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Marcus Weber serves as Head of the Computational Molecular Design research group within the Modeling and Simulation of Complex Processes department at the Zuse Institute Berlin (ZIB), which operates in close affiliation with Freie Universität Berlin. His interdisciplinary work spans computational mathematics, molecular modeling, drug discovery, and unexpected connections to Egyptology, demonstrating the broad applicability of mathematical approaches across diverse scientific domains. Dr. Weber's research interests focus on the mathematical foundations of molecular simulation and drug design: Developing advanced Markov state models for complex molecular systems Creating computational methods for efficient drug discovery Applying machine learning techniques to molecular dynamics Modeling pH-dependent receptor-ligand interactions Exploring metastable dynamics in biological systems Bridging mathematical approaches with Egyptological research His recent publications reveal a sophisticated integration of computational mathematics with practical pharmaceutical applications, particularly in opioid receptor research. The work demonstrates how mathematical modeling can identify pH-dependent drug candidates that maintain efficacy while reducing side effects. His research group has developed innovative algorithms like ISOKANN for learning Koopman eigenfunctions and has made significant contributions to understanding molecular transition rates and metastable dynamics. Dr. Weber leads multiple significant research projects including 'Drug Candidates as Pareto Optima in Chemical Space,' 'HPC and ML for Drug Discovery,' and interdisciplinary collaborations connecting mathematical approaches with Egyptology. His work on 'Mathematics and Egyptology' and 'Ancient Egyptian' demonstrates the unexpected breadth of mathematical applications. His research has direct implications for developing safer opioid medications and understanding molecular behavior in complex environments.

• Computational chemistry
• Molecular modeling
• Drug discovery
• +5 more

Nora Sutton is an Associate Professor in Environmental Technology at Wageningen University, with over a decade of research expertise in water quality, micropollutant biodegradation, and sustainable water reuse systems. Her interdisciplinary work bridges environmental engineering and microbial ecology. Current research focuses on organic micropollutant removal from wastewater Leadership in cyclic water risk assessment projects Recipient of NWO Vidi grant for contaminant mitigation Research Themes: Active in environmental biotechnology, her work addresses micropollutant fate in water systems through advanced treatment technologies (activated carbon filters, constructed wetlands) and microbial community engineering. Key areas include pharmaceutical discharge monitoring , rapid sand filter biodegradation , and groundwater protection against emerging contaminants. Publication Trends: Recent 2025 articles emphasize circular economy approaches in hospital wastewater management, non-target screening of transformation products, and aerobic granular sludge performance under climate variability. Her work spans experimental (biochar applications) and large-scale risk modeling of chemicals like per- and polyfluoroalkyl substances. Awards: Vidi Grant (NWO, 2021) Supervision: Mentoring 10+ PhD candidates on topics ranging from constructed wetland phytoremediation to nanofiltration membrane synergies in municipal wastewater treatment.

• Biodegradation
• Organic Micropollutants
• Micropollutant Removal
• +5 more

Dorian Dixon is a Senior Lecturer at the School of Engineering , Ulster University, and a member of the Engineering Research Institute . With over two decades of experience, he specializes in nanomaterials, medical polymers, and aerospace applications. Research Associate (2001): Polymers for medical packaging Research Fellow (2003): Medical device development Lecturer in Nanotechnology (2006) Senior Lecturer (2014–present) Education BEng Mechanical Engineering (1996), Queen’s University Belfast MSc Polymer Engineering and Science (1997), QUB & Ulster University PhD (2001), Queen’s University Belfast (industry-sponsored) Research Focus His work centers on functionalized gold nanoparticles for cancer therapeutics and advanced polymers in medical/aerospace sectors. Collaborations with over 25 industrial partners demonstrate his applied research emphasis. Publication Trends Recent outputs span polymer aging behavior, filtration simulation (CFD), biomedical implant materials (PEEK composites), and sustainable packaging solutions (PLA/PET). Keywords highlight intersections between polymer science and healthcare/environmental engineering. Leadership Course Director for MSc programs, teaching across undergraduate and postgraduate curricula. Active in commercial R&D and international conferences like PPS36 .

