key technical areas include deep learning applications , dynamic radiation delivery , and multi-modal imaging integration in treatment workflows. Laboratory Affiliation: Works within the Laboratory of Experimental Radiotherapy and collaborates with the KU Leuven Cancer Institute (LKI) , contributing to translational research between engineering innovations and clinical radiation oncology practices.

Eric S.G. ShaqfehView profile

Professor

• Non-Newtonian Fluid Mechanics
• Polymer Statistical Dynamics
• Suspension Mechanics
• +4 more

Eric S.G. Shaqfeh is the Lester Levi Carter Professor and Professor of Chemical Engineering and Mechanical Engineering at Stanford University. He holds dual appointments in the Institute for Computational and Mathematical Engineering (ICME) and is a member of Bio-X and the Wu Tsai Human Performance Alliance. His research focuses on non-Newtonian fluid mechanics, polymer statistical dynamics, and suspension mechanics, with over 200 publications. He has received numerous awards, including the Bingham Medal (2011) and Alpha Chi Sigma Award (2018). He teaches courses on applied mathematics, complex fluids, and microhydrodynamics. Education: B.S.E. (Princeton, 1981), M.S. (Stanford, 1982), Ph.D. (Stanford, 1986) Professional Experience: NATO Postdoc (Cambridge, 1986), AT&T Bell Labs (1987–1989), Stanford faculty since 1990 His research interests span elastic instabilities, turbulent drag reduction, DNA dynamics, and microfluidic suspensions. He has pioneered computational models for viscoelastic fluids and 3D printing technologies like CLIP/iCLIP, enabling high-resolution microfluidic devices. His work bridges fluid mechanics, materials science, and biomedical applications. Recent publications highlight advancements in semiconductor etching, CLIP-based 3D printing, and viscoelastic rheology. He advises numerous graduate students and has held visiting professorships at MIT and UW-Madison.

• Solar Cell
• Photovoltaics
• Inorganic Materials Science
• +9 more

Rebecca Saive is an Associate Professor in Inorganic Materials Science at the MESA+ Institute, University of Twente, where she leads research in advanced photovoltaic technologies. Her work bridges materials science, optics, and energy engineering to develop high-efficiency solar cells through innovative light management and novel device architectures. Research Interests: Her primary research areas include solar cell materials, particularly silicon and perovskite-based heterojunctions, luminescent solar concentrators, agrivoltaics, and thermodynamic limits of solar energy conversion. She investigates spectrum shifting, diffuse light utilization, and thermal emission control to enhance photovoltaic performance, especially in low-light and urban environments. The recent publications highlight a strong focus on next-generation photovoltaics, including bifacial modules, tandem solar cells, and sustainable solar system assessment. Her work spans fundamental physics, materials development, and system-level integration, with increasing attention to environmental sustainability and real-world deployment conditions. Scientific Contributions: Published over 87 research outputs, including articles in Advanced Energy Materials and Journal of Photonics for Energy Contributed datasets on light trapping, thermal emission, and light collimation Active presenter at international conferences and invited speaker on next-generation PV technologies She supervises students and collaborates extensively across disciplines, with demonstrated activity in mentoring and research leadership. Her work is supported by affiliations with the 4TU.Centre for Research Data and the MESA+ Institute, fostering innovation in sustainable energy technologies.

• Synthetic Coordination Chemistry
• Supramolecular Chemistry
• Hybrid Organic-Inorganic Materials
• +12 more

Wolfgang Schmitt is a Professor in the School of Chemistry at Trinity College Dublin, where he also serves as Head of the Inorganic and Materials Chemistry Division. He has established a leading research program in synthetic coordination and supramolecular chemistry of hybrid organic-inorganic materials. Trinity College Dublin – School of Chemistry His research focuses on developing functional materials for sustainable energy applications such as hydrogen-based systems, water splitting, catalysis, gas storage, and molecular magnetic systems. Additionally, his group explores soft, biocompatible materials for drug delivery, regenerative medicine, and sensing. The work integrates synthetic chemistry with materials design to create novel coordination polymers, metal-organic frameworks (MOFs), polyoxometalates, and supramolecular assemblies. The recent publications demonstrate a consistent trend in designing advanced functional materials, particularly metal-organic frameworks and coordination cages with applications in energy storage (e.g., supercapacitors, Li-ion batteries), photocatalysis, luminescent sensing, and water oxidation. These works highlight expertise in tuning electronic and structural properties for targeted performance. Notable scientific awards include: Fonds der Chemischen Industrie Award (1991) Dr.-Anton-Keller-Prize, University of Darmstadt (2000) ICYS Fellowship, National Institute for Materials Science, Japan (2004) Wolfgang Schmitt has secured over €6 million in research funding as a sole Principal Investigator from major agencies including the European Research Council (ERC), Science Foundation Ireland (SFI), Environmental Protection Agency, Irish Research Council, and Enterprise Ireland. His research team actively develops methodologies for hybrid organic-inorganic coordination compounds, aiming to combine the best properties of both components through controlled self-assembly and nanostructuring. The group investigates physicochemical properties of cluster compounds, biominerals, and bioinorganic models, with implications for separation science, magnetic materials, and catalysis. He leads a vibrant research laboratory focused on cutting-edge materials chemistry with strong interdisciplinary connections across energy, medicine, and nanotechnology.

