Find Academic Supervisors

• Sustainability of structures
• Eco-materials (cement, geosourced, biosourced materials)
• Phase change materials for energy storage
• +3 more

Ameur El Amine Hamami is a Researcher and Director of the Civil Engineering Department at La Rochelle University, France. His work focuses on cementitious materials, bio-sourced construction materials, and phase change materials for energy-efficient buildings. He contributes to projects like FAdOptiBat (additive manufacturing of building elements) and BIOMCP (bio-sourced thermal storage materials). Research themes: Sustainable construction materials, chloride transport in concrete, additive manufacturing Teaching: Structural design, material durability, construction engineering His research explores multi-scale modeling of hygrothermal behavior, durability of reinforced concrete under climate change, and eco-materials optimization. Key publications cover properties of blended cement pastes, chloride diffusion mechanisms, and 3D-printed insulation materials. Recent work includes Machine learning for concrete resistance prediction and Xylitol-based phase change materials for seasonal energy storage . He serves as reviewer for journals like Cement and Concrete Composites and Construction and Building Materials .

• Isothermal Calorimetry
• Building Materials Science
• Hydration and Pore Structure in Cement
• +4 more

Lars Wadsö is a Professor at the Division of Building Materials under the Faculty of Engineering (LTH) at Lund University . He contributes to the Circular Building Sector profile area, focusing on sustainable construction materials and hydration processes in cement-based systems. His research expertise spans isothermal calorimetry , hydration analysis , and moisture property evaluation of building materials. He investigates bio-based insulation performance , stabilized dredged material quality , and thermal properties of sustainable materials , with a strong emphasis on applications for the UN Sustainable Development Goals . Recent publications highlight calorimetric methodologies for assessing material hydration, strength development, and moisture interactions. His work bridges materials science with environmental engineering , particularly in circular construction technologies and low-carbon material development . Collaborative projects include Urban Arena and Advancing optical microscopy for materials engineering . He supervises PhD candidates in cement hydration and material stabilization and contributes to national geodata standards through interdisciplinary research networks.

• New building materials (bio-sourced, low-carbon, Alkali Activated)
• Numerical modeling of hygrothermal transfers
• Building energy performance
• +7 more

TEDJDITI Ahmed-Kamel is a Researcher-Lecturer at CESI (Strasbourg Campus), affiliated with the Engineering and Numerical Tools research team. His academic roles include teaching in preparatory and engineering cycles, focusing on disciplines such as Strength of Materials, Building Materials, Concrete Pathologies, Soil Mechanics, and Fluid Mechanics. Education: Ph.D. in Civil Engineering (2021): University of Tlemcen (EOLE-LaSIE), Thesis titled "Cork Concrete: Optimization of Formulation and Thermal Performance" Master's in Civil Engineering (2017): University of Tlemcen (RiSAM), Thesis titled "Evaluation of the Behavior Factor of Reinforced Concrete Structures using a Semi-Global Approach" Research Interests: Dr. TEDJDITI specializes in new bio-sourced and low-carbon building materials, numerical modeling of hygrothermal transfers, building energy performance, and durability of concretes/mortars. His work integrates experimental and theoretical approaches to advance sustainable construction practices. Publications: His recent work includes studies on fiber-reinforced self-compacting concrete, cork concrete thermal properties, and machine learning applications for predicting biobased concrete performance. Key focus areas span material formulation optimization, thermal modeling, and durability analysis. Supervision & Projects: He has supervised 7 master’s final-year projects and contributed to research projects addressing advanced materials and structural behavior. His work bridges academic research and industrial applications in civil engineering. Labs/Teams: Active in the Engineering and Numerical Tools team at CESI, focusing on innovative materials and numerical methodologies for civil engineering challenges.

