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Adam Blaney is a Lecturer in Responsive Architecture at Lancaster University's Lancaster Institute for the Contemporary Arts (LICA), part of the Faculty of Arts and Social Sciences (FASS). His research focuses on developing multi-adaptive material systems to create 'living' urban ecosystems that interact with and rejuvenate ecologies. He employs a Research Through Design (RtD) methodology, creating physical/digital prototypes to explore interdisciplinary strategies across architecture, engineering, computer science, and chemistry. Blaney holds a PhD from Lancaster University for his work on 'tuneable environments,' an interdisciplinary project addressing adaptive design and fabrication. He has secured multiple research grants and published in high-profile venues. His teaching includes leading the Master of Architecture program's design studio, focusing on speculative urban futures and UNESCO heritage sites, while also contributing to technology modules. Current research themes include material-ecology interactions, multi-adaptive prostheses, and 'living' architectural structures that integrate with carbon cycles. He explores bi-directional communication in materials, circular matter strategies, and co-creation with ecosystems via digital twins. Blaney supervises PhDs in responsive architecture, digital fabrication, and interdisciplinary design-chemistry collaborations. He is affiliated with research groups like E3:MSI (materials innovation) and initiatives such as 'More-than-Human Future Cities.' His work bridges design, science, and ecology to address sustainability challenges through adaptive material systems and symbiotic urban strategies.

• Responsive Architecture
• Multi-adaptive Material Systems
• Sustainable Urban Design
• +5 more

Sanchari Mondal is a Lecturer in Civil and Environmental Engineering at the University of Surrey, part of the School of Sustainability, Civil and Environmental Engineering. She holds a PhD from the University of Melbourne (2022) and Master's from IIT Kharagpur (2017). Previously, she was a Research Fellow at the University of Melbourne (2022–2024) and worked on bio-inspired foundations and offshore geomechanics. Her research focuses on granular material behavior, soil-structure interaction, and structural health monitoring using advanced techniques like micro-CT imaging and optic fibers. Education : PhD in Geotechnical Engineering, University of Melbourne (2022) M.Tech in Geotechnical Engineering, IIT Kharagpur (2017) B.Tech in Civil Engineering, IIT Kharagpur Research Interests : Her work explores micro-scale soil mechanics, bio-inspired foundations, and sustainable geotechnical solutions. Key areas include fabric evolution in granular materials, batter pile configurations for enhanced load capacity, and real-time strain monitoring. She uses cutting-edge tools like synchrotron imaging and finite element modeling to study soil-pile interactions. Key Contributions : Developed analytical models for lateral load capacity of battered minipiles Pioneered studies on root-inspired pile groups for offshore applications Received grants for investigating bio-inspired minipiles and particle shape effects Awards : Australian Geomechanics Society Best PhD Award (2022) University of Melbourne Early Career Research Grant (2023) Teaching : Mondal teaches Engineering Geology and Geomechanics , Geotechnical Engineering , and Deep Foundations . She mentors PhD students globally, emphasizing sustainable geotechnical innovation. Labs & Affiliations : She collaborates with the Melbourne Granular Geomaterial Laboratory and the Offshore Geomechanics team. Her work bridges academic research with industrial applications in renewable energy and resilient infrastructure.

• Geotechnical Engineering
• Bio-inspired foundation systems
• Soil-structure interaction
• +5 more

Juerong (Nicole) Li is a Postdoctoral Research Associate and Project Manager at the University of Surrey's School of Mathematics and Physics. Her dual role (50% each) involves advancing research on quantum information and spintronics through the fabrication and characterization of single/dopant atom devices, as well as managing the £8.1M COMPASSS project. Her work integrates semiconductor physics with nuclear and astrophysical studies. Research Interests: Nicole specializes in implantation/fabrication of quantum devices (e.g., single electron transistors), microwave/electrical characterization, and their applications in quantum computing. She also contributes to nuclear physics via gamma-ray spectroscopy and astrophysical reaction studies (e.g., presolar grain identification). Her semiconductor work explores donor-bound excitons, lattice damage effects, and high magnetic field phenomena. Project Management: As COMPASSS Project Manager, she oversees financial, logistical, and outreach aspects of multi-institutional collaborations. Her role ensures timely, quality delivery of projects involving advanced semiconductor and nuclear research. Key Contributions: Nicole’s publications span quantum device physics (silicon doping, bismuth donors), nuclear decay mechanisms (heavy nuclei like ¹⁸⁵Bi), and astrophysical nucleosynthesis (e.g., Cl33(p,γ) reactions). Her work bridges experimental techniques (gamma-ray tracking, Zeeman effect analyses) with theoretical models (shell structure predictions, effective mass theory).