Mark-David HosaleView profile

Associate Professor

• Computational Art
• Interactive Architecture
• Worldmaking
• +7 more

Mark-David Hosale is an Associate Professor and Chair of Computational Arts at York University's School of the Arts, Media, Performance & Design (AMPD). He holds a BA in Music Composition from UC Santa Barbara. His work bridges computational art, performance, and architecture, focusing on worldmaking through interdisciplinary collaborations. Education: BA - Music Composition (UC Santa Barbara) Key Roles: Chair of Computational Arts, nD::StudioLab Director Research Labs: nD::StudioLab Research interests include the intersection of virtual and physical worlds, using digital fabrication and hardware/software integration to create immersive art. His theoretical practice centers on worldmaking —artworks that propose ontological alternatives through sensory experiences. Notable collaborations include the IceCube Neutrino Observatory and the PACIS project. His exhibitions span venues like SIGGRAPH, Dutch Electronic Art Festival, and Venice Biennale. Labs/Teams: nD::StudioLab, PACIS collaboration Grants: Multiple undisclosed research grants Labs include the nD::StudioLab, an experimental space for ArtScience research-creation.

• Dendrimer Chemistry
• Phosphorus Chemistry
• Functional Polymers
• +3 more

Rosa Maria Sebastián Pérez is a Researcher in the Department of Chemistry at the Autonomous University of Barcelona (UAB), affiliated with the Functional Materials and Organic Reactivity (FunMOR) research group. She specializes in photoactive materials, functional polymers, and CO₂ capture technologies. Her work contributes to UN Sustainable Development Goals related to climate action and responsible consumption. Education: Ph.D. in Chemistry (1997), UAB Licenciatura en Ciències Químiques (1993), UAB Research Interests: She focuses on dendrimer chemistry, phosphorus-based materials, molecular switches for smart polymers, and electrochemical CO₂ utilization. Recent projects include CONFETI (CO₂ valorization) and Smart4CO₂ (photo/electroactive materials). Grants and Projects: Involved in 18+ projects since 1994, including EU-funded initiatives. Supervised 60+ works. Active in collaborative research with institutions like AGAUR and industry partners (e.g., Lilly S.A., Conductores Eléctricos Navarro). Labs/Teams: Leads research within FunMOR, focusing on polymer networks, photoresponsive materials, and green chemistry solutions.

• Biomimetics
• Nanotechnology
• Materials Science
• +3 more

Ilse-Christine Gebeshuber is an Associate Professor at TU Wien's Forschungsbereich Atomic and Plasma Physics , specializing in biomimetic engineering and nanotechnology. She leads projects on bio-based materials and sustainable design methodologies, including the development of recyclable stretch foils. Her research integrates biological principles into engineering solutions, focusing on nanostructures, biomaterials, and additive manufacturing. Education : Technical background in engineering and biomimetics. Research Interests : Biomimetic design, functional surfaces inspired by nature (e.g., insect wings, plants), and sustainable materials. Her work bridges biology, physics, and engineering to address global challenges like climate change and healthcare innovation. Notable contributions include the VDI Technical Rule on biomimetic design and collaborations on bactericidal nanopillar replication. She actively publishes in biomimetics, nanotechnology, and green engineering, emphasizing interdisciplinary approaches.