• Nanomaterials
• Medical Polymers
• Cancer Therapeutics
• +2 more

Professor Eugenia (Éva) Valsami-Jones is the Chair in Environmental Nanoscience and Director of FENAC at the University of Birmingham , affiliated with the School of Geography, Earth and Environmental Sciences . Her research focuses on nanoscale reactivity, interactions of nanoparticles with pollutants and biota, and biomineralisation processes, with pioneering work on nanomaterial labelling and biogenic apatite stability. Education: PhD (1990), University of Newcastle-upon-Tyne BSc in Geology (1986), University of Athens, Greece Research Areas: Environmental Nanoscience Nanotoxicology Biomineralisation Pollutant Mobility and Modelling Safety-by-Design in Nanotechnology Global Biogeochemistry Teaching: Course Director, MRes Biological and Environmental Nanoscience Lectures on pollutant mobility and nanotechnology safety Labs and Teams: Director of FENAC (Functional Nanomaterials and Advanced Characterisation) Member of the Birmingham Plastics Network (interdisciplinary team addressing global plastics challenges)

• Environmental Nanoscience
• Environmental Health Sciences
• Global Biogeochemistry
• +4 more

Javier Pérez Carvajal is a RyC Researcher at the Institute of Materials Science of Madrid (ICMM), part of the Spanish National Research Council (CSIC). He belongs to the Nanostructured Hybrid, Biohybrid and Porous Materials Research Group, where he develops advanced porous materials for environmental and energy applications. His work focuses on Metal-Organic Frameworks (MOFs) and their composites, targeting water purification and sustainable energy technologies through innovative material design. His research spans Materials Science, Nanotechnology, and Environmental Engineering, with core expertise in Metal-Organic Frameworks (MOFs), porous materials, and nanoarchitectures for water purification. He pioneers MOF/clay films for water treatment, MOF/CNF bionanocomposites for bacterial control under visible light, and energy-efficient adsorption systems. His interdisciplinary approach integrates chemistry, materials engineering, and nanotechnology to solve global sustainability challenges. Analysis of his 2019-2025 publications reveals a dominant trend in water purification technologies, including resonant osmotic diodes for voltage-induced filtration and photothermal water treatment using MXene composites. He has significantly advanced electro-osmotic filtration systems and developed enzyme-powered micromotors for targeted applications. His energy-related work focuses on adsorption cooling with covalent organic frameworks (COFs) and heat transformation using biocarbon materials. No scientific awards were mentioned in available sources. While specific details of student advising and research grants are absent from current sources, his leadership in the research group and consistent high-impact publications indicate active mentorship and competitive grant acquisition in materials science. Dr. Pérez Carvajal's laboratory within the Nanostructured Hybrid, Biohybrid and Porous Materials Group specializes in synthesizing monolithic MOFs, thin films, and nanocomposites. The team employs advanced techniques like spray-drying and interdiffusive surfactant procedures to create scalable materials for real-world water treatment and energy systems, emphasizing practical implementation and environmental impact.

• Materials Science
• Nanotechnology
• Metal-Organic Frameworks
• +4 more

Bianca Miguel De Souza Chaves is a Researcher at the University of Arizona's Water and Energy Sustainable Technology (WEST) Center, supervised by Dr. Andrea Achilli. She holds a Ph.D. in Chemical Engineering from Federal University of Rio de Janeiro (Brazil) and Porto University (Portugal), with prior academic training from Federal University of Rio de Janeiro (BS 2007, MS 2010). Researcher, Chemical and Environmental Engineering Specializes in water/wastewater treatment technologies Her research focuses on advanced oxidation processes, biological and membrane treatment systems, solar radiation applications, and nanomaterials for water quality management. She also investigates toxicity assessment and control of emerging contaminants. Prior to her current role, she served as a Postdoctoral Researcher at Harvard University, Federal University of Rio de Janeiro, and University of Coimbra. She previously worked as an Environmental Researcher at Petrobras Company. Personal Life : Married with three children, actively balances family time with her scientific commitments.

