Find Academic Supervisors

Heng-Ming TaiView profile

Professor

• Signal Processing
• Image Processing
• Power System Reliability
• +1 more

Heng-Ming Tai is a Professor of Electrical and Computer Engineering at The University of Tulsa, where he serves as the graduate advisor in the ECE department. His academic journey began with a B.S. in Electrical Engineering from National Tsing-Hua University in 1980, followed by an M.S. in 1983 and a Ph.D. in 1987, both from Texas Tech University. Dr. Tai's research spans multiple critical areas in electrical engineering, with primary focus on signal/image processing , power system reliability , and power electronics . His work bridges theoretical foundations with practical applications, particularly in thermal management of IGBT module, monitoring technique for power converter, image encryption, biomedical image segmentation using neural network technique, and load control using age-of-information scheme. His research addresses contemporary challenges in power systems, including the integration of renewable energy sources and the development of more reliable and efficient power electronics systems. Analysis of Dr. Tai's recent publications reveals a strong trend toward interdisciplinary research that combines power systems engineering with advanced computational techniques. His work increasingly focuses on the intersection of power electronics, control systems, and data science, particularly in areas like age-of-information based control systems, reliability evaluation of composite power systems with renewable integration, and advanced thermal management strategies for power semiconductors. His research demonstrates a consistent evolution from fundamental power electronics toward more complex system-level challenges in modern power grids. As the graduate advisor for the Electrical and Computer Engineering department, Dr. Tai plays a crucial role in mentoring the next generation of engineers. While specific details about his grant history are not provided in the available information, his extensive publication record spanning multiple decades suggests a sustained research program with likely significant external funding support. Dr. Tai's work is centered in the Electrical and Computer Engineering department at The University of Tulsa, where he contributes to both the academic and research missions of the college. His research on power electronics and thermal management likely involves laboratory facilities for power converter testing and thermal analysis, though specific lab names are not mentioned in the available information.

Matthew F. KirkView profile

Associate Professor

• Hydrogeology
• Geomicrobiology
• Groundwater Quality
• +5 more

Dr. Matthew F. Kirk is an Associate Professor in the Department of Geology at Kansas State University's College of Arts and Sciences, where he joined in December 2012. His research integrates hydrogeology, geomicrobiology, and environmental geochemistry to address critical water resource challenges, particularly focused on groundwater systems in Kansas and the Great Plains region. As a K-State University Outstanding Scholar and Fellow of the Geological Society of America, Dr. Kirk has established himself as a leading researcher in groundwater quality and microbial processes. Dr. Kirk earned his Ph.D. from the University of New Mexico before joining Kansas State University. His educational background has prepared him for interdisciplinary research that bridges geological, chemical, and biological processes in natural environments. His academic journey has positioned him to tackle complex environmental challenges through integrated scientific approaches. Dr. Kirk's research primarily focuses on hydrogeology and geomicrobiology with emphasis on groundwater systems. His work examines water quality in the Great Bend Prairie aquifer, groundwater-surface water interactions across Kansas, the fate of carbon dioxide in soils at Konza Prairie, and geochemical controls on anaerobic microorganisms. He has recently published the open-access textbook "Microbiology for Earth Scientists" to help students understand the critical role of microorganisms in Earth systems. His research group actively investigates how land use changes affect water quality and availability, with particular attention to nitrate contamination from agricultural practices. Analysis of Dr. Kirk's recent publications reveals a strong focus on the intersection of hydrology, biogeochemistry, and ecosystem change. His work increasingly addresses how vegetation changes (particularly woody encroachment in grasslands) affect water movement and quality, while maintaining his core interest in microbial processes in groundwater systems. There's a clear trend toward more integrated, systems-based approaches that consider multiple environmental factors simultaneously, reflecting the complex nature of water resource challenges in changing landscapes. Dr. Kirk has received notable recognition for his scholarly contributions: K-State University Outstanding Scholar Fellow of the Geological Society of America Dr. Kirk actively mentors students through multiple avenues. He leads the Kansas Groundwater Geopaths program, an NSF-funded initiative (award #2230413) that provides undergraduate research experiences focused on groundwater quality monitoring in Kansas rural domestic water wells. This program serves K-State students as well as those from Barton and Dodge City Community Colleges, offering $3,000 scholarships and career-oriented training. He also supervises graduate students pursuing MS degrees in Geology and has developed an open-access textbook to support education in his field. His teaching portfolio includes Earth in Action, Introduction to Geochemistry, Geomicrobiology, Geochemical Modeling, and Water Resources Geochemistry. Dr. Kirk's research group operates as an interdisciplinary team focused on hydrogeology and geomicrobiology. Through the Kansas Groundwater Geopaths program, his team collaborates with the Kansas Department of Health and Environment, Kansas Water Institute, local Groundwater Management Districts, Kansas Geological Survey, and Kansas Water Office to address critical water quality issues affecting approximately 130,000 people who rely on the Great Bend Prairie aquifer for drinking water. His work has demonstrated that groundwater quality has decreased significantly over the past 40 years primarily due to nitrate accumulation from fertilizer use, highlighting urgent environmental concerns for Kansas communities.