• Synthetic Chemistry
• Polymer Chemistry
• Soft Materials
• +6 more

Dr. Ying Yang is an Assistant Professor in the Department of Chemistry, College of Science, University of Nevada, Reno. She also serves as the Principal Investigator for the MARC Nevada program. Her laboratory, the Yang Research Group, focuses on the molecular design of next-generation polymeric materials that combine dynamic chemistries with hierarchical architectures to achieve unprecedented functionalities and sustainability. Education Postdoctoral Scholar, 2016–2019, Clemson University (advisor: Prof. Marek W. Urban) Ph.D., Materials Science and Engineering, 2016, Clemson University (advisor: Prof. Marek W. Urban) B.S., Chemistry, 2010, Nankai University Research Interests The Yang laboratory operates at the intersection of synthetic chemistry, polymer chemistry, and soft materials science . Inspired by natural systems, the group designs macromolecules that integrate reversible covalent bonds, dynamic non-covalent interactions, and multi-level hierarchical ordering . These features enable on-demand modulation of mechanical and chemical properties, leading to self-healing, shape-shifting, re-processability, and mechano-responsiveness . A parallel thrust centers on sustainable polymer synthesis , leveraging fundamental organic chemistry to create recyclable and environmentally benign alternatives to petroleum-based plastics. Publication Landscape From 2013 to 2025, Dr. Yang has authored more than 30 peer-reviewed articles spanning self-healing polymers, responsive nanomaterials, mechanochemistry, and circular-economy plastics . Her work consistently appears in top-tier journals such as Science, Chem, Angewandte Chemie International Edition, Advanced Materials, and Progress in Polymer Science . A clear trend is the translation of fundamental concepts—such as entropy-driven ring-opening polymerization—into practical material platforms for 3D printing, tissue engineering, and recyclable packaging. Scientific Awards & Honors NSF CAREER Award (2022) Nevada Women in STEM Featured Scientist (2023) Gene and Carla Lemay Scholar Awards (multiple students) Best Poster Prize – International Symposium of Stimuli-Responsive Materials (2022, 2024) Three Minutes Thesis Competition Winner – UNR (2024) Discovery Award – College of Science Undergraduate Poster Symposium (2023) Excellence in Teaching Awards – UNR (2021, 2022) TA of the Year – UNR (2022) Nevada Undergraduate Research Awards (2021) Gene Wong Memorial Endowment Award (2020) Nevada Undergraduate Research Opportunity Program (UROP) Scholarship (2019–2020) Current & Completed Funding National Science Foundation – CHE Materials SusNet (2023) NSF CAREER Award (2022) U.S. Department of Energy – Geothermal Polymer Foams (collaborative, 2022) University start-up funds and internal grants Laboratory & Team The Yang Research Group currently comprises three graduate students, one postdoctoral researcher, and several undergraduates working in a newly renovated laboratory in the Chemistry Building at UNR. The lab is equipped for modern organic and polymer synthesis, advanced spectroscopic characterization, and 3D-printing fabrication. Collaborative ties extend to the Desert Research Institute, Pacific Northwest National Laboratory, and multiple institutions nationwide.

Jan-Henrik SmallView profile

Senior Lecturer

• Materials Science
• Physical Chemistry
• Perovskite Solar Cells
• +5 more

Jan-Henrik Small is a Senior Lecturer at Åbo Akademi University within the Faculty of Natural Sciences and Engineering, Department of Molecular Science and Engineering. His research focuses on developing sustainable materials and technologies with applications in renewable energy and environmental solutions. Dr. Small's research program spans multiple critical areas of modern materials science: Development of perovskite solar cells and thin film technologies Sustainable processing of lignin and biomass for advanced materials Magnesium-based materials for carbon capture and storage Nanomaterial synthesis with controlled morphology Photothermal and antimicrobial nanomaterials Analysis of Dr. Small's recent publications reveals a strong focus on sustainable materials development that bridges fundamental science with practical applications. His work demonstrates particular excellence in creating scalable manufacturing processes for next-generation solar cells and developing innovative approaches to biomass utilization. The research shows consistent progression toward more environmentally friendly materials processing with reduced energy consumption. Dr. Small has supervised multiple graduate students as indicated by his supervised work record. He served as Co-Principal Investigator on the ASPIRE project (2018-2021) focused on developing highly reproducible perovskite solar cells, demonstrating his capacity to secure and manage significant research funding. His laboratory work centers on molecular science and engineering for sustainable technologies, with particular emphasis on: Advanced material characterization using thermogravimetric analysis and other techniques Development of scalable synthesis methods under moderate conditions Integration of sustainability principles throughout materials design and processing Creating functional materials from renewable resources

