Find Academic Supervisors

• Computational Electromagnetics
• Antenna Design
• Numerical Methods in Electromagnetics
• +3 more

Iván González Diego is an Associate Professor at the University of Alcalá's Department of Computer Science, affiliated with the GEC Grupo de Electromagnetismo Computacional (Computational Electromagnetic Group) . He holds a Ph.D. from the University of Alcalá (2004) for his thesis on improving the Geometrical Theory of Diffraction (GTD) for complex radiative systems. His work focuses on computational electromagnetics, antenna design, and advanced numerical techniques such as the Method of Moments (MoM), Multilevel Fast Multipole Method (MLFMM), and hybrid approaches combining asymptotic and rigorous methods. Key research areas include electromagnetic scattering analysis of large structures, reflectarray antenna design, and optimization of radio frequency systems using evolutionary algorithms. He has developed tools like NEWFASANT and MONURBS for electromagnetic simulations and pre-processing. His contributions span radar systems, V2X communication channels, and antenna-radome interaction studies. Publications highlight advancements in accelerating ray-tracing, improving preconditioners for iterative solvers, and analyzing wind turbines' electromagnetic interference. Notably, his work on multi-beam reflectarray antennas and efficient mesh generation techniques has been widely applied in aerospace and satellite communication contexts.

Irene Palomar HerreroView profile

Associate Professor

• Sustainable Building Materials
• Thermal and Acoustic Properties of Mortars
• Nanotechnology in Construction
• +4 more

Irene Palomar Herrero is an Associate Professor at the University of Alcalá's Department of Architecture. Her research focuses on advanced building materials, particularly cement-based composites with enhanced thermal, acoustic, and structural properties. She leads the Promarq research group, exploring bio-based materials, phase change materials (PCM), and nanotechnology applications in construction. Dr. Palomar Herrero holds a PhD from the University of Alcalá (2017), where her thesis addressed acoustical and thermal improvements in architectural mortars. She has published extensively on topics like self-healing mortars, 3D-printed architectural enclosures, and structural health monitoring systems integrated into smart materials. Her work bridges material science and sustainable architecture, with a focus on energy-efficient solutions for building envelopes and heritage conservation. Recent studies emphasize bioinspired materials and self-sensing composites for real-time structural monitoring. Key research areas include: material rheology for digital fabrication, PCM-enhanced mortars, and nanoclay-modified concretes. She collaborates on international projects addressing climate-responsive building materials and historical structure preservation.

Javier Mauricio Puentes MojicaView profile

Assistant Professor

• Architectural Materials
• Civil Engineering
• Construction Technology
• +3 more

Javier Mauricio Puentes Mojica is an Assistant Professor at the School of Architecture, University of Alcalá, specializing in Architectural Constructions. His research focuses on advanced cement-based materials, self-healing composites, and smart construction technologies. He holds a Doctorate from the University of Alcalá with a thesis on 'Procedimientos de control de fisuración a edades tempranas de hormigones avanzados para construcciones arquitectónicas (2015)', supervised by Dr. Gonzalo Barluenga Badiola. His work integrates nanotechnology and bio-based additives to enhance material performance, including self-sensing, self-healing, and thermal regulation properties. Key areas include 3D printing of sustainable mortars, structural health monitoring using carbon fibers, and phase change materials for energy efficiency. Recent studies (2023-2025) explore adaptive bioinspired materials and functionalized cementitious composites. Publications highlight innovations in nano-engineered SCC, piezoresistive concrete, and durability under thermal stress. His research contributes to sustainable construction practices and resilient infrastructure systems. Current projects include collaborations on smart materials for architectural applications and methodologies for early-age material monitoring using NDT techniques. He leads the 'Promarq' research group, focusing on architectural projects and building materials innovation.

Michael HaistView profile

Professor

• Civil Engineering
• Materials Science
• Concrete Technology
• +3 more

Prof. Dr.-Ing. Michael Haist is a Professor of Building Materials at the Institute for Building Materials, Leibniz University Hannover, within the Faculty of Civil Engineering and Geodesy. His research focuses on rheology of cement-bound systems, creep and shrinkage of concrete, and sustainable construction materials. He holds a diploma in civil engineering from Karlsruhe University and has held roles including Chief Engineer at the Karlsruhe Institute of Technology and Visiting Scientist at MIT. He leads major projects like ReCyCONtrol and R-Clinker-Control, addressing digitalization and sustainability in concrete production. Notable awards include the Faculty Teaching Prize (2016) and the CEMEX Concrete Promotion Prize (2010). He teaches courses like 'Concrete Technology' and contributes to interdisciplinary initiatives such as the DAfStb guidelines for greenhouse gas reduction in construction. Professional background: 1995–2001 studied at University of Karlsruhe; 2001–2009 research associate at Institute of Concrete Structures; 2009–2018 Chief Engineer and Head of Department at KIT. Since 2019, full professor at Leibniz University. Patents include a rheometer testing system. Research interests span concrete rheology, sustainable materials, and failure mechanisms. Projects include DFG-funded R-Clinker-Control (2024) and BMWK-supported RTTS tunnel systems (2023). His work bridges academia and industry, emphasizing digital tools and environmental impact reduction.

