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Prof. Dr. Gonzalo Guillén Gosálbez is a Full Professor at the Department of Chemistry and Applied Biosciences , ETH Zürich. He holds a PhD in Process Systems Engineering (UPC, 2005) and has held academic positions at Imperial College London (Reader), University of Manchester (Senior Lecturer), and Universitat Rovira i Virgili (Assistant/Associate Professor). His research focuses on Sustainable Chemical Processes , integrating life cycle assessment, optimization techniques, and planetary boundary analysis to evaluate and design low-carbon technologies. Current position: Full Professor, ETH Zürich (2019–present) Prior roles: Imperial College London (2016–2019), University of Manchester (2014–2016), URV Spain (2008–2014) Education: PhD (UPC, 2005), MEng/BEng (University of Murcia) His research explores CO2 valorization , green methanol synthesis , circular marine fuels , and planetary boundary compliance in energy and chemical systems. Recent work emphasizes machine learning for process modeling, single-atom catalysis , and decentralized ammonia production . Scientific contributions include 15+ peer-reviewed articles (2023–2025) in journals like Nature Chemical Engineering , ACS Sustainable Chemistry & Engineering , and Energy & Environmental Science . Key themes: Optimization of hybrid fossil/renewable carbon systems Environmental impacts of energy transitions Catalyst design for sustainable chemistry Life cycle assessment of emerging technologies Awarded UPC Top Doctoral Student Award and Top National Student Award , he combines process systems engineering with sustainability metrics to address global challenges in chemical and energy systems.

• Process Systems Engineering
• Sustainable Chemistry
• Environmental Impact Assessment
• +7 more

Prof. Dr. Stefanie Hellweg serves as a Full Professor for Ecological Systems Design at the ETH Zürich , Department of Civil, Environmental and Geomatic Engineering. She is Deputy Head of the Institute of Environmental Engineering and leads groundbreaking research at the intersection of industrial ecology, life cycle assessment, and circular economy systems. PhD in Environmental Engineering (ETH Zürich, 2000) Industrial Engineering Degree (Karlsruhe University, 1996) Her research develops advanced methodologies for environmental impact assessment of products and technologies, focusing on: Life Cycle Assessment (LCA) with correlated uncertainty modeling Circular economy implementation in chemical and energy sectors Industrial symbiosis optimization for heat and nutrient flows Urban wastewater systems redesign for resource recovery Chemical pollution analysis in plastic materials Key publication trends reveal expertise in: Hybrid wastewater treatment systems Energy-efficient greenhouse cultivation Exergy analysis for sustainability metrics Machine learning applications in environmental modeling Policy-relevant industrial ecology studies She actively participates in global sustainability initiatives as: President of the International Society of Industrial Ecology (ISIE) Member of UN Environment's International Resource Panel Editorial board member for leading environmental journals

• Environmental Impact Assessment
• Life Cycle Assessment (LCA)
• Industrial Ecology
• +4 more

André Bardow is a Full Professor at the Department of Mechanical and Process Engineering, ETH Zürich. His research focuses on energy systems optimization, life cycle assessment, computer-aided molecular design, and CO2 capture/utilization. Professor (ETH Zürich, 2020–present) Head of Institute of Technical Thermodynamics (RWTH Aachen University, 2010–2020) Visiting Professor (University of California, Santa Barbara, 2015/16) Part-time Director (Forschungszentrum Jülich, 2017–2022) Associate Professor (TU Delft, 2007–2010) Research Interests: His work spans energy and process systems engineering, with emphasis on sustainable technologies. Key areas include: Computer-aided molecular and process design Machine learning for chemical engineering Carbon capture and utilization (CCU) Life cycle assessment (LCA) of industrial processes Thermo-economic modeling of energy systems Multiphase equilibrium analysis Publication Trends: Recent articles focus on integrating machine learning with process design, optimizing CO2 capture in steel production, and advancing electrochemical cooling technologies. Subfields include sustainable plastics, ORC working fluids, and solvent mixture design. Scientific Awards: Fellow of the Royal Chemical Society Recent Innovative Contribution Award (EFCE, 2019) PSE Model-Based Innovation Prize (2018) Covestro Science Award (first recipient) Arnold-Eucken-Award (VDI-GVC) Highly Cited Researcher (Clarivate, 2024) Advising and Grants: Professor Bardow mentors students in process optimization and leads projects like Systemic expansion of territorial CIRCULAR Ecosystems for end-of-life FOAM (Grant 101036854, EC).