Jens HegerView profile

Professor

• Manufacturing Engineering
• Production Technology
• Simulation
• +5 more

Jens Heger is a Professor of Engineering specializing in Modeling and Simulation of Technical Systems and Processes at Leuphana University Lüneburg, Germany. He is affiliated with the Institute for Production Technology and Systems (IPTS) and the Research Center for Digital Transformation. His academic career spans over a decade of research and teaching in production engineering, manufacturing systems, and simulation technologies. Dr. Heger completed his Master of Science in Computer Science with a minor in Business Studies at the University of Paderborn (1999-2006). He then earned his doctorate degree at the University of Bremen in the Department of Production Engineering. His dissertation focused on "Dynamic selection of rules for sequence planning in workshop and flexible flow production" under the supervision of Prof. Scholz-Reiter and Prof. Jürgen Branke from the University of Warwick, UK. Professor Heger's research interests center around the intersection of manufacturing engineering, simulation, and artificial intelligence. His work demonstrates a strong focus on applying advanced computational methods to solve complex production challenges. Key research areas include: Manufacturing process optimization through simulation and modeling Application of machine learning and reinforcement learning in production scheduling Development of intelligent control systems for manufacturing processes Energy efficiency and sustainability in production systems Quality control and prediction in sheet metal forming processes Integration of AI technologies in traditional manufacturing environments Analysis of Professor Heger's recent publications reveals a clear trajectory toward increasingly sophisticated applications of artificial intelligence in manufacturing. His work has evolved from traditional simulation and optimization techniques toward integrating deep learning, reinforcement learning, and computer vision technologies into production systems. A significant portion of his research focuses on dynamic scheduling and optimization problems, particularly using reinforcement learning approaches to address complex manufacturing challenges. His publications also demonstrate a growing interest in sustainable manufacturing practices, energy efficiency, and quality control applications through AI technologies. Professor Heger has contributed significantly to the field through numerous publications in manufacturing engineering, production systems, and AI applications. His work spans both theoretical advancements in scheduling algorithms and practical implementations in industrial settings, particularly focusing on small and medium enterprises.