• Water Engineering
• Environmental Engineering
• Urban Hydrology
• +5 more

Dr. Prasanna Egodawatta is an Associate Professor in the School of Civil & Environmental Engineering at Queensland University of Technology (QUT). He specializes in Water/Environmental Engineering with over 15 years of industry and academic experience. His research focuses on urban hydrology, stormwater management, water quality modelling, and resilience in water systems. Education: PhD from QUT. Teaching areas include Engineering Hydraulics, Advanced Water Engineering, and Civil Engineering Thesis Projects. He has co-supervised over 15 doctoral/master’s students and contributed to teaching innovation projects funded by QUT and the Office for Learning and Teaching (OLT). Research interests span stormwater pollution, treatment technologies, water-sensitive urban design, and risk-based water management. Key projects include ARC Linkage grants on climate change adaptation of WSUD, and collaborations with Gold Coast City Council, Port of Brisbane Corporation, and industry partners like Holcim and SPEL Environmental. He has published over 75% of his work in Q1 journals (SCIMago) and secured >$600k in research funding. His work emphasizes statistical methods for environmental data analysis and multivariate techniques for pollutant source identification. Past roles include Higher Degree Research Director (2015–2017) and RDC committee member (2015–2017). He actively reviews for journals like Water Research and Environmental Modelling & Software . Notable contributions include advancing stormwater quality models, assessing health risks of PAHs, and developing methodologies for heavy metal prediction in urban catchments. His lab focuses on bridging environmental engineering with sustainable urban systems.

Francesco AsdrubaliView profile

Professor

• Building Thermophysics
• Building and Environmental Acoustics
• Lighting Technology
• +15 more

Francesco Asdrubali is a Full Professor at the Department of International Human and Social Sciences (SUSI) of the University for Foreigners of Perugia since October 2023, after serving as Full Professor in the Department of Engineering at Roma Tre University from 2016 to 2023. He has a long-standing academic and research career in environmental technical physics, with a focus on sustainable building technologies, acoustics, energy efficiency, and life cycle assessment. His research interests span a wide interdisciplinary spectrum, including: Building thermophysics and thermal performance of envelopes Building and environmental acoustics, including sound insulation and urban soundscapes Lighting technology and daylighting systems Renewable energy integration in buildings Life cycle assessment (LCA) and circular economy in construction Sustainable mobility and smart cities Energy planning and environmental impact Conservation of historical-artistic assets The analysis of his recent publications reveals a strong trend towards sustainability, with a focus on environmental product declarations, decarbonization of building materials, green roofs, acoustic metamaterials, and thermal performance under real-world conditions. His work integrates experimental validation, numerical modeling, and policy implications. His scientific contributions include: Director of the International Institute of Acoustics and Vibrations (IIAV) since 2021 President of the Italian Acoustics Association (AIA) Scientific director of numerous national (MUR, INAIL) and EU projects (LIFE, Horizon 2020) Technical Scientific Expert for the MUR Author of over 300 scientific publications with more than 6,700 citations (Scopus h-index: 43) Editor-in-Chief of Noise Mapping and Building Acoustics He has led major research initiatives such as CIRIAF (2004–2013) and has collaborated with key institutions including the Colosseum Archaeological Park, Rome Airports, ISPRA, and IKEA Italy. His work bridges scientific research, technological innovation, and public policy, contributing to sustainable urban development and energy transition.

Sandy CurthView profile

Lecturer

• Architectural Additive Manufacturing
• 3D Printing
• Material Science
• +4 more

Sandy Curth is a Lecturer and PhD candidate at the Massachusetts Institute of Technology (MIT), affiliated with the Design and Computation Group. She leads the Programmable Mud Initiative, focusing on architectural additive manufacturing with locally sourced earthen materials. Educational background: PhD in Design and Computation (MIT), Master of Architecture (UC Berkeley), and dual undergraduate degrees in Physics and Anthropology (Bennington College). Her research spans architectural design, material science, and computational fabrication. Key areas include: Development of bio-engineered local materials (Biocementation Program). Additive Energy: Thermally performative building elements using low-carbon earthen materials. EarthWorks: Zero-waste 3D printed earthen formwork for reinforced concrete construction. Life Cycle Assessment of earthen additive manufacturing systems. Robotic fabrication and structural optimization techniques. Her publications highlight innovations in 3D printing with earth, circular construction methods, and climate-resilient housing. Collaborations include MIT's Digital Structures, Huang Hobbs Biomaker Space, and Center for Bits and Atoms. Scientific Awards: 2019 Norman Foster Foundation Robotics Scholar. Her work intersects academia with practical applications, including contributions to the Long Now Foundation's 10,000 Year Clock Project and community engagement like the annual Christmas Bird Count.

