Find Academic Supervisors

Stefan NielsenView profile

Professor

• Earthquake mechanics and seismology
• Rock and fault mechanics
• Near-surface geophysics
• +9 more

Professor Stefan Nielsen serves as Professor and Director of Postgraduate Studies & Postgraduate Admissions in the Department of Earth Sciences at Durham University. He has held this position since 2017, following his role as Reader at Durham (2013-2017). Prior to Durham, he was a Senior Researcher at the Istituto Nazionale di Geofsica e Vulcanologia (INGV) in Italy from 2003-2013. His extensive academic journey includes postdoctoral positions at UCSB, University of Napoli Federico II, and UCLA. Professor Nielsen's research focuses on earthquake mechanics and seismology, rock and fault mechanics, near-surface geophysics for archaeological and environmental imaging, AI for seismic signal classification, and geothermal energy. He employs a multidisciplinary approach combining laboratory experiments, numerical modeling, and field geology to investigate earthquake rupture dynamics, particularly the frictional behavior of faults during seismic slip. His recent work has expanded into near-surface geophysics applications for examining historical monuments, archaeological sites, and environmental issues. Analysis of his recent publications reveals a consistent focus on earthquake physics and fault mechanics, with increasing emphasis on geothermal energy applications and near-surface imaging techniques. His work spans laboratory experiments on rock friction, field studies of exhumed faults, and numerical modeling of seismic processes. The interdisciplinary nature of his research connects geophysics with civil engineering, environmental science, and archaeology. Marie Curie postdoctoral grant of the European Community SCEC post-doctoral fellowship Postodoctoral fellow at UCSB Professor Nielsen actively supervises students, including Luke Macpherson, and has secured numerous research grants including NERC, ERC, and UKRI projects. His current research includes the GEMS project on geothermal energy from mines, the FARMS project on agricultural research management, and NERC-funded work on tomographic imaging of historical monuments. He leads field work in the UK's North East and Lake District, applying geophysical techniques to archaeological and environmental challenges.

Muhammad Junaid AnjumView profile

Researcher

• Materials Science
• Corrosion Engineering
• Nanocomposite Materials
• +3 more

Muhammad Junaid Anjum is a Researcher in the Department of Materials, focusing on advanced materials science with a specialization in corrosion protection, nanocomposite coatings, and sustainable surface engineering. His work integrates electrochemistry, nanotechnology, and environmental sustainability to develop innovative solutions for metallic alloy degradation. He holds a Doctor of Philosophy from the Department of Materials. His research interests include layered double hydroxide (LDH) coatings, self-healing materials, graphene oxide-based nanocomposites, and eco-friendly corrosion inhibitors. He explores applications in aerospace, biomedical implants, and infrastructure protection. Anjum’s articles highlight advancements in corrosion-resistant coatings for magnesium alloys (AZ31, AZ91D), steel substrates, and nanocomposite designs. His work emphasizes pH-dependent coating performance, intercalation chemistry, and green materials development. Recent studies (2022-2025) address self-healing mechanisms, smart nanocontainers, and hybrid coatings for enhanced durability. While no awards or grants are explicitly mentioned, his contributions to LDH-based corrosion solutions and smart materials have advanced the field. He collaborates on projects involving surface modification techniques, electroless deposition, and in-situ intercalation methods.

• Blast Wave Propagation
• Gas Explosions
• Explosion Risk Management
• +3 more

Dr. Edward Gan is an Associate Research Fellow at the University of Wollongong's School of Civil, Mining, Environmental, and Architectural Engineering. He also holds an Honorary Research Fellow position within the same faculty. His work focuses on blast wave dynamics, explosion risk management, and protective infrastructure design, particularly in mining, defense, and civilian sectors. He leads advanced blast simulation projects using facilities like the National Facility for Physical Blast Simulation (NFPBS), emphasizing hydrogen explosion safety and bio-inspired protective barriers. Dr. Gan earned his PhD in Civil Engineering from the University of Wollongong (2021). His research integrates Computational Fluid Dynamics (CFD), Finite Element Analysis, and experimental trials to study structural responses to explosive threats. He has advised on government and private sector projects, including protective design engineering and explosive testing in lab and field settings. Key research interests include: Blast wave propagation modeling Explosion hazard exclusion zones for mines Hydrogen explosion mitigation strategies Vegetation-based blast protection systems Structural resistance to hypervelocity projectiles His recent work emphasizes hydrogen energy safety guidelines and expanding mining explosion risk models to include projectile effects. Dr. Gan has conducted high-profile field trials and media-covered projects, including protective barrier testing and mine safety protocols. Professional roles include: Associate Research Fellow (University of Wollongong, 2021–present) Research Assistant (UNSW Canberra, 2024–present) Former Pipeline Engineer at INTECSEA (2014–2017) He collaborates with industry partners on protective design solutions and has contributed to international conferences on blast engineering and structural resilience. His work bridges academic research with practical applications in infrastructure safety and emergency management.