Robert J. MayerView profile

Researcher

• Physical Organic Chemistry
• Computational Chemistry
• Catalysis
• +4 more

Dr. Robert J. Mayer (born 1994) serves as an Independent Junior Group Leader at the Technical University of Munich (TUM) within the TUM School of Natural Sciences, where he leads the Emmy Noether Junior Research Group focused on Physical Organic Chemistry in Catalysis and the Emergence of Life. Based at the Professorship of Supramolecular Chemistry, his laboratory was established in January 2024 with support from the Liebig fellowship by the Fonds der Chemischen Industrie. In 2025, he secured additional major funding through the Emmy-Noether program by the Deutsche Forschungsgemeinschaft (2.1 Mio € over 6 years) and the Daimler and Benz Foundation scholarship program. Mayer's research sits at the critical intersection of physical organic and computational chemistry, with a particular emphasis on developing predictive methods for organic reactions in aqueous environments. His work combines high-throughput experimental studies of reaction kinetics and thermodynamics with data science approaches to uncover fundamental principles governing complex catalytic systems. A significant portion of his research investigates the organic chemistry pathways relevant to the emergence of life, particularly non-enzymatic amino acid synthesis and metabolism. Analysis of Mayer's publication record reveals a consistent focus on mechanistic organic chemistry with increasing emphasis on prebiotic relevance. His recent work demonstrates sophisticated integration of experimental and computational approaches to tackle challenging questions in reaction mechanisms, particularly around catalysis in aqueous environments. The publications show progression from fundamental physical organic chemistry (Lewis acidity scales, reaction mechanisms) toward increasingly complex biological questions related to the chemical origins of life. Emmy-Noether fellowship by the Deutsche Forschungsgemeinschaft (2025) Scholarship program of the Daimler and Benz Foundation (2025) Member of the Junges Kolleg of the Bavarian Academy of Sciences and Humanities (2025) Liebig fellowship by the Fonds der Chemischen Industrie (2024-2025) Lindau Spirit Fellowship for participation at the 71st Lindau Nobel Laureate Meeting (2022) Walter Benjamin Postdoctoral Fellowship by the Deutsche Forschungsgemeinschaft (2021-2023) Römer Award for outstanding research work in doctorate studies (2020) Kekulé PhD Fellowship by the FCI (2017-2020) Mayer's research program is supported by substantial grant funding, most notably the 2.1 Mio € Emmy-Noether grant from the DFG for his project on understanding complex catalytic reactions in water, expected to begin in mid-2025. His laboratory has also received support from the ORIGINS excellence cluster for robotic automation equipment, including an Andrew+ liquid handling robot to advance high-throughput physical organic chemistry studies. The Liebig fellowship from the Chemical Industry Fund provided the initial funding to establish his independent research group at TUM in early 2024. The Mayer lab, established at TUM in January 2024, operates with state-of-the-art equipment including a TgK stopped-flow instrument for millisecond-range kinetics measurements and robotic liquid handling systems. The laboratory is hosted within the Professorship of Supramolecular Chemistry under Prof. Job Boekhoven and is part of the broader research ecosystem at the TUM School of Natural Sciences. The research group aims to merge physical-organic and computational insights to investigate complex mechanistic organic chemistry relevant to both synthetic applications and the chemical emergence of life.

Karen C. BrassingaView profile

Professor

• Bacterial Pathogenesis
• Microbial Genetics
• Gene Regulation
• +5 more

Dr. Karen C. Brassinga serves as Professor and Associate Head (Undergraduate) in the Department of Microbiology within the Faculty of Science at the University of Manitoba. Her laboratory maintains active collaborations with researchers across multiple departments including Medical Microbiology & Infectious Diseases, Civil Engineering, and the National Microbiology Laboratory. Her research spans several critical areas in microbial pathogenesis: Regulatory networks controlling bacterial cyst formation and virulence in Legionella Plumbing pathogen Mycobacterium avium complex in water systems Structural modeling of L. pneumophila effector proteins Virulence mechanisms of blood product contaminants like S. marcescens Microbe-host interactions using Acanthamoeba castellanii , mammalian cells, and C. elegans Recent publications demonstrate sustained focus on Legionella virulence regulation through two-component systems, structural characterization of effector proteins, and genomic analysis of environmental pathogens. Her work increasingly integrates bioinformatics with traditional molecular microbiology techniques to address public health challenges in water safety and transfusion medicine. Dr. Brassinga actively supervises multiple graduate and undergraduate researchers. Her laboratory employs diverse methodologies including microbial genetics, molecular biology, bioinformatics, and infection modeling across multiple host systems. Current projects address chlorine tolerance in Legionella species from First Nations communities, structural characterization of effector proteins, and virulence mechanisms of blood product contaminants.

Haosheng HuangView profile

Associate Professor

• Physical Oceanography
• Coastal and Estuarine Circulation
• Numerical Modeling
• +4 more

