Verena Frey serves as a Lecturer at the Institute for Interior Design IIA within the School of Engineering & Architecture at Lucerne University of Applied Sciences and Arts (HSLU), headquartered in Horw, Switzerland. Her academic expertise centers on interior design with emphasis on spatial configurations, furniture systems, and sustainable design practices. As a core faculty member, she contributes to curriculum development and pedagogy in applied design disciplines through the Institute's programs.
Sam Brody serves as Director of the Institute for a Disaster Resilient Texas (IDRT) and holds the rank of Regents Professor in Marine and Coastal Environmental Science at Texas A&M University's College of Marine Sciences & Maritime Studies. His work bridges academic research and practical disaster resilience implementation. Dr. Brody's research focuses on coastal environmental planning , natural hazards mitigation , spatial analysis techniques, and dispute resolution frameworks. His expertise centers on flood risk management, particularly examining how land use patterns, residential choices, and policy interventions affect vulnerability along the Gulf Coast. His publication portfolio reveals consistent focus on flood risk assessment (12 of 15 articles), with recurring themes in Spatial analysis of flood damage patterns Household behavioral responses to flood risk Effectiveness of open space protection Land use policy impacts on vulnerability Coastal urban resilience strategies Notable methodological approaches include large-scale surveys, geospatial modeling, and longitudinal flood loss analysis. Dr. Brody has received significant recognition including: Texas A&M Presidential Impact Fellow (2017) Texas A&M University Regents Professor (2016) His grant portfolio demonstrates sustained federal funding for disaster resilience research. He advises multiple doctoral students who frequently co-author publications (denoted by asterisks in citations), with research teams often collaborating across Texas A&M campuses and Rice University. Dr. Brody maintains active engagement with national policy bodies including the National Academies of Sciences Urban Flood Study Committee and the Department of Homeland Security Flood Apex Research Board.
Volker Stolz is an Associate Professor in the Department of Informatics at the University of Oslo, Faculty of Mathematics and Natural Sciences. He is affiliated with the Reliable Systems research group, where his work centers on improving software reliability through formal methods, model transformation, and UML-based modeling. Institution: University of Oslo School: Faculty of Mathematics and Natural Sciences Department: Department of Informatics Research Group: Reliable Systems Contact: stolz@ifi.uio.no | +47 22852438 | Room GA06 9461 His research spans formal verification, concurrency, model-based testing, and programming language semantics. He has made significant contributions to deadlock detection, refactoring equivalence, runtime verification in distributed systems, and data race analysis, often using formal models such as Petri nets and active object languages. The recent publications highlight a consistent focus on software correctness , modular analysis , and automated verification techniques. Trends include the use of behavioral effects, abstract execution, and field calculus for distributed monitoring. His work frequently appears in top-tier venues like Theoretical Computer Science , Lecture Notes in Computer Science , and Journal of Logical and Algebraic Methods in Programming , indicating strong theoretical and practical impact. He collaborates extensively with researchers such as Violet Ka I Pun, Rui Wang, Lars Michael Kristensen, and Martin Steffen, reflecting an active and collaborative research profile. No scientific awards are mentioned in the provided text. There is no information available about student advising or research grants. Volker Stolz is involved in research projects related to model-based testing, formal methods, and reliable software systems, particularly through the Reliable Systems group. His work often involves building theoretical foundations and practical tools for verifying and improving software behavior in distributed and concurrent environments.
Dr. Marcel Schwieder is a Researcher at the Thünen-Institut in Berlin, specializing in remote sensing applications for agricultural and environmental monitoring. His work focuses on developing methodologies for large-scale land cover mapping, grassland management assessment, and satellite time series analysis. Key projects include mapping grassland mowing events across Germany using Sentinel-2 and Landsat data, and creating annual land cover datasets for the Baltic Sea Region. He has contributed to advancing deep learning techniques for crop phenology analysis and agricultural field delineation. His research integrates multi-sensor satellite data (optical and SAR) to address ecological and policy-relevant questions, such as biodiversity impacts of land management practices and climate change mitigation strategies. Collaborations include studies on woody habitats' influence on farmland birds and the quantification of climate protection measures through satellite-derived land use data. Publications span topics like phenological modeling, habitat characterization, and vegetation mapping using hyperspectral and multispectral datasets. While no formal academic awards are listed, his impactful contributions to environmental remote sensing are evident through his prolific output and applied research projects. Active in Germany and international contexts, Schwieder's work bridges technological innovation (e.g., vision transformers, sparse generalized dissimilarity modeling) with ecological applications, supporting both scientific understanding and policy implementation in sustainable land management.
