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Mikael Östling is a Professor at KTH Royal Institute of Technology, holding a position in the Division of Electronics and Embedded Systems within the School of Information and Communication Technology. He earned his MSc (1980) and PhD (1983) in engineering physics from Uppsala University. Since 1984, he has been a faculty member at KTH, serving as Deputy President (2017–2022), Dean of the School of ICT (2004–2012), and Head of the Department of Microelectronics and Information Technology (2000–2004). He has held visiting roles at Stanford University and the University of Florida. His research focuses on silicon/silicon germanium devices, wide bandgap semiconductors (e.g., silicon carbide), and high-power/high-frequency applications. He has authored over 600 papers, 10+ book chapters, and a textbook. Key achievements include co-founding TranSiC (2005), securing the ERC Advanced Investigator Grant (2009), and serving as Editor-in-Chief of IEEE Journal of Electron Devices Society (2016–2019). He is an IEEE and ECS Fellow. Östling has supervised 50 PhD theses and contributed to innovations like high-temperature silicon carbide circuits and graphene-based sensors. His work spans academic leadership, industry collaboration, and global research advisory roles in EU frameworks and the European Research Council.

• Silicon Devices
• Wide Bandgap Semiconductors
• High-Frequency Electronics
• +3 more

Gunnar Malm is a full-time Professor and Deputy Head of Department at the Royal Institute of Technology (KTH) in the School of Electrical and Computer Engineering. His research focuses on semiconductors and spintronics (nano-electronics), with special emphasis on variability, noise, and fluctuations in electronic components, as well as electronics for extreme environments. He combines experimental work with large-scale computer simulations via KTH's PDC, national SNIC clusters, and Vienna University of Technology's VSC resources. Editor, IEEE Electron Device Letters (2017–present) Technical Program Committee, European Solid-State Device Research Conference (ESSDERC) His pedagogical research (TALE 2022) explores citation practices in thesis writing, and he coordinates multiple semiconductor component courses including Design of Nanosemiconductor Components (IH2657) and Simulation of Semiconductor Components (IH2653) . Malm's Noise and Fluctuations Lab investigates fundamental device physics for sustainable electronics development.

• Semiconductors
• Spintronics
• Nanoelectronics
• +3 more

Stephan Sylvest Keller is a Professor in the Department of Micro- and Nanotechnology at the Technical University of Denmark (DTU), affiliated with the National Centre for Nano Fabrication and Characterization and DTU Nanolab. His research lies at the intersection of materials science, microfabrication, and biomedical engineering, focusing on the development of 3D pyrolytic carbon microsystems for biosensing, neural interfaces, and bioenergy applications. His research interests include biomaterial microsystems , nanofabrication , microelectrode design , bioelectrochemical systems , and drug delivery platforms . He leverages advanced fabrication techniques such as additive manufacturing and lithography to create functional 3D carbon structures for applications in brain-on-a-chip , microsupercapacitors , and microbial energy harvesting . The recent articles highlight a strong trend in developing 3D pyrolytic carbon electrodes for electrochemical applications, spanning neuroscience, environmental remediation, and sustainable energy. Keywords across these works include bioelectrochemistry, microfabrication, and functional materials, with subfields ranging from retinal implants to microbial fuel cells and on-chip energy storage. He actively supervises multiple PhD students and leads cutting-edge projects such as INSECTS (Interdigitated Solar Electrochemical Capacitors) and MIRACLE (Microbial syntRophic metAbolism of CO2 on 3D carbon microeLectrodes for biohExanol production). His work contributes to UN Sustainable Development Goals related to clean energy and good health. His laboratory, embedded within DTU Nanolab, specializes in cleanroom-based micro- and nano-fabrication, focusing on translating engineered microsystems into biomedical and environmental applications. The team collaborates widely across disciplines, including microbiology, electrochemistry, and clinical neuroscience.