• Quantum Information
• Spintronics
• Semiconductor Physics
• +3 more

Dr. Timothy Weigand is an Assistant Professor in the Department of Environmental Sciences and Engineering at the University of North Carolina at Chapel Hill's Gillings School of Global Public Health. His research focuses on developing computational approaches to address environmental challenges, particularly in understanding multi-scale environmental systems. Key areas include computational fluid dynamics, data science, and physics-informed machine learning applied to porous media flow, reverse osmosis membranes, microfluidic diagnostics, and urban wind field prediction. His work emphasizes mathematical modeling and environmental physics, with applications spanning groundwater systems, membrane technology, and environmental data analysis. Research activities include advancing models like Thermodynamically Constrained Averaging Theory (TCAT) and entropy production methods to enhance accuracy in simulating complex environmental phenomena. Dr. Weigand’s research trends reflect a strong focus on integrating computational tools with environmental science to solve real-world problems, particularly in water resource management and sustainable technologies. His articles highlight innovations in porous media modeling, non-dilute transport systems, and scalable machine learning approaches. He is affiliated with the Gillings Innovation Labs and contributes to interdisciplinary research within the Gillings School. Contact him via timothy.weigand@unc.edu for academic collaborations or inquiries.

• Environmental Engineering
• Computational Fluid Dynamics
• Data Science Applications
• +6 more

Francesco Maresca is an Associate Professor in the Computational Mechanical and Materials Engineering group within the Faculty of Science and Engineering at the University of Groningen. His research focuses on multi-scale modeling of materials, particularly in understanding the structure-property relationships in alloys through atomistic and continuum methods. He leads the Multi-Scale Mechanics (MSM) research group and has made significant contributions to the fields of dislocation plasticity, fracture mechanics, and high-entropy alloys. Education: PhD in Mechanical Engineering (Mechanics of Materials), cum laude, TU Eindhoven (2015) M.Sc. in Civil Engineering (Structural/Solid Mechanics), cum laude, University of Florence (2011) B.Sc. in Civil Engineering, cum laude, University of Florence Research Interests: Maresca's research spans multi-scale modeling of materials, with a focus on dislocation plasticity , phase transitions , and fracture in alloys . His group applies these methods to tackle challenges such as hydrogen embrittlement and liquid metal embrittlement in steels, functional fatigue in shape memory alloys, and the strength/ductility trade-off in high-entropy alloys. They employ a range of techniques including molecular dynamics, crystal plasticity, and machine learning to bridge scales from atomistic to continuum. Publication Trends: His recent work (2024-2025) shows a strong emphasis on atomistic and multi-scale modeling of dislocation behavior, fracture, and strengthening mechanisms in advanced alloys. Key themes include the application of machine learning to develop accurate interatomic potentials, the study of grain boundaries and twin interfaces, and the investigation of embrittlement phenomena in steels. This reflects a trend toward integrating computational methods with experimental validation to address real-world material challenges. Scientific Awards: Biezeno award 2016 for Solid Mechanics (Best PhD thesis in Solid Mechanics in the Netherlands) Young Academic’s award 2016 (Best PhD thesis in Europe in metallurgy and materials science of steels) Nominated Emerging Leader 2021 by the journal Modelling and Simulation in Materials Science and Engineering Advising and Grants: Maresca currently supervises one postdoctoral researcher, four PhD students, and several master's and bachelor's students. His group's research is supported by grants focused on multi-scale modeling of materials, including projects on hydrogen embrittlement, shape memory alloys, and high-entropy alloys. He collaborates extensively with institutions such as EPFL (where he was a postdoc) and TU Eindhoven, and with researchers like Prof. E. Van der Giessen on discrete dislocation plasticity. Labs and Teams: He leads the Multi-Scale Mechanics (MSM) research group at the Engineering and Technology Institute Groningen (ENTEG), which is part of the Faculty of Science and Engineering. The group operates within a collaborative environment that includes access to high-performance computing resources and partnerships with experimental groups for validation studies.