Timothy WeihsView profile

Professor

• Reactive Materials
• Structural Materials
• Biomaterials
• +3 more

Timothy Weihs is a Professor of Materials Science and Engineering at the Johns Hopkins University's Whiting School of Engineering. He holds leadership roles as Director of the Materials Science in Extreme Environments University Research Alliance (MSEE) and previously directed the Center for Leadership Education (2010–2017). His work spans reactive materials, structural alloys, and biodegradable biomaterials, with notable contributions to magnesium alloy design for medical implants, energetic materials research, and advanced manufacturing techniques. Education: B.S. from Dartmouth College, followed by B.S. and M.S. from Thayer School of Engineering. Ph.D. in Materials Science and Engineering from Stanford University, with postdoctoral research at Oxford and Lawrence Livermore National Laboratory. Research focuses on linking microstructure to material properties, including: 1) reactive nanocomposites for heat sources and energetic materials; 2) magnesium alloys for armor and biomedical applications; 3) 3D-woven architectures for enhanced material performance. His group employs ball-milling, additive manufacturing, and advanced characterization techniques. Awards include NSF Career Award, R&D 100 Award, and induction into the National Academy of Inventors. He co-founded Reactive NanoTechnologies (RNT) in 2002, commercializing reactive multilayer foils. Current projects include the MSEE alliance, CAIMEE AI-driven alloy development, and collaborations on thermal management systems. His lab supports 15+ students annually, with recent graduate milestones highlighted in 2025 news updates.

Daniele SalvatiView profile

Associate Professor

• Audio Signal Processing
• Acoustic Signal Processing
• Computer Audition
• +13 more

Daniele Salvati is an Associate Professor in the Department of Mathematics, Computer Science and Physics at the University of Udine, Italy. He is actively involved in research, teaching, and editorial roles in leading signal processing journals. Associate Professor, University of Udine Ph.D. in Acoustic Source Localization, University of Udine (2012) Senior Member, IEEE Associate Editor, IEEE/ACM Transactions on Audio, Speech, and Language Processing Handling Editor, Signal Processing His research focuses on audio and acoustic signal processing , particularly in the areas of source localization, speaker identification, and computer audition. He integrates traditional signal processing with modern machine learning and deep learning techniques to develop robust systems for real-world environments. His recent publications demonstrate a strong trend toward end-to-end deep learning models using raw waveforms, beamforming optimization (especially diagonal unloading), and applications on mobile and drone-based platforms . His work spans both journal and conference venues, with a focus on IEEE and ISCA publications. Scientific recognition includes: National Scientific Qualification as Full Professor (IINF-05/A) Senior Member of IEEE Editorial board roles in top journals He mentors doctoral students as part of the Ph.D. program in Computer Science and Artificial Intelligence and collaborates widely with researchers such as Carlo Drioli and Gian Luca Foresti. His research is supported by publications in high-impact journals and participation in international conferences. He leads work in the G.L. Foresti's Lab, focusing on intelligent systems and signal processing. His work includes developing microphone array-based interfaces for music and human-computer interaction, acoustic scene analysis, and automated sensor configuration. Future directions likely involve further integration of AI with physical sensor systems, especially in autonomous and mobile contexts.

