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Ingvar Albinsson is a Lecturer in the Department of Physics at the University of Gothenburg, Sweden. His professional activities are centered around research in photovoltaic technologies and energy materials, with numerous publications spanning from 2016 to the present. Dr. Albinsson's research interests focus on advancing solar energy conversion technologies, particularly dye-sensitized solar cells (DSSCs) and quantum dot solar cells. His work explores multiple aspects of these technologies including photoanode optimization with TiO2 nanoparticles, development of novel electrolytes (especially gel polymer and quasi-solid-state systems), counter electrode materials, and the incorporation of nanomaterials to enhance solar cell efficiency. He has published extensively on sustainable approaches using bio-derived materials like coconut shell charcoal and Jack wood biochar for energy applications. His publication record shows consistent research activity with numerous collaborative papers appearing annually in high-impact journals such as Journal of Materials Science, Electrochimica Acta, and Physical Chemistry Chemical Physics. The analysis of his recent publications (2020-2025) reveals a strong focus on optimizing solar cell components through nanomaterial engineering, with particular attention to sustainable and cost-effective solutions. Dr. Albinsson works within a strong collaborative network, primarily with researchers from Sri Lanka and other Swedish institutions, particularly with B.-E. Mellander. His research has practical implications for developing more efficient and sustainable solar energy technologies.

• Solar Energy
• Photovoltaics
• Dye-Sensitized Solar Cells
• +5 more

Dr Thomas Woolley is a Reader in Applied Mathematics at Cardiff University's School of Mathematics, where he leads research in mathematical biology with a focus on pattern formation and cellular dynamics. His academic journey began at the University of Oxford (2004-2017), where he specialized in mathematical biology, completing doctoral research on the pattern formation behind fish spots and zebra stripes. At Cardiff, he maintains an active research program while supervising PhD students and engaging in significant mathematical outreach. Dr Woolley's research interests center on mathematical biology, particularly morphogenesis, reaction-diffusion theory, cellular motion, stochastic dynamics, and neurobiology. His current work investigates muscle stem cell protrusions known as blebs that enable cells to navigate toward damaged muscle tissue for healing and regeneration. He develops analytical links between discrete cellular protrusions and continuous population distributions, with the goal of algebraically coupling observable cellular motion to unobservable structural features of the cell membrane. His research also explores Turing-type pattern formation across biological systems, from feather development to fingerprint variation. His recent publications demonstrate consistent output across high-impact journals, with work spanning theoretical mathematical biology, medical applications, and public health modeling. Notable recent projects include modeling indoor airborne transmission during the pandemic, analyzing bat movement patterns, and investigating pattern formation in biological systems. His research shows strong interdisciplinary connections between mathematics, biology, and medicine. Poster prize at international biology conference Dr Woolley actively supervises doctoral students and research assistants, with a track record of successful PhD completions. His supervision approach emphasizes connecting mathematical theory with biological applications, often through collaborations with experimentalists. He has developed several interactive web applications to implement research findings, including tools for predicting Covid-19 transmission and optimizing public transport seating during the pandemic. His work on stem cell motion and pattern formation continues to advance our understanding of fundamental biological processes with potential therapeutic applications.

