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Falah Alobaid is a Full Professor (Tenured) at LUT School of Energy Systems, LUT University, specializing in energy systems engineering. He holds a Ph.D. from the Technical University of Darmstadt (2013), recognized with the university's Energy Special Prize (2014), and completed habilitation in Energy Systems (2018) with the title of Privatdozent (2019). His research focuses on power plant technologies, including combustion, gasification, and CO₂ capture, with expertise in modeling, simulation, and pilot-scale experimentation. Education: Ph.D. (Energy Systems), Technical University of Darmstadt, Germany (2013) Habilitation (Energy Systems), Technical University of Darmstadt, Germany (2018) Research interests emphasize sustainable energy solutions: Fluidized bed combustion and gasification CO₂ capture and storage technologies Renewable energy integration Process simulation and dynamic modeling of power systems Thermal energy storage systems His work bridges experimental and computational approaches, with contributions to EU projects such as SCARLET and OptiMaDyn. Publications reflect advancements in fluidized bed systems, CFD-DEM modeling, and operational flexibility of thermal power plants. Recent trends include integrating artificial intelligence for process optimization and exploring novel materials for carbon capture. Awards include the Energy Special Prize (2014) and recognition for his habilitation work. He leads the Institute of Energy Systems and Technology research group, focusing on bioenergy, waste-to-energy systems, and low-carbon technologies. Grants and collaborations span EU-funded initiatives and national projects. Advising focuses on graduate students in energy systems, though no specific names are listed. Laboratory work includes managing the Institute of Energy Systems and Technology, where experimental setups for fluidized beds and solar thermal systems are developed. Future research targets net-negative CO₂ emissions via chemical looping gasification and enhanced renewable energy storage.

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

Lasse Heikkinen is a Senior Lecturer at the Department of Technical Physics, Faculty of Science, Forestry and Technology, University of Eastern Finland. His work spans applied physics, process tomography, and educational technology, with a focus on innovative teaching methods like flipped classrooms during the pandemic. Current Role: Deputy Head of Department, Senior University Lecturer Research Themes: Electrical impedance tomography for industrial processes, flipped teaching frameworks, and physics education adaptation to remote learning. Recent publications highlight his dual expertise in process tomography (gas-solid flows, pharmaceutical monitoring) and pedagogical innovation (learning analytics, flipped classrooms). He has contributed to educational manuals and toolkits for teacher training. Key Projects: Technology education infrastructure development (2015–2024), pandemic-era teaching adjustments (2022). Collaborations: Active in international process tomography conferences and multidisciplinary teams like the Ameba project.

• Physics
• Applied Physics
• Process Tomography
• +5 more

Pekka Peljo is an Associate Professor at Aalto University's Department of Chemistry and Materials Science, leading the Physical Electrochemistry and Electrochemical Physics (PhysElectrochemPhys) research group since September 2018. His work focuses on charge transfer mechanisms at solid-liquid interfaces and within solid materials, with a strong emphasis on developing advanced batteries for large-scale energy storage. Education: Master's degree in Engineering and Technology from Helsinki University of Technology His research bridges Electrochemistry and Energy Storage , particularly in Redox Flow Batteries and Hydrogen Production via hydrocarbon electrolysis. Current projects include computational modeling of redox potentials, experimental flow battery designs, and scalable synthesis of cellulose nanocrystals for electrochemical applications. Selected trends from his 75+ publications include Electron Transfer at interfaces, Operando Battery Monitoring , and Sustainable Energy solutions. His work aligns with UN Sustainable Development Goals (SDGs) for climate action and affordable clean energy. Scientific contributions are recognized through grants from the Academy of Finland, EU Horizon Europe, and strategic funding for projects like CompBat (2020-2023) and H2fromHE (2024-2028). He has presented at international conferences (e.g., ELCAT, Spain, 2011) and hosted collaborations with institutions like EPFL. As Principal Investigator, Peljo leads projects such as PREDICTOR (2024-2028) for high-throughput screening of battery materials and Bi3BoostFlowBat (2025-2026). His group also investigates Hydrogen Production from natural gas and Vitamin B6-based Electrolytes for aqueous batteries.

• Electrochemistry
• Energy Storage
• Flow Batteries
• +5 more

Anna Lähde is a Professor in Aerosol Technology at the Department of Environmental and Biological Sciences, University of Eastern Finland. She leads the Sustainable Materials Group at the Fine Particle and Aerosol Technology Laboratory . Her work focuses on the synthesis and characterization of sustainable nano- and microparticles for clean energy and environmental applications. Academy of Finland Research Fellow (2017-2022) Specializes in graphene, carbon nanostructures, and metal oxides via aerosol processes Key methods: induction annealing, chemical vapor synthesis, spray pyrolysis Her research spans Li-ion battery materials , water treatment nanocomposites , and toxicological analysis of airborne particles . She has published extensively on carbon-based anode materials , photocatalytic systems , and environmental applications of aerosol technology . Recent work includes CO2 adsorption catalysts and biomass-derived graphene . She has received recognition through the Academy of Finland Fellowship and contributes to circular economy projects like EKOAKKU.