• Energy systems optimization
• Conceptual process design
• Life cycle assessment
• +7 more

Meire Ellen Gorete Ribeiro Domingos is a Lecturer and Postdoctoral Researcher at École Polytechnique Fédérale de Lausanne (EPFL), affiliated with the School of Engineering (STI) and Industrial Process and Energy Systems Engineering (IPESE) department. She works on process modeling, techno-economic and environmental analyses, and optimization of energy conversion systems, particularly in biorefineries, hydrogen production, and industrial decarbonization. Education PhD in Chemical Engineering, Polytechnic School of the University of Sao Paulo (2022) BSc in Chemical Engineering, University of Brasilia (2017) Research Interests Exergy and energy integration of chemical/industrial processes Modeling and optimization of energy systems Decarbonization via renewable energy integration Techno-economic and environmental analysis of industrial processes High-temperature heat pumps and carbon capture Multi-time scale optimization for industrial-urban systems Publication Trends Focus on decarbonization pathways (2023-2025) Black liquor gasification for integrated chemical/fuel production (2019-2022) Renewable energy and solid oxide cells for industrial-urban symbiosis (2024-2025) Development of decision-support tools like ROSMose (2023-2024) Life cycle assessment and CO2 management strategies Thermal integration and process simulation for sustainability Laboratory & Teams Industrial Process and Energy Systems Engineering (IPESE), EPFL Valais Wallis SCI-STI-FM and SCI-STI-JVH research groups EPFL School of Engineering (STI)

• Biorefineries
• Fertilizers Complexes
• Hydrogen and Synthetic Fuels
• +5 more

Sarah Kirkpatrick is a Professor at the Australian National University (ANU) in the Fenner School of Environment and Society . She is Deputy Director of Communications and Outreach for the ARC Centre of Excellence for 21st Century Weather , Chief Investigator at the ARC Centre of Excellence for Climate Extremes , and Vice President of the Australian Meteorological and Oceanographic Society . Education : BSc (Macquarie University) PhD (UNSW Sydney, 2010) Research Interests : Climate extremes, particularly heatwaves Extreme event attribution (natural vs anthropogenic drivers) Climate modeling and CMIP simulations Urban environment impacts on heatwaves Marine heatwaves and oceanic climate change Research Trends : Recent publications focus on heatwave mortality attribution (2009 Victorian heatwave), humid heat survivability thresholds, net-zero climate impacts, and interdisciplinary work with health experts. Her work integrates climate modeling with physiological vulnerability assessments to analyze age-group specific risks. Scientific Awards : 2021-2023 : Clarivate Highly Cited Researcher 2021 : Australian Academy of Science Dorothy Hill Medal 2016 : Australian Meteorological and Oceanographic Society Early Career Researcher Award Grants & Leadership : Current ANU Futures Scheme 2.0 project (2024-2028) Previously held ARC Discovery Early Career Researcher Award (2014-2017) and Future Fellowship (2017-2023) Scientific partner at the Monash Climate Change Communications Research Hub Outreach & Collaboration : A prominent science communicator in media, she collaborates with health experts, leads climate communication projects, and works with international research teams across 7+ institutions.

