Amos H. C. Ng is a Professor at the School of Engineering Science, University of Skövde, specializing in simulation-based optimization and Industry 4.0 technologies. His research bridges production engineering with human-robot collaboration, ergonomics evaluation, and cloud-based cyber-physical systems for manufacturing efficiency. Key Affiliations: University of Skövde (School of Engineering Science), Uppsala University (Industrial Engineering and Management) Research Themes: Multi-objective optimization, Digital Twin frameworks, Human-centric production systems, Reconfigurable manufacturing, Throughput bottleneck analysis Projects: ACCURATE 4.0 (Knowledge Foundation), VF-KDO (Virtual Factories with Knowledge-Driven Optimization), EWASS (Wire Harness Assembly Optimization) His recent publications demonstrate expertise in applying evolutionary algorithms, machine learning models, and digital human modeling tools to solve complex manufacturing problems ranging from crankshaft machining to wood supply chain robustness. Current work integrates motion capture technology with DHM tools for objective ergonomic assessments in assembly stations. Amos collaborates extensively with industrial partners like Volvo Penta and academic institutions, utilizing simulation-based approaches to enhance decision-making in production systems. His methodological focus includes non-dominated sorting genetic algorithms, surrogate modeling, and parallel computing architectures for optimization tasks.
Juha Fiskari is a Professor at the Department of Engineering, Mathematics and Subject Didactics (IMD) at Mid Sweden University . His work focuses on chemical engineering and environmental technology, particularly in the forest bioeconomy and pulp & paper processes. He is based in Sundsvall, Sweden, and his email is juha.fiskari@miun.se. Research Interests include: Kraft lignin valorization and sustainability Deep eutectic solvent applications Enzymatic and chemical pulp bleaching Biorefinery feedstocks (e.g., Acacia, Eucalyptus) Non-destructive lignin analysis Thermoplastic lignin composites Key Projects involve EU initiatives like "PriDES" and research on data-driven industrial transformation (DRIVEN), sustainable forest bioeconomy (HIPS), and IRS TransTech. His publications span journals such as BioResources , Chemical Engineering Research & Design , and Nature Protocols .
Ida Svanedal is a Researcher at Mid Sweden University, affiliated with the Department of Engineering, Mathematics and Subject Didactics (IMD) and the FSCN Research Centre in Sundsvall. Her work focuses on sustainable materials development through cellulose science and chelating surfactant chemistry, contributing to industrial applications in biocomposites and environmental remediation. Her educational background includes: PhD in Engineering, Mid Sweden University (2014), Dissertation: 'Fundamental Characterization and Technical Aspects of a Chelating Surfactant' Dr. Svanedal's research centers on molecular interactions in cellulose regeneration and chelating surfactant systems. She investigates surface phenomena at air/water interfaces, metal ion coordination chemistry, and the development of all-cellulose laminates. Her work bridges fundamental colloid science with practical applications in sustainable materials, emphasizing green chemistry principles and renewable resource utilization. Analysis of her 15 most recent publications (2012-2025) reveals two dominant research trajectories: (1) chelating surfactant applications for heavy metal removal via ion flotation, and (2) cellulose-based material innovation including triboelectric respirators and self-gluing laminates. Recent work shows increasing focus on biomedical applications and industrial process optimization, particularly in 2024-2025 publications on cellulose film stacking and real-time regeneration monitoring. No scientific awards were documented in the source material. While specific advising activities and grant details remain unreported, her doctoral thesis supervision and collaborative projects suggest involvement in graduate training. Her research spans fundamental characterization (e.g., neutron reflectivity studies) to applied development (e.g., Novocell respirators project). Dr. Svanedal operates within Mid Sweden University's FSCN Research Centre, a hub for fiber science innovation. Her current projects 'Morphological studies on future biocomposites' and 'Novocell' demonstrate active leadership in developing sustainable alternatives to petroleum-based materials, with emphasis on circular economy principles.
