Find Academic Supervisors

• Drug Delivery
• Supramolecular Chemistry
• Biomimetics
• +5 more

Dr. Lance J. Twyman serves as Senior Lecturer in Chemistry within the School of Mathematical and Physical Sciences at the University of Sheffield. His academic career spans over two decades at Sheffield since his 2000 appointment, following prior positions at Lancaster University, Oxford, and Cambridge. His research bridges polymer chemistry, supramolecular systems, and biomedical applications. Dr. Twyman's research focuses on drug delivery systems using dendrimers and hyperbranched polymers to enhance drug solubility, supramolecular chemistry for creating light-harvesting and catalytic structures, biomimetic systems including artificial blood substitutes, and protein binding mechanisms where dendrimer size dictates selective protein interactions. His work demonstrates how macromolecular architecture influences biological function and catalytic activity. His publication record reveals consistent output in high-impact journals, with recent work emphasizing hyperbranched polymers for anion transport (2021), graphene oxide nanodelivery systems (2016), and porphyrin-cored polymers for photodynamic therapy (2019). These publications demonstrate his interdisciplinary approach connecting polymer chemistry with biomedical applications, particularly in drug delivery and artificial oxygen carriers. Teaching responsibilities include undergraduate courses in Characterisation , Structure Determination , and Polymer Architectures , plus postgraduate instruction in polymer design. His educational background includes a BSc in Chemistry from King's College London (1991) and PhD from the University of Kent (1995), followed by postdoctoral positions at Cambridge and Oxford.

• Structural Engineering
• Steel Structures
• Concrete Technology
• +5 more

Özer Zeybek is an Associate Professor in the Department of Civil Engineering at the Faculty of Engineering, Muğla Sıtkı Koçman University. With a PhD from Middle East Technical University and experience as a Visiting Researcher at Purdue University (2022-2023), he has established himself as a prominent researcher in structural engineering and sustainable construction materials. His research focuses on structural engineering with particular emphasis on steel structures, concrete technology, and the utilization of waste materials in construction. Dr. Zeybek's work addresses critical challenges in sustainable construction, fire resistance of structures, and structural analysis of complex systems like cylindrical steel tanks and shell structures. His educational background includes doctoral studies at Middle East Technical University and international research experience at Purdue University. Dr. Zeybek's publication record reveals a strong trend toward sustainable construction practices, with numerous studies investigating the use of waste materials such as glass, marble powder, aluminum lathe, and tire-derived steel fibers in concrete production. His research also extensively covers structural stability, particularly buckling behavior of steel structures under various loading conditions including wind and fire exposure. The interdisciplinary nature of his work bridges civil engineering with environmental sustainability. Among his notable contributions are significant works on the structural behavior of cylindrical steel tanks, reinforced concrete structures with recycled materials, and the fire resistance properties of different steel grades. His research has practical applications in improving construction sustainability while maintaining structural safety and performance. His most cited works focus on waste glass in concrete and mechanical behavior of crushed waste glass. Journal reviewer for Thin-Walled Structures (2021-2024) Journal reviewer for Steel and Composite Structures (2022) Journal reviewer for Journal of Materials Research and Technology (2024) Dr. Zeybek has supervised graduate research, including the 2024 thesis on 'Post-fire response of different steel grade materials' by Veysel Polat. His active research program includes completed projects on cylindrical structures (2022-2023), stainless steel cylindrical structures with openings, and coastal area morphology. He teaches various structural engineering courses including Earthquake Resistant Design of Structures, Structural Dynamics, and Fundamentals of Steel Design.