• Climate Science
• Heatwaves
• Extreme Event Attribution
• +3 more

Jan Carmeliet is a Full Professor at the Department of Mechanical and Process Engineering at ETH Zürich , holding the Chair of Building Physics since 2008. He previously held academic positions at Katholieke Universiteit Leuven and Eindhoven University of Technology . His research focuses on multiscale modeling of porous and granular materials , urban heat-air-moisture flows , and energy-efficient urban systems . His work integrates advanced computational techniques (e.g., lattice Boltzmann methods , CFD , FEM ) with experimental approaches ( X-ray tomography , wind tunnel PIV ). He leads major projects such as the RePoDH and Urban Multiscale Energy Modelling initiatives, aiming to decarbonize urban energy systems and understand local heat islands. Current projects emphasize renewable-powered district heating networks and urban climate modeling . Key collaborations include institutions like Empa , University of Illinois , and Los Alamos National Laboratory . He has secured significant grants from the Swiss National Science Foundation (SNSF) and ETH Domain , focusing on urban energy resilience and material science. His leadership roles include directing the Energy Science Center ETH Zürich and coordinating the SCCER-efficiency program.

• Multiscale behaviour of porous and granular materials
• Heat-air-moisture flow in urban environments
• Energy systems at building and urban scale
• +4 more

Dr. Emiliano Casati is a Lecturer at the Department of Energy and Process Systems Engineering within the College of Mechanical and Process Engineering at ETH Zürich. His work focuses on sustainable energy engineering, particularly in decarbonizing high-temperature industrial processes and advancing solar thermal technologies. Research Interests: Sustainable energy engineering Decarbonization of heat Solarization of high-temperature industrial processes Thermal energy storage Conceptualization and prototyping of novel energy concepts Measurement of thermodynamic properties Publications Trends: Dr. Casati's recent research spans solar thermal systems (e.g., organic Rankine cycles, thermal trapping), computational tools for heat transfer simulation (FIVER), experimental thermodynamics, and industrial decarbonization. His work bridges historical analysis with cutting-edge technical innovation. Collaborations: He collaborates with leading experts like André Bardow (ETH Zürich) and Aldo Steinfeld (emeritus, ETH Zürich), contributing to multidisciplinary projects in renewable energy and process engineering.

• Sustainable energy engineering
• Decarbonization of heat
• Solarization of high-temperature industrial processes
• +3 more

Stephan Pfister is a Professor at ETH Zurich in the Department of of Civil, Environmental and Geomatic Engineering, where he leads research in the Ecological Systems Design group. His office is located at HIF D 85.2, Laura-Hezner-Weg 7, 8093 Zürich, Switzerland. Professor Pfister teaches multiple courses including Introduction into Environmental Engineering, Advanced Environmental Assessments, and Computer Laboratory courses for the Autumn Semester 2025. Dr. Pfister received his PhD from ETH Zurich in 2011 with a dissertation on 'Environmental evaluation of freshwater consumption within the framework of life cycle assessment.' Following his doctoral studies, he completed a one-year post-doctoral position at UC Santa Barbara in 2011. His academic journey has resulted in over 100 original research publications spanning more than a decade of scholarly contributions. Professor Pfister's research is highly interdisciplinary, focusing on methodological advancements in the impact assessment of water consumption, land use, and biodiversity loss within Life Cycle Assessment (LCA) and Multi-Regional Input-Output Analysis (MRIO). His work spans multiple sectors including agriculture and forestry, material extraction and processing, and power production. He has notably advanced water footprint concepts, including future scenario analyses and assessment of international trade implications. His research integrates environmental science with practical applications for sustainable resource management, addressing critical global challenges related to freshwater scarcity and ecosystem preservation. Analysis of Professor Pfister's recent publication record (2024-2025) reveals a strong trend toward integrated environmental assessment methodologies, particularly at the intersection of water resources, climate change, and sustainable systems design. His work increasingly addresses complex supply chain analyses, with growing emphasis on policy-relevant applications in sustainable food systems, urban mobility, and resource extraction. The methodological focus remains firmly rooted in Life Cycle Assessment while expanding into complementary frameworks like Water Footprint Assessment, demonstrating his leadership in advancing environmental assessment science. Professor Pfister's research has been supported by various funding mechanisms including the Swiss National Science Foundation (SNF) project 'Minimizing Energy Input, Exergy Loss and Environmental Impacts of Greenhouse Systems in Iran and Switzerland Exploiting Industrial Symbiosis Opportunities' (Grant No. 192875). His interdisciplinary approach has fostered collaborations across multiple institutions and research groups, contributing to the advancement of environmental assessment methodologies globally. The Ecological Systems Design group at ETH Zurich, led by Professor Pfister, serves as a hub for innovative research at the intersection of environmental science, engineering, and policy. The group maintains strong connections with international research networks focused on sustainability assessment, contributing to methodological standardization efforts and practical applications of environmental assessment tools in industry and policy contexts.