• Sensors
• MEMS
• Microfluidics
• +3 more

Kechun Ma is a Researcher in the Department of Biomedical and Environmental Sensorsystems at the University of Twente, Netherlands, with continuous research contributions spanning nearly three decades from 1994 to 2023. His work focuses on the development and application of micro and nanoscale systems for sensing, fluid handling, and material processing. His primary research interests include Sensors , MEMS , Microfluidics , Plasma Etching , Catalysis , and Microreactors , reflecting his expertise in creating innovative microsystems for biomedical engineering, environmental monitoring, and chemical processing. His research integrates materials science, fluid dynamics, and microfabrication to solve complex engineering challenges. Analysis of his recent publications reveals a strong trend in advancing MEMS-based solutions, particularly in catalyst characterization (2023 microreactor for X-ray microscopy), precision fluid control (2021 electrochemical micropump), and semiconductor manufacturing (2020-2021 plasma etching techniques). These works demonstrate consistent innovation in fabrication processes and real-world applications, with significant citations and downloads indicating community impact. While no specific scientific awards are documented in available sources, Ma's collaborative work with University of Twente's MESA+ Institute researchers (including patents like the 2019 Coriolis flow sensor) highlights his integrated role within the institution's research ecosystem. His ongoing projects continue to push boundaries in microsystem technologies, particularly in catalytic process monitoring and sensor development.

Nathan DaczkoView profile

Professor

• Metamorphic Petrology
• Geochemistry
• Crustal Evolution
• +3 more

Professor Nathan Daczko is a distinguished metamorphic petrologist at Macquarie University's School of Natural Sciences, Department of Earth and Planetary Sciences, and a key member of the ARC Centre of Excellence for Core to Crust Fluid Systems. With a BSc in Computer Science and PhD in Geology from the University of Sydney, he has established himself as a leading researcher in crustal evolution and metamorphic processes. His work spans multiple scales from microstructure to large orogenic systems, with fieldwork conducted in New Zealand, Central Australia, Italy, and Antarctica. Professor Daczko's research focuses on the microstructural and microchemical changes that occur during melt-rock interaction, examining how mass transfer occurs through the deep crust. His work crosses discipline boundaries to explore igneous/structural mechanisms of melt migration and metamorphic processes. Field aspects of his research explore exposed lower crustal plumbing systems in ancient magmatic arcs (Fiordland, New Zealand), intracontinental orogens (Central Australia), extensional periods of the New England Orogen, and the Italian Alps (Ivrea-Verbano Zone). His publication record shows consistent high productivity, with numerous articles in top journals like Journal of Metamorphic Geology , Lithos , and Geology . His recent work demonstrates increasing focus on experimental approaches to melt-rock interaction and expanding geographical scope to include Antarctic research. The research themes consistently center on understanding melt migration pathways, deformation mechanisms in the deep crust, and the tectonic implications of these processes. 2022 – VC's Learning and Teaching Awards, Educational Leader Award 2021 – Faculty of Science and Engineering Awards, Excellence in Learning Innovation 2020 – Stillwell Award (Geological Society of Australia) 2018 – Earth and Planetary Sciences HDR Supervision Award 2010 – E.S. Hills Medal (Geological Society of Australia) 2006 – Australian Institute of Political Science NSW/ACT Young Tall Poppy Award Professor Daczko has supervised over 40 research students including PhD, Master's, and Honors candidates, with many completing their theses on topics related to melt-rock interaction, crustal deformation, and metamorphic processes. His research has been supported by more than 40 grants totaling millions of dollars from ARC, Macquarie University, Australian Antarctic Division, and other funding bodies. His work often involves collaboration with international researchers and utilizes advanced analytical facilities including synchrotron radiation and laser ablation systems. He maintains active involvement in professional societies including the Geological Society of Australia (1997-current), Geological Society of America, and American Geophysical Union (2002-current), as well as the Australasian University Geoscience Educators Network. His research continues to advance understanding of crustal evolution through innovative field and laboratory approaches to studying metamorphic processes.