• Aerosol Technology
• Sustainable Materials
• Nanoparticle Synthesis
• +3 more

Jouni Ritvanen is a Full Professor (tenured) at LUT University's School of Energy Systems in Lappeenranta, Finland. His research focuses on gas-solid flow modeling, particularly fluidized bed applications and carbon capture technologies. He has developed a dynamic 1D tool suitable for fluidized bed applications that includes all key phenomena related to flow, reactions, and heat transfer, which has been widely applied to carbon capture and storage processes. His educational background includes: Doctor of Science (Technology) in Energy and Environmental Technology from Lappeenranta University of Technology (2006) Master of Science (Technology) in Energy from Lappeenranta University of Technology (2001) Title of docent in LUT Energy (2016-present) Ritvanen's research interests center around gas-solid flow modeling with particular emphasis on fluidized beds and related applications. His expertise includes developing dynamic modeling tools for fluidized bed applications that incorporate flow, reactions, and heat transfer phenomena. His work has significant applications in carbon capture and storage processes, where his models are used for performance evaluation. He also explores the integration of artificial intelligence techniques in energy systems optimization and has contributed to various aspects of clean energy technologies including chemical looping combustion and sorption-enhanced gasification. His recent publications (2023-2025) demonstrate a continued focus on advancing fluidized bed technologies, particularly in carbon capture applications through calcium looping processes. There's a notable trend toward integrating artificial intelligence methods with traditional engineering approaches, as seen in his work on deep learning-based electricity price forecasting and AI applications for reducing energy costs in carbon capture plants. His research bridges theoretical modeling with practical industrial applications, addressing key challenges in clean energy transition. Professor Ritvanen has served as a peer reviewer for numerous prestigious journals including Chemical Engineering Journal, Energy, Fuel, and Powder Technology, demonstrating his standing in the academic community.

• Gas-Solid Flow Modeling
• Fluidized Bed Reactors
• Carbon Capture and Storage
• +5 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

Payman Jalali is an Associate Professor at the LUT School of Energy Systems, LUT University. His research focuses on fluid dynamics, granular materials, computational fluid dynamics (CFD), heat transfer, and multiphase flows. He has contributed to studies on energy systems, biomaterials, and biomedical engineering applications. His work integrates numerical methods such as the lattice Boltzmann method and discrete element method (DEM) to analyze complex phenomena like granular shock waves, conjugate heat transfer, and fluid-particle interactions. Key research areas include direct air capture systems, granular media failure mechanisms, and turbulence modeling in multiphase flows. His publications span from 2000 to 2025, with recent emphasis on CFD applications in energy systems and biomedical contexts. Notable contributions address challenges in fluid power systems, porous media behavior, and arterial blood flow dynamics. His academic contributions include over 50 peer-reviewed articles, covering topics from granular shear flows to cardiovascular modeling. Collaborative work bridges engineering and biomedical disciplines, reflecting his interdisciplinary approach to solving complex physical and biological systems.

• Fluid Dynamics
• Granular Materials
• Computational Fluid Dynamics (CFD)
• +7 more

Alvaro Lopez Cazalilla is a researcher affiliated with a Finnish academic institution, serving as a supervisor for the Doctoral Programme in Materials Research and Nanosciences. His work focuses on understanding surface physics, materials science, and nanotechnology through advanced computational and experimental methods. He collaborates internationally on projects involving ion beam interactions with materials, plasma-facing components for fusion reactors, and surface nanostructuring. Key research interests include ion irradiation effects on metals (e.g., copper, tungsten), hydrogen embrittlement mechanisms, and the development of novel materials for extreme environments. His studies bridge experimental techniques like molecular dynamics simulations with practical applications in quantum computing and nuclear energy systems. Recent publications highlight advancements in spin-qubit array fabrication, blistering mitigation in copper under hydrogen irradiation, and optimizing tungsten surfaces for reduced sputtering in fusion reactors. Collaborations span institutions such as Southern Methodist University and CERN-affiliated groups, emphasizing interdisciplinary and global research networks. No scientific awards or grants are explicitly mentioned in the provided texts, though his active participation in organizing conferences (e.g., 2017 event) underscores his role as a community leader. No doctoral advisees are listed, but his doctoral supervision role suggests ongoing mentorship within his program.