Karsten Schulz is an Assistant Professor in Governance & Innovation at the University of Groningen's Campus Fryslân, and serves as Programme Director for the MSc in Cultural Geography. He is a Fellow of the Earth System Governance Project and the Young Academy Groningen. His research focuses on digital innovations for sustainability transformations, particularly blockchain technology's role in climate finance and governance. He explores themes like climate adaptation's political dimensions, decolonial theory in political ecology, and institutional pathways for transformative adaptation. His work bridges interdisciplinary concepts from political science, environmental governance, and socio-technical transitions. Affiliations: University of Groningen, Campus Fryslân, Earth System Governance Project, Young Academy Groningen Research Interests: Blockchain technology, climate finance, decolonial political ecology, sustainability governance, institutional theory, and socio-technical transitions. Key contributions include analyzing blockchain applications in climate finance, critiquing depoliticized adaptation frameworks, and advocating for transformative approaches to sustainability. His publications span climate policy, institutional pathways, and decolonizing environmental narratives. He emphasizes participatory research methods to address complex environmental challenges. Recent work explores the governance of SDGs via blockchain and the mytho-politics of human mastery in the Anthropocene. He co-authored books on Ghana's climate adaptation policies and links between land, soil, and global climate governance.
Francesco Carbone is an Assistant Professor in the Department of Mechanical Engineering at the University of Connecticut since Fall 2019. Previously, he held research and teaching roles at Yale University (2014–2019, including a Lecturer position in 2018) and the University of Southern California (2012–2014). His academic journey includes a M.Sc. (2005) and Ph.D. (2008) in Mechanical and Chemical Engineering from the University of Naples Federico II, Italy. His research focuses on combustion chemistry, aerosol formation, and nanoparticle synthesis. Key interests include soot nucleation mechanisms, flame dynamics under high-pressure conditions, and the application of laser diagnostics for in-flame particle characterization. Carbone’s work also explores novel techniques for nanoparticle synthesis via reactive spray deposition technologies. Recent studies emphasize the role of polycyclic aromatic hydrocarbons (PAHs) in soot inception and the development of advanced instrumentation for detecting sub-5nm carbonaceous aerosols. His experimental setups often employ counterflow flames and high-resolution mass spectrometry to elucidate combustion byproducts and particle growth kinetics. Carbone has no listed students or scientific awards in the provided texts. His research extends to industrial applications, such as optimizing clean combustion systems and mitigating nanoparticle emissions from energy systems.
Dr. Lei Wang is an Honorary Research Fellow at the Department of Planning, Property and Environmental Management at the Nanjing Institute of Geography and Limnology, Chinese Academy of Sciences. Previously, he held positions as a Hallsworth Research Fellow at the University of Manchester and a researcher at the Chinese University of Hong Kong. His work focuses on spatial development in China, particularly addressing sustainable challenges during rapid urbanization and industrialization, with a focus on the Yangtze River Delta region. Education: Doctor of Philosophy (2014), Spatial Planning and Governance of Five-Year Planning in China, Chinese University of Hong Kong. Research Interests: Spatial restructuring mechanisms using GIS and spatial modeling. Urban and regional governance challenges in implementing spatial plans. Evolution of China's spatial planning systems amid economic transitions. High-speed rail networks, urban green spaces, and transportation policy. Recent Research Trends: Dr. Wang's work emphasizes urban vitality in high-speed rail areas, spatial equity in green spaces, and transportation network analysis, reflecting a focus on China's urbanization challenges and sustainability. External Roles: Associate Editor of Palgrave Communications since 2017.