• Aeroacoustics
• Aircraft Noise
• Wind Turbine Noise
• +5 more

Professor Con Doolan is a leading academic in aeroacoustics and fluid dynamics at UNSW Sydney's School of Mechanical and Manufacturing Engineering. He heads the Flow Noise Group, focusing on noise reduction in aerospace, wind energy, and transport sectors. His research spans turbulence, fluid-structure interactions, and noise control, with over 400 publications. Education: PhD in Aerospace Engineering (University of Queensland), Honours in Mechanical Engineering. Leadership Roles: Director of Postgraduate Research Examinations (UNSW Engineering), Associate Dean (Education), UNSW College Academic Board member. Teaching: Courses in Aerodynamics, Flight Mechanics, and Acoustics. Research Interests: Aeroacoustics, flow-induced noise, acoustic beamforming, wind turbine noise, and turbulence physics. He collaborates with industries in defense, energy, and healthcare to translate research into practical solutions. Key Projects: UNSW Anechoic Wind Tunnel, Cough Dynamics Experiments, Classroom Air Quality Studies. His work on mask efficacy during pandemics has had global impact. Grants & Collaborations: Extensive ARC funding, partnerships with mining, aerospace, and construction sectors. Active in interdisciplinary projects like waste-to-noise-attenuation materials. Labs/Teams: Flow Noise Group (specializing in experimental and computational aeroacoustics), collaborations with medical and environmental teams for infection control studies.

Enrique Martinez SaezView profile

Associate Professor

• Microstructure Evolution
• Thermodynamics and Kinetics of Alloys
• Advanced Manufacturing
• +4 more

Dr. Enrique Martinez Saez is an Associate Professor at Clemson University, specializing in computational materials science with a focus on microstructural evolution under extreme conditions. He holds appointments in the College of Engineering, Computing and Applied Sciences (CECAS), where he conducts interdisciplinary research at the intersection of materials science, physics, and data analytics. Ph.D. (2008), Polytechnic University of Madrid M.S. (2003), Polytechnic University of Madrid B.S. (2000), Polytechnic University of Madrid His research explores: Defect kinetics in irradiated materials Thermodynamics of alloy systems Mechanical behavior of heterogeneous solids Machine learning applications in materials discovery Advanced manufacturing techniques Dislocation dynamics and plasticity mechanisms Recent publications demonstrate expertise in modeling radiation effects, phase transformations, and dislocation interactions using molecular dynamics and multiscale approaches. Notable simulations include studies on FeNiCrCoMn alloys, austenitic stainless steel crystallization, and machine learning-enhanced dislocation mobility. Scientific recognition includes: 2010: Outstanding Ph.D. Thesis at Polytechnic University of Madrid 2009: Juan de la Cierva Fellowship (Spain Ministry of Science) 2008: Cum Laude Ph.D. Thesis distinction

• Additive Manufacturing
• Materials Science
• Biomedical Implants
• +1 more

Atieh Moridi is Assistant Professor and Aref and Manon Lahham Faculty Fellow in Cornell's Sibley School of Mechanical and Aerospace Engineering. She directs research on advanced manufacturing techniques for high-performance materials, particularly metal additive processes for biomedical and extreme-environment applications. Research combines synchrotron characterization with novel processing methods to develop degradable implants and refractory composites. Recent NSF-funded projects focus on in-situ reactive printing and porous structure fabrication. Awards: Two-time TMS Young Innovator (2024-2025) Office of Naval Research Young Investigator Leads the Laboratory for Advanced Materials and Manufacturing (LAMM) with NSF and DoD grants exceeding $3M.

Mark D. ShattuckView profile

Professor

• Granular Materials
• Soft Matter
• Colloid Science
• +3 more

Mark D. Shattuck is a Professor in the Department of Physics at the City University of New York (CUNY), with an additional affiliation at the Levich Institute for Physico-Chemical Hydrodynamics. His office is located in Steinman Hall (1M-16) and Marshak Hall (419, 328), and he can be reached at shattuck@ccny.cuny.edu or by phone at 212-650-8161. Professor Shattuck's research spans granular materials, soft matter physics, and computational biophysics. His work in granular systems investigates jamming transitions, non-affine displacement fields, and mechanical properties of deformable particle packings. In soft matter, he examines droplet/bubble dynamics, shear-thickening suspensions, and capillary phenomena. His computational biophysics research applies physics-based modeling to protein folding mechanics and breast cancer invasion into adipose tissue, revealing connections between jamming transitions and biological processes. Analysis of his 2023-2025 publications shows a consistent focus on computational modeling of complex systems. Key trends include tunable granular metamaterials with reconfigurable force chains, the role of particle deformability in flow/clogging phenomena, and biomechanical modeling of tumor microenvironments. His work bridges fundamental physics with applications in materials science and biomedical research, often combining molecular dynamics simulations with continuum modeling approaches. Professor Shattuck has secured collaborative research funding including an NSF grant for "Experimental and Computational Studies of Droplet and Bubble Flows through Complex Geometries" (2024). He teaches Computational Physics (PHYS 39907) and mentors graduate students in computational methods, though specific advisee names are not publicly documented. His research group operates within the Levich Institute ecosystem, which provides specialized facilities for fluid dynamics and soft matter research.