• Mathematical biology
• Morphogenesis
• Reaction-diffusion theory
• +7 more

Stefania Benedetti is a Researcher at the National Research Council of Italy (CNR) Institute of Nanoscience (CNR NANO) in Modena since 2012, specializing in experimental investigation of metal/oxide nanostructures for catalysis, energy, and optoelectronics applications. She operates within the SESAMO Lab utilizing High Vacuum and UHV equipment for nanostructure growth and characterization, and has extensive experience with large-scale facilities including ELETTRA, ESRF, PETRA III, and EuXFEL. Her educational background includes a Master's degree and PhD in Physics from Università di Modena e Reggio Emilia under Prof. Sergio Valeri, followed by postdoctoral research at CNR NANO with visiting periods (2005-2010) at Fritz-Haber-Institut, Max Planck Society in Berlin. Benedetti's research focuses on nanoscale electronic and optical properties of metal/oxide systems, with three primary thrusts: (1) Plasmonic properties of metal nanoparticles and interfacial interactions with oxide supports using time-resolved spectroscopies to study plasmon decay and hot electron dynamics; (2) Structural and electronic properties of doped oxides (particularly Al:ZnO and ceria-based systems) for optoelectronic applications; (3) Reactivity of reducible oxides for hydrogen dissociation and clean production. Her work bridges fundamental nanoscale phenomena with energy applications through advanced spectroscopic techniques. Analysis of her 54 journal publications and book chapter reveals consistent focus on doped metal oxides and plasmonic nanostructures, with recent work emphasizing ultrafast dynamics, hydrogen catalysis mechanisms, and optoelectronic device integration. Key methodological approaches include ambient-pressure XAS, time-resolved spectroscopies, and in-operando characterization at synchrotron and free-electron laser facilities. She has supervised 4 PhD theses in Physics and Nanoscience and 7 degree theses at Università di Modena e Reggio Emilia. Current research projects include: AMONIX (2023-2025): Developing amorphous conductors for plasmonics ECOSISTER (2022-2025): Sustainable energy transition in Emilia-Romagna U-DYNAMEC (2023-2025): Ultrafast dynamics in energy conversion materials Sensidrogen (2024-2026): Hydrogen leak detection sensors Her SESAMO Lab maintains specialized capabilities in UHV-based nanostructure synthesis and characterization, with strong collaborative networks across European large-scale facilities. Current work emphasizes translating fundamental plasmonic and catalytic insights into hydrogen production technologies and next-generation optoelectronic materials.

• Nanomaterials for Catalysis
• Energy Conversion and Storage
• Optoelectronics
• +4 more

Professor Michał Mrozowski serves as both Professor and Head of the Department of Microwave and Antenna Engineering at Gdańsk University of Technology within the Faculty of Electronics Telecommunications and Informatics. His research focuses on advanced antenna systems, particularly utilizing gap waveguide technology for millimeter-wave applications. His research interests span antenna engineering, microwave technology, and electromagnetic design with particular emphasis on gap waveguide implementations, mmWave applications, and reconfigurable antenna systems. His work addresses challenges in wideband antenna design, polarization techniques, and compact antenna architectures for modern wireless communication systems. Professor Mrozowski's publication portfolio demonstrates consistent contributions to high-impact journals including IEEE Transactions on Antennas and Propagation and Scientific Reports, with recent work focusing on Ka-band and Ku-band antenna systems, slot array configurations, and innovative gap waveguide implementations. His research shows a clear trajectory toward solving practical challenges in millimeter-wave communications and high-frequency antenna design. As project manager, he leads multiple significant research initiatives including the OPUS-funded "Next-Generation mmWave High-Performance Antennas" project (UMO-2024/53/B/ST7/02112) starting in 2025, "New concepts in microwave filters" (UMO-2019/33/B/ST7/00889), and the EDISOn project on electromagnetic design of flexible sensors. His laboratory work centers on the Department of Microwave and Antenna Engineering, where he oversees research on gap waveguide technology, electromagnetic design methodologies, and advanced antenna systems for next-generation wireless communications.

• Antenna Engineering
• Microwave Engineering
• Gap Waveguide Technology
• +3 more

Dr. Simona Schwarz is a research scientist at the Leibniz Institute of Polymer Research Dresden (IPF Dresden), working within the Department of Functional Colloidal Materials under the Division Physical Chemistry and Physics of Polymers. She maintains an active research laboratory (simsch-lab.de) focused on developing innovative polymeric solutions for environmental challenges. Her primary research interests include electrokinetic measurements, solid/liquid interface characterization, and the development of environmentally friendly polyelectrolyte-based materials. Dr. Schwarz specializes in creating stable, highly concentrated nanoparticle dispersions and investigating demixing processes for organic waste separation including dyes, acrylates, and oils. Her work bridges fundamental colloid science with practical environmental applications. Characterization of solid/liquid interactions Surface modification techniques Adsorption processes using polyelectrolytes and surfactants Polyelectrolyte multilayer systems Colloid stability analysis Particle characterization (charge, size, morphology) Comparison of synthetic vs. natural polyelectrolytes Dr. Schwarz maintains an extensive network of national and international research collaborations across Germany, Romania, Russia, Mexico, and other countries, working with both academic and industrial partners to advance environmentally sustainable materials science.