• Biomaterial Microsystems
• Nanofabrication
• Microfabrication
• +12 more

Joana Vaz Pinto is an Invited Professor at the Department of Materials Science, New University of Lisbon, since 2015. She holds a PhD in Applied Physics from the same university, conducted at the Instituto Tecnológico e Nuclear (ITN) and Laboratório de Caracterização Magnética e Baixas Temperaturas (LCMBT). Her primary affiliation is with CENIMAT|i3N, where she teaches Microelectronics Processing and Nanocharacterization, and oversees advanced characterization techniques like XRD and AFM. Her research focuses on thin-film devices, flexible electronics, and bioelectronics, particularly using Parylene for conformable substrates and sensors. Education: BSc in Physics Engineering (Universidade Nova de Lisboa, 2008), PhD in Applied Physics (Universidade Nova de Lisboa, 2008). Research spans semiconductor characterization, nanomaterials, and interdisciplinary applications in biotechnology and heritage conservation. She has published over 50 peer-reviewed articles and supervised over 15 MSc theses. Her work emphasizes sustainable nanomaterial processing, smart sensing platforms, and biomedical applications. Current projects include laser-induced graphene for cardiac tissue engineering and MXene-based energy storage systems. Collaborations span materials science, biotechnology, and environmental science, reflecting her multidisciplinary approach.

• Thin Film Devices
• TFTs
• Sensors
• +5 more

Jiantong Li is an Associate Professor at the Department of Electronics and Embedded Systems, KTH Royal Institute of Technology. His research focuses on nanomaterials engineering, energy storage technologies, and advanced printing techniques for flexible electronics. He is actively involved in developing inkjet-printed graphene-based microsupercapacitors and biomedical sensors. His work bridges materials science, nanotechnology, and applied electronics. Key research areas include inkjet-printed nanomaterials for energy storage, high-performance microsupercapacitors, graphene composites, and biomedical applications of flexible electronics. Recent publications highlight innovations in on-paper energy systems, high-temperature operable devices, and transparent programmable materials. Teaching roles include serving as examiner for multiple degree projects in Electrical Engineering and Engineering Physics, as well as course responsibilities in embedded electronics and research methodology. His research has led to impactful contributions in sustainable energy technologies and nanomaterials characterization.

• Energy Storage Technologies
• Nanomaterials Engineering
• Inkjet Printing for Electronics
• +5 more

Dr. Igor Zhitomirsky is a Professor in the Department of Materials Science and Engineering at McMaster University and an Associate Member of the McMaster School of Biomedical Engineering. His research focuses on advanced materials for energy storage, electrochemical technologies, and biomedical applications, including biomaterials, nanomaterials, and functional composites. He teaches MATLS 3B03: Manufacturing Engineering of Multifunctional & Biomedical Materials and MATLS 726: Advanced Topics in Electrochemistry . His expertise spans biomaterials and devices, smart materials, and energy storage systems. Key research clusters include Energy, Environment, Health & Bio-innovation, and Micro-Nano Systems. Notably, he was named a Canada Research Chair in 2022 as part of a national initiative to advance research excellence. Research Highlights: Dr. Zhitomirsky’s work emphasizes the development of novel supercapacitor materials (e.g., VOx ceramics, MoCuOx oxides) and fabrication techniques like electric discharge machining. His studies on redox electrolytes, pseudocapacitive composites, and biomimetic surface modifications have advanced energy storage and biomedical technologies. Awards & Recognition: Canada Research Chair (2022) Advising & Grants: While no specific grants are listed, his extensive publications indicate sustained research funding. Current students are listed under his faculty profile but names are not provided here. Labs & Teams: Collaborations include the McMaster School of Biomedical Engineering and interdisciplinary groups focused on materials innovation for energy and health applications.