Haosheng Huang is an Associate Professor in the Department of Oceanography & Coastal Sciences at Louisiana State University's College of the Coast & Environment. His research focuses on coastal ocean dynamics and numerical modeling, with significant contributions to understanding Gulf of Mexico ecosystems and Mississippi River Delta processes. His academic credentials include: B.S. from Fudan University, Shanghai (1990) M.S. from First Institute of Oceanography (1993) Ph.D. from Florida State University (2003) Huang's research spans physical oceanography, specializing in coastal and estuarine circulation dynamics, unstructured grid numerical modeling, data assimilation, storm surge simulation, and bio-physical ecosystem modeling. He develops advanced computational approaches for studying continental shelf processes and employs the Finite Volume Coastal Ocean Model (FVCOM) extensively for simulating complex coastal phenomena including sediment transport, hypoxia, and wetland degradation. Analysis of his 15 most recent publications reveals a dominant focus on Gulf of Mexico and Mississippi Delta systems, with recurring themes of sea-level rise impacts, hypoxia dynamics, sediment transport, and storm surge modeling. His work increasingly integrates multi-scale processes across river-estuary-shelf-ocean continua and emphasizes climate change impacts on coastal resilience. His scientific recognition includes: LSU Tiger Athletic Foundation Undergraduate Teaching Award (2012) Huang teaches foundational courses including Introduction to Oceanography and advanced numerical methods, while his research program addresses critical coastal management challenges through sophisticated modeling of circulation dynamics, ecosystem responses, and climate vulnerability. His work demonstrates strong interdisciplinary connections between physical oceanography, biogeochemistry, and coastal engineering.

• Coral Reef Ecology
• Marine Fish Ecology
• Climate Change Impacts on Coral Reefs
• +5 more

Andrew Scott Hoey is a Professor of Marine Ecology at James Cook University's College of Science and Engineering, specializing in coral reef ecosystems. His research focuses on the complex interactions between coral reef fish communities, particularly parrotfishes and rabbitfishes, and their benthic environments, with emphasis on how these relationships are affected by climate change, habitat degradation, and conservation interventions. Hoey's research interests span coral reef fish ecology, climate change impacts on reef systems, coral-algal interactions, and marine conservation. His work has significantly advanced understanding of herbivory dynamics on coral reefs, particularly how fish grazing influences coral resilience and recovery following disturbances. He has documented how changes in fish community structure affect reef resilience and has investigated the mechanisms underlying coral-algal phase shifts. His research demonstrates that not all herbivorous fishes provide equivalent ecological functions, with some species being more effective at controlling macroalgal growth than others. Analysis of Hoey's recent publications reveals a strong focus on contemporary reef challenges including coral bleaching impacts, macroalgal-coral interactions, and the effects of climate change on reef fish distributions and behaviors. His work increasingly incorporates spatial and temporal scales, examining cross-shelf patterns, regional comparisons between the Coral Sea and Great Barrier Reef, and long-term ecological changes. Recent research also explores deep-water and mesophotic reef ecosystems as potential refuges from warming surface waters. Co-editor of the comprehensive volume 'Biology of Parrotfishes' (2018) Lead researcher for multiple Coral Sea Marine Park Coral Reef Health Surveys (2021-2023) Contributor to high-impact global assessments of coral reef status and threats Hoey actively collaborates with researchers across the Indo-Pacific region and contributes to major international research initiatives examining coral reef resilience and conservation strategies. His work bridges fundamental ecological research with practical conservation applications, providing critical insights for reef management in the face of global environmental change.

• Coastal Geography
• River Margin Studies
• Environmental Risk Assessment
• +6 more

Valérie Morel is a Lecturer in Geography at the University of Artois, where she has been teaching since 1998. She is affiliated with the Faculty of History Geography Heritage and specializes in coastal and river margin geography, environmental risks, and vulnerability/resilience studies. Her research is particularly focused on French Guiana and the Amazonian region, examining human-environment interactions and interdisciplinary approaches to territorial management. Dr. Morel earned her PhD in Geography from the University of Western Brittany in 1997 with a dissertation titled "From geomorphology to the management of coastal pebble strips in the Channel basin and its surroundings: case studies (Brittany, Upper Normandy, Picardy, southern England) and general reflections." She also completed a delegation to the IRD center in Cayenne from 2008 to 2012 in the Mivegec laboratory. Dr. Morel's research primarily focuses on the intersection of coastal and river margin territories with environmental risks, vulnerability, and resilience. Her work examines how human-environment interactions have evolved over centuries, with particular attention to the management of environmental risks in coastal areas. She emphasizes interdisciplinary and transdisciplinary approaches to understanding environmental issues, especially in the context of French Guiana and Amazonian regions. Her research often addresses the social dimensions of environmental risks, highlighting the importance of integrating knowledge from multiple disciplinary fields for effective territorial management. Her extensive publication record reveals consistent themes in coastal geography, environmental risk assessment, and interdisciplinary approaches to environmental management. The research shows a clear progression from studying physical coastal processes to examining the human dimensions of environmental risks, particularly in French Guiana. More recent work increasingly focuses on health-environment interactions, transborder cooperation, and the impacts of climate change on vulnerable coastal communities. Dr. Morel has secured significant research funding for multiple projects, including ADAILI (2022-2024) on climate change adaptation, IMoLoCAY (2023-2024) on relocation due to coastal erosion in French Guiana, and MOSAIC (2024-2028) on planetary health with €5.9 million in funding. She has also participated in numerous collaborative research initiatives, demonstrating her ability to lead and contribute to interdisciplinary research teams addressing complex environmental challenges. Dr. Morel is actively involved in several research networks and teams, including the GDR LiGA (Littoral de Guyane sous influence amazonienne), where she co-leads the vulnerability-adaptability axis facing climate change. She is also a member of the LMI Sentinela (2018-2024), a France-Brazil international laboratory focused on transborder environmental observatories, climate, and vector-borne diseases. These affiliations demonstrate her commitment to collaborative, interdisciplinary research addressing environmental challenges in Amazonian and coastal regions.