• Building Physics
• Hygrothermal Behavior
• Energy Efficiency
• +4 more

Rafik Belarbi is a Professor and Teacher-Researcher at the University of La Rochelle, where he serves as Head of the BVD research team within the Civil Engineering Department. His academic career spans several decades, including serving as Director of the Civil Engineering Department from 2007 to 2019. He coordinates multiple significant research projects including the European Erasmus+ project "PROEMED" focused on environmental protection and energy-efficient buildings in the Mediterranean region, the ANR-Habisol project "AGROBAT" on green roofs' impact on building energy performance, and the "Hygrobat" project on developing hygro-thermal design methods for high-performance buildings. Professor Belarbi's research centers on the study of mass transfers, particularly humidity, and heat within habitable environments. His work focuses on coupled heat and humidity exchanges through building envelopes and at the interface between construction materials and the environment. He investigates methods to control water and heat exchanges to ensure environmental comfort at lower costs while protecting both the environment and building structures. His research spans building physics, sustainable construction materials, green infrastructure, and energy efficiency in buildings, with a particular focus on the durability of building structures and the development of sustainable building solutions. Analysis of Professor Belarbi's extensive publication record (over 200 publications) reveals a strong focus on sustainable building technologies, particularly green walls and roofs, bio-based construction materials, and energy efficiency optimization. His work integrates experimental characterization with advanced modeling techniques to understand hygrothermal behavior of building materials. A significant portion of his research addresses the development and validation of models for coupled heat and moisture transfer in building envelopes, with applications to energy performance assessment and durability prediction across diverse climatic conditions. Professor Belarbi has coordinated several major research initiatives including the European Marie Curie project "Exchange of Experience on the Preservation of Historic and Old Water Masonry Structures." His leadership extends to directing the Civil Engineering Department at University of La Rochelle for over a decade (2007-2019) and heading the BVD research team. His research has resulted in substantial scholarly output spanning building physics, sustainable construction, and energy efficiency, with collaborations extending across multiple international institutions. Professor Belarbi's research laboratory focuses on the characterization and modeling of building materials' hygrothermal properties, with particular emphasis on bio-based materials like hemp concrete and miscanthus composites. His team develops experimental methods for assessing material performance under various environmental conditions and creates numerical models to predict building energy performance and structural durability. The laboratory maintains strong connections with industry partners to ensure practical application of research findings in real-world construction projects.

• Optics
• Spectroscopy
• Diagnostic Imaging
• +4 more

Vasilios Papadakis serves as an Assistant Professor at the University of West Attica with over two decades of international research and teaching experience spanning Delft University of Technology, Foundation for Technology and Research, University of Crete, and Hellenic Mediterranean University. His expertise centers on non-destructive testing, multispectral imaging, and diagnostic methodology development for material surface analysis under stress conditions. His academic foundation includes dual doctoral achievements: PhD in Spectral Tissue Imaging (Medical School, University of Crete) PhD in Organismal Behavior Observation via Machine Vision (Department of Biology, University of Crete) Dr. Papadakis' research integrates optical physics and engineering to pioneer diagnostic solutions. Core focus areas include: Spectroscopic characterization through Raman, infrared, and fluorescence techniques Material differentiation based on spectral signatures Optoelectronic device design for industrial information systems Dynamic surface analysis during stress exposure Analysis of his 150+ publications reveals dominant themes in Industry 4.0 implementation and sustainable manufacturing . Recent work demonstrates cross-disciplinary impact through 3D-printed infrastructure, biomimetic drone components, and machine learning-driven predictive maintenance systems—bridging theoretical mathematics with practical engineering solutions. As an educator, he teaches foundational engineering mathematics (Linear Algebra, Calculus) and specialized courses including Strength of Materials and Unmanned Aerial Systems. His pedagogical innovations feature low-cost robotics platforms like DuBot and sustainability integration through upcycled materials in mechatronics labs. He directs the Non-Destructive Testing and Systems Diagnosis Methodologies Laboratory , where his team develops imaging solutions for industrial quality control, with particular emphasis on stress-induced surface phenomena and embedded diagnostic systems for material science applications.