• Life Cycle Assessment
• Water Footprint Analysis
• Environmental Impact Assessment
• +5 more

Prof. Giovanni Sansavini is an Associate Professor in the Department of Mechanical and Process Engineering at ETH Zürich. His research focuses on energy systems resilience, renewable energy integration, and sustainable infrastructure design. He leads projects related to grid optimization, energy policy, and risk engineering, with a particular emphasis on decarbonization strategies for Switzerland and Europe. His work bridges theoretical modeling and practical implementation, addressing challenges such as power transmission equity, distributed energy resource management, and hydrogen storage integration. Recent projects include developing data-driven frameworks for grid reliability assessment and analyzing the socio-technical impacts of energy transitions. Prof. Sansavini collaborates with industry and policymakers to ensure research informs actionable solutions. His publications highlight interdisciplinary approaches to energy system design, emphasizing the trilemma of affordability, sustainability, and security.

• Renewable Energy Systems
• Energy Infrastructure Resilience
• Power Systems Optimization
• +3 more

Stefan Mennel holds the position of Lecturer at the Department of Building Services Engineering, Lucerne School of Engineering and Architecture (HSLU T&A), where he has been since 2016. He is affiliated with the Institute of Building Technology and Energy (IGE) and pursues research on low-temperature networks, district heating systems, and energy hubs. Previously, he worked as a Project Manager at Todt Gmür + Partner AG, Business Unit Manager at aardeplan AG, and R&D Engineer at ZIG and CCTP. Education includes a Master's in Renewable Energy Systems (2022, University of Strathclyde), dual engineering degrees (HVAC and Heating/Sanitary Engineering), and studies in history, mathematics, and philosophy at the University of Basel. His teaching focuses on thermodynamics, heat pump technology, and energy systems design. Research highlights include the LANTERN project (Living Labs for Energy Transition), DeCarbCH (decarbonizing heating/cooling), and SCCER-FEEB&D (Future Energy Efficient Buildings). He holds a patent for a self-acting three-way valve in district heating systems (2018). Active in professional organizations, he chairs SIA 380/1 (heating demand) and participates in multiple SIA commissions on energy efficiency and embodied energy. Key projects include energy concepts for Herisau, Brig-Glis heating supply, and thermal energy storage analysis. His work emphasizes integrating renewable energy into thermal networks and optimizing system hydraulics for efficiency.

• Thermal Energy Systems
• District Heating Networks
• Renewable Energy Systems
• +3 more