• Climate change mitigation
• Land use modeling
• Water-land-food-climate nexus
• +4 more

Dr. Jonathan Doelman is a Researcher at the Environmental Sciences department within the Copernicus Institute of Sustainable Development at Utrecht University's Faculty of Geosciences. His work focuses on the critical intersection of environmental science, climate change mitigation, and sustainable development pathways. He contributes significantly to global research on land use dynamics, the water-land-food-climate nexus, and biodiversity conservation through extensive international collaborations and high-impact publications. Dr. Doelman's research centers on climate change mitigation strategies, land use modeling, and sustainability pathways. He specializes in analyzing complex interactions within environmental systems using integrated assessment models. His work frequently examines trade-offs between human development needs and environmental constraints, particularly through the lens of Shared Socioeconomic Pathways (SSPs). He has made substantial contributions to understanding how different development trajectories affect biodiversity, water resources, and climate outcomes. His publication record demonstrates consistent growth in influence, with recent work appearing in top journals including Nature, Nature Climate Change, and Global Environmental Change. Dr. Doelman's research shows a clear trajectory toward increasingly sophisticated analyses of sustainability challenges, with growing emphasis on practical implementation of theoretical pathways and regional variations in climate mitigation effectiveness. As part of the IMAGE modeling team at Utrecht University, Dr. Doelman contributes to one of the world's leading integrated assessment models used for climate policy development. His collaborative approach spans multiple disciplines and geographic regions, reflecting the interconnected nature of the environmental challenges he addresses.

• Advanced Manufacturing Processes
• Metal Forming Technologies
• Biomedical Implant Manufacturing
• +5 more

Antonio Piccininni serves as an Assistant Professor in the Department of Mechanics, Mathematics & Management at Polytechnic University of Bari, Italy. His academic focus centers on advanced manufacturing technologies with particular expertise in metal forming processes, biomedical implant production, and sustainable manufacturing techniques. His research interests span multiple domains of manufacturing engineering, with emphasis on incremental forming , hydroforming , laser-assisted manufacturing , and superplastic forming techniques. Dr. Piccininni has made significant contributions to the development of customized biomedical implants, particularly cranial prostheses using titanium alloys, and has pioneered research in eco-friendly manufacturing processes including sustainable lubricants for metalworking applications. Analysis of his publication record reveals a clear progression from fundamental metal forming research toward increasingly specialized applications in biomedical engineering and sustainable manufacturing. His recent work demonstrates sophisticated integration of computational methods including machine learning, finite element analysis, and multi-criteria optimization techniques to solve complex manufacturing challenges. The trend shows growing emphasis on biomedical applications and environmental sustainability in manufacturing processes. Dr. Piccininni's research has practical applications in multiple industries including medical device manufacturing, automotive components production, and sustainable metalworking practices. His work bridges theoretical modeling with experimental validation, often incorporating advanced materials like titanium alloys and aluminum for specialized applications requiring high precision and biocompatibility.