• High Energy Physics
• Exotic Meson Spectroscopy
• Detector R&D
• +7 more

Elif Aslı Yetkin is a Professor in the Department of Energy Systems Engineering at Istanbul Bilgi University, where she has held academic appointments since 2015, progressing from Assistant to Associate and then Full Professor. Her research is centered on high-energy physics, with a focus on exotic meson spectroscopy, detector R&D, and complex data analysis, primarily within the framework of the CMS experiment at CERN. PhD in Astronomy and Physics, University of Iowa (2011) BS in Physics, Boğaziçi University (2004) Her research interests include High Energy Physics, Exotic Meson Spectroscopy, Detector R&D, Complex Data Analysis, and Nuclear Energy. She actively contributes to the development of advanced calorimeters and studies of B-physics and quark-gluon interactions. Her work bridges theoretical modeling with experimental validation in particle physics. The recent publications highlight a strong trend in CMS detector development, particularly for the High Granularity Calorimeter (HGCAL) and forward calorimeter upgrades. Her work spans detector simulation, performance evaluation, and exotic particle searches, especially in the realm of quarkonium and B-hadron physics. Keywords across publications include High Energy Physics, Particle Physics, Detector Development, and Calorimetry, with subfields such as muon triggering, missing transverse energy, and radiation-hard materials. TUBITAK 2232 Postdoctoral Fellowship Programme She has been involved in numerous research projects funded by TÜBİTAK, TAEK, and TENMAK, focusing on detector design, core boil separation modeling in nuclear reactors, and SUEP studies. While no formal students are listed, she mentors through internships (ESEN 200, ESEN 300) and project-based courses like Experimental Design in Energy Systems Engineering. She has not been mentioned as leading a specific lab, but her work is deeply embedded in international collaborations such as CMS and CERN-based R&D teams.

Konrad NübelView profile

Professor

• Construction Process Management
• Digital Methods in Built Environment
• Sustainable Infrastructure
• +5 more

Prof. Konrad Nübel is a Professor of Construction Process Management at the Technical University of Munich (TUM), affiliated with the TUM School of Engineering and Design. His research focuses on integrating digital methods and sustainable practices into construction value chains, emphasizing process engineering, management sciences, and technical challenges. He holds leadership roles in the TUM Leonhard Obermeyer Center (digital methods in built environment), TUM Cluster Sustainable Real Estate, and Venture Labs Built Environment. Education: Civil Engineering degrees from University of Karlsruhe (now KIT) and University of Waterloo (Canada), with a 2002 PhD in Geotechnical Engineering from KIT. His career spans academic research (numerical modeling of granular materials) and industry roles with companies like Züblin, Bilfinger Berger, and BAUER Spezialtiefbau, managing global construction projects. Research interests include: - Process-oriented construction project management - AI and automation in construction productivity - Data cooperatives for SME empowerment - Geotechnical risk analysis in tunnelling - Sustainable infrastructure design Key contributions include frameworks for federated digital platforms (Sustainability 2021), TBM performance optimization models (Geotechnique 2024), and digital decarbonization case studies (Buildings 2023). He advocates for workforce training in Industry 4.0 and chairs the VDI Advisory Board for Construction Technology. Received TUM's Honorary Certificate for Excellence in Teaching (2021) Published over 50 peer-reviewed articles since 2000 Guided international collaborations in Botswana, Canada, Japan, and Germany Labs/Teams: Core member of TUM's Leonhard Obermeyer Center and Sustainable Real Estate initiatives, leading interdisciplinary teams in construction innovation.

Zohar YosibashView profile

Professor

• Computational Biomechanics
• Finite Element Methods
• Bone Mechanics
• +4 more

Zohar Yosibash is a Professor of Mechanical Engineering at Ben-Gurion University of the Negev (since 1995) and Head of the Computational Mechanics Laboratory. He holds a Hans Fischer Senior Fellowship at the Technical University of Munich (TUM-IAS) since 2009. His research focuses on computational biomechanics, particularly bone and artery mechanics, using high-order finite element methods (p-FEM). He has expertise in singularities in solid mechanics and nonlinear FE analysis. Education: B.Sc. Aeronautical Engineering (Technion, 1987), M.Sc. Applied Mathematics (Tel Aviv University, 1991), D.Sc. Mechanical Engineering (Washington University, 1994). Visiting roles included Washington University (1994–1995) and Brown University (2002–2007). He serves on the advisory board of the Bavarian Graduate School of Computational Engineering since 2006. Research interests include computational biomechanics, finite element methods (p-FEM), bone fracture mechanics, blood vessel mechanics, and failure initiation analysis. His work bridges numerical methods with clinical applications, such as predicting femur strength in metastatic tumors and validating simulations against experimental data. Key awards include the Toronto Prize for Best Researcher (2009, Ben-Gurion University) and IBM Distinguished Professorship (2002–2003, Brown University). His publications emphasize validated FE models of bones and arteries, stochastic simulations under uncertainty, and mesh-free finite cell methods.