Prof. Günther Sebastian is a Professor at the Technical University of Munich (TUM), affiliated with the TUM School of Natural Sciences and the Department of Physical Chemistry / Catalysis. His research focuses on surface chemistry and heterogeneous catalysis, employing advanced microscopy and spectroscopic techniques such as scanning tunneling microscopy (STM), photoelectron spectromicroscopy (PEEM), and low-energy electron microscopy (LEEM). His work emphasizes model systems to study catalytic reactions under high-pressure conditions. Education: Bachelor's/Master's in Physics, Ludwig Maximilian University of Munich (LMU Munich), completed 1990 Doctorate in Scanning Tunneling Microscopy, University of Ulm, 1995 Postdoctoral research at ELETTRA Synchrotron in Trieste, followed by a Marie Curie Fellowship there Completed habilitation at Leibniz University Hannover in 2003 Research Interests: Prof. Sebastian's research integrates theoretical and experimental approaches to study catalytic processes at interfaces. Key areas include graphene growth mechanisms on metal substrates, high-pressure catalytic reactions, and the development of advanced imaging techniques for in situ analysis of surface reactions. His work bridges surface science and materials chemistry, with applications in energy storage and catalytic systems. Awards: DFG Habilitation Scholarship (2000-2001) Marie Curie Fellowship (1998-1999) Grants & Collaborations: His research has been supported through grants focusing on surface chemistry and catalysis. Collaborations include work with synchrotron facilities and materials science groups to advance in situ spectroscopic techniques. Labs & Teams: He leads a research group at TUM investigating catalytic interfaces and graphene-based systems, emphasizing interdisciplinary approaches combining physics, chemistry, and engineering.
Antti Tuure is a Doctoral Researcher at the Department of Architecture within the Faculty of Built Environment at Tampere University, Finland. Based at the Hervanta Campus, he holds an ORCID identifier (0000-0003-1110-0579) and focuses on sustainable timber construction for mid-rise residential buildings in the Finnish context, bridging architectural design, structural engineering, and environmental performance. His research interests include: Timber structural systems optimization for mid-rise buildings Material efficiency and life cycle assessment methodologies Space planning and architectural design for timber apartments Global warming potential reduction in building construction Integration of structural and environmental considerations in residential design Finnish building practices and regulatory frameworks Analysis of his 2023-2025 publications reveals a cohesive research trajectory centered on Finnish mid-rise timber apartment buildings. His work systematically examines interrelationships between structural elements (intermediate floor beams, span configurations), architectural features, and environmental impacts. Key contributions include quantifying material efficiency trade-offs, developing space optimization frameworks, and establishing correlations between structural design choices and global warming potential, advancing practical applications for sustainable mass timber construction. No scientific awards or honors were documented in the available materials. As a Doctoral Researcher, Tuure is currently focused on his own dissertation work rather than supervising students or leading independent research grants. His publications indicate active collaboration with structural engineers and sustainability researchers at Tampere University. While specific laboratory facilities aren't detailed, his research aligns with Tampere University's sustainable construction initiatives at the Hervanta Campus, likely involving cross-disciplinary teams in architecture, structural engineering, and environmental science working on timber building innovation.
Xavier Goaoc is a Professor of Computer Science at Université de Lorraine, affiliated with the Department of Computer Science & Engineering at École des Mines de Nancy and the Gamble research team (joint between LORIA and INRIA). His research focuses on algorithms and discrete mathematics, particularly discrete and computational geometry, including convex hulls, intersection patterns, topological generalizations, and geometric transversal theory. University: Université de Lorraine School: School of Engineering Department: Department of Computer Science & Engineering Research Team: Gamble (LORIA/INRIA) Emails: xavier.goaoc@loria.fr , xavier.goaoc@univ-lorraine.fr His research spans computational geometry, combinatorial convexity, geometric transversal theory, and random geometric structures. Key topics include homological minors, order types of point sets, and geometric optimization. His 15 most recent publications highlight advancements in computational geometry algorithms, structural complexity, and topological constraints. Notably, his work has received Best Paper Awards at SoCG 2020, 2018, 2016, and 2012. Administrative roles include heading the computer science & engineering department at Mines Nancy and co-chairing the computer science department of the IAEM doctoral school. He is also a member of the Université de Lorraine's ‘pôle AM2I’ council. Teaching activities encompass courses in algorithms, computer architecture, blockchains, and geometric models for vision, with publications and grants reflecting his interdisciplinary impact in computer science and mathematics.