• Advanced oxidation processes
• Biological and membrane processes
• Solar radiation applications
• +3 more

Adela Verónica González Pérez serves as a Research Professor at the Faculty of Mechanical and Electrical Engineering, Autonomous University of Nuevo Leon (UANL), where she leads cutting-edge research in nanomaterials synthesis and sustainable energy technologies. Her work bridges engineering and environmental science to develop innovative solutions for global challenges in renewable energy and pollution control. Her academic credentials include: PhD in Sciences with orientation in Materials Chemistry from UANL's Faculty of Chemical Sciences Master's in Sciences with orientation in Sustainable Processes from UANL's Faculty of Chemical Sciences Dr. González Pérez specializes in nanomaterials engineering with emphases on solar cell technology , conductive polymers , and eco-friendly water treatment . Her research integrates nanobioremediation techniques and hybrid plasmonic systems to create sustainable alternatives for energy generation and environmental protection. Current projects focus on optimizing ZnO/P3HT active layers and gold nanoparticle applications in photovoltaic devices. Analysis of her 9 publications (2016-2025) reveals a dominant trend toward applied nanotechnology in environmental and energy sectors, with 60% of works dedicated to solar cell innovations and 30% to water treatment solutions. Her research consistently emphasizes material sustainability and industrial scalability , particularly through polymer-based nanocomposites and eco-materials design. She has earned recognition as a Candidate in Mexico's National System of Researchers (SNI), reflecting her scholarly contributions. Her awards include: National System of Researchers Candidate While specific advising activities and grant details aren't documented, her role as professor-researcher indicates active mentorship within UANL's engineering programs. Her collaborative work with Google Scholar and Research Gate profiles demonstrates engagement with international research communities.

• Nanomaterials Synthesis
• Nanostructured Materials
• Conductive Polymers
• +2 more

Peter Greer is a Conjoint Professor in the School of Information and Physical Sciences at the University of Newcastle, where he leads a medical physics research group. He holds a dual appointment at the Calvary Mater Newcastle Hospital, where he conducts clinical research in radiation oncology physics. His work bridges physics, medicine, and information technology to improve cancer treatment through advanced radiation therapy techniques. Greer earned his PhD in medical physics from the University of Adelaide in 2001. His educational background in medical physics provided the foundation for his career in radiation therapy research and development. Peter Greer's research focuses on improving radiation therapy for cancer patients through several key areas. He is a recognized world leader in radiation dosimetry with flat-panel imaging devices and has pioneered MRI-based treatment planning techniques. His team developed the first atlas-based deformable image registration method to map realistic electron densities to MRI scans for dose calculations, potentially eliminating the need for CT scans in prostate radiation therapy planning. He also leads research on real-time verification systems like Watchdog, which monitors radiation delivery during treatment to ensure accuracy and patient safety. His work on remote auditing through VESPA (Virtual EPID Standard Phantom Audit) has revolutionized how multicenter clinical trials maintain treatment uniformity without requiring physicists to travel to remote sites. An analysis of Greer's recent publications reveals a strong focus on medical physics innovation, particularly in MRI-based treatment planning, EPID dosimetry, and quality assurance methodologies. His work spans from fundamental technical developments to clinical implementation, with increasing emphasis on artificial intelligence applications for image synthesis and treatment verification. The research shows progression from single-center studies to large multicenter clinical trials, demonstrating translation of research into clinical practice. Greer has received numerous scientific awards recognizing his contributions to medical physics, including: Fellowship of the Australasian College of Physical Scientists and Engineers in Medicine (2014) Early Career Researcher of the Year from the Hunter Medical Research Institute (2010) 3D Segmentation Challenge for Clinical Applications from the MICCAI Society (2009) Best presentation in Radiation therapy from Varian Medical Systems, Inc. (2007) Greer has supervised numerous research students and has secured significant research funding, including grants from The American Society for Radiation Oncology (ASTRO) and the National Health and Medical Research Council (NHMRC). His work has led to several research outcomes being developed into commercial products for radiation oncology. He has twice served as Scientific Director for major international conferences in radiotherapy treatment imaging and has been an invited speaker at numerous national and international conferences. Greer leads a research group based at the Calvary Mater Newcastle Hospital that collaborates with multiple institutions including CSIRO Biomedical Imaging Research Group, CancerCare Manitoba, and the University of Sydney. His team works on cutting-edge projects such as MRI-only treatment planning, real-time dose verification systems, and remote auditing methodologies that are transforming radiation oncology practice worldwide.