Mohit Kumar Gupta is a Senior Lecturer at University West , affiliated with the Department of Engineering Science . He holds a PhD in Production Technology (2015) and serves part-time as an International Coordinator for India at the university. Research focus: Thermal Spraying of Ceramic Coatings , Suspension Plasma Spraying (SPS) for Thermal Barrier Coatings (TBCs) and Solid Oxide Fuel Cells (SOFCs) . Teaching: Advanced Production Technology (XX5797) , Finite Element Analysis (FMB300) , Heat Transfer (VFD900) , and other mechanical engineering courses. Labs: Active in the Division of Subtractive and Additive Manufacturing and Division of Mechanical Engineering , collaborating with industrial partners like GKN Aerospace and Oerlikon Metco . His work bridges thermal spray technology with computational modeling , emphasizing coating microstructure optimization and lifetime assessment for high-temperature applications.
Justinas Palisaitis is an Associate Professor at Linköping University , affiliated with the Department of Physics, Chemistry and Biology (IFM) within the Faculty of Science and Engineering (LITH) . He serves as a principal research engineer at the Atomic Resolution TEM Infrastructure of Sweden (ARTEMI) , a national research infrastructure in advanced electron microscopy. His work focuses on materials science, particularly thin film synthesis, MXene-based composites, and electrocatalytic materials for energy storage applications. He has secured a SEK 15 million grant as Research Infrastructure Fellow 2022 from the Swedish Foundation for Strategic Research. His research involves developing methodologies for atomic-resolution transmission electron microscopy and dynamical sample preparation to enable investigation of materials with extreme precision. Recent projects include the synthesis of hard boron thin films, two-dimensional cathode materials for Al-ion batteries, and sulfur-functionalized MXenes for hydrogen evolution catalysts. His publications in 2025 cover topics like MXene/polyaniline composites for ammonium-ion batteries, Mo 4/3 B 2-x T z boridene cathodes , and ductile yet hard HfN thin films . He contributes to national infrastructure development through the installation of cutting-edge Focused Ion Beam (FIB) systems for TEM/APT sample preparation. His work intersects with sustainable energy solutions, including hydrogen production , carbon capture , and renewable battery technologies . Key Affiliation: ARTEMI (Atomic Resolution TEM Infrastructure of Sweden) Research Areas: Thin film physics, MXene composites, energy storage materials 2025 Trends: 2D energy materials, defect-engineered nitrides, boron-based films 2022 Grant: SEK 15 million Research Infrastructure Fellow award
Raghav Bongole is a doctoral researcher at the Division of Information Science and Engineering within the School of Electrical Engineering and Computer Science at Kungliga Tekniska Högskolan (KTH). His work focuses on theoretical foundations of reinforcement learning through the lens of information theory , supervised by Professors Mikael Skoglund and Tobias Oechtering under the Wallenberg AI, Autonomous Systems and Software Program (WASP). Research Interests: Information-theoretic bounds for RL algorithms Duality between entropy and learning performance Theoretical optimization in autonomous systems Recent Work (2024): Co-authored a paper on arXiv addressing duality-based bounds for reinforcement learning, with implications for algorithm design and sample efficiency. The work intersects computer science , machine learning theory , and optimization . Contact: bongole@kth.se
Anders Enqvist is a doctoral student at KTH Royal Institute of Technology in the Department of Communication Systems. His research focuses on energy-efficient wireless networks, particularly leveraging Intelligent Reconfigurable Surfaces (RIS) to optimize transmission efficiency. PhD Candidate, KTH Royal Institute of Technology (Current) Master of Science in Electrical Engineering, KTH His research interests span Wireless Communication , Energy Efficiency , RIS Deployment , and Radio Network Optimization . He investigates how dynamic surfaces can reshape wireless environments for sustainable connectivity. Recent publications highlight trends in RIS for short-packet transmission , bit-rate optimization , and physical layer algorithms . His work bridges theoretical modeling (e.g., scaling behaviors) with practical deployments. Anders serves as an assistant for courses such as Degree Project in Computer Science (DA240X, II142X) and Radio Networks (IK2510) , contributing to software engineering and wireless network education. He is based in Kista, Sweden, and can be contacted at enqv@kth.se .
