Fernando Lima is Adjunct Faculty in Chemical Engineering at Carnegie Mellon University and Associate Professor at West Virginia University. He holds a PhD from Tufts University and BS from University of São Paulo. Research develops process systems engineering methods for energy systems optimization, modular process design, and sustainable manufacturing. Current work focuses on carbon capture integration, dynamic optimization under uncertainty, and industrial electrification. Leadership roles include serving as CAST Director and editorial board membership for Journal of Process Control.
Associate Professor WU Jie holds positions as Assistant Head (M.Sc. Programme and Enterprise) and Dean's Chair Professor (2023-2026) at the Department of Chemistry, National University of Singapore (NUS). He leads the Lab of Flow Synthesis, focusing on photocatalysis and automated multistep synthesis. His research spans engineered flow reactors, natural gas feedstock transformations, and hydrogen atom transfer strategies. Education: Postdoctoral, Massachusetts Institute of Technology (2012-2015) Ph.D., Boston University (2012) B.Sc., Beijing Normal University (2006) Research Interests: His group develops advanced flow reactors (e.g., stop-flow micro-tubing), visible-light-driven C-H functionalization, and end-to-end automated synthesis platforms. Key projects include modular alkene synthesis from feedstocks and photo-mediated hydrosilylation. Publications: Recent works highlight innovations like button-push on-demand synthesis for antiviral agents and high-speed circulation flow platforms. Themes include photocatalytic cross-coupling, radical chemistry, and heterogeneous catalysis. Awards: Emerging Investigators in Flow Chemistry (2023) Thieme Chemistry Journal Award (2019) Asian Core Program Lectureship Award (2017-2023) Grants & Labs: Secured $12.3M as PI and $2M as co-PI. His lab trains students in flow chemistry, green synthesis, and automated platforms. Collaborations span institutions like MIT, Harvard, and industry partners.
Sourav Chatterjee is a Lecturer in Chemical Engineering at the University of Bath, leading the AI/ML-guided Automated Flow Synthesis Laboratory. His research integrates flow chemistry, microfluidics, machine learning, and robotics to advance chemical synthesis and materials discovery. He holds a Ph.D. in Chemical Engineering from Queen's University Belfast. Chatterjee's work focuses on automating complex chemical processes, including API synthesis and glycosylation reactions. His publications feature innovations in modular reactors, catalyst optimization, and predictive machine learning models for stereoselective synthesis. Prior roles include Team Leader in Catalysis at ETH Zürich and postdoctoral research at Max-Planck-Institute. Projects include AI-guided catalyst discovery and sustainable chemical manufacturing.
Luke Neal is a Research Assistant Professor in the Department of Chemical and Biomolecular Engineering at NC State University, part of the College of Engineering. His research focuses on sustainable chemical processes, catalysis, and low-carbon energy systems. He specializes in redox-based catalytic systems for hydrocarbon conversion, CO2 utilization, and thermal energy storage. Neal's work emphasizes process intensification and modular reactor design for industrial applications. Neal holds a strong background in heterogeneous catalysis, fluidization engineering, and materials science. His recent studies include developing oxide-molten salt composites for high-temperature applications and microwave-assisted catalytic processes for clean hydrogen production. He has contributed to techno-economic analyses of chemical looping processes and CO2 conversion pathways. Key research areas include: Redox catalysis for oxidative dehydrogenation CO2-splitting and methane reforming Thermal energy storage systems Modular chemical production systems Process simulations and kinetic modeling
Robert Legros is a Full Professor at the Department of Chemical Engineering within Polytechnique Montréal , where he has held the Research Chair on the Recovery of Residual Materials (CRVMR) and is a member of the Interdisciplinary Research Center for the Operationalization of Sustainable Development (CIRODD) . His work focuses on developing integrated waste treatment systems and energy-efficient biomass conversion processes in the context of a circular economy. Legros earned a B.Sc.A. from Polytechnique Montréal and a Ph.D. from the University of Surrey. His research interests span waste recovery, composting, thermal treatments, drying, biorefinery, and energy efficiency. He has supervised 41 graduate students (9 Ph.D. and 31 Master’s) to completion, with current supervision of 2 students. His 15 most recent publications (2019–2025) emphasize agent-based modeling for waste separation behavior, gasification processes, drying technologies, and life-cycle assessment tools. These works integrate broad disciplines such as Environmental Science , Chemical Engineering , and Resource Management , with subfields including Circular Economy , Biomass Conversion , and Policy Implementation . Scientific Awards : Excellence in Teaching Award, Polytechnique Montréal (2016) Legros has contributed to over 100 publications, including 60 journal articles, and holds 4 patents related to fluidized bed reactors and bioreactor designs.