Sevda AlbayrakView profile

Lecturer

• Materials Science
• Metallurgy
• Biomaterials
• +4 more

Sevda Albayrak serves as a Lecturer in the Department of Metallurgical and Materials Engineering at the Faculty of Engineering and Natural Sciences, where she conducts research at the intersection of materials science and engineering applications. Her academic role encompasses teaching core materials engineering subjects while advancing innovative research in surface modification and biomaterials development. Her research program focuses on: Advanced coating technologies for metallic biomaterials Sol-gel derived ceramic-polymer composites Nanomaterials for environmental remediation Corrosion and wear mechanisms in light alloys Mechanical characterization of composite structures Surface engineering for biomedical implants Nanofiber-based filtration systems Analysis of her 15 most recent publications (2022-2025) reveals a dominant research trajectory in protective coatings for magnesium and aluminum alloys, with particular emphasis on sol-gel processed tantalum oxide and hydroxyapatite composites. Her work systematically investigates how surface pretreatments (alkali, acid, sandblasting) affect coating adhesion and performance in biomedical and aerospace contexts. A secondary research thrust addresses environmental applications through green-synthesized nanofibers for heavy metal and organic pollutant removal, demonstrating interdisciplinary innovation across materials chemistry and environmental engineering. No scientific awards were documented in the provided information. Details regarding student supervision, research funding, laboratory infrastructure, or collaborative research teams were not specified in the source materials. Her publication record indicates independent and team-based research activity without explicit mention of advising roles or grant-supported projects.

• Laser Nanophotonics
• Multiphoton Lithography
• Optical 3D Printing
• +4 more

Professor Mangirdas Malinauskas is a distinguished researcher and group leader at the Laser Research Center (LRC) within the Faculty of Physics at Vilnius University. His work focuses on cutting-edge laser nanophotonics and additive manufacturing technologies, with particular expertise in multiphoton lithography and optical 3D printing. He leads a research group dedicated to developing novel applications in micro-optics, bio-scaffolds, and renewable materials. Malinauskas's research interests span laser nanophotonics, multiphoton lithography, optical 3D printing, micro-optics, bio-scaffolds, renewable materials, and photopolymerization. His work bridges fundamental physics with practical applications in advanced manufacturing. His research group has made significant contributions to the field of laser-based 3D nanofabrication, particularly in developing techniques for creating both organic and inorganic structures at the micro and nanoscale. His publications reveal a strong focus on the intersection of laser physics, materials science, and additive manufacturing. Recent work has emphasized the fabrication of inorganic materials through laser 3D printing, expanding beyond traditional photopolymer-based approaches. His research demonstrates a consistent trajectory toward more sophisticated and versatile manufacturing techniques with applications in optics, biomedicine, and materials engineering. 2023 Optica Fellow award 2020 Outstanding paper awarded by Nanoscale Horizons journal 2019 National Science Prize 2019-2022 Specially appointed professor at Tokyo Institute of Technology 2018-present Member of Lithuanian Academy of Sciences – Young Academy Professor Malinauskas actively supervises doctoral students including Edvinas Skliutas and Giedrius Balčas, and has successfully guided Linas Jonušauskas to complete his PhD in 2021. He also teaches advanced courses on Micro- and Nano-Fabrication Technologies, Nano-/Micro Technologies, and Modern Optics and Spectroscopy. His research is supported by various projects focused on laser nanophotonics and additive manufacturing technologies. Malinauskas has established himself as a leading figure in the international community of laser-based nanofabrication, regularly invited to present at major conferences worldwide.

Clément CABRIELView profile

Researcher

• Single-Molecule Localization Microscopy (SMLM)
• Bioimaging
• Nanophotonics
• +5 more

Clément CABRIEL is a CNRS Researcher affiliated with the Institut Langevin (ESPCI Paris / PSL University). He specializes in Single-Molecule Localization Microscopy (SMLM) and its applications across bioimaging , nanophotonics , and microfabrication . Key Collaborations: Works with Ignacio Izeddin (Institut Langevin) and international teams on interdisciplinary projects. Research Focus: Develops 3D super-resolution techniques, event-based sensors for high spatio-temporal imaging, and microstructured substrates for cellular modeling and axial calibration. Achievements: Pioneered SMLM calibration tools using fractal-like substrates (2025), explored M2d macrophage differentiation via 3D topographies (2024), and advanced event-based sensor technology for dense single-molecule imaging (2023). His work bridges optics , materials science , and cell biology . Community Engagement: Co-organizes the Young Scientist Network GDR Imabio to foster European bioimaging collaboration and career development for early-career researchers.