Dragica StankovićView profile

Professor

• Biotechnology - Forestry
• Forest Ecology
• Phytoremediation
• +5 more

Dr. Dragica Stanković is a distinguished researcher serving as the Scientific Advisor and Director at the University of Belgrade's Institute for Multidisciplinary Research since 2020. Previously, she held the position of Scientific Advisor at the Faculty of Forestry, University of Belgrade (2017-2020) and has maintained a long-standing career in forestry research and environmental protection across multiple Serbian institutions. Her leadership extends to directing the Department of Plant, Soil and Nano Systems where she oversees multidisciplinary research initiatives focused on environmental challenges. Her educational background includes: Doctorate in Biological Sciences from the University of Novi Sad (2006) Master of Science in Environmental Protection and Improvement from the University of Belgrade (1996) Bachelor's degree in Agricultural Engineering from the University of Belgrade (1989) Dr. Stanković's research focuses on the intersection of biotechnology and forestry, with specialized expertise in forest ecology, phytoremediation, and environmental protection. Her work primarily investigates the assessment of exposure, risk, and impact of pollutants on the environment, with particular attention to natural and anthropogenic sources of pollutants and the fate and effects of toxic heavy metals. She has pioneered research on how specific tree species, particularly poplars and willows, can be utilized for environmental remediation while maintaining biomass production potential. Her publications reveal a strong trend toward practical applications of phytoremediation technologies for contaminated land restoration, with increasing focus on energy production from remediation biomass. Dr. Stanković's scholarly contributions span numerous significant research projects including the National Strategy for Conservation of Forest Genetic Resources (2016-2025), research on pollutant concentration in Belgrade (2017-2018), and multiple national research projects focused on forest ecosystems and environmental protection (2011-2017). She has authored a textbook on 'Physiology of Woody Plants' (2011), a monograph titled 'Pollutants in Plants' (2017), and holds a patent for a 'Ring Cover for Plant Mulching' (2016). At the University of Belgrade, Dr. Stanković has been actively engaged in teaching at the master's and doctoral levels, instructing courses on Bioremediation, Physiology of Woody Plants, and Anatomical-Physiological Basis of Woody Plants. She serves on national and international scientific committees for conferences and is a member of several professional organizations including the National Association of Environmental Protection Experts, the 'Reforesta' association (where she serves on the supervisory board), the scientific-professional society 'Ecologica,' and the Andrejevic Foundation.

Patrick BischofView profile

Research Fellow

• Structural Engineering
• Concrete Structures
• Digital Fabrication
• +3 more

Dr. Patrick Bischof is a Research Fellow at the Institute of Structural Engineering, Department of Civil, Environmental and Geomatic Engineering at ETH Zurich. He has been working at ETH Zurich since 2015 and completed his doctoral studies there in 2023 under Professor Walter Kaufmann. Position: Research Fellow, Chair of Concrete Structures and Bridge Design Department: Institute of Structural Engineering University: ETH Zurich Education: Dr. sc. ETH Zurich (2023), MSc ETH in Civil Engineering (2011) Dr. Bischof's research focuses on rethinking structural concrete for digital fabrication and investigating the behavior of concrete structures under fire conditions. His work bridges traditional structural engineering with innovative digital construction technologies, particularly in the areas of 3D concrete printing, digital casting, and sustainable construction methods. His research demonstrates how structurally efficient geometries can reduce material usage and environmental impact in construction while maintaining structural integrity. His publications show a clear research trajectory exploring digital fabrication techniques for concrete structures and fire safety analysis. The articles reveal a strong emphasis on practical applications of digital technologies in construction, with a focus on structural efficiency, material optimization, and fire resistance. His work on digitally fabricated connections demonstrates that these techniques can meet or exceed requirements defined in design codes despite using smaller aggregate sizes. SGEB prize for Master's thesis (2011) Dr. Bischof actively contributes to standardization efforts as a member of CEN/TC 250/SC 2 Project Team and various task groups related to fire safety in concrete structures. He also serves as a structural engineer and co-managing director at DSE systems AG since 2023, demonstrating his ability to bridge academic research with practical engineering applications.

• Polymer Nanocomposites
• Additive Manufacturing
• Ablation Research
• +3 more

Joseph Koo is a Senior Research Scientist in the Walker Department of Mechanical Engineering at The University of Texas at Austin, where he has served since 2004. He directs the Polymer Nanocomposites Technology Lab and maintains affiliations with the Advanced Manufacturing Design Center and Texas Materials Institute, focusing on extreme-environment material solutions for aerospace and defense applications. Dr. Koo's research centers on Polymer Nanocomposites Technology Designed for Extreme Environments, with expertise spanning ablation systems for rocket motors, flame-retardant polymer development, conductive polymers, and additive manufacturing processes including Selective Laser Sintering (SLS), Fused Filament Fabrication (FFF), and Multi Jet Fusion 3D (MJF3D). His work integrates nanotechnology to enhance material performance under high-temperature, fire, and mechanical stress conditions critical to aerospace systems. Analysis of his 2016-2018 publications reveals dominant themes in polymer nanocomposites for thermal protection systems, with significant contributions to flame-retardant polyamides for 3D printing and multifunctional additive manufacturing materials. His research consistently employs nanofillers like carbon nanotubes and nanoclay to achieve synergistic property enhancements in mechanical strength, thermal stability, and fire resistance. Dr. Koo has earned prestigious professional recognition: Fellow of the Society for the Advancement of Material and Process Engineering (SAMPE) Associate Fellow of the American Institute of Aeronautics and Astronautics (AIAA) He has secured extensive research funding from diverse sponsors including multiple Department of Defense agencies (AFOSR, AFRL, DTRA, NASA, ONR), Department of Energy, Department of Transportation, Environmental Protection Agency, Federal Aviation Administration, National Science Foundation, and private industry partners. His prolific output of over 550 publications, presentations, and patents demonstrates exceptional research productivity and impact. Leading the Polymer Nanocomposites Technology Lab, Dr. Koo collaborates with interdisciplinary teams across the Advanced Manufacturing Design Center and Texas Materials Institute to translate nanocomposite research into practical aerospace, defense, and manufacturing solutions through industry partnerships and government-sponsored programs.