• Materials Science
• Nanoscience
• Surface Physics
• +4 more

William Wong is a Postdoctoral Researcher and Marie Skłodowska-Curie Fellow in the Department of Applied Physics, with a PhD in Engineering from Australian National University (2018) and a B.Eng (1st Class Honors) in Chemical Engineering from National University of Singapore (2013). His research focuses on Surface Science, Materials Science, and Interfacial Energy, with specializations in superhydrophobic surfaces, liquid repellency, and plastron engineering. He has secured prestigious grants including an Academy of Finland Postdoctoral Fellowship (2022) and an ANU Discovery Translation Fund award (2017). His work intersects with the UN Sustainable Development Goals, particularly in Education/Academic Qualification. Key projects include Enhanced Electrocatalysis via the Plastron Effect (RCF, 2022-2025) and SuperElectro: Super(de)wettability-enhanced Electrocatalysis (EU Horizon Europe, 2022-2025). He explores applications like underwater bubble capture and anti-fingerprint glass. His recent publications analyze super liquid-repellent surfaces, capillary wave dynamics, and droplet contaminants on superamphiphobic coatings. Scientific Awards: Academy of Finland Postdoctoral Fellowship ANU Discovery Translation Fund 2.0 Australian National University Media and Outreach Award Australian National University Research Scholarship Faculty of Engineering High Achievement Award Research Trends: Surface Science (100% focus), Contact Angle Hysteresis (40%), Polysiloxane (40%), Interfacial Energy (37%), Polydimethylsiloxane (33%), Repellency (26%). Media Coverage: Featured in Finnish media (2023) for "magic sand"-enabled anti-stick surface research.

• Surface Science
• Materials Science
• Chemical Engineering
• +6 more

Daniel Lindberg is an Associate Professor in the Department of Chemical and Metallurgical Engineering at Aalto University. His research focuses on metallurgical thermodynamics, slag chemistry, and sustainable metallurgical processes. He leads the Metallurgical Thermodynamics and Modelling research group, addressing challenges in mineral processing, extractive metallurgy, and industrial byproduct utilization. His work emphasizes high-temperature reactions in metallic systems, including phase equilibria modeling, refractory material interactions, and the development of climate-neutral reducing agents. Key research areas include gold solubility in slags, hydrogen-based metal recovery from copper slag, and thermal conductivity of industrial ladle linings. Recent publications (2024–2025) highlight advancements in trace element deportment in nickel matte smelting, antimony vaporization dynamics, and slag-refractory interface reactions. Lindberg’s studies contribute to improving process efficiency, reducing environmental impact, and advancing sustainable metallurgical practices.

• Metallurgical Engineering
• Extractive Metallurgy
• Material Science
• +4 more

Tero Eerikäinen is a University Lecturer in the Department of Bioproducts and Biosystems at Aalto University, School of Chemical Engineering. He has been actively contributing to research and education in biochemical and bioprocess engineering for decades, with a strong foundation in engineering and technology. His educational qualifications include a Doctoral degree (1993), Licentiate degree (1989), and Master's degree (1986), all in Engineering and Technology from Helsinki University of Technology. These form the cornerstone of his academic expertise. His research interests center around bioprocess engineering, particularly focusing on fermentation technologies, metabolic flux analysis, hydrodynamics of bioreactors, oxygen transfer, and crystallization processes. He investigates complex systems such as Clostridium acetobutylicum under stressed conditions and develops innovative reactor designs like airlift bioreactors with helical flow promoters to enhance performance. The analysis of his 15 most recent publications reveals a consistent trend in advancing sustainable bioprocesses, especially in biofuel (ABE) production, metabolic modeling, and process intensification. His work bridges fundamental hydrodynamics with applied biochemical engineering, aiming to improve efficiency and yield in industrial biotechnology. He has been recognized for his excellence in teaching, receiving the Vuoden 2003 Opettaja- ja Oppikirja-palkinto (Teacher and Textbook Prize) from Helsinki University of Technology. This award highlights his contribution to academic education. Eerikäinen has secured competitive funding through projects such as Fermatra (2016–2019) and POTRA (2000–2002), both funded by Business Finland, indicating strong grant acquisition skills. He has supervised at least one thesis and has been involved in doctoral thesis committees, reflecting his role in academic mentoring. His collaborative network includes institutions like Leiden University, where he served as a visiting researcher in 2019, and active participation in international symposia such as the BioProScale Symposium. His research group focuses on reactor design, metabolic modeling, and fermentation optimization, forming a multidisciplinary team addressing key challenges in bioprocessing.

• Bioprocess Engineering
• Metabolic Flux Analysis
• Fermentation Technology
• +7 more

Frank Pettersson is a Senior Lecturer at the Faculty of Natural Sciences and Engineering, Department of Process and Systems Engineering, Åbo Akademi University. His research aligns with UN Sustainable Development Goals (SDGs), focusing on sustainable energy systems and industrial process optimization through mathematical modeling. Expertise Areas: Mathematical Optimization, Hydrogen-Based Steelmaking, Biogas Digestate Recycling, Energy Storage Systems, Gas Distribution Networks, Blast Furnace Efficiency His recent work analyzes hydrogen transition in steel plants, water scarcity in power sectors, and nutrient recycling in biogas systems. Key methodologies include Mixed-Integer Linear Programming (MILP) and systems engineering approaches. Academic supervision spans Energy Technology diploma theses (2013–2017) and ongoing Master’s student mentorship (2025). While no specific scientific awards are listed, his publications demonstrate impact in sustainable industrial solutions and energy systems.

• Sustainable Energy Systems
• Mathematical Optimization
• Industrial Process Engineering
• +3 more