جستجوی استاد راهنمای دانشگاهی

• Additive Manufacturing
• Metamaterials
• Auxetic Materials
• +۴ مورد دیگر

Arun Arjunan is a Research Professor at the University of Wolverhampton’s Faculty of Science and Engineering. He serves as Director of the Centre for Engineering Innovation and Research (CEIR) and leads the Additive Manufacturing of Functional Materials (AMFM) research group. His expertise spans advanced additive manufacturing, metamaterials, and sustainable material development, with a focus on biomedical and environmental applications. He obtained a fully funded PhD in structural mechanics and vibro-acoustics, and earned the Senior Fellow of the Higher Education Academy (SFHEA) for his pedagogical leadership. His research emphasizes developing metamaterials with unique mechanical, acoustic, and biological properties. Key contributions include meta-biomaterials for tissue regeneration, infection-resistant implants, and Herschel Quincke-Arjunan waveguides for noise cancellation. The AMFM group integrates interdisciplinary specialists to innovate in 3D printing functional materials. The 15 most recent publications highlight his work in additive manufacturing across biomedical implants, water treatment, thermoelectrics, and sustainable infrastructure. Notable trends include sustainability in metal AM, bioprinting, and biochar-based solutions for contaminant removal. Scientific awards: GKN Award (2011) Vice Chancellor’s Award for Outstanding Research (2020) UK Engineering Innovation Award (2021) Blavatnik Awards Nominee (2019, 2020) THE ENGINEER UK Collaborate to Innovate Finalist (2021) Arun supervises PhD students and contributes to teaching via modules like Advanced FEA and Applied Stress Analysis. He is a member of the BSI standards committee for additive manufacturing and has secured major grants from Innovate UK, DfT, and the European Union.

Arwyn Smalleyمشاهده پروفایل

استاد

• Material Science
• Physical Chemistry
• Inorganic Chemistry
• +۶ مورد دیگر

Arwyn Smalley is a Professor in the Department of Chemistry at Saint Martin's University's College of Arts and Sciences, where she has taught since 2008. Her research focuses on material science, physical chemistry, inorganic chemistry, and chemical education, with a particular emphasis on thermoelectric materials and solid-state reaction mechanisms. Education: Ph.D. and M.S. in Chemistry from the University of Oregon, B.S. in Chemistry from Western Washington University Her scientific work has explored skutterudite compounds, metastable phases, and filled materials, contributing to advancements in crystallography and thermoelectric applications. Publications span journals like Chemistry of Materials and Inorganic Chemistry , reflecting interdisciplinary collaborations with institutions across the U.S. and Europe. During her 2018-2019 Fulbright scholarship at the University of Szeged (Hungary), she mentored Ph.D. and M.S. students in scientific communication while conducting outreach through the Szeged American Corner. Her teaching philosophy emphasizes making chemistry accessible through everyday analogies, as seen in her personal blog posts about connecting chemical principles to natural phenomena and human experiences.

Catalin Martinمشاهده پروفایل

استاد

• Superconductivity
• Dirac Semimetals
• Weyl Semimetals
• +۴ مورد دیگر

Catalin Martin is a Professor of Physics at Ramapo College of New Jersey's School of Theoretical and Applied Science, where he has served since 2013. His research bridges experimental condensed matter physics with advanced spectroscopic techniques, focusing on quantum materials and topological phenomena. His educational background includes a B.S. from the University of Bucharest, Romania and a Ph.D. from Clark University in Worcester, MA. His research portfolio demonstrates deep expertise in optical and magneto-spectroscopic characterization of novel quantum materials. Martin's research centers on superconductivity, Dirac and Weyl semimetals, and broadband spectroscopy . His work explores quantum oscillations in topological materials, magnetoelastic effects in amorphous alloys, and optical properties of narrow-gap semiconductors. Recent publications reveal increasing focus on Weyl semimetals (PrAlX compounds), high-entropy alloys, and titanium nitride thin films, demonstrating evolution from traditional superconductivity studies toward cutting-edge topological quantum matter. His publication trend shows consistent high-impact output in Physical Review B and Journal of Magnetism and Magnetic Materials, with recent expansion into materials science journals. The research demonstrates sophisticated integration of infrared spectroscopy, magneto-transport measurements, and computational modeling to probe electronic structure and lattice dynamics in quantum materials. Martin has not received any publicly listed scientific awards according to available information. His teaching includes Fundamentals of Physics I and Physics II with Calculus (lab), while his research program involves undergraduate students through the Sigma Xi Research Showcase and Student Research Symposium. Current projects include NSF-funded work on Weyl semimetals (RUI grant) and studies of magnetoelastic resonance in amorphous alloys. His laboratory capabilities include broadband optical spectroscopy systems and cryogenic measurement setups. The research program operates within the Physics department's infrastructure at Ramapo College, leveraging the STEM Center resources and collaborating with institutions including Clark University and international partners in Serbia and Romania. Current work focuses on topological quantum materials and radiation-hardened optoelectronic materials.