Laura DietzView profile

Associate Professor

• Information Retrieval
• Machine Learning
• Natural Language Processing
• +6 more

Laura Dietz is a tenured Associate Professor in the Department of Computer Science at the University of New Hampshire, where she leads the TREMA lab. Her academic journey began with a PhD from the Max Planck Institute for Informatics in Saarbruecken, Germany (2011), followed by postdoctoral positions at the University of Massachusetts Amherst (2010-2015) and University of Mannheim (2015-2016). Her educational background includes PhD studies at both the Max Planck Institute for Informatics (2007-2011) under Prof. Gerhard Weikum and Prof. Tobias Scheffer, and earlier research at Humboldt University in Berlin. She has built a distinguished career bridging theoretical computer science with practical applications in information retrieval and machine learning. Dietz's research primarily focuses on the intersection of information retrieval, natural language processing, and knowledge graphs, with a parallel research initiative in watershed data science. She is particularly known for her work on entity-aspect linking, complex answer retrieval, and the vision of automatic Wikipedia construction. Her approach integrates fine-grained knowledge annotations with text understanding to create comprehensive information systems that go beyond traditional 10-blue-links search paradigms. In watershed data science, she applies similar machine learning techniques to environmental data streams, focusing on solute transport analysis during storm events. Her recent publications reveal a strong trend toward fine-grained semantic understanding, particularly in entity-oriented search tasks. She has pioneered methods for entity-aspect linking that significantly improve retrieval accuracy by capturing different contexts in which entities appear. Her work increasingly integrates knowledge graphs with neural architectures, showing sophisticated understanding of how to leverage both structured and unstructured information for better search experiences. Best paper award at JCDL 2018 for work on entity-aspect linking NSF CAREER Award (2019-2023) for "Utilizing Fine-grained Knowledge Annotations in Text Understanding and Retrieval" OSSI Award 2013 from UMass ICB3 for open-source hardware/software Dietz actively mentors PhD and Masters students through the TREMA lab, with current research focusing on entity ranking, topic extraction, conversational search, and watershed forecasting. Her grant portfolio includes the NSF CAREER award and funding from the Northeast Big Data Innovation Hub for forecasting salinity in rivers during storm events. She has also coordinated the TREC Complex Answer Retrieval track (2017-2019), creating important benchmarks for the IR community. The TREMA lab (Text Retrieval, Entity Modeling, and Applications) serves as the hub for Dietz's research activities, bringing together students and collaborators to work on cutting-edge problems in information access. The lab's work spans both theoretical contributions to information retrieval and practical applications in domains ranging from environmental science to scientific publication analysis.

Jinki KimView profile

Assistant Professor

• Smart Materials and Structures
• Sensors
• Structural Health Monitoring
• +4 more

Jinki Kim serves as an Assistant Professor in the Department of Mechanical Engineering at Georgia Southern University, where he has been a faculty member since 2018. His research program bridges mechanical systems, materials science, and computational methods, with particular emphasis on experimental techniques for structural assessment and manufacturing processes. Professor Kim's academic credentials include a Ph.D. in Mechanical Engineering from the University of Michigan (2017), complemented by both M.S. and B.S. degrees in Mechanical and Aerospace Engineering from Seoul National University (2008 and 2006 respectively). His educational foundation supports his interdisciplinary research approach spanning mechanical systems and experimental dynamics. Research interests center on Smart Materials and Structures , Structural Health Monitoring , and Advanced Manufacturing , with specific expertise in video-based motion estimation, piezoelectric systems, and machine learning applications. His work demonstrates strong connections to piezoelectric engineering (81% fingerprint match) and structural health monitoring (51%), while contributing to UN Sustainable Development Goals in sustainable industrialization. Recent projects integrate deep learning with traditional engineering methods to solve practical problems in bioprinting and infrastructure assessment. Publication trends from 2023-2024 reveal significant focus on applying computational techniques to manufacturing and structural monitoring challenges. Five recent papers demonstrate consistent methodology using video-based vibration analysis combined with machine learning, particularly in bio-printing quality control and soil mechanics characterization. This work shows increasing interdisciplinary collaboration across mechanical, civil, and biomedical engineering domains. Professor Kim currently leads an active NSF grant ($500,000, 2023-2025) as Principal Investigator for bio-printed construct evaluation research. While specific student advising details aren't provided in the source material, his educational publication suggests active engagement in curriculum development for mechatronics and machine learning integration. His research group likely supports graduate students working on video-based monitoring systems and manufacturing applications. Though no formal lab name is specified, Professor Kim's research group focuses on experimental validation of structural systems using non-contact measurement techniques. The group's work combines mechanical testing with computational analysis, particularly in additive manufacturing quality assurance and structural health monitoring applications, utilizing video-based vibrometry as a core methodology.