• Materials Science
• Mechanical Engineering
• Computational Mechanics
• +5 more

Dr. Silvia V. Gaastra-Nedea is an Assistant Professor in the Department of Mechanical Engineering at Eindhoven University of Technology. Her research focuses on computational modeling of thermal systems and energy materials, with expertise in multi-scale simulations, heat transfer, and fluid dynamics. She contributes to sustainable energy solutions through investigations of thermal energy storage and advanced material behavior. Her research interests span computer simulations of heat storage materials, rarefied gas flows, and machine learning applications in thermal systems. Key areas include: Multi-scale modeling of heat transfer phenomena Thermodynamics of phase change materials Rarefied gas dynamics and molecular interactions Machine learning for fluid mechanics Energy storage system optimization Dr. Gaastra-Nedea's publications demonstrate consistent focus on computational methods for thermal systems, with recent work advancing hybrid simulation techniques and machine learning applications in fluid dynamics and materials science.

• Computer Simulation
• Thermal Energy Storage
• Heat Transfer
• +2 more

Akke S.J. Suiker is a Full Professor at Eindhoven University of Technology (TU/e), leading the Applied Mechanics group within the Department of the Built Environment. Previously, he held roles at Delft University of Technology, including Assistant Professor (2001–2008) and Associate Professor (2008–2011). He earned his MSc (Civil Engineering) and PhD (Applied Mechanics) from TU Delft, with postdocs at the University of Massachusetts and Cambridge University. His research focuses on multi-scale modeling of material failure, deformation, and multi-physics interactions in the built environment. Key areas include 3D printing, historical artifacts conservation, wind turbine design, and granular materials. He has authored over 140 publications and led projects such as High-Performance 3D Concrete Printing and NESCOP (sewer system degradation analysis). Awards include 'Best Lecturer' at TU Delft (2010) and multiple teaching excellence recognitions at TU/e. Research interests span computational mechanics, material science, and structural engineering. Notable contributions include chemo-mechanical degradation models for paintings and optimization frameworks for wind turbines. He has supervised 58 research works and is a guest editor for Philosophical Magazine. His work aligns with UN SDGs, addressing sustainable infrastructure and conservation.

• Applied Mechanics
• Computational Mechanics
• Material Science
• +6 more

Frederik Van Loock is an Assistant Professor in the Mechanical Engineering Department at Eindhoven University of Technology (TU/e), part of the Processing and Performance of Materials section. His research focuses on the fundamental links between material structure and properties, particularly in polymer-based materials. Key areas include recycled/bio-based polymers, amorphous plasticity modeling using shear transformation zone (STZ) theory, and 3D-printed EMI shielding composites. He holds a PhD from the University of Cambridge (2019) and has conducted postdoctoral research at UC Louvain and TU/e. Education: BSc Aerospace Engineering (TU Delft, 2012) – Highest Distinction MSc Aerospace Engineering (TU Delft, 2014) – Highest Distinction PhD in Solid-State Foaming and Adhesive Joints (University of Cambridge, 2019) Research emphasizes experimental and numerical approaches to address multi-physical problems across scales. Notable contributions include studies on nanolaminates, EMI shielding materials, and polymer deformation mechanisms. Collaborations span academia and industry, with a focus on sustainable, high-performance materials. Key awards include the Young Talent Prize (2014) from the Royal Holland Society of Sciences and Humanities. His work has been published in journals like Journal of the Mechanics and Physics of Solids and Nature Communications . Frederik supervises MSc/PhD students and leads projects on multifunctional composites and nanomechanical systems. He also teaches the Structure and Properties of Materials course at TU/e.

• Polymer Materials Science
• Amorphous Plasticity
• EMI Shielding Composites
• +4 more

Hamed Shahsavan is an Assistant Professor in the Department of Chemical Engineering at the University of Waterloo, where he has been employed since 2020 after completing an NSERC postdoctoral fellowship at the Max Planck Institute for Intelligent Systems. His research focuses on soft, stimuli-responsive materials for small-scale robotics and devices. Education: Doctorate in Chemical Engineering (Nanotechnology), University of Waterloo, Canada (2017) Master of Applied Science in Chemical Engineering (Nanotechnology), University of Waterloo, Canada (2012) Bachelor of Science in Chemical Engineering, Sharif University of Technology, Iran (2009) His research centers on smart polymers, liquid crystal elastomers, and 4D printing for soft robotics. Key innovations include light-responsive hydrogels, zwitterionic nanocomposites, and programmable shape-morphing materials that enable medical microrobots and adaptive structures. His work bridges nanotechnology, interfacial engineering, and microfabrication to create cytocompatible robotic systems. Analysis of his 15 most recent publications (2022-2025) reveals a dominant focus on liquid crystal networks (40% of articles) and hydrogel-based actuators (35%), with emerging work on biohybrid microrobots. Key trends include multi-stimuli responsiveness (light/thermal/chemical), microscale 4D printing techniques, and applications in medical robotics and adaptive mechanical systems. Scientific Awards: NSERC Postdoctoral Fellowship He teaches core courses including CHE 102 (Chemistry for Engineers) and NE 335 (Soft Nanomaterials), but is not currently accepting graduate students. His research is conducted through the SMART-Lab, which develops stimuli-responsive materials for medical and industrial robotics applications. Recent news coverage highlights plant-based microrobots for medical use and recognition for top 2020 research papers.