Adrian Kellerمشاهده پروفایل

پژوهشگر

• Nanobiomaterials
• DNA Origami
• Surface Chemistry
• +۳ مورد دیگر

Adrian Keller serves as a Senior Academic Councillor and leads the 'Nanobiomaterials' group within the Technical Chemistry department at the University of Paderborn's Faculty of Natural Sciences. His office is located in room NW2.831 at Warburger Str. 100, 33098 Paderborn, with contact via email (adrian.keller@uni-paderborn.de) or phone (+49 5251 60-5722). His research focuses on DNA origami interactions with inorganic surfaces, including adsorption mechanisms on TiO 2 , SiO x , and mica substrates. He investigates structural stability challenges for biomedical applications and develops nanoscale assembly techniques for biointerface engineering. Recent 2025 publications demonstrate expertise in surface-assisted DNA lattice formation across diverse substrates, revealing fundamental interfacial forces critical for nanofabrication. This work bridges materials science and biophysics to advance biomedical nanotechnology. As group leader of the Nanobiomaterials team under the Grundmeier Working Group, he directs research on biomolecular nanostructures. He teaches advanced courses including 'Biointerfaces and Nanobiomaterials', 'Surface and interfacial chemistry', and 'Materials Physics and Analysis', emphasizing practical nanotechnology applications. No information was provided regarding scientific awards, student advising, or research grants in the source materials.

S.M. Koohpayehمشاهده پروفایل

پژوهشگر

• Condensed Matter Physics
• Quantum Materials
• Crystal Growth
• +۴ مورد دیگر

S.M. Koohpayeh is a faculty member at Johns Hopkins University with the academic rank of Researcher. Holding a PhD in Physics & Astronomy from the University of Birmingham, his work focuses on the synthesis, crystal growth, and characterization of quantum materials such as pyrochlores, spin ices, and topological insulators. Research Interests: Condensed Matter Physics, Quantum Materials, Defect Engineering, Thermodynamics, and Structure-Property Relationships. Scientific Awards: Recipient of the 2023 Johns Hopkins University Discovery Award, co-funded by the Ralph O’Connor Sustainable Energy Institute (ROSEI) for high-entropy capacitive energy storage research. Publication Trends: His recent work (2025-2021) explores frustrated magnets (e.g., YbZnGaO, Tb2Ti2O7), pressure-tuned magnetic order, defect functionalization in energy materials, and ultrafast phase transitions. Keywords include Condensed Matter Physics, Quantum Materials, and Solid-State Chemistry. Collaborations: Julia Mundy (Harvard), Martin Mourigal (Georgia Tech).

• Ferroelectric Materials
• Optomechanics
• Quantum Physics
• +۳ مورد دیگر

Alexander Tagantsev is a Researcher at the School of Engineering within École polytechnique fédérale de Lausanne (EPFL) , affiliated with the LC (Ceramics Laboratory) . His work spans ferroelectrics, optomechanics, and phase transitions , with a focus on domain engineering, quantum cavity systems, and material instability analysis. Research Interests : Ferroelectric domain dynamics, quantum optomechanical coupling, strain effects in thin films, antiferroelectric control, and symmetry-breaking phenomena. Email : alexander.tagantsev@epfl.ch Recent publications highlight his contributions to polydomain pattern formation in ferroelectrics, squeezed Fock state generation , and high-cooperativity optomechanical systems . His work integrates analytical modeling, phase field simulations, and experimental validation. Grants & Collaborations : Involves European Union Horizon 2020 and national research programs, focusing on quantum technologies and advanced material characterization.