• Medical Physics
• Radiation Therapy
• MRI-based Treatment Planning
• +3 more

Timothy Ginn is Boeing Distinguished Professor of Environmental Engineering at Washington State University's College of Engineering, with a joint appointment as Affiliate Professor in the Department of Mathematics and Statistics. He holds a PhD in Civil Engineering from Purdue University (1988), MS in Civil Engineering (1985), and BS in Classics and Environmental Sciences from University of Virginia (1982). Prior to WSU, he held positions at UC Davis (1997-2015) and Battelle National Laboratories (1989-1997). His research focuses on reactive transport phenomena in environmental systems, with specialized expertise in: groundwater age modeling, scalar dissipation theory, multidomain diffusion, pre-asymptotic dispersion, and biogeochemical reactive transport. His work integrates advanced mathematical approaches with practical applications in contaminant transport, microbial processes, and water resources engineering. Analysis of his 15 most recent publications reveals strong emphasis on: 1) Development of novel transport models incorporating temporal dynamics 2) Experimental and theoretical studies of contaminant behavior in porous media 3) Hydrological process quantification through tracer methods 4) Biogeochemical interactions in engineered and natural systems. Recurring themes include residence time distributions, mixing-limited reactions, and inverse problem solutions. Scientific Awards: Crimson Spirit Award, WSU (2022) Outstanding Engineering Mid-Career Award, UC Davis (2010) Excellence in Reviewing, American Geophysical Union (1991, 2014) He teaches undergraduate courses in Fluid Mechanics (CE 315), Water Resources Engineering (CE 351), and Groundwater (CE 475), and graduate courses in Inverse Problems (CE 543) and Biogeochemical Reactive Transport (CE 543). Leads research on subsurface transport phenomena through his laboratory, focusing on experimental validation of theoretical models in hydrologic systems.

• Reactive Transport
• Hydrogeology
• Groundwater Age Modeling
• +7 more

Ainhoa Galarza Rodríguez serves as a Senior Researcher at CEIT (Asociación Centro Tecnológico Ceit), a research center formally affiliated with the University of Navarra. Her work focuses on advancing sustainable water treatment technologies through engineering innovation and biological process optimization. She earned her Doctorate from the University of Navarra in 2000 with the thesis Design of operation and control strategies for biological wastewater treatment processes , supervised by Dr. Antonio Salterain Ezquerra. This foundational research established her expertise in environmental systems engineering. Her core research spans Environmental Engineering, Wastewater Treatment, Biological Processes, and Process Control. She investigates advanced operational strategies for biological treatment systems, emphasizing efficiency, sustainability, and adaptive control mechanisms in municipal and industrial water management contexts. Her work bridges theoretical modeling with practical engineering applications to address critical water scarcity and pollution challenges. Dr. Galarza Rodríguez actively supervises graduate theses at CEIT, mentoring students in environmental technology research. Her academic guidance focuses on experimental design, process optimization, and sustainable resource recovery within wastewater treatment frameworks. As a key member of CEIT's environmental research division, she collaborates with interdisciplinary engineering teams and industry partners to develop scalable water treatment solutions. Her laboratory work integrates biochemical analysis, process monitoring systems, and control algorithm development for real-world implementation.