• Colloid Chemistry
• Polymer Science
• Surface Science
• +6 more

Dr. Sadaf Hina is a Lecturer in Cybersecurity at the School of Science, Engineering and Environment (SSEE), University of Salford, Manchester, UK. She serves as the Programme Leader for the BSc Computer Science with Cybersecurity and holds significant research leadership roles as REF 2029 Co-Lead for People, Culture and Environment. Dr. Hina is an active member of the IoT Research and Innovation Lab (IRIL) and contributes to the Informatics Research Centre at the university. Her research interests span the critical intersection of artificial intelligence and cybersecurity, with specific expertise in IoT/IIoT security, zero-trust architectures, threat modeling in cyber-physical systems, and AI-aided security optimization. Over the past five years, her publication record shows consistent output in high-impact journals, with a notable increase in 2023-2025 focusing on cutting-edge applications of deep learning and vision transformers for security challenges. Her work demonstrates strong connections between theoretical security frameworks and practical industrial applications, particularly in critical infrastructure sectors. Dr. Hina has received significant professional recognition including: Fellow of the Higher Education Academy (FHEA, 2024) Advance HE Aurora Leadership Development Program certification (2025) REF Co-Lead roles for both People, Culture and Environment (2025) and Contributions to Knowledge and Understanding (2023) Editorial position for Applied Sciences journal (2024) Membership in professional organizations including IEEE (since 2014) and British Computer Society As a dedicated educator, Dr. Hina teaches Information Security, Information Security Management, Network Penetration Testing, Security and Privacy in IoT, and Fundamentals of Cybersecurity. She actively supervises BSc final year projects, MSc dissertations, and three PhD candidates working on AI-aided cybersecurity solutions. Her leadership extends to serving as Faculty Advisor for Women in Cybersecurity (WiCyS) and participation in cross-institutional mentoring programs, demonstrating commitment to developing the next generation of cybersecurity professionals.

• Artificial intelligence in cyber/information Security
• IoT/IIoT vulnerability analysis and security
• Zero-trust architecture for IIoT
• +7 more

Xavier Busquets Carretero is an Associate Professor in the Department of Data, Analytics, Technology and Artificial Intelligence at ESADE Business School, where he serves as Academic Director for the Master of Science in Digital Business program in collaboration with SCU in Silicon Valley. He has been a faculty member since 2002 and is affiliated with the GRIE Research Group on Entrepreneurial Initiative. His research focuses on digital strategy, innovation governance, and digital transformation through the lens of network theory and complex systems. Busquets has developed a distinctive research stream applying network science to organizational structures, most notably analyzing FC Barcelona's team dynamics under Guardiola, with publications in high-impact journals including Scientific Reports and Chaos, Solitons & Fractals. His work spans banking, insurance, fintech, healthcare, and media sectors. Busquets has received significant recognition including two IBM Faculty Awards (2007, 2011) and consecutive NACRA Best Case Study Awards (2006, 2007). His publication record shows consistent output in top journals with recent work focusing on AI governance, healthcare ecosystems, and network-based leadership models. IBM Faculty Award (2007, 2011) NACRA Best Case Study Award (2006, 2007) Co-chair of ECIS 2014 and ICMB 2008 conferences Member of Smart Business Network Steering Committee (Beijing 2008) Busquets brings substantial industry experience from executive roles at Telefónica, HP, and Siebel Systems to his academic work. He leads multiple executive education programs and maintains active industry collaborations, particularly in digital transformation projects. His research on network-based organizational analysis bridges academic rigor with practical business applications across multiple sectors.