• Structural Engineering
• Seismic Engineering
• Wood Engineering
• +3 more

Maurizio Piazza is a Senior Professor at the Department of Civil, Environmental and Mechanical Engineering, University of Trento. His career spans over four decades, with significant contributions to structural analysis, seismic engineering, and timber construction. He has coordinated academic programs and led material testing laboratories, emphasizing sustainability and safety in civil engineering. Research Interests Steel structures and seismic-resistant systems Composite and hybrid wooden structures Mechanical characterization of timber Fire resistance in wooden constructions Restoration techniques for historical wooden structures Building sustainability assessment Professional Roles & Memberships Coordinator of Civil Engineering Programs (2006-2012) Coordinator of Master's Degree in Architectural Engineering (2018-2021) Head of the Material and Structural Testing Laboratory (2019-2021) Italian delegate in CEN/TC 250 –SC 5 (Wooden Structures) President of UNI-CIS SC5 (National Committee for Wooden Structures Standards) Normative Contributions Lead author of key technical standards including UNI 11138 (Cultural Heritage: Wooden Structures) and CNR guidelines for FRP reinforcement and timber construction.

Hristos KarahaliosView profile

Senior Lecturer

• Maritime Security
• Cybersecurity
• Risk Analysis
• +3 more

Dr. Hristos Karahalios is a Senior Lecturer at Solent University's Warsash Maritime School, specializing in maritime safety, cybersecurity, and regulatory compliance. He holds a PhD from Liverpool John Moores University (LJMU) and certifications including STCW II/2, Marine Surveyor, and Ethical Hacker (CEH). PhD, Liverpool John Moores University Postgraduate Diploma STCW II/2 License Diploma in Marine Surveying Certified Ethical Hacker (EC Council) His research focuses on cyber threats to maritime operations, risk analysis of ship accidents, and regulatory implementation. Recent publications examine autonomous ship cybersecurity, fuel efficiency optimization, and port state control effectiveness in Asia-Pacific. He authored books like Risk Analysis of Ship Operations and The Management of Maritime Regulations . With 14 years as a quality manager, DPA, and navigation auditor, he investigated accidents involving fires, collisions, and cybersecurity breaches. He teaches BSc (Hons) Maritime Business and has peer-reviewed over 60 papers in 20 journals.