• Biomaterials
• Nanomaterials
• Energy Storage
• +5 more

Dr David Watson is a Senior Lecturer in Physical and Materials Chemistry at the University of Surrey, where he has worked since 2011. Previously, he held a Fixed-Term Lecturer position at the University of Reading (2008-2011). His research focuses on surface and interface processes in heterogeneous catalysis, particularly chemoselective and enantioselective reactions relevant to pharmaceutical synthesis. He collaborates across departments and internationally, utilizing techniques like scanning tunneling microscopy (STM), X-ray absorption spectroscopy, and density functional theory (DFT) calculations. His work on asymmetric catalysis explores molecular-level chiral modification of metal surfaces, with applications in producing enantiopure compounds for the $200B+ pharmaceutical market. Research into oxygen's role in silver-catalyzed coupling reactions revealed critical mechanistic insights with practical implications for catalytic design. Other projects involve nanoporous material synthesis via electrochemical templating and CO2 recycling through dry reforming of methane. Dr Watson's teaching portfolio includes modules on transferable skills, physical chemistry, and advanced topics in the field. His publications span journals like ACS Catalysis, Journal of the American Chemical Society, and Surface Science, covering areas such as metal surface activation, reaction selectivity control, and nanostructure characterization techniques. Research collaborations include Prof Richard Lambert (University of Cambridge) Prof Agustin R. Gonzalez-Elipe (Institute of Materials Science, Spain) Dr Georgios Kyriakou (University of Surrey) His work often bridges fundamental surface science with industrial catalysis applications, emphasizing atom-efficient processes and environmental sustainability.

• Heterogeneous Catalysis
• Surface Science
• Electrochemistry
• +5 more

Frank Niklaus is a Professor at KTH Royal Institute of Technology, specializing in Micromanufacturing within the Department of Micro and Nanosystems. His research focuses on developing flexible micro- and nanoscale manufacturing technologies for industrial and medical applications, including MEMS, photonics integration, and 3D printing. He explores novel fabrication methods like femtosecond laser processing, wafer bonding, and additive manufacturing to create advanced microsystems. His work emphasizes scalable production strategies for sensors, energy storage devices, and biomedical applications. Niklaus leads projects in silicon photonics, nanoelectromechanical systems (NEMS), and integrated microfluidic platforms. He teaches courses on microsystem technology and advises on degree projects in electrical engineering and nanotechnology. His contributions bridge academic research with industrial needs, aiming to enhance Sweden's competitiveness in micro/nano manufacturing. Education details are not explicitly stated in the provided texts. His research spans interdisciplinary areas such as materials science, photonics, and sensor development. Key projects include gas sensing using mid-IR waveguides, ultrafast 3D printing of glass and polymers, and energy-efficient nanoelectromechanical relays. Collaborations involve developing vacuum-sealed photonic MEMS and graphene-based sensors. His work has been published in high-impact journals like ACS Nano , Nature Communications , and Optics Express . Research Interests: MEMS, Nanotechnology, Silicon Photonics, Additive Manufacturing, Gas Sensing, Energy Harvesting Courses Taught: Microsystem Technology (EK2350), Degree Project Supervision in Electrical Engineering and Nanotechnology His lab focuses on creating innovative microsystems through advanced fabrication techniques, with applications in environmental monitoring, biomedical devices, and programmable photonics. Current projects explore programmable photonic circuits using MEMS and low-cost infrared imaging sensors.

• Micromanufacturing
• MEMS (Micro-Electro-Mechanical Systems)
• Nanotechnology
• +7 more

Roop Mahajan is the Lewis A. Hester Chair in Engineering at Virginia Tech, holding affiliations with the Department of Mechanical Engineering and the Virginia Tech Research Center (Arlington). He previously served as Director of the Institute for Critical Technology and Applied Science (ICTAS) (2006–2016) and Interim Dean of the University of Colorado Boulder's College of Engineering and Applied Science (2001–2002). His research focuses on advanced thermal engineering, graphene synthesis from coal, metal foams, and biomedical applications. He leads the Graphene-X and Thermal Engineering Laboratory. He holds a Ph.D. in Mechanical Engineering from Cornell University (1977), and earlier degrees from Punjab Engineering College. His career spans roles at AT&T Bell Labs (1979–1991), where he became a Bell Labs Fellow, and academic leadership roles. Research interests include coal-derived graphene production, high-porosity metal foams for thermal management, and nanomaterial-based technologies for sustainability. His work bridges engineering, sustainability, and global collaboration, with partnerships at institutions in India and Egypt. Recipient of numerous awards, including the ASME Heat Transfer Memorial Award (2002) and the Ralph Coats Roe Medal (2007). Key contributions include scalable graphene synthesis and innovations in electrochemical systems.