Yifei Jin is a WASP Industrial PhD student at KTH Royal Institute of Technology's School of Electrical Engineering and Computer Science, specifically within the Division of Theoretical Computer Science. They are supervised by Professor Aristides Gionis and Associate Professor Sarunas Girdzijauskas at KTH, and also serve as an Experienced Researcher at Ericsson Research and a Visiting Researcher at Yale University under Rex Ying and Leandros Tassiulas. Yifei's research focuses on graph mining , network analysis , and graph representation learning , particularly applied to crowdsourcing data and wireless communication systems. Their work intersects telecommunications network optimization machine learning for graph-structured data AI-driven wireless resource management edge computing and distributed AI as evidenced by their publications spanning 2017–2025. Their academic contributions include 15 recent papers exploring topics such as neural surrogates for voltage drop estimation, wireless ray-tracing models, scalable distributed AI deployment, and vehicle platooning coordination. These publications demonstrate expertise in network traffic reduction KPI conflict analysis graph convolutional networks hyperbolic embeddings for ontologies real-time network diagnostics .
Voravit Tanyingyong is a Lecturer at Kungliga Tekniska Högskolan (KTH Royal Institute of Technology) working in the Division of Communication Systems within the School of Electrical Engineering and Computer Science. He has been working at KTH since 2003, demonstrating a long-standing commitment to the institution. His contact information includes telephone number +46 8 790 42 08 and email voravit@kth.se, with his office located at Malvinas Väg 10. Dr. Tanyingyong received his PhD in Information and Communication Technology from KTH in 2021, with his doctoral thesis titled "Performance, Availability, and Scalability in Open Networking Platforms for Internet Services." Prior to that, he completed his Licentiate thesis at KTH in 2014 titled "Performance and Reliability in Open Router Platforms for Software-Defined Networking," establishing a strong foundation in networking research. Dr. Tanyingyong's research interests span computer systems, network applications, protocols, architectures, and the Internet of Things (IoT). His work demonstrates a consistent focus on practical implementations of networking technologies with applications in various domains including environmental monitoring, healthcare, and smart grids. His research bridges theoretical networking concepts with real-world implementations, particularly in the area of IoT systems where he has developed testbeds for air quality monitoring and smart grid applications. A significant portion of his work addresses performance, reliability, and scalability challenges in modern networking environments. Analysis of Dr. Tanyingyong's publication history reveals a clear evolution in his research focus. Early work centered on router/server performance and OpenFlow switching, reflecting the emergence of Software-Defined Networking. More recently, his research has shifted toward IoT applications, with publications on scalable IoT sensing systems, air quality monitoring, and IoT for smart DC grids. His work consistently addresses practical implementation challenges while maintaining theoretical rigor, with a particular emphasis on system performance, reliability, and scalability. The interdisciplinary nature of his research connects computer networking with environmental science, healthcare, and energy systems. Advanced Internetworking (IK2215) - Teacher Internet of Things (IK1332) - Teacher Networks and Communication (IK1203) - Teacher Ethics and Sustainable Development for Engineers (II2210) - Course Responsible Projects and Project Methods (II1302) - Course Responsible Multiple degree projects as examiner across Computer Engineering, Computer Science and Electrical Engineering specializations Dr. Tanyingyong has established himself as a dedicated educator who bridges theoretical networking concepts with practical implementations. His teaching portfolio reflects his research expertise while covering essential networking fundamentals and emerging IoT technologies. As course responsible for Ethics and Sustainable Development for Engineers, he demonstrates commitment to broader engineering principles beyond technical skills.
Petra Maier serves as a Visiting Professor in the Department of Mechanics, Materials and Component Design within Lund University's Faculty of Engineering. She is also an active member of the LTH Profile Area: Engineering Health, focusing on biomedical applications of advanced materials. Her research centers on magnesium-based biomaterials, with particular expertise in corrosion behavior and mechanical properties of Mg alloys for medical implants. Key interests include: Biodegradable magnesium alloy development Corrosion kinetics in physiological environments Microstructure-property relationships Implant geometry optimization Heat treatment effects on alloy performance Analysis of her recent publications reveals a strong emphasis on translating fundamental materials research into biomedical applications, particularly in orthopedic and neurovascular implants. Her work bridges metallurgical processing with clinical requirements, showing consistent focus on magnesium alloys' degradation behavior and mechanical integrity. No scientific awards were explicitly mentioned in the source materials. Dr. Maier maintains active research collaborations across multiple institutions, with recent publications involving researchers from Germany and the United States. Her work appears primarily in specialized metallurgy conferences and biomaterials journals, indicating strong industry-academia connections in the medical device sector. Her research group focuses on developing next-generation biodegradable implants, with particular attention to controlling corrosion rates through alloy design and surface engineering.