Mirko Bothien is a Senior Lecturer and Head of Research/Focus Area Renewable Energy at the Institute of Energy Systems and Fluid Engineering (IEFE) within the Zurich University of Applied Sciences (ZHAW) School of Engineering. He also holds an Associate Professor position at the Department of Energy and Process Engineering at the Norwegian University of Science and Technology (NTNU) in Trondheim. Previously, he was a Rudolf Diesel Industry Fellow at the Institute for Advanced Study at TU München from 2018 to 2022. His work focuses on renewable energy systems with particular emphasis on hydrogen technologies and gas turbine applications. Dr. Bothien earned his Dr.-Ing. in Thermoacoustics and Combustion from the Institute of Fluid Mechanics and Acoustics at TU Berlin (2005-2008) and his Dipl.-Ing. in Turbo-machinery and Jet Propulsion from RWTH Aachen (2001-2005). In 2023, he completed a Certificate of Advanced Studies in Teaching and Learning in Higher Education from PH Zürich, enhancing his pedagogical expertise. Dr. Bothien's research spans thermoacoustics, combustion dynamics, gas turbine technology, hydrogen energy systems, and alternative fuels. He leads numerous projects investigating hydrogen combustion in gas turbines, ammonia-hydrogen co-firing, and advanced combustion systems for carbon-free power generation. His work addresses critical challenges in decarbonizing power systems through innovative combustion technologies that maintain high efficiency while reducing emissions. His research integrates experimental, numerical, and theoretical approaches to understand complex combustion phenomena, particularly focusing on thermoacoustic instabilities in reheat combustors and novel flame stabilization mechanisms. He teaches Thermodynamics, Heat Transfer, and Wind Power and Hydropower courses. Analysis of Dr. Bothien's recent publications reveals a strong focus on hydrogen and ammonia combustion technologies for gas turbines, with particular attention to thermoacoustic stability, flame dynamics, and emissions characteristics. His work demonstrates increasing emphasis on carbon-free energy carriers and their integration into existing power generation infrastructure. The research spans fundamental combustion science to applied engineering solutions, with a clear trajectory toward enabling hydrogen-based power systems. Dr. Bothien actively leads multiple research projects including HyPowerGT (demonstrating hydrogen-powered gas turbines), FLEX4H2 (hydrogen flexibility), AETHER (hydrogen burner development), and ADONIS (ammonia-hydrogen combustion in micro gas turbines). These projects involve collaboration with industry partners and research institutions across Europe, securing significant research funding for advancing renewable energy technologies. As Head of Research at IEFE, Dr. Bothien oversees a research team focused on renewable energy systems, with particular expertise in thermoacoustic analysis, combustion dynamics, and hydrogen technologies. The team operates advanced experimental facilities for combustion research and maintains strong industry partnerships to translate research findings into practical applications for the energy sector.

• Thermoacoustics
• Combustion
• Gas Turbines
• +7 more

Prof. Jörg Worlitschek is Head of the Institute of Mechanical Engineering and Energy Technology (IME) and Professor at the Lucerne School of Engineering and Architecture, part of Lucerne University of Applied Sciences & Arts. He holds a PhD in Thermal Process Engineering from ETH Zurich and has extensive industry experience, including roles at Mettler Toledo. His research focuses on thermal energy storage (TES), crystallization processes, and sustainable energy systems. Education: Studies in Chemical Engineering at University of Erlangen M.Sc. in Energy and Process Engineering from Technical University of Berlin PhD in Thermal Process Engineering from ETH Zurich (2003) Research Interests: Thermal Energy Storage (TES) systems for buildings and grids Phase Change Materials (PCMs) for latent heat storage Integration of solar and PV systems with TES Decarbonization of heating systems Process optimization in crystallization and heat transfer Achievements & Projects: Founder of the Competence Center Thermal Energy Storage (CC TES) Co-founder of SpinOff Cowa (compact energy storage solutions) Key contributor to projects like SWEET PATHFNDR and SwissSTES Over 150 peer-reviewed publications and 6 patents Awards: Recipient of the Best Paper Award at the 2015 Greenstock Conference for contributions to energy storage research. Labs/Teams: Leads the IME Institute and collaborates with SCCER Heat & Electricity Storage and international networks like IEA Annex 35.

• Thermal Energy Storage
• Process Engineering
• Environmental Engineering
• +6 more