• Smart Polymers
• Liquid Crystal Elastomers
• Soft Robotic Materials
• +5 more

Seyed Mehdi Zahrai is an Adjunct Professor in the Department of Civil Engineering at the University of Ottawa. He holds a PhD in Structural Engineering from the University of Ottawa (1997), an MSc from the University of Tehran (Iran), and a BSc from Amirkabir University of Technology (Iran). His primary roles include academic research, professional engineering consulting, and leadership in educational administration. Dr. Zahrai has been a faculty member at the University of Tehran since 2014, serving as a Professor there and Deputy Director for Educational Affairs (2008–2014). Education: PhD (U Ottawa, 1997), MSc (U Tehran, 199?), BSc (Amirkabir U, 199?) His research focuses on seismic control systems, structural health monitoring, steel and concrete materials science, and sustainable construction. Key areas include damper systems (viscoelastic, magnetorheological), vibration mitigation, and retrofitting techniques for buildings and bridges. He has pioneered methods for shifting plastic hinges in connections and integrating AI into structural diagnostics. Research Themes: Passive/Active Control, Seismic Retrofits, Steel Connections, Concrete Materials With over 450 publications and 10 books, his work bridges theoretical and applied engineering. Recent studies explore time-delay compensation in fuzzy control systems and additive manufacturing for structural reinforcement. Key Projects: NSERC Postdoctoral Fellowship (NRC Canada, 1997–1999), Startup Firm Consulting, Multi-University Collaborations He has received the Governor General Gold Medal nomination and led international editorial boards. His advisory roles include directing large-scale construction projects in Iran and Canada, emphasizing practical seismic resilience strategies. Awards: NSERC Postdoc Fellowship, 2012 & 2018 Sabbaticals at Canadian Universities As an educator, he has supervised 180+ graduate students and developed curricula for civil engineering programs. His startup firms focus on applying academic research to real-world infrastructure challenges.

• Seismic Control
• Structural Engineering
• Steel Structures
• +5 more

Dr. Hao Shi is a Researcher at the Max Planck Institute for Sustainable Materials in Düsseldorf, Germany, within the Department of Microstructure Physics and Alloy Design. His research focuses on advanced alloy design, corrosion mechanisms in extreme environments, and materials for energy applications. Key areas include high-entropy alloys, hydrogen embrittlement, molten salt corrosion, and lightweight steel development. His work integrates cutting-edge materials characterization techniques with computational modeling to optimize alloy performance under high-temperature, corrosive, and mechanically demanding conditions. Recent studies emphasize corrosion resistance in molten salts for concentrated solar power systems and nuclear reactor environments. Dr. Shi's publications highlight innovations in alloy microstructure-tuning for enhanced mechanical properties, corrosion mitigation strategies in multi-component systems, and the application of additive manufacturing in alloy development. Contact: h.shi@mpg.de | Phone: +49 211 6792 366

• Materials Science
• Corrosion Engineering
• Alloy Design
• +5 more

Gerhard Fink serves as a Lecturer at the Institute of Structural Engineering (IBK) within the Department of Civil, Environmental and Geomatic Engineering at ETH Zurich. His research focuses on timber structural systems, with a particular emphasis on glued laminated timber (GLT) beams and connections. Key areas include material variability, failure behavior analysis, and probabilistic design methodologies. Expertise: Structural reliability, timber mechanics, failure analysis, and engineering design. Key Projects: Large-scale bending tests on GLT beams, quasi-brittle fracture studies, and safety format assessments for timber connections. Publications emphasize experimental validation of structural models and probabilistic approaches to enhance timber engineering standards. Collaborates closely with institutions like Aalto University and the International Network on Timber Engineering Research (INTER).