Cécile ChazotView profile

Professor

• Sustainable polymer manufacturing
• Polymer recycling
• Fiber-based materials
• +7 more

Professor Cécile Chazot is a faculty member at Northwestern University, serving as the Principal Investigator of the Sustainable Polymer Innovation Laboratory (SPIn lab) within the Department of Materials Science and Engineering. She leads an interdisciplinary research team focused on sustainable polymer manufacturing and recycling technologies. Her research interests span sustainable and scalable materials design, with particular emphasis on fiber-based materials, biopolymers, and green chemistry approaches. The SPIn lab's work encompasses fundamental understanding of polymer properties and their hierarchical self-assembly, development of room-temperature processing methods using green solvent alternatives, and creation of functional materials with tailored mechanical and optical properties including stimuli-responsive colorimetric sensing capabilities. The research portfolio demonstrates a strong focus on sustainable manufacturing processes, including interfacial photopolymerization for high-resolution printing, scalable synthesis of ultrathin polymer films, and innovative recycling strategies for textiles. Recent work includes developing dynamic structural colors in cholesteric cellulose composites, understanding wool hierarchical structures, and creating roll-to-roll processing methods for elastane recovery. Professor Chazot is deeply committed to educational initiatives and diversity in STEM, as evidenced by her development of the MICRO online undergraduate program designed to promote equitable access to materials science education. The SPIn lab culture emphasizes collaboration, safety, and creating an inclusive environment where diversity of thought and background drives sustainable innovation. The laboratory's impact extends beyond research through educational outreach and promoting the socio-technical context of polymer manufacturing innovation.

Santanu JanaView profile

Researcher

• Materials chemistry
• Colloidal quantum dots (Chalcogenides and perovskite)
• Self-assembly
• +2 more

Santanu Jana is a Researcher at the Department of Materials Science, Universidade Nova de Lisboa. He earned his PhD from the Indian Association for the Cultivation of Sciences in Kolkata, focusing on quantum dots and nanotechnology. With over 10 years of experience in Colloidal Nanochemistry and Nanotechnology, he works on the design and synthesis of colloidal quantum dots, doped quantum dots, and halide perovskite nanocrystals for optoelectronic applications. Marie-Curie Individual Fellowship recipient Specializes in MXene-based devices Expert in quantum dot optoelectronics Focus on solution self-assembly and device fabrication His research explores the optoelectronic properties of quantum dots and their applications in smart electronics like thin-film transistors and photonic memory devices. He has published extensively in high-impact journals and presented his work at national and international conferences. Recent publications highlight his work on MXene architectures for smart applications, halide perovskite solar cells with enhanced stability, and quantum dot sensitization in photovoltaic systems. His research spans materials chemistry, semiconductor physics, and renewable energy technologies. Scientific Awards: Marie-Curie Individual Fellowship His current work focuses on perovskite quantum dots and MXene-based devices for optoelectronic applications, emphasizing device performance and stability through interface engineering and material innovation.

Ugur Deneb MendaView profile

Researcher

• Perovskite solar cells
• Colloidal quantum-dot intermediate band solar cells
• Solar Energy
• +2 more

Ugur Deneb Menda is an Assistant Researcher at NOVA University Lisbon's School of Science and Technology. She earned her PhD in Physics from Yildiz Technical University (Turkey, 2015), specializing in silicon heterojunction (HIT) solar cells. Her current research focuses on developing advanced photovoltaic technologies, including perovskite/silicon tandem solar cells and colloidal quantum-dot intermediate band solar cells (CQD-IBSCs) with photonic light-trapping structures for enhanced efficiency and stability. Research Focus: Her work spans semiconductor physics, nanomaterials engineering, and renewable energy systems, with emphasis on: Organic-inorganic hybrid perovskite solar cells Quantum-dot sensitization and intermediate band materials Wide-bandgap perovskite formulations Ambient-air fabrication processes Photon management via nanocoatings Publication Trends: Recent articles (2021-2025) demonstrate strong focus on perovskite solar cell optimization through quantum dot integration, bandgap engineering, and novel deposition techniques. Secondary research threads include sustainable biomaterials (bacterial cellulose, polyhydroxyalkanoates) and MXene-based nanomaterials for optoelectronics, showing interdisciplinary applications of materials science principles.