• Plasticity of Polymers
• Polymer Science
• Materials Science
• +4 more

Jean-Marc LEFEBVRE is a Research Professor at the French National Centre for Scientific Research (CNRS) and Director of the Institut Chevreul, affiliated with the Materials and Transformations Unit (UMET, CNRS UMR 8207) at the University of Lille. Based in Building C6 at the Scientific City campus in Villeneuve d'Ascq, France, he leads research within the Polymer Systems Engineering team, focusing on structure-property relationships in advanced polymeric materials. His role integrates high-pressure experimental expertise via the Institut Chevreul facilities and collaboration across UMET's multi-thematic structure. LEFEBVRE's research centers on plasticity of polymer systems , examining structural evolution during mechanical deformation in semicrystalline polymers (e.g., PVDF, polyamides), bio-based materials (e.g., poly(lactic acid)), and functional nanocomposites. Key methodologies include in-situ Small Angle/Wide Angle X-ray Scattering (SAXS/WAXS) to track real-time phase transitions, crystal polymorphism, and macromolecular reorganization. His work bridges fundamental polymer physics with applications in energy harvesting, sustainable materials, and biomedical engineering, emphasizing nanoscale characterization of piezoelectric responses and biomass-derived additives. His recent publications (2016-2023) reveal consistent focus on deformation mechanisms in polyamides and PVDF , with emerging work on banana pseudo-stem biomass for polylactic acid functionalization. Trends include atomic force microscopy for nanoscale piezoelectric mapping, SAXS/WAXS for strain-induced structural analysis, and sustainable material design using agricultural waste. Key journals span ACS Applied Materials & Interfaces , Polymer , and Carbohydrate Polymers , highlighting cross-disciplinary impact in advanced materials. LEFEBVRE has co-advised ten PhD students on critical topics including piezoelectric hybrid materials (Defebvin, 2015), plasticity mechanisms in amorphous polymers (Laquièvre, 2012), and strain-induced transitions in polyamides (Pepin, 2014). Notable trajectories include industrial positions at Solvay and Macopharma, academic roles at Ecole des mines de Douai and Université Catholique de Louvain, and R&D careers in Belgium. Current grants are not detailed, though UMET participates in ANR, ERC, and Interreg projects in materials engineering. He directs the Institut Chevreul High Pressure Lab within UMET, which provides specialized equipment for advanced materials testing. UMET's infrastructure includes the PMEL Electron Microscopy Platform, FireResist platform for fire safety testing, and dedicated resources for polymer processing and characterization. These facilities enable his team's work on nanocomposites, biopolymers, and deformation studies, supporting collaborations across Earth and Planetary Materials, Physical Metallurgy, and Recycling research groups.

• Fire retardancy
• Flame resistance
• Polymer chemistry
• +5 more

Fabienne SAMYN is an Associate Professor at the National School of Chemistry of Lille, part of the University of Lille. She works within the Unité Matériaux et Transformations (CNRS UMR 8207) and is a member of the Procédés de Recyclage et de Fonctionnalisation (PReF) research team. Her office is located at the Centrale Lille Institute in Building C7A, ground floor, office 004. Dr. SAMYN's research focuses on three main areas in fire science: development of flame-retardant solutions for materials (including polymer formulations and protective coatings), development of characterization methodologies to understand fire behavior during decomposition and combustion, and design of fire tests representing real fire scenarios. Her teaching spans analytical chemistry, physical and macromolecular chemistry, safety, green plastics and bio-composites. Analysis of her recent publications reveals a strong emphasis on innovative flame-retardant systems for polymers and composites, with increasing integration of advanced manufacturing techniques like 3D printing and novel characterization methods. Her work bridges fundamental materials science with practical fire safety engineering applications across multiple substrates. Dr. SAMYN actively supervises multiple PhD students both as primary supervisor and co-supervisor, with current research focusing on flame-retardant composites, fire testing methodologies, and sustainable fire protection systems. She collaborates extensively with researchers including Serge BOURBIGOT, Sophie DUQUESNE, and Maude JIMENEZ. She utilizes the FireResist Platform, a specialized experimental facility within the Materials and Transformations Unit, which supports her research on fire behavior characterization and development of novel fire protection solutions. Her work has resulted in significant contributions to fire safety standards and industrial applications.

Tarasankar DebroyView profile

Professor

• Computational materials processing
• Numerical heat and mass transfer
• Welding and joining
• +3 more