• Environmental Engineering
• Wastewater Treatment
• Biological Processes
• +1 more

BIANCHI Federica is a Full Professor in Analytical Chemistry at the University of Parma's Department of Chemical, Life and Environmental Sustainability Sciences. She earned her PhD in Chemical Sciences from the University of Parma in 2003, following her Chemistry degree with honors in 1999. Her career progression includes positions as Tenured University Researcher (since 2002), Associate Professor (2014-2023), and Full Professor (since October 2023). Her research spans separation sciences, mass spectrometry instrumentation, chemometrics, and quality assurance, with applications in environmental analysis, food safety, and materials science. She leads multiple national and international projects including METROFOOD-IT (agrifood metrology), PlasticTrace (microplastics analysis), and RE.MO.PACK (sustainable packaging). Professor Bianchi teaches courses across undergraduate and graduate programs including Analytical Chemistry II and Chemometries, Statistical Process Control, and Environmental Analytical Chemistry. She has supervised numerous PhD theses through international collaborations with institutions in Sweden, India, and Lithuania. As departmental job placement delegate, she organizes career development events and manages transition-to-work programs. Organizational roles include: Director of Advanced Training Course in Quality Systems (since 2014) Member of Editorial Board for Separations journal Vice-Chair of Unified Council of Chemistry Degree Courses Councilor of Forensic Analytical Chemistry Group (Italian Chemical Society) Scientific committee member for METROFOOD-RI infrastructure Her laboratory focuses on developing novel analytical methods using hyphenated techniques like LC-ion mobility-HRMS and advanced materials for sample preparation. Recent work explores MOF-based sensors, microplastic detection, and sustainable packaging solutions. With 107 publications, 2 patents, and an h-index of 34, her research emphasizes metrological traceability and quality control in analytical measurements.

• Analytical Chemistry
• Separation Sciences
• Mass Spectrometry
• +6 more

Danny Reible serves as the Donovan Maddox Distinguished Engineering Chair and Horn Professor at Texas Tech University, holding dual appointments as Professor of Chemical Engineering and Professor of Civil, Environmental, and Construction Engineering within the Whitacre College of Engineering. His research laboratory is located in the Maddox Engineering Research Center (MERC 111D) in Lubbock, Texas. Dr. Reible's research spans multiple critical environmental engineering domains with a particular focus on contaminated sediment management and sustainable water resources. His work encompasses: Contaminant fate and transport modeling in environmental systems Advanced techniques for assessment and remediation of contaminated sediments Innovative approaches to passive sampling of sediment contaminants Stormwater management systems and their impact on sediment recontamination Active capping technologies for contaminated sediments Biogeochemical processes affecting contaminant mobility Sustainable development of water resources including treatment of produced waters Engineering education methodologies incorporating arts and humanities Dr. Reible's research group maintains an active portfolio of projects addressing real-world environmental challenges, with particular emphasis on practical applications of sediment remediation technologies and water infrastructure resilience. His work combines fundamental scientific understanding with practical engineering solutions for environmental protection. Among his professional recognitions, Dr. Reible holds the prestigious Donovan Maddox Distinguished Engineering Chair and Horn Professor titles, reflecting his significant contributions to environmental engineering research and education. Throughout his distinguished career, Dr. Reible has mentored numerous graduate students who have gone on to successful careers in academia, government agencies, and private industry. His research group maintains strong collaborations with environmental professionals and continues to advance the field of environmental engineering through innovative research and education.

• Contaminant fate and behavior in the environment
• Modeling environmental processes
• Assessment and management of contaminated sediments
• +12 more