• Magnetism
• Magnetic Materials
• Spintronics
• +۴ مورد دیگر

Sy-Hwang Liou is a Professor in the Department of Physics and Astronomy at the University of Nebraska-Lincoln. His research focuses on experimental condensed matter physics with emphasis on magnetic materials and devices. He maintains an active laboratory in Jorgensen Hall where he investigates novel magnetic phenomena at the nanoscale. Dr. Liou's research interests span multiple areas of magnetism including: Magnetic thin films and multilayers Spintronics and magnetic sensors Magnetic memory devices Nanomagnetism and magnetic nanostructures Perpendicular magnetic recording Exchange bias phenomena His recent publications demonstrate a consistent focus on magnetic materials for data storage applications, particularly exploring the fundamental physics of magnetic tunnel junctions, exchange bias systems, and patterned magnetic structures. His work bridges fundamental magnetic phenomena with practical applications in high-density data storage and ultra-sensitive magnetic detection. Dr. Liou has been active in numerous collaborative research projects with colleagues across multiple institutions and has mentored numerous graduate students who appear as co-authors on his publications. His research group has produced significant contributions to understanding magnetic anisotropy, exchange coupling mechanisms, and the development of high-performance magnetic sensors.

Ramana Grandhiمشاهده پروفایل

استاد

• Multidisciplinary Design Optimization
• Aerospace Structures
• Risk-Based Design
• +۷ مورد دیگر

Dr. Ramana Grandhi is a Professor of Aerospace Engineering at the Air Force Institute of Technology (AFIT), Wright-Patterson Air Force Base, Ohio. Previously, he was a Distinguished Professor at Wright State University, where he led the Engineering Ph.D. program for 15 years and served as Executive Director of International Collaborations and Graduate Programs. His work bridges academia and defense research through partnerships with the U.S. Air Force, NASA, DARPA, Boeing, Lockheed Martin, and others. Ph.D., Engineering Mechanics, Virginia Tech (1984) M.S., Mechanical Engineering, Indian Institute of Technology, Kanpur (1980) B.S., Mechanical Engineering, National Institute of Technology, Warangal (1978) Dr. Grandhi’s research centers on multidisciplinary design optimization (MDO) , aircraft and space structures , risk-based design , and advanced manufacturing , particularly additive manufacturing and laser peening. His work integrates computational mechanics, uncertainty quantification, and high-fidelity modeling to enhance structural reliability and performance. He has pioneered methods in topology optimization, fatigue life prediction, and multi-fidelity modeling. The recent publications highlight a strong trend in uncertainty-aware structural design , additive manufacturing validation , multi-scale modeling , and non-destructive evaluation . His team develops physics-based and data-informed models to optimize aerospace components under real-world variability and manufacturing constraints. Key themes include Bayesian uncertainty quantification, hybrid optimization frameworks, and experimental validation of computational models. Dr. Grandhi has received numerous prestigious honors, including: AIAA Fellow and ASME Fellow AIAA MDO Award (biennial) Solberg Award (American Society of Naval Engineers) Mahatma Gandhi Pravasi Samman Award University Professor Title (Wright State University) Distinguished Professor Title (Wright State) Multiple Best Paper Awards from AIAA Throughout his career, Dr. Grandhi has advised 25 PhD students , 50 MS theses , and 30 postdoctoral fellows , demonstrating a strong commitment to education and mentorship. His research has been funded by agencies such as the National Science Foundation (NSF) , DARPA , NASA , and the U.S. Department of Defense , with industry partnerships from GE , Pratt & Whitney , Caterpillar , and General Motors . He has led large-scale collaborative projects focusing on structural integrity and advanced manufacturing. Dr. Grandhi leads a multidisciplinary research group at AFIT focused on computational design and structural optimization. His lab collaborates with the U.S. Air Force Research Laboratory (AFRL) and leverages high-performance computing for large-scale simulations. The team works on next-generation aerospace systems, including deployable space structures, thermally loaded components, and fatigue-critical aircraft parts.