Justin Ostrofsky is a Professor of Psychology at Stockton University in the Department of Psychology within the School of Social and Behavioral Sciences. His research focuses on understanding the psychological processes associated with visual art production, particularly drawing. He investigates how perceptual encoding, attention, decision-making, and memory influence drawing performance across different populations and developmental stages. Dr. Ostrofsky earned his Ph.D. in Cognitive/Experimental Psychology from Brooklyn College (2008-2013) and completed his undergraduate studies in Psychology at Stockton University (2004-2008). His educational background provided the foundation for his research into the cognitive mechanisms underlying artistic production and perception. His primary research interest centers on the psychological processes involved in visual art production, with special emphasis on drawing. Dr. Ostrofsky investigates both observation-based drawings (depicting directly perceived models) and memory-based drawings (created from imagination). His work examines how perceptual encoding, visual attention, decision-making processes, prior knowledge, and long-term memory impact drawing accuracy and development across the lifespan. He employs experimental, quasi-experimental, and correlational methods to compare artists and non-artists, as well as children of different age groups. Analysis of Dr. Ostrofsky's recent publications reveals a consistent focus on the cognitive and perceptual mechanisms underlying drawing performance. His work spans multiple domains including visual perception, memory processes, developmental psychology, and expertise research. A notable trend is his examination of how perceptual biases translate into drawing errors, and how these relationships differ between experts and novices. His research increasingly incorporates methodological innovations in measuring drawing accuracy and exploring the relationship between imagination-based and observation-based drawing. Dr. Ostrofsky actively supervises undergraduate research assistants, requiring completion of Statistical Methods and Experimental Psychology courses. He provides opportunities for students to gain experience in research design, data collection, statistical analysis, and academic presentation. His lab focuses on experimental research investigating drawing performance, with emphasis on how perceptual and memory processes affect observational drawing.
Professor Prashant Kumar serves as Chair Professor at the University of Surrey, holding dual leadership roles as Founding Director of the Global Centre for Clean Air Research (GCARE) and Associate Dean (International) for the Faculty of Engineering and Physical Sciences. His expertise spans air quality management, green infrastructure development, and nature-based solutions for urban pollution and climate mitigation, with research focused on translating scientific findings into practical tools for cities worldwide. His educational foundation includes a PhD in Engineering from the University of Cambridge and a Masters in Environmental Engineering & Management from the Indian Institute of Technology Delhi. This training underpins his multidisciplinary approach bridging environmental science, public health, and urban planning. Research priorities center on nature-based solutions for urban challenges, particularly through GCARE's development of public engagement tools like HedgeDate (hedge effectiveness assessment), Heat-Cool (urban cooling strategies), and GeoIKP (knowledge platform). Current work integrates social-ecological-technological systems to address thermal resilience and pollution exposure in megacities, with strong emphasis on vulnerable populations and real-world applicability. His recent 2025 publications reveal concentrated focus on urban air quality monitoring (especially low-cost sensors), green infrastructure effectiveness, and climate-health interconnections. Key themes include biomass burning impacts, children's pollution exposure, and smart city monitoring systems, demonstrating consistent application of modeling and field measurements to solve pressing urban environmental problems. Professor Kumar has secured approximately £10.5 million in individual research funding from a total portfolio exceeding £30 million. He actively serves on editorial boards for multiple environmental journals and reviews for over a dozen international funding agencies, while advising governmental bodies on air quality policy. His leadership extends to major initiatives including RECLAIM and OPERANDUM projects. As GCARE Director, he leads a globally connected research group developing nature-based solutions for pollution and heat mitigation. The team collaborates with city planners and communities worldwide, notably through OPERANDUM's development of real-time monitoring tools and public engagement platforms that translate complex science into actionable community guidance.