• Energy Technology
• Materials Science
• Computational Physics

Prof. Dr. Thomas Hocker is a Professor at ZHAW School of Engineering, specializing in energy technology and materials science. His research focuses on solid oxide fuel cells, ceramic materials, and computational modeling of energy systems. Research interests span multiphysics modeling, materials characterization, and optimization of electrochemical systems for sustainable energy applications. Recent work emphasizes microstructure-property relationships in fuel cell components. Publications show consistent focus on fuel cell technology advancements, with recent articles emphasizing computational approaches to materials design and performance optimization. Article keywords frequently include energy technology, materials science, and computational modeling. No specific student advising, awards, or grants information was provided.

• Biomedical Engineering
• Tissue Engineering
• Orthopedics
• +7 more

Deva Chan is an Assistant Professor in Biomedical Engineering at Purdue University, with a courtesy appointment in Mechanical Engineering. She is affiliated with the Weldon School of Biomedical Engineering and focuses on interdisciplinary research at the intersection of biomechanics, medical imaging, and tissue engineering. Her work emphasizes cartilage mechanics, osteoarthritis progression, and the application of advanced imaging techniques for understanding musculoskeletal disorders. Research interests span the biomechanical and biochemical mechanisms underlying joint degeneration, including hyaluronic acid metabolism, cellular repair responses, and fibrosis. Methodologically, her lab employs finite element modeling, micro-CT imaging, and live-cell biomechanical systems to study tissue behavior under physiological and pathological conditions. Recent studies highlight her contributions to understanding how mechanical loading influences synovial biology, the role of hyaluronic acid in cartilage health, and the development of novel imaging modalities for non-invasive tissue characterization. Key projects include modeling knee osteoarthritis progression and developing pneumatically controlled cell-stretching devices for mechanobiology studies.

Hani A. AwadView profile

Professor

• Musculoskeletal Tissue Engineering
• Regenerative Medicine
• Orthopaedic Research
• +5 more

Hani A. Awad, Ph.D., is a Professor in the Department of Orthopaedics and Biomedical Engineering at the University of Rochester School of Medicine and Dentistry. He holds the Donald and Mary Clark Professorship of Orthopaedics. His research focuses on musculoskeletal tissue engineering, with an emphasis on regenerative solutions for tendon, ligament, cartilage, and bone injuries. Dr. Awad leads the Awad Lab, which develops in vivo and in vitro models to assess tissue repair efficacy and translational therapies. Dr. Awad earned his Ph.D. in Engineering Mechanics/Biomechanics from the University of Cincinnati (1999) and completed a postdoctoral fellowship at Duke University under Dr. Farshid Guilak. He joined the University of Rochester faculty in 2004. His work spans biomaterials, scaffold design, and non-invasive bone assessment techniques. He has authored over 150 peer-reviewed articles and holds multiple patents for bone regeneration and infection management technologies. Key research projects include bone allograft union, gene therapy for tendon repair, and 3D-printed antimicrobial scaffolds. His lab collaborates with engineers, clinicians, and industry partners to advance clinical applications. Notable awards include the Kappa Delta Ann Doner Vaughan Award (2007) and the Early Career Translational Research Award (2005). Dr. Awad teaches in the Biomedical Engineering Ph.D. Program and mentors students in musculoskeletal research. Current projects include tendon-on-a-chip models and mitochondrial pathways in bone aging. His lab receives funding from NIH, NCATS, and industry grants.

Julien BachmannView profile

Professor

• Atomic Layer Deposition (ALD)
• Solution Atomic Layer Deposition (sALD)
• Photoelectrochemical Water Splitting
• +5 more