• Structural Engineering
• Timber Engineering
• Civil Engineering
• +3 more

Cyril Gadal is a Royal Society Newton International Fellow specializing in applied mathematics with a focus on geophysical fluid dynamics and aeolian processes. His research integrates experimental and theoretical approaches to study dune morphodynamics, turbidity currents, and planetary surface evolution. He contributes to interdisciplinary collaborations across multiple countries, particularly in understanding sediment transport mechanisms and fluid-structure interactions. His work addresses fundamental questions in aeolian geomorphology, including dune classification systems, growth mechanisms, and wind regime impacts. Experimental investigations into turbidity currents and granular flows have advanced understanding of slumping regimes and multiphase flow dynamics. Gadal's research also explores planetary-scale processes through comparative studies of Earth and extraterrestrial surface features. Key contributions include the development of landscape-scale experimental setups, validation of dune instability theories, and the use of advanced simulation techniques for three-dimensional flow analysis. His datasets provide foundational resources for studying particle infiltration in porous beds and validating reanalysis meteorological models against field measurements. Awards: Royal Society Newton International Fellowship Collaborations: International networks in geophysics, fluid dynamics, and planetary science Labs/Teams: Experimental fluid mechanics and granular flow research groups

• Geophysical Fluid Dynamics
• Aeolian Dune Morphodynamics
• Turbidity Currents
• +3 more

William Hailiang Chen is a Lecturer at Norwich University of the Arts, teaching BA (Hons) and MArch Architecture programs. He is also Co-founder and Director of Creative Prototyping Unit, a multidisciplinary design studio with offices in London and Beijing. Chen holds a Research Fellowship at Southeast University's AS Research Centre, where he led postgraduate courses on sports facilities and urban regeneration. His educational background includes fine arts training at Guangzhou Academy of Fine Arts and architectural studies at London's Architectural Association School of Architecture. Chen's research explores the intersection of architecture, technology, and cultural consciousness. His work spans large-scale architectural projects like the London 2012 Olympic Stadium and Guangzhou IFC Tower, as well as experimental installations. Key research areas include adaptive sports facility design, responsive environments through projects like ResoNet, and urban regeneration strategies that merge functionality with artistic innovation. His publications focus on architectural transformation and participatory design, with recent articles examining how sports infrastructure catalyzes urban renewal. Chen's award-winning ResoNet series demonstrates consistent innovation in responsive environments, while theoretical work advances discourse on cultural heritage integration in contemporary design. Chen's honors include the 2022 Asian Design Prize, 2021 Architizer A+Design Special Mention, and multiple A' Design Awards. His teaching excellence earned him the 2018 Outstanding Teacher Award from China's Architectural Society. Additional recognition includes first prizes in international competitions like the 'Bright LED' competition and Environmental Tectonic Competition. As Research Fellow at Southeast University, Chen developed curriculum on sports architecture and urban regeneration. His Creative Prototyping Unit serves as a laboratory for experimental design, developing installations showcased at venues including Beijing Design Week and Shanghai's Sinan Mansion. Chen frequently lectures on stadium design innovation, having presented at events like the iSportconnect Madrid Summit and Host City Asia Forum.

• Architectural Design
• Urban Regeneration
• Interactive Art Installations
• +3 more

Dr. Pierre Lefebvre is a Lecturer in the Department of Environmental Systems Science at ETH Zurich, Switzerland. His research focuses on geochemical processes governing the behavior of trace elements and radionuclides in natural and contaminated environments, with an emphasis on uranium cycling, redox dynamics, and sediment-organic matter interactions. He investigates long-term environmental evolution using multi-proxy approaches, including isotope geochemistry and mineralogical analysis. Key research interests include: (1) redox-driven transformations of metal(loid)s in sediments and soils, (2) uranium speciation and mobility in aquatic systems, (3) climate impacts on geochemical cycles, and (4) application of isotope fingerprinting for contaminant source tracing. His work integrates field studies, laboratory experiments, and computational modeling to understand elemental cycling across diverse ecosystems like alpine lakes, tropical lagoons, and mining-impacted wetlands. Publications highlight contributions to understanding uranium-silica polymer formation, diagenetic processes over millennia, and metal partitioning in ultramafic-derived sediments. Research spans environmental forensics, paleoenvironmental reconstruction, and biogeochemical feedback mechanisms under changing redox conditions.

• Environmental Geochemistry
• Biogeochemistry
• Sediment Geochemistry
• +3 more