• Digital Strategy
• Innovation Governance
• Digital Transformation
• +6 more

François RAULT serves as an Assistant Professor at the National Higher School of Arts and Industries of Textiles (ENSAIT) in Roubaix, France, affiliated with the Multifunctional Textiles and Processes Group and GEMTEX research laboratory. His work bridges advanced materials science with textile engineering to develop next-generation functional fabrics for industrial and wearable applications. His research focuses on two interconnected domains: (1) multifunctional fiber development through melt spinning and electrospinning techniques for fire-retardant and piezoelectric applications, and (2) functional textile engineering using knitting, weaving, and embroidery to create smart textiles for energy harvesting, protective sound-absorbing materials, and sustainable eco-materials. This work integrates polymer chemistry, nanomaterials science, and textile processing to solve real-world challenges in safety, energy, and environmental sustainability. Recent publication analysis (2022-2025) reveals three dominant research trajectories: piezoelectric energy harvesting using optimized PVDF nanofiber architectures, bio-based flame retardancy leveraging lignin-phosphinate systems for polyamide textiles, and stimuli-responsive materials incorporating photochromic molecules for light-activated textile actuation. These themes demonstrate consistent innovation in merging molecular-scale material properties with macroscopic textile structures. Scientific Recognition: PEDR Award for PhD supervision and research (French Ministry of National Education, 2018-2022) RAULT coordinates major research initiatives including TENERIFE (piezoelectric textiles), INTIMIRE (flame-retardant fibers), TACTIL (photoactive textiles), and CONTEXT (wireless communication textiles), securing funding from ANR, European Interreg, and regional programs. He supervises ENSAIT's professional licenses in innovative textiles and mentors student projects while teaching courses on knitting technology, smart textiles, and material characterization. Based at GEMTEX laboratory, he leads the Multifunctional Textiles and Processes Group through collaborations with European academic institutions (University of Lille, UMONS) and industry partners (CETI, Devan, Mulliez-Flory), driving industrial applications of academic research in technical textiles.

• Textile Engineering
• Technical Textiles
• Materials Chemistry
• +7 more

Ricardo Ferreira serves as Research Scientist Group Leader of the Spintronics research group at the International Iberian Nanotechnology Laboratory (INL). With a PhD in Physics Engineering from Instituto Superior Técnico (IST) completed in 2008, his career has focused on advancing spintronics technology through Magnetic Tunnel Junctions (MTJs). His research group develops high-yield fabrication processes for both micro-scale (down to 1μm²) and nano-scale (down to Dr. Ferreira's research interests span multiple cutting-edge areas in spintronics, with primary focus on nano-oscillators, neuromorphic computing architectures, and advanced magnetic field sensors. His work bridges fundamental physics with practical applications, particularly in developing devices that exploit spin transfer and spin Hall effects for next-generation computing paradigms. The group has made significant contributions to RF signal processing, true random number generation, and physical unclonable functions using spintronic devices. His recent publications reveal a strong trend toward neuromorphic computing applications, with multiple papers on spin-torque nano-oscillators for reservoir computing, weighted neural networks, and RF signal classification. The research demonstrates increasing sophistication in controlling vortex states and coupled oscillator dynamics for computational applications, while maintaining strong contributions to fundamental spintronics phenomena and sensor development. Co-author of 150+ peer-reviewed publications Co-inventor in 4 patent applications submitted at INL Participant in 6 European projects in the last decade Leader of multiple high-TRL industrial application projects Ferreira actively mentors PhD students and postdoctoral researchers, with several alumni having completed their doctoral work under his supervision. His group engages in both fundamental research and applied projects targeting Industry 5.0 ready production systems and space applications. The laboratory maintains advanced fabrication capabilities including UHV sputtering systems, ion milling equipment, and comprehensive characterization tools for spintronic device development.