Chyan Long Linمشاهده پروفایل

دانشیار

• Rare earth and actinide materials
• Spin wave dynamics
• Nanocomposite synthesis
• +۳ مورد دیگر

Chyan Long Lin is an Associate Professor of Physics at Temple University, specializing in condensed matter physics with a focus on magnetic materials and superconductivity. His research spans rare earth/actinide systems, spin wave dynamics in ferromagnets/antiferromagnets, and nanocomposite synthesis involving fullerides and transition metal oxides. Key research themes include investigating valence fluctuations in heavy fermion materials, anomalous magnetic behaviors in low-temperature systems, and exploring critical region phenomena using advanced techniques like neutron scattering and muon spin relaxation. His work bridges experimental material characterization with theoretical models to understand quantum criticality and phase transitions. Publications span from foundational 1980s studies on superconducting intermetallics to recent (2019) analyses of quasi-2D magnets like CrCl3. Methodologies include synchrotron-based structural analysis, NMR spectroscopy, and collaborations with international neutron scattering facilities. Collaboration networks include institutions such as Oak Ridge National Laboratory (neutron scattering studies) and Rutgers University (materials synthesis). Current research emphasizes resolving discrepancies between experimental observations and spin wave theories in classic magnetic systems.

Xijie Wangمشاهده پروفایل

استاد

• Ultrafast Science
• Condensed Matter Physics
• Electron Diffraction
• +۷ مورد دیگر

Prof. Dr. Xijie Wang is a full Professor in the Department of Physics at the Technical University of Dortmund (TU Dortmund) , Germany. He is affiliated with the Center for Synchrotron Radiation , located at Maria-Goeppert-Mayer-Str. 2, Dortmund. His research is central to the Condensed Matter research focus at the university. His research interests lie at the forefront of ultrafast science , particularly in Mega-electron-volt ultrafast electron diffraction and imaging (MeV-UED/MeV-UEM) . His group pioneered the use of MeV electrons for these techniques, enabling femtosecond-scale observation of structural dynamics with high spatial resolution and reduced multiple scattering. His work spans materials science , chemistry , and biological science , focusing on probing transient states, chemical reactions, and quantum phenomena. The recent publications of Prof. Wang’s group reveal a strong trend in real-time imaging of fundamental physical and chemical processes . Key areas include the dynamics of 2D materials , quantum dots , quantum materials under light excitation , hydrogen bonding in water , incipient plasticity , and molecular ion transformations . These studies are published in top-tier journals such as Nature , Science , and Physical Review , indicating high impact and technical innovation in ultrafast instrumentation and methodology . While no specific scientific awards are listed in the provided text, the publication record in premier journals like Nature and Science strongly suggests recognition and leadership in the field of ultrafast electron science. Prof. Wang leads an active research group focused on advancing MeV-UED/UEM technology. He is proposing the development of a next-generation MeV ultrafast scattering instrument in the Ruhr area to tackle grand challenges such as imaging proton transfer and deciphering electron-nuclear coupling . His work likely involves significant grant funding to support this ambitious instrumentation and experimental program, although specific grants are not mentioned. His research is conducted within the Center for Synchrotron Radiation at TU Dortmund, indicating access to advanced photon and electron sources. The group is likely part of a larger collaborative team involving physicists, chemists, and materials scientists focused on pushing the boundaries of time-resolved structural science.