Tomas McKelvey is a Full Professor and Deputy Head of the Department of Electrical Engineering at Chalmers University of Technology, where he leads the Signal Processing research group. He has been with Chalmers since 2000 and has held a full professor position in Signal Processing since 2006. Professor McKelvey received his Electrical Engineering education at Lund University between 1987 to 1991 and earned his PhD in Automatic Control at Linköping University in 1995. Between 1995 and 1999, he held research and teaching positions at Linköping University, where he became docent in 1999. He was a visiting researcher at the University of Newcastle, Australia between 1999 and 2000 before joining Chalmers University of Technology. Professor McKelvey's research spans multiple domains within signal processing and control systems. His primary interests include model-based signal processing, statistical signal processing, system identification, and automatic control. His work has significant applications across several fields including radar systems, biomedical engineering, power systems, and automotive propulsion. He has developed innovative methods for signal processing in challenging environments, particularly in radar and power systems applications, often bridging theoretical advances with practical implementation challenges. His recent publications demonstrate a strong trend toward integrating machine learning and deep learning approaches with traditional signal processing methods, particularly for applications in radar systems, power grid stability, and automotive control. His work shows increasing sophistication in handling non-stationary signals, developing efficient computational methods, and creating robust solutions for real-world engineering problems. Professor McKelvey has been actively involved in numerous research projects, as indicated by his extensive publication record spanning multiple disciplines. His leadership position as Deputy Head of Department reflects his significant standing within the academic community. His research group maintains strong connections with both academic and industrial partners, as evidenced by the applied nature of much of his work. The cross-disciplinary nature of his publications indicates collaborations across engineering fields and with medical researchers, particularly in the biomedical applications of microwave technology.
Hana Dobsicek Trefna is an Associate Professor at Chalmers University of Technology, working within the Biomedical Electromagnetics research group in the Department of Electrical Engineering. Her academic career has focused on developing microwave-based technologies for cancer treatment, with particular expertise in hyperthermia systems for deep-seated tumors. Dr. Dobsicek Trefna's research interests center around microwave hyperthermia treatment systems, with significant contributions in UWB antenna design, electromagnetic field focusing algorithms, and treatment planning for deep tumors. Her work spans both theoretical development and clinical implementation, with special focus areas including head and neck tumor treatment, pediatric brain tumor applications, and quality assurance methodologies for hyperthermia devices. She has pioneered approaches to time-reversal focusing, multi-frequency heating, and hot-spot management in deep tissue heating applications. Analysis of her recent publications reveals a strong emphasis on practical clinical implementation of hyperthermia systems, with increasing focus on pediatric applications and quality assurance protocols. Her work bridges engineering innovation with clinical oncology needs, particularly in developing standardized procedures and validation methods for hyperthermia devices. Her research shows consistent progression from fundamental electromagnetic principles to clinical implementation challenges. Fokuserad mikrovågs hypertermi: för minskade långsiktiga effekter av strålning av barn med hjärntumörer (2022-2025, funded by Vetenskapsrådet) Creation of advanced cancer treatment planning to boost the effect of Radiotherapy by combining with hyperthermia (HYPERBOOST, 2020-2024, EU-funded) Multiple projects on hyperthermia for pediatric brain tumors (funded by Barncancerfonden) Kliniskt hypertermisystem för bättre cancerbehandling i hals och huvud (2017-2018, VINNOVA-funded) Dr. Dobsicek Trefna leads the Biomedical Electromagnetics research group, which focuses on developing microwave-based diagnostic and therapeutic systems. Her team works closely with clinical partners to translate engineering innovations into practical cancer treatment solutions, with particular emphasis on systems for treating deep-seated tumors and pediatric applications where conventional treatments have significant side effects.