Kaj Jakobsson is a University Lecturer in the Department of Chemical and Metallurgical Engineering at Aalto University, specializing in advanced chemical process engineering and separation technologies. His academic profile is anchored in rigorous computational modeling and experimental validation of complex industrial systems. His research spans Chemical Engineering, Process Modeling, Distillation, Reactive Crystallization, Thermodynamics, and Separation Processes. He pioneers innovations in micro-distillation column design, dividing wall configurations, and reactive precipitation systems, with emphasis on energy efficiency and process intensification. His work bridges theoretical modeling with practical implementation in equipment design and control strategies for sustainable chemical production. Publication analysis (2007-2018) reveals a cohesive trajectory in separation science: early work focused on data reconciliation in sulfur-laden distillation streams (2007), evolving to micro-distillation hardware development (2009-2013), then advancing to ionic liquid recycling (2016) and dividing wall column optimization (2018). Core themes include thermodynamic integration in flowsheet simulators, crystallization kinetics in multiphase systems, and sustainability-driven process redesign. Scientific Awards: None documented in source materials. Advising and Grants: No student supervision records or funded projects identified in available documentation. Research appears conducted through institutional frameworks with frequent collaboration among Aalto University's chemical engineering cohort.
Thijs van Druenen is a researcher and Assistant Professor in Building Physics at Eindhoven University of Technology (TU/e). His research combines experimental and computational approaches to study urban wind flows, sports aerodynamics, and building ventilation. He holds an MSc in Building Physics from TU/e and is completing his PhD on aerodynamic optimization in cycling. Research interests include: Pedestrian-level wind comfort in urban environments Aerodynamic performance optimization in cycling Wind tunnel testing and CFD validation Building ventilation systems Heat transfer and pressure drop in 3D-printed structures Recent publications demonstrate innovative applications of CFD in sports engineering, particularly cycling aerodynamics and drafting strategies. His work integrates wind tunnel experiments with computational models to optimize athlete performance and urban airflow. Dr. van Druenen manages TU/e's atmospheric boundary layer wind tunnel facility and contributes to projects including NudgeFlow (residential ventilation) and ERIES (European research infrastructure). He received the ANSYS Hall of Fame award in 2019 for outstanding CFD research.
Johan Rockberg is a Professor at KTH Royal Institute of Technology, specializing in antibody technology and targeted evolution. His research focuses on optimizing the production of synthetic viruses for gene therapy, particularly addressing challenges such as cost reduction and efficiency enhancement in recombinant adeno-associated virus (AAV) generation. He employs advanced techniques like omics methods, CRISPR-Cas9 gene editing, and protein engineering to study cellular responses during viral production and improve therapeutic delivery systems. His work integrates systems biology and bioprocessing to understand cellular demands for protein secretion and engineer cells for better performance. Recent studies emphasize modular platforms for targeted DNA delivery, automation in AAV production, and precision immunotherapy via bispecific antibodies and ADAC™ technology. These efforts aim to develop affordable treatments for conditions like blindness and paralysis, leveraging genetic improvements and molecular engineering. In 2025, his research highlighted advancements in AAV production kinetics and T-cell response optimization. In 2024, contributions included bispecific CD40 antibodies for cancer therapy and novel cell display systems for epitope mapping. His 2023 studies further explored CHO cell engineering and stroma-targeted immune activation. No scientific awards or formal grants are explicitly mentioned in the provided texts. While no specific lab or team affiliations are detailed, his work is collaborative, involving interdisciplinary approaches across virology, immunology, and biotechnology. His research narrative emphasizes bridging fundamental biology with translational applications to address critical bottlenecks in biologics production and delivery.