• Materials Engineering
• Additive Manufacturing
• 3D Printing
• +۱۳ مورد دیگر

Bartolomeo Coppola is an Associate Professor at the Department of Applied Science and Technology (DISAT), Polytechnic University of Turin, and a member of the Interdepartmental Center SISCON (Safety of Infrastructures and Constructions). His work bridges materials science, civil engineering, and biomedical applications through advanced manufacturing techniques. Research Interests: 3D printing of ceramics, polymers, and composites using stereolithography (DLP) and robocasting Development of sustainable, low-impact binding materials from industrial by-products Biomaterials for bone tissue engineering and dental applications Durability of construction materials and heritage conservation Functional ceramics for environmental applications (CO₂ capture, humidity sensing) The recent publications highlight a strong trend in functionalized porous ceramics for environmental remediation, biocompatible scaffolds with antimicrobial properties, and sustainable construction materials. His work integrates digital fabrication, material characterization, and lifecycle analysis. Scientific Awards: BEST PUBLICATION IN THE FIELD OF POLYMERS AND COMPOSITES (2020–2021), INSTM, Italy (2022) ACI (American Concrete Institute)/Italy Chapter - Federbeton Awards (2018) Advising and Grants: He supervises multiple PhD students in Materials Science and Bioengineering. He is the Scientific Manager of the commercial project Challenge@PoliTo by Firms – A NEW Life for Alumina-based Wastes (NewLAW) , funded by SACAL S.P.A., promoting innovative teaching and industrial collaboration. Labs and Teams: He is affiliated with several research groups and laboratories at DISAT, including the Additive Manufacturing, Biomaterials, and Ceramic Materials teams, and operates within the Ceramic 3D-Printing Lab, Electron Microscopy Lab, and SISCON Infrastructure Laboratory.

Feng Zhuمشاهده پروفایل

دانشگاهی

• Impact Mechanics
• Trauma Biomechanics
• Injury Prevention
• +۱۶ مورد دیگر

Feng Zhu is an Associate Research Professor at the Hopkins Extreme Materials Institute (HEMI) and holds an adjunct appointment in the Department of Mechanical Engineering at Johns Hopkins University. His research spans impact mechanics, trauma biomechanics, injury prevention, and AI-driven mechanical design, with applications in transportation safety and protective systems. B.Eng., Central South University, China M.Phil., University of Hong Kong Ph.D., Swinburne University of Technology, Australia His research focuses on impact mechanics , particularly energy absorption in composite and architectured materials under extreme loading. He investigates trauma biomechanics , including injury mechanisms from blast and impact, using human body digital twins and high-strain-rate tissue properties. A key innovation is his work on AI-driven mechanical design , applying machine learning and data mining to optimize energy-absorbing structures, battery safety, and vehicle crashworthiness. His work bridges computational modeling, experimental validation, and real-world safety applications. The recent publications highlight a strong trend in integrating machine learning with finite element modeling to enhance the design of protective systems, particularly in lithium-ion battery safety , helmet padding optimization , and bio-inspired energy absorbers . Topics span from blast injury mitigation to autonomous vehicle safety, reflecting interdisciplinary collaboration and practical impact. Fellow, SAE International SAE Forest R. McFarland Award, 2019 Feng Zhu has secured research funding from government agencies and defense and automotive industries. He has advised students in biomechanics and mechanical design, though specific names are not listed. His editorial roles include Associate Editor for Frontiers in Future Transportation and SAE International Journal of Electrified Vehicles , and editorial board membership in Energies , International Journal of Applied Mechanics , and others. He has reviewed for over 50 journals across biomechanics, materials science, and mechanical engineering. He is affiliated with HEMI and the Ralph S. O’Connor Sustainable Energy Institute at Johns Hopkins, collaborating with teams focused on extreme materials, energy systems, and safety technologies. His lab integrates computational modeling, experimental testing, and AI to advance protective systems for humans and vehicles.

• Particle Physics
• Atomic Physics
• Molecular Physics
• +۳ مورد دیگر

L. Willmann is an Associate Professor at the Faculty of Science and Engineering of the University of Groningen. Their primary affiliation is with the Precision Frontier — Van Swinderen Institute for Particle Physics and G , where they conduct experimental research in particle and atomic physics. Willmann is also a member of the National Institute for Subatomic Physics (Nikhef), NL. Research Focus: Willmann's work centers on precision tests of the Standard Model of Particle Physics through carefully designed quantum systems. Key areas include: Experimental strategies for lepton number violation studies (e.g., muonium-antimuonium conversion) Bose-Einstein condensation of atomic hydrogen Weak interaction probing in atomic systems (Atomic Parity Violation) Electric dipole moment (EDM) searches in particles like radium, xenon, and BaF molecules Development of novel setups for precision measurements of the muon's magnetic anomaly (g-2) Current Projects: The NL-eEDM collaboration has built a sensitive new apparatus for electron EDM measurements. Willmann also contributes to advancements in cryogenic molecular beam technology and muon-induced X-ray emission techniques for elemental analysis. Collaborations: Active in international teams such as the NL-eEDM collaboration and Nikhef. Research involves interdisciplinary methods spanning particle physics, atomic physics, and laser physics. Lab Affiliation: Precision Frontier group at the Van Swinderen Institute, specializing in ultra-high precision measurement techniques.