Professor Ludger Josef Fischer is a faculty member at the Lucerne University of Applied Sciences and Arts (HSLU) in the School of Engineering & Architecture. He serves as Co-Head of the Competence Center for Thermal Energy Storage (CCTES) within the Institute of Mechanical and Energy Engineering (IME). Additionally, he is a guest lecturer at the University of the Arts in London (UAL) and ZHAW, Wädenswil for cosmetic manufacturing technologies, and has been an affiliated researcher at MIT since 2019. Dr. Fischer graduated in Mechanical and Process Engineering at RWTH Aachen and completed his PhD at Karlsruhe Institute of Technology (KIT). Before joining academia in 2013, he held significant industrial positions including head of R&D and sales at Kühni AG, managing director of Ekato Unimix, and various leadership roles within the AC Serendip group across Switzerland, Germany, and China. His primary research focuses on thermal energy storage, particularly Phase Change Materials (PCM) and Phase Change Dispersions (PCD). He investigates applications of these technologies in seasonal thermal storage, building applications, and industrial processes. His work spans fundamental research on material properties to applied engineering solutions. Additionally, he has significant expertise in mixing, dispersing, and emulsification technologies, with applications in the cosmetic industry and interface thermodynamics. His teaching portfolio includes Fluid Mechanics and Thermodynamics courses, Environmental Technology, Process Engineering, and specialized courses on Cosmetic Manufacturing Technologies. Professor Fischer's recent publications demonstrate a strong focus on thermal energy storage systems, particularly examining phase change materials and their applications. His work spans from fundamental material characterization to practical implementation in energy systems. There's a clear emphasis on decarbonization of energy infrastructure through innovative storage solutions, with significant contributions to both seasonal storage systems and industrial applications. Appointed Member of ProcessNet committee Heat and Mass Transfer Co-author of VDI Wärmeatlas Program Manager of Innovation Booster 'Energy Lab' funding 52 startups with approximately 2.1 MCHF As Program Manager of the Innovation Booster 'Energy Lab,' Professor Fischer has successfully guided numerous startups in the energy sector. His industrial experience translates directly into practical research and teaching, with numerous patents filed and granted under his guidance. His leadership extends to multiple significant research projects including SWEET PATHFNDR, SWEET LANTERN CCTES, and SCCER Storage initiatives. Professor Fischer co-leads the Competence Center for Thermal Energy Storage (CCTES) and is actively involved in the Swiss competence center for future energy efficient building & districts as Deputy Head. His research team conducts cutting-edge work on thermal energy storage systems, with particular focus on Phase Change Materials applications, seasonal storage solutions, and industrial process integration. The center maintains strong industry partnerships and collaborates with international institutions including MIT.

• Thermal Energy Storage
• Phase Change Materials
• Process Engineering
• +4 more

Beat Wellig is a Professor of Thermodynamics, Process Engineering, and Environmental Technology at the Lucerne School of Engineering and Architecture (HSLU T&A). He holds a PhD from ETH Zurich in High-Pressure Process Engineering and has extensive academic and industry experience. His research focuses on thermal separation processes, environmental technology, process integration (including Pinch Analysis), heat pumps, and cooling systems. Wellig has led over 30 projects, including work on carbon capture, solar integration, and energy-efficient industrial processes. He has authored approximately 70 scientific publications and holds a patent for thermal networking of household appliances. His contributions span academia, industry collaboration, and applied research in energy systems. Key projects include the SWEET DeCarbCH initiative for industrial decarbonization and the PinCH software development for process analysis. His work emphasizes energy efficiency, sustainable industrial processes, and innovative thermal technologies.

• Thermal Separation Processes
• Environmental Technology
• Process Integration
• +3 more

Dr. Daniel Sutter is a Lecturer at the Department of Mechanical and Process Engineering at ETH Zürich. His research focuses on sustainable energy technologies, including CO2 capture processes, hydrogen economy pathways, and waste-to-value innovations. He leads projects such as optimizing the Chilled Ammonia Process for post-combustion CO2 capture and exploring bioplastic production from soy waste. His work bridges chemical engineering, environmental science, and industrial applications. Research interests span CO2 capture systems (e.g., ammonia-based solvents), renewable energy integration (hydrogen infrastructure), and sustainable materials (bioplastics from food waste). His publications highlight interdisciplinary approaches to decarbonization, with notable contributions in Biomacromolecules , Energy & Environmental Science , and Separation and Purification Technology . Publications emphasize advancing low-carbon technologies, such as net-negative CO2 systems combining geothermal energy and direct air capture. His work also evaluates synthetic fuels and cement production decarbonization, demonstrating a focus on real-world industrial applications. No scientific awards explicitly mentioned. Advising and grants remain unspecified in provided texts. Projects involve collaborations with institutions like the Department of Health Sciences and Technology for bioplastic research, reflecting interdisciplinary team engagement.

• CO2 Capture Technologies
• Renewable Energy Systems
• Environmental Engineering
• +5 more