Sajib SahaView profile

Researcher

• Infrastructure Resilience
• Artificial Intelligence Applications
• Geospatial Technologies
• +3 more

Sajib Saha, Ph.D., is an Assistant Research Scientist at the University of Georgia. His research focuses on AI-informed infrastructure resilience, integrating advanced technologies like geospatial systems, artificial intelligence, and non-destructive testing to enhance the durability and adaptability of civil infrastructure systems. He employs a system-of-systems approach, linking social, ecological, technological, and governance frameworks with physical infrastructure networks. Dr. Saha’s expertise includes infrastructure materials characterization, data-driven modeling, and large-scale experimental methodologies. His work has been supported by grants from NCHRP, state Department of Transportation agencies, and the U.S. Department of Energy. Notable areas of investigation include pavement performance optimization, material sustainability, and predictive modeling for infrastructure resilience. His research trends emphasize interdisciplinary solutions, leveraging machine learning for cost-effective material design and environmental impact reduction. Recent studies address challenges in subgrade soil mechanics, GPR-based NDT, and system resilience frameworks. Collaborative efforts with industry and government bodies underscore his commitment to practical, scalable infrastructure solutions. Dr. Saha has contributed to grant proposals and projects aimed at advancing infrastructure quality control and assurance. His work frequently bridges academic research with real-world applications, focusing on enhancing infrastructure longevity and societal resilience.

Musharraf ZamanView profile

Professor

• Geotechnical Engineering
• Geomechanics
• Pavement Materials and Systems
• +4 more

Dr. Musharraf Zaman is the David Ross Boyd Professor and Aaron Alexander Professor of Civil Engineering and Environmental Science at the University of Oklahoma, where he has served since 1982. He holds additional roles as Alumni Chair Professor of Petroleum and Geological Engineering and Director of the Southern Plains Transportation Center. His academic rank is Professor, and he leads the School of Civil Engineering within the College of Engineering. He specializes in geotechnical engineering, geomechanics, and pavement materials/systems. Over his career, he has secured over $22.5 million in research funding and published over 390 papers. His honors include the David Ross Boyd Professorship (OU’s highest teaching award) and the Chandra Desai Medal. He advises numerous graduate students, with over 100 listed in his CV. Key research focuses on pavement performance, recycled materials in construction, and intelligent compaction technologies. His work spans lab-to-field studies on asphalt mixes, subgrade stabilization, and pavement preservation strategies. He also contributed to innovations like a patented method for predicting asphalt density and development of non-proprietary UHPC mixes. Recent articles emphasize sustainability (e.g., recycled concrete aggregates, biocemented soils) and infrastructure resilience (e.g., autonomous vehicle disruptions, flood vulnerability). He has led major projects like the Southern Plains Transportation Center (since 2013) and serves as editor-in-chief of the International Journal of Pavement Research and Technology.

Ghaleb NatourView profile

Professor

• Nuclear Engineering
• Materials Science
• Medical Imaging Technologies
• +6 more

Prof. Ghaleb Natour is a faculty member at the Institute of Technology and Engineering (ITE) of the Research Center Jülich GmbH. His research focuses on advanced materials science, nuclear engineering, and medical imaging technologies. He leads projects related to neutron sources (e.g., European Spallation Source), moderator systems, plasma-facing materials, and hybrid medical imaging devices like the BrainPET insert. His work integrates computational modeling, experimental validation, and innovative manufacturing techniques (e.g., laser metal deposition). Key research areas include cryogenic hydrogen moderator systems, thermal management for compact X-ray tubes, and energy-efficient hydrogen production via oxygen membrane reactors. He collaborates on interdisciplinary initiatives such as the AgraSim agricultural simulator and high-speed bearing technology for precision engineering. His contributions span fundamental material characterization (e.g., titanium-stabilized steels) to applied systems like UHF-MRI compatible PET scanners. His recent articles emphasize neutron beam optimization, plasma surface regeneration, and CFD-driven reactor design. Collaborative projects include the Palestinian-German Science Bridge initiative and the development of novel elastomeric polymers for medical phantoms. His work bridges theoretical modeling and practical engineering solutions in energy, health, and environmental sustainability.

• Digital Circuits
• VLSI Design
• Signal Processing
• +4 more

Paulo Flores holds the position of Associate Professor at the Department of Electrical and Computer Engineering within the Instituto Superior Técnico of the University of Lisbon. His academic career is deeply rooted in Electronics and Digital Systems, with a focus on VLSI design, FPGA optimization, and hardware acceleration for bioinformatics applications. He has contributed extensively to research in multiplierless constant multiplication algorithms, low-power circuit design, and quaternary logic implementations. Notable achievements include the SAT Competition 2014 and 2013 Bronze Medals for innovative contributions in formal methods and algorithmic efficiency. His teaching responsibilities include advanced courses in digital systems design, electronic engineering projects, and laboratory guidance in topics like operational amplifiers and FIR filters. Flores actively collaborates with research units like INESC-ID and has supervised multiple academic projects in electronic engineering and digital signal processing. Research interests span across circuit testing, embedded systems optimization, and multi-valued logic architectures. His work frequently explores trade-offs between computational efficiency and energy consumption in hardware implementations.