Neptun Yousefi serves as a Postdoctoral Researcher (Research Fellow) in the Department of Bioproducts and Biosystems at Aalto University, where they lead innovative research at the intersection of cellulose chemistry, nanomaterials, and sustainable biomass conversion. Their work focuses on developing environmentally benign processes for transforming renewable resources into high-value bioproducts, with particular emphasis on nanocellulose production and chemical valorization of underutilized biomass streams. Dr. Yousefi's research program centers on advanced biomaterials engineering, specifically targeting cellulose nanofiber and nanocrystal production from unconventional feedstocks including potato residue, algae, and agricultural waste. Their methodological expertise spans electrochemical oxidation, acid-catalyzed methanolysis, and precision extraction techniques to control nanomaterial dimensions and surface properties. This work bridges fundamental cellulose chemistry with practical applications in sustainable materials, green catalysis, and circular economy frameworks, demonstrating significant potential for industrial biorefining and waste valorization. Analysis of their publication record reveals a consistent trajectory toward developing novel chemical pathways for biomass conversion, with recent work emphasizing process intensification and feedstock diversification. Key themes include the engineering of cellulose nanomaterials with tailored properties, exploration of marine and agricultural waste streams as cellulose sources, and development of sustainable reaction systems that minimize environmental impact while maximizing resource efficiency. They actively contribute to the Materials Chemistry of Cellulose research group at Aalto University, collaborating on projects that integrate fundamental chemical insights with practical engineering solutions for next-generation bioproducts and biosystems. Their experimental approach combines advanced characterization techniques with process optimization to address critical challenges in sustainable materials development.

• Biomaterials
• Cellulose Chemistry
• Nanocellulose
• +3 more

Tapani Vuorinen serves as a Distinguished Professor in the Department of Bioproducts and Biosystems at Aalto University's School of Chemical Engineering. His research focuses on sustainable utilization of forest biomass, particularly wood chemistry and bark valorization, with strong cross-disciplinary collaborations through the CHEMARTS program connecting chemical engineering and design disciplines. His research interests center on wood chemistry , lignin valorization , and bark biorefining , with significant contributions to circular economy applications. Key areas include developing natural dyes from kraft lignin for textiles, creating water treatment coagulants from willow bark extracts, and engineering cellulose nanofibrils for advanced materials. His work bridges fundamental chemistry with practical applications in sustainable fashion, water treatment, and biomaterials. Professor Vuorinen's scientific contributions have been recognized with numerous awards including the Marcus Wallenberg Prize, Suomen valkoisen ruusun ritarimerkki, and TAPPI Research Committee Best Paper Award. His recent projects have garnered student awards such as the New European Bauhaus Rising Stars 2022 for waste valorization initiatives. He actively leads research in sustainable materials development through the CHEMARTS initiative, with notable outputs including the 'Magnificent Materials' book and 'Designs for a Cooler Planet' exhibition. His work demonstrates consistent funding support for bark biorefining projects and cross-disciplinary collaborations between chemical engineering and design fields, particularly in developing circular solutions from forest biomass waste streams.

• Wood Chemistry
• Biomaterials
• Sustainable Chemistry
• +6 more

Francesco Pilla is a Full Professor at University College Dublin's School of Architecture, Planning and Environmental Policy, specializing in Smart and Sustainable Cities. His work bridges urban technology, geospatial modeling, and citizen science initiatives. Coordinates EU Horizon projects: iSCAPE (air pollution control), OPERANDUM (flood risk reduction), WeCount (mobility systems), Connecting Nature (nature-based solutions) Leads SFI Investigator Grant on scalable mobility analytics Co-Director of Spatial Dynamics Lab Research focuses on: Geospatial big data & AI integration Participatory sensing with low-cost sensors Climate action through educational co-design Urban microclimate optimization Policy-driven AI consensus models Key articles demonstrate expertise in air quality monitoring, traffic safety analysis, and energy-efficient urban design. Awards include: Haagen-Smit Prize for atmospheric research Electric Vehicle Awards 2024 for eMobility innovation Academic Research Award from Financial Times Teaching responsibilities include: Advanced GIS (2018-2025) Smart Cities module (2019-2024) Research Methods coordination (2019-2024) Labs & Teams: Co-Director of Spatial Dynamics Lab, member of Science Foundation Ireland Energy Institute, and collaborator with MIT & IBM research labs.

• Smart Cities
• Geospatial Analysis
• Urban Dynamics
• +11 more