Efstratiadis AndreasView profile

Assistant Professor

• Water Resources Engineering
• Hydropower Systems
• Flood Risk Management
• +3 more

Efstratiadis Andreas serves as an Assistant Professor in the Department of Water Resources and Environmental Engineering at the School of Civil Engineering, National Technical University of Athens (NTUA), based at the Laboratory of Hydrology and Water Resources Development. His research spans water resources systems, hydropower infrastructure, and the water-energy nexus, with emphasis on stochastic modeling and uncertainty quantification. His primary research interests include stochastic hydrology, flood risk assessment, multipurpose reservoir optimization, and renewable energy integration. He investigates cascading infrastructure failures, spatial reliability in solar PV systems, and climate-energy market uncertainties, often employing advanced simulation-optimization frameworks to address complex water-energy challenges under environmental variability. Recent publications (2023–2025) reveal a strong focus on hydropower dam safety, flood control infrastructure design, and the operational trade-offs in multipurpose reservoirs. His work increasingly integrates Earth Observation data for hydrologic modeling and examines socio-technical dimensions of the water-energy nexus, reflecting a shift toward interdisciplinary systems analysis. Dr. Efstratiadis contributes to NTUA's Laboratory of Hydrology and Water Resources Development, which develops decision support systems like Hydronomeas 2020 and national monitoring infrastructure (OpenHi.net) for Greek surface waters. His lab emphasizes computational tools for water resources management under climate uncertainty.

• Hydrogeology
• Environmental Engineering
• Risk Assessment
• +6 more

Lars Rosen is a Professor in the Department of Geology and Geotechnology at Chalmers University of Technology, where he leads the Technical Geology research group. He serves as the responsible person for the Forum for Risk Investigation and Sustainable Technology (FRIST) competence center and works as a supervisor and specialist in risk management within the DRICKS research program. Professor Rosen's research spans hydrogeology and environmental engineering, with a primary focus on vulnerability assessments, risk assessment, and decision-making methodological support for water protection and remediation of contaminated soil, groundwater, and drinking water. His work integrates technical, economic, and environmental perspectives to develop practical solutions for complex water resource challenges. Analysis of his recent publications reveals a strong emphasis on risk-based decision support systems, particularly for hydrogeological risks in underground construction, contaminated site remediation, and drinking water protection. His research increasingly incorporates sustainability assessment frameworks, cost-benefit analysis, and ecosystem service valuation into traditional engineering approaches. Professor Rosen actively leads and participates in numerous research projects, including FRIST, DRICKS, and several EU-funded initiatives focused on risk assessment, sustainable remediation, and water resource management. His work demonstrates strong collaboration with researchers across multiple disciplines and institutions. His research group, Technical Geology, focuses on applying geological knowledge to engineering problems, particularly those related to groundwater, soil contamination, and risk assessment. The group works closely with industry and government agencies to translate research findings into practical applications for environmental protection and sustainable development.

• Human-Environment Interaction
• Geospatial Analysis
• Remote Sensing
• +7 more

Dr. Qingmin Meng is an Associate Professor in the Department of Geosciences at Mississippi State University, specializing in human-environment interactions through quantitative geospatial analysis. His work integrates mathematics and statistics to model landscape dynamics, natural resources, and human activities using vector, raster, and time-series datasets. Dr. Meng's educational background includes: PhD in Forestry and Natural Resources, University of Georgia (2006) MS in Statistics, University of Georgia (2005) PhD in Geography, Peking University, China (2001) MS in Geography, Lanzhou University, China (1997) BS in Geography, Shandong Normal University, China (1994) His research focuses on geospatial big data exploration , with emphasis on remote sensing data integration, ecological system assessment, and environmental-social interactions in Gulf coastal ecosystems, hydraulic fracturing impacts, and West Nile Virus dynamics. Key methodologies include GIS, remote sensing, and geospatial modeling for analyzing complex systems. Recent publications reveal a strong trend toward applied environmental justice research , particularly in urban flood vulnerability, wildfire risk disparities, and health inequities exacerbated by climate change. His work increasingly utilizes machine learning and high-resolution spatial analytics to address climate adaptation challenges. Notable recognitions include: CHANS Fellowship (2010) from the International Network of Research on Coupled Human and Natural Systems (NSF/MSU) UCGIS/ESRI Junior Faculty Award (2010) Dr. Meng mentors graduate students in geospatial science, with current advisees including PhD candidates Sadia Shammi, Khalid Hossain, and Tianyu Li. His research is supported by grants focused on environmental hazard assessment and geospatial technology development, though specific funding sources aren't detailed in available materials. His work leverages Mississippi State University's geospatial infrastructure for analyzing Gulf coastal ecosystems and hydraulic fracturing impacts, with growing emphasis on urban environmental justice and climate resilience applications.