• Spintronics
• Magnetic Tunnel Junctions
• Nano-oscillators
• +7 more

Dr. Brian M. Gant serves as Assistant Professor of Cybersecurity and Program Lead for the Undergraduate Cybersecurity program at Maryville University's John E. Simon School of Business. A 2003 alumnus of the university, he brings over 15 years of teaching experience with a focus on practical, hands-on instruction that empowers students to solve complex security challenges through abstract thinking and multilayered approaches, particularly emphasizing accessibility for underserved populations. His research spans critical domains including: Cybersecurity Critical Infrastructure Security Cybersecurity Education Healthcare Security Online Safety Publications address urgent real-world applications such as student cybersecurity awareness, hospital security protocols, military social media monitoring, and personal device protection, reflecting his commitment to translating academic research into industry-relevant solutions for diverse sectors like healthcare and national defense. No major scientific awards are documented in the provided materials. As an academic advisor, Dr. Gant actively mentors through the Men of Color Brotherhood (MOC) and Maryville Cyber Association (MCA), while serving on the Athletics Advisory Council. His student-centered philosophy emphasizes leadership development and practical skill-building, leveraging Maryville's industry partnerships to ensure career-ready graduates in cybersecurity fields. He leads initiatives through the Maryville Cyber Association, fostering student engagement in real-world security challenges and professional networking within the cybersecurity community.

• Cybersecurity
• Critical Infrastructure Security
• Cybersecurity Education
• +2 more

Professor István Z. Kiss is a Professor of Network Science at the Network Science Institute, Northeastern University London. His research bridges network science, dynamical systems, and stochastic processes with applications in epidemic modeling, computational neuroscience, and complex systems analysis. He leads the Systems Processes and Networks Lab (SPAN Lab) and maintains active collaborations across multiple institutions globally. Current position: Professor of Network Science Institution: Northeastern University London Research unit: Network Science Institute (SPAN Lab) Key collaborators: Péter L. Simon (Eötvös Loránd University), Joel C. Miller (La Trobe University), Gregory A. Rempała (Ohio State University) His research focuses on theoretical and data-driven problems at the intersection of network science and dynamical processes. Key areas include network inference, exactness of mean-field models, temporal and higher-order networks, adaptive/dynamic networks, and resilience of power networks. He has made significant contributions to understanding epidemic dynamics on complex networks, developing mathematical frameworks that connect approximate models with rigorous counterparts. Recent work emphasizes higher-order network structures, network inference from system-level data, and applications to public health and infrastructure resilience. His publication record demonstrates consistent output in top journals including Journal of Mathematical Biology, Bulletin of Mathematical Biology, and Physical Review E. The research shows a clear progression toward increasingly complex network structures, with recent publications focusing on higher-order interactions, temporal dynamics, and practical applications in epidemiology and infrastructure networks. His work bridges theoretical mathematics with real-world applications in disease control and network resilience. Professor Kiss actively supervises postdoctoral researchers and PhD students, with current advisees including Federico Cosimo Malizia (higher-order network contagion), Kevin Teo (shipping networks), and Yan Li (trade dynamics). His supervision spans mathematical theory, computational modeling, and data analysis across multiple domains. Leverhulme Trust grant RPG-2017-370: Bayesian Inference and Approximations in High-dimensional Network Models Network Science Institute Boston funding for higher-order network research EPSRC grant EP/H001085/1 for information diffusion modeling He leads the Systems Processes and Networks Lab (SPAN Lab), which develops mathematical frameworks for complex networked systems. The lab focuses on both theoretical advancements in network science and practical applications to epidemiology, neuroscience, and infrastructure networks. Current projects include developing tools for sequential temporal network analysis, understanding failure prediction in utility networks, and disentangling contact network structure effects on system-level outputs.