Dr. Matthew O'Brien is a Senior Lecturer in Organic Chemistry at Keele University's Lennard-Jones School of Chemical and Physical Sciences. Previously held positions include a Kinerton Lecturer role at Trinity College Dublin (2009-2012), Post-Doctoral research at Cambridge University, and a PhD at the University of Manchester under Professor Jim Thomas. Research Interests Development of novel stereoselective synthetic methodologies Total synthesis of biologically active natural products Enabling technologies for automated chemical synthesis Continuous-flow chemistry systems Innovations in Teflon AF-2400 membrane reactors The 15 most recent publications demonstrate expertise in: Flow reactor design for gas-liquid transformations Computer vision-controlled synthesis systems Cost-effective automation solutions (Raspberry Pi, DIY hardware) Pharmaceutical intermediate preparation Green chemistry methodologies Environmental sensor development Teaching Responsibilities CHE20001: Organic Synthesis and Catalysis CHE20012: Drugs of Abuse CHE20029: Radicals, Phases and Supramolecular Chemistry (Module Leader) CHE30039: Advanced Organic Chemistry (Module Leader) Forensic Toxicology and Dissertation modules
João Manuel Rainha Costa is a postdoctoral Researcher at the Center for Biological Engineering, University of Minho, specializing in synthetic biology and industrial biotechnology. He earned his PhD in Chemical and Biological Engineering (2024) and MSc in Biotechnology (2017) from the University of Minho, focusing on microbial synthesis of valuable compounds. PhD in Chemical and Biological Engineering (2024) MSc in Biotechnology (2017) BSc in Biochemistry (2015) His research focuses on constructing heterologous pathways in Saccharomyces cerevisiae and Zymomonas mobilis for sustainable production of curcumin, fructooligosaccharides, and biosurfactants using synthetic biology techniques like CRISPR-Cas9 and metabolic engineering. He specializes in bioprocess optimization and valorization of industrial/agricultural residues. Recent publications show strong focus on 2025 Zymomonas mobilis gene deletion strategies for prebiotic production , 2024 yeast curcumin biosynthesis advancements, and 2022-2023 multi-enzyme systems for functional sweeteners and bioactive mixtures . His work spans from metabolic pathway design to industrial application in textile and food sectors. Scientific Awards PRR Bolseiro de Investigação (BE@T project) SFRH/BD/138325/2018 PhD grant (FCT) POCI-01-0145-FEDER-029549 Research Grant He supervises students in synthetic biology projects and industrial biotechnology applications. Additional roles include science communication training , conference organization , and peer review for journals like International Journal of Molecular Sciences and Biotechnology Journal.
Christof Hamel is Professor and Head of the Department of Chemical Process Engineering at Anhalt University of Applied Sciences since 2022, with additional roles as Private Lecturer at Otto von Guericke University of Magdeburg (OvGU) and Deputy Director of the ILBQ (Institute for Food Technology, Biotechnology and Quality Assurance eV) Köthen. He serves as Vice Dean and member of the Senate Research Commission at Anhalt University. His academic qualifications: Diploma in Process Engineering, OvGU (2002, passed with distinction) Doctorate in Process Engineering, OvGU (2008, summa cum laude) Habilitation in Chemical Process Engineering, OvGU (2015) Prof. Hamel's research centers on multiphase reaction engineering with emphasis on catalytic kinetics across homogeneous, heterogeneous, and enzymatic systems. His work drives process intensification through integrated reactor design and sustainable chemical processes using renewable resources, following the strategic framework of "Reaction → Reactor → Process". He employs mechanistic kinetic modeling, operando spectroscopy, and dynamic reactor methodologies to optimize industrial reaction systems. Notable awards include: VDI Saxony-Anhalt Award for best diploma thesis (2003) OvGU Faculty Prize for best graduate (2002/2003) OvGU Faculty Prize for best dissertation (2008) National Winner "Trophelia" (2015) Multiple poster prizes (2014-present) He has secured extensive research funding including DFG projects HA 6762/1-1 through HA 6762/5-1 on cyclic distributor reactor control (2016-2027), BMBF initiatives on enzymatic prebiotic synthesis (2018-2024), and green chemical production projects (2023-2027). His grant portfolio spans catalytic reaction engineering, CO 2 reduction, and modular reactor systems for sustainable chemistry. Prof. Hamel's research group operates within the Chair of Chemical Process Engineering, maintaining strong industrial collaborations across Central Germany while developing advanced tools for kinetic analysis and reactor design in multiphase systems.