Pablo Jarillo-Herreroمشاهده پروفایل

استاد

• Condensed Matter Physics
• Quantum Electronics
• Graphene
• +۴ مورد دیگر

Pablo Jarillo-Herrero is the Cecil and Ida Green Professor of Physics at MIT, renowned for pioneering research in condensed matter physics and the discovery of superconductivity in magic-angle twisted bilayer graphene (twistronics). His work focuses on quantum transport, optoelectronics, and topological properties of 2D materials like graphene and transition metal dichalcogenides. Education Licenciatura in Physics, University of Valencia (1999) M.Sc. in Physics, University of California, San Diego (2001) Ph.D. in Physics, Delft University of Technology (2005) Research Interests Explores correlated electronic phases in moiré materials, including superconductivity, magnetism, and topological states. Uses advanced nanofabrication and spectroscopy to study novel quantum phenomena in layered and twisted 2D systems. Recent work includes moiré ferroelectricity, quasicrystal superconductors, and neuromorphic devices. Key Contributions 2018 Breakthrough of the Year by Physics World for magic-angle graphene 2020 Wolf Prize in Physics and Oliver E. Buckley Prize Elected to the US National Academy of Sciences (2022) Awards & Honors Moore Foundation Investigator (2014, 2020) APS Fellow (2018), CIFAR Quantum Materials Fellow (2019) Max Planck-Humboldt Research Award (2021) Labs & Groups Leads the Jarillo-Herrero Group at MIT, affiliated with the MIT Center for Quantum Engineering. Specializes in experimental condensed matter physics with state-of-the-art facilities for nanoelectronics and quantum material characterization.

Yvonne Durandetمشاهده پروفایل

دانشیار

• Metallurgical Engineering
• Surface Engineering
• Additive Manufacturing
• +۶ مورد دیگر

Dr. Yvonne Durandet is an Associate Professor (Advanced Manufacturing) in the Department of Mechanical and Product Design Engineering at Swinburne University of Technology, and Academic Director (Work Integrated Learning) for the School of Engineering. She holds an Orcid identifier 0000-0001-8265-0688 and can be reached at ydurandet@swin.edu.au. Her research focuses on advanced manufacturing, metallurgical engineering, and sustainable materials processing, with over 100 publications in journals and conferences. Research Interests: Dr. Durandet’s work spans metallurgical and surface engineering, casting/solidification, laser processing, additive manufacturing, and recycling of battery materials. She has pioneered studies on mechanically plated coatings, origami-based energy absorbers, and functionally graded lattices. Her industry collaborations include projects with CAST CRC, AutoCRC, and BHP, leading to innovations in laser-assisted manufacturing and material recycling. Awards: She received the David StJohn CAST Industry Partners’ Award (2009), two CAST Commercialisation Awards (2010), and holds a 1985 PhD scholarship from the University of Adelaide. Her work in aluminothermic reduction for battery recycling and origami metamaterials is highly impactful. Grants & Industry Projects: Active projects include advanced nanomaterial coatings for polyamide filaments (Solaft Filtration Solutions) and lunar-based metal casting technologies (Lunar Resources). She has secured funding from ARC, Excellence Australia, and Defence Department for initiatives in additive manufacturing and high-power laser processing. Professional Activities: Member of TMS, AIST, and Materials Australia, with roles as Committee Member (AIST Metallurgy Committee) and President (Materials Australia Vic/Tas Branch). She has reviewed for Helmholtz Gemeinschaft and led international collaborative projects. Teaching & Supervision: Supervises doctoral candidates in additive manufacturing, energy absorption materials, and battery recycling. Her teaching integrates industry-relevant projects and work-integrated learning programs aligned with automotive and aerospace sectors.