Tarasankar Debroy is a Professor of Materials Science and Engineering at Pennsylvania State University, where he has been a faculty member since 1980. He currently holds appointments in the Department of Materials Science and Engineering within the College of Earth and Mineral Sciences. Dr. Debroy is also associated with the Penn State Intercollege Graduate Degree Program (IGDP) in Materials Science and Engineering. Dr. Debroy received his Ph.D. in Metallurgy from the Indian Institute of Science, Bangalore in 1974 under the supervision of Professor K. P. Abraham. He completed postdoctoral studies at Imperial College of Science and Technology, London (1974-77) with Professor D. G. C. Robertson, and at Massachusetts Institute of Technology (1978-79) with Professors T. W. Eagar and J. Szekely. Dr. Debroy's research focuses on computational materials processing, particularly the application of numerical transport phenomena and optimization in welding and additive manufacturing. His work involves developing sophisticated models that compute temperature and velocity fields, cooling rates, and solidification parameters by solving tens of billions of equations efficiently. These models are specially structured for integration with genetic algorithms and other search engines, enabling bi-directional simulations that can tailor product attributes, optimize production variables, reduce defects, and improve product quality. His contributions include the first rigorous numerical model of heat and fluid flow in 3D printing, the first comprehensive numerical model for laser-fired aluminum-silicon contact geometry, and novel experimental techniques for estimating temperatures during laser welding. Dr. Debroy's extensive publication record demonstrates significant contributions to the understanding of welding processes, additive manufacturing, and materials processing. His recent work shows a clear trend toward digital manufacturing, with a focus on developing digital twins for additive manufacturing processes, understanding residual stresses and distortion, and optimizing process parameters for improved material properties. His research spans multiple disciplines including computational mechanics, materials science, thermal engineering, and process optimization. Dr. Debroy has held numerous prestigious positions including Founding Editor of Science and Technology of Welding and Joining (1996-present), Chair of the Research and Development committee of the American Welding Society (2007-2016), and Chair or Co-Chair of multiple International Conferences on Trends in Welding Research. Throughout his career, Dr. Debroy has mentored numerous graduate students and has been actively involved in research collaborations with industry. His work has significant implications for improving manufacturing processes in aerospace, automotive, and energy sectors. He has also held visiting positions at institutions worldwide including Production Technology Center in Sweden, African University of Science and Technology in Nigeria, and the Indian Institute of Science. Dr. Debroy leads a research group focused on computational materials processing that works closely with experimentalists to validate models and develop practical solutions for industrial applications. His team collaborates with researchers across multiple disciplines to address complex challenges in materials processing and manufacturing.

• Civil Engineering
• Structural Engineering
• Construction Technology
• +3 more

Professor Celalettin Kozanoğlu is currently the Chair of the Civil Engineering Department at Izmir University of Economics , starting in September 2018. He has been active in academia since 2002 as a Professor at Celal Bayar University. Prior to his academic roles, he spent decades in the prefabricated concrete industry, where he completed his master's, PhD, and Associate Professor (Doçent) qualifications while working on international projects in Iran and Libya. He is notable for developing the Turkish Standard TS 9967 for Prefabricated Concrete. Research Interests Kozanoğlu's work focuses on Structural Engineering Prefabricated Concrete Systems Fire Safety Infrastructure Construction Standards Development Recent Innovation In 2022, he co-developed a patent for a Fire Intervention Tower , demonstrating his continued engagement with practical engineering solutions for disaster response.

• Steel Structures
• Composite Structures
• Fiber Reinforced Concrete
• +5 more

Dr. Euripides Mystakidis is a Professor at the Department of Civil Engineering, University of Thessaly (Pedion Areos, 38334 Volos, Greece). His academic journey includes: Diploma in Civil Engineering (1987) from Aristotle University of Thessaloniki (graduated top of class with honors). PhD (1992) from Aristotle University of Thessaloniki, focusing on theoretical/numerical mechanics. His research spans steel/composite structures , seismic strengthening, fiber-reinforced concrete, and computational mechanics. He develops advanced numerical methods (nonconvex optimization, neural networks) for structural analysis and fracture mechanics. Recent work emphasizes fire safety modeling and retrofitting techniques for catastrophe resilience. Publications (journal articles, books) show consistent focus on structural optimization, composite materials, and seismic design. Trends include increased application of computational intelligence and high-performance materials in civil engineering. Awards: Honorary commendations by the State Scholarship Foundation (1982-83, 1984-85, 1985-86). Advising & Grants: Supervised 3+ PhD candidates (e.g., Konstantinos Tzaros, Kyriaki Georgiadi-Stefanidi) and Master's students. Secured significant funding including: EU COST Actions (C1, C12, C26; 1993–2010). Greek national projects (PENED, EPAN) on seismic retrofitting. Industry collaborations (e.g., OΑΣP, ΟΣΚ Α.Ε.). He directs the Laboratory of Analysis and Design of Structures and leads the postgraduate program 'Applied Mechanics and Systems Simulation' at the University of Thessaly.