• Raw earth construction
• Hygrothermal properties of building materials
• Sustainable construction
• +5 more

Philippe Poullain is a Lecturer and Educational Manager at the Department of Civil Engineering and Sustainable Construction, IUT of Saint Nazaire, University of Nantes. His work spans teaching and research in sustainable construction methods, with particular expertise in raw earth construction and large-scale additive manufacturing for building construction. He is affiliated with the GeM - IEG research team and actively collaborates with industry partners through the Robotics and Construction Site working group. Professor Poullain's research interests focus on characterizing raw earth construction methods to determine their mechanical and hygrothermal properties, with special attention to material variability. His work extends from material scale to wall scale using biclimatic chamber testing. He also investigates large-scale additive manufacturing, particularly 3D printing for construction using bio-sourced materials. His research on the raw earth heritage of the Guérande peninsula examines why earth construction was historically limited to the eastern part of the region. His recent publication record shows consistent output in high-impact construction journals, with 2024 publications addressing sustainable construction through tradition, hygrothermal performance assessment, and sensitivity analysis of material properties. His work spans fundamental material characterization to applied construction technologies, reflecting both academic rigor and practical application. Professor Poullain supervises numerous PhD students working on topics including raw earth composites, 3D printing materials, and building performance simulation. His collaborative approach is evident in his work with the LS2N researchers that led to startup creation, and his participation in industry-academic working groups focused on construction automation. His research has practical applications demonstrated through the Yhnova demonstrator project, a flagship initiative of the University of Nantes.

Robert HonkeView profile

Professor

• Materials Science
• Structural Mechanics
• Computational Fluid Dynamics
• +6 more

Prof. Dr. Robert Honke serves as Research Group Leader for System Simulation at the Institute for Hydrogen and Energy Technology (iwe) and sits on the Advisory Board of the Institute for Circular Economy of Bio:Polymers (ibp) at Hof University of Applied Sciences. His office is located in Building C, Room C117, with Wednesday office hours from 13:00-14:00. With over two decades of academic service since 2003, he bridges theoretical physics and practical engineering applications. Education: Physics studies at University of Regensburg Doctorate in Theoretical Physics (University of Regensburg) focusing on ab initio calculations of nonlinear vibrations on semiconductor surfaces Research Interests: Prof. Honke's work spans sustainable materials engineering and advanced simulation techniques. His primary focus areas include construction materials derived from biogenic residues, efficient thermal storage systems, control mechanisms for building energy management, and lightning strike damage simulation on composite structures. His research integrates computational physics with practical engineering challenges, particularly in aerospace and sustainable energy systems. The consistent thread through his career—from semiconductor surface physics to modern composite materials—demonstrates deep expertise in applying simulation methodologies to real-world structural and energy problems. Publication Trends: His recent publications (2015-2022) emphasize lightning protection for composite aerospace materials, thermal energy storage solutions, and biomass conversion technologies. Earlier works (1996-2002) established foundational contributions to surface physics, semiconductor vibrations, and satellite mirror design. Collectively, his research shows a strategic evolution from fundamental surface physics toward applied sustainable engineering, with computational modeling as the unifying methodology across all periods. Scientific Awards: No scientific awards were documented in the provided materials. Advising and Grants: Prof. Honke teaches core subjects in Master's programs for Composite Materials (structural mechanics) and Mechanical Engineering (CFD/FEM/Mathematics), maintaining strong industry connections from his prior Daimler Group experience. While specific student names and grant details aren't listed, his research group leadership indicates active supervision of graduate projects in simulation-based engineering. Labs and Teams: He directs the System Simulation research group at iwe, focusing on hydrogen technology applications, while contributing strategic guidance to ibp's circular economy initiatives for bio-polymers. These dual roles position him at the intersection of sustainable energy systems and advanced materials research within the university's engineering ecosystem.