Maria Conen is a Professor at ETH Zurich's Department of Architecture, where she serves as Deputy Head of the Institute of Landscape and Urban Studies and leads the Professorship of Architecture and Housing. Her academic base is at HIL F 65.2, Stefano Franscini Square 5, Zurich, Switzerland. Her research concentrates on the intersection of architectural design, housing systems, and urban habitats, with emphasis on social dynamics within built environments. Key focus areas include: Documentary approaches to living spaces (Archives of the Living) Ecosystem-human interactions in designed habitats Collective living models and spatial configurations This work manifests in studio courses exploring how architecture shapes community formation and daily life practices through experimental design methodologies.
Attila Tóth is an accomplished Associate Professor and Head of the Institute of Landscape Architecture at the Slovak University of Agriculture in Nitra's Faculty of Horticulture and Landscape Engineering. With extensive international experience including research positions at BOKU University in Vienna and RWTH Aachen University, he has established himself as a leading expert in green infrastructure planning, design and implementation across multiple European contexts. His educational background includes advanced studies at TU Wien (Spatial Planning and Landscape Architecture), BOKU University (Landscape Planning), and Slovak University of Agriculture in Nitra (Garden and Landscape Architecture). This strong foundation has enabled his research expertise in cultural, historical and sacred landscapes, urban agriculture, nature-based solutions, and ecosystem services, with fieldwork conducted across Austria, Germany, New Zealand, Slovakia, and Spain. Tóth's research portfolio demonstrates consistent focus on practical application, with particular attention to green infrastructure as a cross-scale strategy bridging planning and design. His work examines how landscape architecture can address contemporary challenges including climate adaptation, urban resilience, and sustainable development through research by design approaches. Recent publications reveal growing emphasis on participatory planning processes, forgotten urban spaces, water-sensitive design, and peri-urban landscape transformation. As a recognized scholar with 188 publications and nearly 100,000 reads on ResearchGate, Tóth has received prestigious awards including the Action Austria-Slovakia Postdoc Scholarship and Green Talents Research Stay. His professional influence extends through leadership roles as ECLAS Contact Person for SUA Nitra, Chair and Board Member of LE:NOTRE Institute, and IFLA Europe Vice President for Education. His academic work integrates teaching with practical implementation through projects like the Living Laboratory of Green Innovations in Landscape Architecture, demonstrating commitment to translating research into tangible landscape solutions. Tóth maintains active collaboration with international institutions while focusing on regional Slovak contexts, particularly addressing challenges in Nitra and surrounding areas through accessibility studies, housing estate green spaces, and rural village transformations.
Gary Bertoline is a Distinguished Professor of Engineering and Courtesy Faculty in the Department of Engineering Education at Purdue University. He is affiliated with the College of Engineering and holds an office in KNOY Hall. His research focuses on engineering education innovation, visualization technologies, virtual reality applications in education and training, and curriculum reform. He is also involved in advancing applied research models in polytechnic institutions and faculty reward system reforms to enhance professional engineering education. His work emphasizes the integration of project-based learning, haptic feedback systems, and immersive VR environments to improve technical communication and spatial skills development. He has contributed significantly to defining applied research domains in engineering technology and advocating for curricula that produce T-shaped professionals with interdisciplinary competencies. Bertoline's publications span topics like global polytechnic strategies, CAD/CAM systems, virtual reality training efficacy, and the societal roles of engineering programs. He leads initiatives such as the Center for Professional Studies in Engineering Technology and has collaborated on National Science Foundation-funded projects like NUE: Enhanced Undergraduate Nanotechnology Education with Haptic and Visualization Tools. His research also addresses challenges in international graduate program coordination, faculty reward systems for practice-oriented educators, and strategies to increase women's participation in engineering fields. He actively engages in professional development for adult learners and has pioneered the use of TeraGrid for real-time 3D visualization in education and research.