Lars Nyborg is a Professor of Surface Engineering at Chalmers University of Technology, where he leads the Powder and Surface Engineering research group and serves as the leader of Chalmers' area of strength Production. He is also one of the research leaders of MCR and maintains strong connections with industry through collaborative research projects. Dr. Nyborg was educated in Gothenburg and received his PhD in 1987. His academic journey has been marked by significant contributions to materials science and manufacturing engineering. Nyborg's research focuses on surface engineering, powder metallurgy, and the integration of materials and manufacturing engineering. His work spans cutting processing, high-strength materials, and additive manufacturing technologies. He has been instrumental in developing scientific collaboration with industry, particularly in powder metallurgy applications. His research group investigates novel processing routes for powder-based materials, surface modification techniques, and the relationship between manufacturing processes and material properties. Analysis of Professor Nyborg's recent publications reveals a strong emphasis on additive manufacturing technologies, particularly laser powder bed fusion and directed energy deposition. His work addresses critical challenges in metal AM including surface roughness, defect formation, powder reuse, and the development of novel alloys specifically tailored for additive processes. There is also significant focus on surface engineering solutions like low-temperature carburizing for improved material performance. Professor Nyborg has received numerous scientific awards throughout his career: Fellow of the Royal Swedish Academy of Engineering Sciences SKF/Chalmers Prize for his thesis (1988) First recipient of the Powder Technology Prize (1993) Nyborg actively supervises research projects and students, with a strong emphasis on industry collaboration. His current projects include the PROENVIRO project SuSintPart, the MNT-ERA project TAILORSINT, and international collaborations through the Sino-Swedish Advanced Materials Exchange Center and the STINT Institutional Project with City University Hong Kong. He is deeply involved in European research networks focused on powder metallurgy. Professor Nyborg leads the Powder and Surface Engineering research group at Chalmers, which maintains strong connections with both academic institutions and industrial partners worldwide. The group participates in multiple international collaborations and is at the forefront of research in powder-based manufacturing technologies and surface engineering solutions.
Johanna Stengård is an Associate Professor at the Department of Psychology, Stockholm University , focusing on stress-related illnesses, workplace health, and the intersection of environmental sustainability with human wellbeing. She is affiliated with the Division for Epidemiology and the Stenfors Lab , which investigates how environments shape health, cognition, and sustainability. Core Research Threads Psychosocial workplace factors and retirement timing Illegitimate tasks in welfare work and health consequences Green/blue environments and their role in mental health Work-life balance, particularly for teachers and healthcare workers Publication Trends Recent work examines pandemic-induced work environment changes, greenspace impacts on antidepressant use, and the moderating role of job resources in aging workforces. Her articles increasingly bridge occupational health with environmental sustainability frameworks. Collaborations Works with Hui-Xin Wang’s research lab on life-course psychosocial factors and biomarker interactions Contributes to Swedish Longitudinal Occupational Survey of Health (SLOSH) and other national cohort studies
Berit Olofsson is a Professor of Organic Chemistry at Stockholm University and Deputy Director of SUCCeSS (Stockholm University Center for Circular and Sustainable Chemistry). She earned her MSc in Chemical Engineering from Luleå and Lund Universities, followed by a PhD from KTH Royal Institute of Technology in 2002. Her postdoctoral work at the University of Bristol with Varinder K. Aggarwal focused on total synthesis of (-)-Epibatidine and methodological studies. Research Interests : Sustainable organic synthesis through hypervalent iodine chemistry , mechanochemical methods , and metal-free reagents. Her group's work enables atom-efficient , non-toxic , and moisture-tolerant synthetic routes, with applications in pharmaceuticals, agrochemicals, and biobased materials. Publication Trends : Berit's articles emphasize diaryliodonium salts for arylation/vinylation reactions, transition-metal-free protocols , and mechanochemical cascade reactions . Notable works include Angew. Chem. Int. Ed. 2009 review and Angew. Chem. Int. Ed. 2023 on ring-opening difunctionalization. Scientific Recognition : EuChemS Division of Organic Chemistry Award for Service (2024) Arrhenius Plaque (2021, 2022) Chemistry Europe Fellow (2018) STIAS Fellow (2014-2015) Green Chemistry Award (Pfizer, 2025) Leadership & Outreach : Berit has served as Section Dean for Chemistry (2019-2023), Chair of the International Scientific Committee for ESOC (2023-2025), and organized large-scale initiatives like the Nobel Symposium on Chemistry for Sustainability (2025) and hand sanitizer production during the 2020 pandemic. Her group (current members: Manisha Lamba , Sayad Doobary , Pernilla Öberg , Leonard Kersting , Benjamin Gunschera , Henrik Hupatz ) collaborates internationally and focuses on scalable, eco-friendly methodologies.