• Structural Engineering
• Fire Engineering
• Seismic Engineering
• +3 more

Daphne Pantoussa is a Civil Engineer with MSc and PhD degrees, affiliated with the Laboratory of Structural Analysis and Design at the University of Thessaly in Volos, Greece. She has extensive experience in structural engineering with a focus on fire and seismic safety of structures. She earned her Diploma in Civil Engineering from the University of Thessaly (1999-2003), followed by a Postgraduate Diploma in Civil Engineering specializing in "Applied Engineering and Systems Simulation" (2004-2006). She later obtained a Postgraduate Diploma in Mechanical Engineering focusing on "Modern Design and Analysis Methods in Industry" (2013-2015), and completed her PhD in Civil Engineering at the University of Thessaly (2009-2013). Dr. Pantoussa's research primarily focuses on structural behavior under extreme conditions, particularly fire and seismic events. Her work examines the performance of steel structures in fire situations following earthquakes, thermal buckling of steel tanks, and the fire resistance of composite structures. She has developed advanced numerical models to simulate structural behavior under fire conditions and has contributed to standards development for fire resistance calculations. Her research trends demonstrate a strong emphasis on multi-hazard analysis, particularly the combined effects of fire and seismic events on structural systems. She has made significant contributions to understanding the behavior of steel structures under fire conditions, with particular attention to post-tensioned systems and composite slabs. Her work bridges computational mechanics with practical engineering applications, providing valuable insights for structural design under extreme conditions. Dr. Pantoussa has received notable recognition for her research, including: Marie Skłodowska-Curie Research Individual Fellowships (IF) (2017-2019) for the project "Resilient steel frame against fire and seismic hazards" Funding through the Operational Program "EDUCATION AND LIFELONG LEARNING" for doctoral research (2010-2013) She has been actively involved in teaching at the University of Thessaly, offering courses in Statics I and II, Mechanics of Materials, and specialized postgraduate courses on shell structures and fire-resistant design of metal structures. Her research has been supported by various European programs including COST actions TU0904 and C26, and she has collaborated with industry partners such as ELASTRON Group and EXEL Group on practical engineering applications. Dr. Pantoussa is a member of the Laboratory of Structural Analysis and Design at the University of Thessaly, where she works alongside Dr. Euripides Mystakidis and other researchers. Her work contributes to the laboratory's focus on structural safety under extreme loading conditions, particularly fire and seismic events.

• Blast Engineering
• Structural Engineering
• Probabilistic Risk Assessment
• +4 more

Waleed Mekky is an Adjunct Assistant Professor in the Department of Civil Engineering at McMaster University, with a focus on structural safety, blast resistance, and probabilistic risk assessment. His career spans over two decades of research in masonry systems, reinforced concrete, and nuclear infrastructure resilience. McMaster University, Faculty of Engineering Specializes in blast engineering, seismic risk, and CFD analysis for nuclear applications Research Interests Blast-induced structural failure and mitigation strategies Probabilistic risk assessment for masonry and concrete systems Thermal and mechanical analysis of nuclear reactor components Progressive collapse prevention in steel and masonry structures Recent Publications highlight advancements in CANDU reactor safety, blast modeling for buildings, and vibration analysis in piping systems. His work integrates computational fluid dynamics, finite element methods, and material degradation studies. Collaborations include researchers like Wael El-dakhakhni and Michael Tait, with over 40 publications from 1997–2024. His co-author network reflects interdisciplinary work in structural, mechanical, and nuclear engineering.

• Atmospheric Chemistry
• Methane Emissions
• Wildland-Urban Interface Fires
• +4 more

Dr. Alba Àgueda Costafreda is a researcher at the Universitat Politècnica de Catalunya (UPC), affiliated with the School of Engineering of Barcelona Est (EEBE) and the Department of Chemical Engineering. She is a member of the CERTEC - Centre d'Estudis del Riss Tecnològic and the CER-H2 - Centre de Recerca de l'Hidrogen de la UPC research groups. Her research focuses on: Atmospheric chemistry and methane emissions monitoring Wildland-urban interface fire dynamics and risk assessment Environmental pollution and safety engineering Hydrogen research and sustainable technologies Dr. Àgueda Costafreda has an extensive publication record with 116 documented research activities spanning from 2004 to 2025. Her recent work demonstrates a strong interdisciplinary approach combining atmospheric science, fire safety engineering, and computational methods for risk assessment. She has been particularly active in studying methane fluxes in Mediterranean ecosystems and developing methodologies for vulnerability assessment in wildland-urban interfaces, with significant contributions to projects like the European Program for Wildfire-Prepared Communities and WUITIPS (Wildland-Urban-Interface Fire Touristic Intrastructures Protection Solutions). Her research has been published in high-impact journals such as Atmospheric Chemistry and Physics, Fire Safety Journal (with 5 publications), Chemical Engineering Transactions, and International Journal of Wildland Fire. She maintains extensive collaborations, particularly with Elsa Pastor Ferrer (77 joint publications) and Eulalia Planas Cuchi (74 joint publications), reflecting her position within a strong research network focused on environmental risk assessment and fire safety.