Min ZhangView profile

Professor

• High Temperature Superconductors
• Aviation Electrification
• Fusion Energy
• +7 more

Professor Min Zhang is a full-time faculty member in the Department of Electronic and Electrical Engineering at the University of Strathclyde, Faculty of Engineering. She was appointed as the first female professor in her department in 2021, after joining as a Reader in 2018. Prior to Strathclyde, she served as a Lecturer at the University of Bath and a Junior Research Fellow at Newnham College, Cambridge. PhD in Engineering, University of Cambridge Masters and Bachelor in Electrical Engineering, Tsinghua University Her research focuses on the application of high-temperature superconductors (HTS) in transformative energy sectors, particularly aviation electrification, fusion, and renewable energy systems. She leads the Cryogenic Propulsion Lab, where her team develops advanced superconducting technologies for zero-emission air transport and sustainable energy conversion. Her work bridges materials science, electrical engineering, and cryogenics. The most recent publications highlight a consistent focus on AC loss characterization in HTS coils, cryogenic power electronics using GaN transistors, and the design of superconducting motors for aircraft. These works span key subfields including thermal management, flux pump design, and comparative analysis of superconducting materials. The overarching theme is the integration of superconductivity into practical, high-efficiency systems for aerospace and energy applications. She has received multiple scientific awards and recognitions: Jan Evetts Superconductor Science and Technology Award (2019) Superconductor Science and Technology Reviewer Award (2018) Jan Evetts SUST Award (2017) SUST Highlights of 2017 IOP Reviewer Awards (2017) Prof Zhang is a Principal Investigator on several active research grants, including the Airbus Cryoprop project and a UKRI-funded ERC grant awarded in 2022. She supervises postgraduate researchers and has contributed to major professional activities such as organizing the EFATS conference and serving on the advisory board of the International HTS Modelling Workgroup. Her leadership in both research and mentorship underscores her significant impact in the field of applied superconductivity. She leads the Cryogenic Propulsion Lab (https://cryogenicpropulsion.com/wordpress/our-team/), which focuses on developing fully superconducting machines for electric aircraft propulsion, with emphasis on AC loss reduction, cryogenic testing, and system integration. The lab collaborates with industry leaders like Airbus and UKAEA, and maintains strong academic ties with institutions including the University of Bath.

Wei WuView profile

Professor

• Geomechanics
• Granular Materials
• Constitutive Modeling
• +7 more

Wei Wu is a Full Professor and Head of the Institute of Geotechnical Engineering at BOKU University, within the Department of Structural Engineering and Natural Hazards. He leads research in geomechanics, numerical modeling, and AI applications in geotechnical engineering. Doctor of Engineering (Dr.-Ing.), Karlsruhe University, Germany (1986–1993) MSc in Geotechnical Engineering, Xian University of Technology, China (1982–1985) Bachelor in Civil Engineering, Wuhan University, China (1978–1982) Professor Wu's research focuses on geomechanics, granular materials, constitutive modeling, and numerical simulations for landslides, debris flows, and tunneling. His work integrates SPH, DEM, and hypoplastic models to simulate complex soil behavior. He also explores soil bioengineering and AI applications in geotechnics . His recent publications emphasize failure mechanisms, uncertainty analysis, and large deformation modeling using advanced computational methods. His recent articles highlight a strong trend in developing and applying hypoplastic constitutive models combined with meshfree methods (SPH, DEM) for simulating granular flows, landslides, and soil-structure interaction. Research spans from micro-scale particle behavior to macro-scale geohazard modeling , with increasing integration of machine learning and probabilistic frameworks . Advanced Grant, European Research Council, 2024 Gold medal, Technical University of Brno, Czech Republic, 2024 Professor Wu has supervised over 30 PhD and 100 MSc theses . He leads major research projects funded by the European Research Council (ERC) , European Commission , and Austrian Science Foundation , including the €2.5M ERC Advanced Grant 'Modeling transient granular flow' (2024–2029). He serves as founding Editor-in-Chief of Acta Geotechnica and leads the Otto Pregl Foundation for Fundamental Geotechnical Research. He heads the Institute of Geotechnical Engineering at BOKU and co-leads research on AI in Geotechnical Engineering . His team conducts advanced numerical simulations and experimental validations, particularly in landslide dynamics, tunnel stability, and root-reinforced slopes .