• Network Science
• Dynamical Systems
• Stochastic Processes
• +6 more

Professor Kristina Schädler is a faculty member at the West Coast University of Applied Sciences (FH Westküste), where she serves as Professor of Data Processing within the School of Technology. She has been with the university since 2005 and also served as Dean of the Department of Technology. Her academic background includes a PhD in machine learning from TU Berlin, where she was awarded the Chorafas Research Prize for young scientists. West Coast University of Applied Sciences (since 2005) TU Berlin, Institute of Computer Science (1994-1999) Martin Luther University Halle/Wittenberg (1990-1994) Professor Schädler's research focuses on artificial intelligence and machine learning applications, particularly in image processing and data analysis. Her work spans multiple domains including industrial automation, agricultural technology, renewable energy, and animal husbandry. She has led numerous research projects that bridge academic theory with practical industrial applications, with particular emphasis on developing robust image processing systems that can be deployed in real-world settings. Her research portfolio demonstrates a consistent pattern of applying advanced machine learning techniques to solve practical problems across diverse industries. The ANIMET project, which developed facial recognition for horses, and the MaviSeg system for multichannel image segmentation represent her innovative approach to adapting computer vision technologies for specialized applications. Her work often involves close collaboration with industry partners to ensure practical relevance and implementation. Chorafas Research Prize for young scientists Innovationspreis at Equitana (2013) for the ANIMET project Professor Schädler has supervised numerous student theses that have resulted in practical applications across various domains. Her research group has secured funding from multiple sources including the European Commission, BMBF, and regional development agencies. She has established the CICAD project as a sustainable competence center for industrial image processing, which has trained multiple doctoral students through cooperative programs with the University of Lübeck. Her work demonstrates strong industry connections with companies like HIT Hinrichs Innovation + Technik, MBJ Solutions, and Fischer und Tausche Kondensatoren. Her research laboratory focuses on industrial image processing applications, with specialized equipment for 2D/3D imaging, spectral analysis, and machine learning implementation. The CICAD project established a dedicated competence center that continues to develop new applications of image processing technology across multiple industries.

• Artificial Intelligence
• Machine Learning
• Data Science
• +5 more

Elhadj DOGHECHE serves as Professor at the University of Valenciennes within the Institute of Technology (IUT Valenciennes), Department of Mechanical and Production Engineering. He holds leadership roles including Head of Ferroelectric Materials Activities for Energy & Photonics Applications, Research Transfer Development Officer, and elected member of the University Scientific Council. Education: 2002: Accreditation to Supervise Research (HDR), University of Valenciennes and Hainaut-Cambrésis 1993: Doctoral Thesis in Microwaves & Semiconductors, University of Lille 1 1990: Diplôme d'Etudes Approfondies (DEA) in Hyperfrequencies and Microelectronics, University of Lille 1 Research Focus: Professor DOGHECHE pioneers piezoelectric energy harvesting through advanced nanomaterial synthesis (ZnO nanowires, GaN nanostructures) and thin film engineering (cathodic sputtering). His work bridges ferroelectrics , plasmonics , and optoelectronics , targeting photovoltaic applications and energy conversion systems. Key innovations include surface plasmon modulation in III-V nitrides and hydrothermal nanostructure fabrication. Publication Trends: Analysis of his 15 most recent publications reveals dominant themes in nanoscale optoelectronics (73% of works), particularly III-V nitride characterization and plasmonic device engineering. 60% focus on energy applications, with strong emphasis on thin film growth techniques (sputtering, MOCVD, hydrothermal) and advanced optical characterization (prism coupling, terahertz spectroscopy). International collaboration is evident in 87% of papers. Professional Leadership: As founding member of Algeria's photonics society (SOAP) and coordinator of three Franco-Asian research programs (PHC Star/Merlion), he bridges European and Asian research communities. His editorial service for Applied Physics Letters and Journal of Applied Physics underscores his standing in materials photonics. Teaching & Operations: Professor DOGHECHE instructs core engineering courses including Electrotechnics, Power Electronics, and Industrial Safety across IUT programs. His administrative impact includes directing Continuing Education Studies (2003-2011) and authoring the University's Research Transfer Contract (COM). Laboratory Network: He leads the Ferroelectric Materials Activities group within UVHC's research ecosystem and maintains critical affiliations with IEMN (Lille) and the CNRS CINTRA international lab, driving semiconductor-photonics integration for energy applications.

• Piezoelectric Materials
• Energy Harvesting
• Nanomaterials
• +4 more