Deborah RobertsView profile

Professor

• Environmental Microbiology
• Biological Treatment Processes
• Wastewater Treatment
• +5 more

Deborah Roberts serves as the inaugural Dean of the Faculty of Science and Engineering at the University of Northern British Columbia (UNBC), bringing over 30 years of interdisciplinary expertise bridging microbiology and environmental engineering. A licensed Professional Engineer with EGBC, she holds leadership positions in multiple engineering and scientific societies while maintaining active research programs. Her academic foundation includes a BSc and PhD in Microbiology from the University of Alberta, complemented by immersive engineering training during her tenure as Assistant and Associate Professor in Civil and Environmental Engineering at the University of Houston. She played a pivotal role in establishing the School of Engineering in Kelowna before joining UNBC, where she integrates her dual expertise in biological systems and engineering design. Dr. Roberts' research program focuses on developing innovative biological treatment solutions for extreme environmental challenges, with particular emphasis on microbial fuel cell technology for waste-to-energy conversion, arsenic removal from mine drainage, and sulfur-oxidizing microbial processes affecting concrete infrastructure. Her laboratory trains students in advanced microbiological techniques, analytical chemistry methodologies, and the development of novel contaminant analysis protocols for water, soil, and air remediation. Recent publication trends reveal a strategic shift toward bioelectrochemical systems for sustainable wastewater treatment, with significant contributions to understanding microbial fuel cell performance in winery and food waste applications. Her work increasingly incorporates advanced sensing technologies, including microwave-based biosensors for real-time water quality monitoring and bacterial growth analysis, demonstrating interdisciplinary innovation across environmental engineering and analytical chemistry domains. Professional Engineering license with EGBC Member of multiple engineering and scientific societies Supervisor for MSc and PhD students in environmental engineering Active research collaborations across North America Dr. Roberts leads the Faculty of Science and Engineering while maintaining an active research laboratory focused on sustainable solutions for contaminated media. Her team develops practical applications for microbial processes in extreme environments, with particular attention to industrial wastewater challenges and resource recovery opportunities. Current projects emphasize scalable technologies for agricultural waste streams and mining-impacted waters, reflecting her commitment to translating fundamental research into field-deployable environmental solutions.

James HazeltonView profile

Associate Professor

• Sustainability Accounting
• Environmental Accounting
• Greenhouse Gas Emissions Accounting
• +3 more

Dr. James Hazelton is an Associate Professor in the Department of Accounting and Corporate Governance at Macquarie Business School, Macquarie University. He holds dual affiliations with the Centre for Corporate Sustainability and Environmental Finance and the Smart Green Cities Research Centre. Since joining Macquarie University in 2001, Hazelton has established himself as a leading researcher in sustainability accounting, bringing valuable industry perspective from his prior work at PriceWaterhouseCoopers in audit and consulting across Sydney, London, and New York. Hazelton's academic credentials include: PhD from Macquarie University Graduate Diploma in Environmental Studies from Macquarie University Chartered Accountant qualification from the Institute of Chartered Accountants His research specializes in environmental accounting frameworks with particular expertise in greenhouse gas emissions, water resources, and modern slavery reporting. Hazelton has led significant government-commissioned projects including work for the Australian Bureau of Meteorology analyzing national water accounting standards and developing energy efficiency training for the accounting profession with the NSW Office of Environment and Heritage. His current research portfolio includes creating a virtual museum for the eradication of modern slavery and exploring innovative approaches to sustainability data visualization using 3D game engine technology. Hazelton's recent scholarly output reveals evolving research trajectories across sustainability accounting domains: Advanced visualization techniques for sustainability data (2025) Cross-cultural analysis of GRI standards implementation (2023) Technical challenges in operationalizing water stress metrics (2023) Energy efficiency disclosure practices in municipal contexts (2024) His research demonstrates consistent engagement with practical implementation challenges faced by organizations navigating increasingly complex sustainability reporting requirements. Hazelton's work bridges theoretical accounting frameworks with real-world applications across environmental and social domains.