• Thermal Engineering
• Graphene Synthesis
• Metal Foams
• +5 more

Alejandro Montoya is a Senior Lecturer and Director of Environmental Engineering at the University of Sydney's School of Chemical and Biomolecular Engineering. He holds a Ph.D. in Chemical Sciences from the Universidad de Antioquia (Colombia) and joined the University of Sydney in 2007 after a Sesqui Postdoctoral Fellowship. His research focuses on bridging atomic-scale material properties with large-scale industrial applications, particularly in biomass conversion, CO2 sequestration, catalysis, and energy sustainability. Montoya's work emphasizes predictive modeling for optimizing chemical processes in sustainability contexts. His research interests include biomass liquefaction, CO2 mineral carbonation, catalytic micro-combustion, and the development of predictive models for material reactivity. He has supervised multiple projects, including current student Jack’s research on plastic decomposition in supercritical water. Montoya collaborates internationally with institutions like Yonsei University (South Korea) and the Universidad de Antioquia (Colombia), focusing on biofuel production and combustion modeling. Montoya has secured grants totaling over $10M, including projects on advanced electrometallurgy, chemical recycling of plastics, and biofuel process intensification. His contributions span over 100 peer-reviewed articles, with recent focus areas in lignin depolymerization, CO2 electroreduction, and nanocarbon catalyst design. He teaches courses in applied mathematics and chemical systems behavior, contributing to both academic and industrial advancements in sustainable chemical engineering.

• Reactive Materials
• Biomass Liquefaction
• CO2 Sequestration
• +4 more

Prof. Alexandr Talyzin is a Full Professor at the Department of Physics, Umeå University, specializing in graphene-related materials for energy storage and environmental applications. His research focuses on 2D materials (graphene oxide, MXenes, Covalent Organic Frameworks), high-surface-area carbons, and hydrogen storage. He leads the EU Graphene Flagship project and collaborates with institutions worldwide using advanced techniques like synchrotron radiation and neutron scattering. Education: PhD from Uppsala University (2001), postdoc at Umeå University (2004–present). Key Projects: EU Graphene Flagship (2012–2023), Swedish Energy Agency-funded studies on supercapacitor materials. Research Highlights: Novel graphene oxide synthesis methods, super-oxidized carbons for radionuclide removal, and high-temperature microsupercapacitors. His work bridges fundamental material science with applied technologies, emphasizing sustainability and industrial scalability. Recent innovations include non-toxic graphene oxide production and pine cone-derived activated carbons.

• Materials Science
• Nanotechnology
• Energy Storage
• +3 more

Agin Vyas is a researcher at Chalmers University of Technology specializing in microsupercapacitors, energy harvesting technologies, and on-chip power solutions for self-powered sensor networks. He completed his Doctoral thesis in 2022 titled 'On-chip electrochemical capacitors and piezoelectric energy harvesters for self-powering sensor nodes' following his Licentiate thesis in 2019. Dr. Vyas's research focuses on developing CMOS-compatible microsupercapacitors, vertical graphene-based energy storage devices, and integrated energy harvesting solutions. His work addresses critical challenges in electrode design, materials science, and device integration for on-chip power applications. He has made significant contributions to understanding the impact of electrode geometry, surface roughening techniques, and novel materials like reduced graphene oxide on microsupercapacitor performance. His research spans fundamental materials investigations to practical device implementation, with a strong emphasis on manufacturability and integration with existing semiconductor processes. Analysis of Dr. Vyas's publication record from 2016-2024 reveals a consistent research trajectory with increasing complexity and impact. His work has evolved from foundational studies on individual components to integrated systems combining energy harvesting and storage. The research spans materials science, device physics, and practical engineering considerations, demonstrating both theoretical depth and practical applicability. His publications appear in reputable journals across materials science, microelectronics, and energy storage domains. Dr. Vyas currently leads the European Commission-funded 'GreEnergy' project (2021-2024) on wideband optical antennae for energy harvesting applications, demonstrating his capability to secure competitive research funding and lead significant research initiatives. His work bridges fundamental materials science with practical engineering solutions for next-generation energy systems, with applications in IoT, wearable technology, and autonomous sensor networks.

• Microsupercapacitors
• Energy Harvesting
• On-chip Power Supply
• +4 more