Prof. Julien Bachmann is a Chair of Thin Film Materials Chemistry at the Faculty of Chemistry and Pharmacy , Friedrich-Alexander-University Erlangen-Nürnberg . His research focuses on advanced thin film synthesis methods such as atomic layer deposition (ALD) and solution ALD (sALD) , with applications in photovoltaics , electrocatalysis , and nanomaterials engineering . Key Affiliations : Chair of Thin Film Materials Chemistry (2017–present) Professor, Inorganic and General Chemistry (2012–present) Former PostDoc, Max Planck Institute for Microstructure of Solids (2007–2008) Research Themes : Photovoltaics : Sb2S3/Sb2Se3 solar cells, quantum dot integration, interfacial charge management Electrocatalysis : Oxygen evolution reaction, Ir-based nanofibers, stability-activity relationships 3D Printing & Nanostructuring : Atomic layer additive manufacturing, spray-dried supraparticles, SCALMS model systems Material Characterization : In situ X-ray scattering, impedance spectroscopy, spectroscopic ellipsometry Recent Article Trends : Advancements in ALD/sALD for catalysts and solar cells Focus on earth-abundant materials and low noble-metal loading Development of self-aligned fabrication and corrosion-resistant interfaces Integration of computational modeling with experimental validation Exploration of liquid metal solutions and photocorrosion mechanisms Labs & Collaborations : Leads the Bachmann Group at FAU, collaborating with institutions across Germany, France, Italy, and the UK . Partners include researchers in nanochemistry , energy materials , and microfluidic engineering .

Andreas DistlerView profile

Professor

• Organic Photovoltaics
• Perovskite Solar Cells
• Materials Science
• +4 more

Andreas Distler is a Professor at Friedrich-Alexander-University Erlangen-Nürnberg (FAU), leading the Chair of Materials for Electronics and Energy Technology within the Department of Materials Science and Engineering. His research focuses on advancing organic and perovskite photovoltaics, particularly in areas like material stability, industrial scalability (e.g., roll-to-roll processing), and device durability under outdoor conditions. He has achieved world record efficiencies in organic solar modules (14.5%) and pioneered techniques like laser-induced forward transfer for electrode printing and aerosol-jet-printed encapsulation for organic electronics. Distler's work integrates materials science, manufacturing processes, and energy systems, addressing challenges in large-area module fabrication, meniscus-guided coating simulations, and moisture-resistant designs. Collaborations span academic and industrial partners, with notable projects including the FAU Solar initiative and contributions to BIPV/BAPV applications. His publications emphasize high-throughput optimization, phase nucleation in perovskites, and 3D-printed solar cells on complex substrates. Research interests include: Organic and perovskite photovoltaics Scalable manufacturing techniques (inkjet, slot-die, meniscus coating) Material stability and degradation mechanisms Integration of solar technologies into buildings and 3D objects Notable achievements: World record 14.5% efficiency in organic photovoltaic modules Development of high-throughput platforms for voltage/fill factor optimization Advances in semitransparent OPV stability and indoor energy harvesting Grants and collaborations include EU-funded projects on flexible electronics and industry partnerships for solar module commercialization. His lab focuses on bridging lab-scale innovations with industrial-scale production, emphasizing both fundamental material science and applied engineering solutions.

Joshua ReedView profile

Associate Professor

• Stochastic Network Theory
• Queueing Systems
• Operations Research
• +7 more

Joshua Reed is an Associate Professor in the Department of Technology, Operations, and Statistics at the Leonard N. Stern School of Business, New York University. He has been a faculty member since 2007 and currently serves as Deputy Chair of his department. His work bridges operations research, stochastic modeling, and financial applications. Ph.D., Industrial and Systems Engineering, Georgia Institute of Technology, 2007 B.S., Industrial Engineering, University of Illinois at Urbana-Champaign, 2000 Professor Reed's research centers on the performance analysis and control of stochastic networks, with applications in service systems like call centers and internet congestion control. His expertise includes heavy-traffic approximations, diffusion models, and reflected stochastic processes. He has made significant contributions to the theory of queueing systems, particularly in many-server and infinite-server regimes. His recent publications span topics such as limit order books, dynamic pricing, and bandwidth sharing networks. These works often employ advanced probabilistic methods and asymptotic analysis to model complex real-world systems. The dominant themes include stochastic optimization, scaling limits, and financial operations. Optimal Cash Management Using Impulse Control (2023) Reflected Brownian Motion with Drift in a Wedge (2023) Large-scale Bundle Size Pricing: A Theoretical Analysis (2021) Scaling Limits for Limit Order Book Models (2017) High Frequency Asymptotics for the Limit Order Book (2016) Professor Reed has collaborated with leading researchers such as Peter Lakner, Assaf Zeevi, and Benjamin Reed. He has not received any explicitly mentioned scientific awards in the provided text. He advises graduate students and is involved in ongoing research projects related to financial queueing models and dynamic pricing. His work is supported by theoretical grants in operations research and applied probability, though specific grant details are not listed. He is associated with research groups focused on stochastic modeling and financial engineering at NYU Stern. His team explores high-frequency trading dynamics, limit order book modeling, and large-scale service system optimization. Current preprints indicate active work in regime-dependent pricing and decentralized exchange arbitrage.