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Safwan AkramView profile

Professor

• Biomanufacturing
• Synthetic Biology
• Low-Cost Diagnostics
• +6 more

Professor Safwan Akram is a distinguished academic at Teesside University's School of Health and Life Sciences, based at the National Horizons Centre and Centre for Biodiscovery. As a Professor of Innovation in Healthcare/Biosciences, his research focuses on biomanufacturing, synthetic biology, low-cost diagnostics, and biomimetic applications. He holds a PhD in Analytical Biotechnology from the University of Cambridge, with postdoctoral work on low-cost diagnostics. His teaching excellence was recognized with a university-wide Star Award. Research interests include nanobody manufacturing, gene therapy vectors, and amyloid protein dynamics. He leads major grants totaling over £4M, including BBSRC Landscape Awards for doctoral training and DefSec Accelerator funding. Collaborations span academia and industry (e.g., Selective Antibodies, Hexis Labs). Education: PhD (Analytical Biotechnology, Cambridge), M.Phil (Bioscience Enterprise, Cambridge/MIT), Postdoc at Cambridge Key Awards: Medimmune Award, CambridgeSens Innovative Idea Award, Star Teaching Award Lab Focus: Biomanufacturing innovation, diagnostic tools, and bioactive scaffolds His lab actively recruits PhD students in biopharma, biotechnology, and bioscience innovation. Notable projects include £1.5M BBSRC Yorkshire Doctoral Training Programmes and Launchpad NetZero grants for bioprocessing advancements.

David HoweyView profile

Professor

• Energy Storage Systems
• Battery Modeling and Control
• Renewable Energy Integration
• +3 more

Professor David Howey is the Professor of Engineering Science at the University of Oxford and Tutorial Fellow at St Hilda's College. He holds an MEng from the University of Cambridge and a PhD from Imperial College London (2010), specializing in thermal management of electrical machines. His research focuses on modeling and managing energy storage systems, particularly batteries for electric vehicles and grid applications. He leads the Battery Intelligence Lab, emphasizing interdisciplinary approaches combining machine learning, electrochemistry, and engineering to improve battery performance and longevity. Notable collaborations include work with BBOXX Ltd on off-grid battery diagnostics and the Faraday Institution. He has over 125 peer-reviewed publications, 7 patents, and co-founded Brill Power Ltd. His current projects include the Oxford Martin School Programme on Circular Battery Economies, aiming to optimize second-life EV battery use in India and Africa. Education: MEng in Electrical and Information Sciences, University of Cambridge (2002) PhD in Engineering, Imperial College London (2010) Research Interests: Electrochemical energy storage, battery modeling and control, renewable energy integration, machine learning applications in energy systems, grid and off-grid power systems, thermal management of batteries. Key Contributions: Developed impedance-based battery condition monitoring techniques. Pioneered advanced modeling for grid-scale battery systems, improving revenue by 20% and reducing degradation by 30%. Co-developed the Brill Power intelligent battery management system. Grants & Collaborations: EPSRC, European Union, Korean Government, InnovateUK, Faraday Institution, industry partnerships (e.g., BBOXX, Brill Power). Labs/Teams: Battery Intelligence Lab at Oxford, collaborating with interdisciplinary teams including social scientists for circular economy initiatives.

Vilhjálmur NielsenView profile

Researcher

• Building Physics
• Energy Systems
• District Heating
• +7 more

Vilhjálmur Nielsen is a Researcher in the Department of Civil and Mechanical Engineering Energy and Services at the Technical University of Denmark (DTU). His work focuses on sustainable building technologies, energy systems, and renewable energy applications, with particular expertise in building physics and heat transfer systems for extreme environments including Arctic regions. Nielsen holds a Ph.D. in Engineering from DTU (1994-1998) and an MSc in Engineering from DTU (1988-1994). His multilingual capabilities in Faroese, Danish, English, and Norwegian/Swedish support his international research collaborations, particularly in Nordic and Arctic contexts. His research spans building physics, energy systems, district heating, sustainable building design, heat exchangers, renewable energy, Arctic building construction, and energy efficiency. Nielsen's work addresses practical engineering challenges in sustainable building technologies, with special attention to water-energy nexus solutions like rainwater harvesting for cooling systems and geothermal applications through borehole heat exchangers. Analysis of Nielsen's publications reveals a consistent focus on practical applications of sustainable energy technologies in buildings across different climates. His work bridges fundamental heat transfer research with applied projects addressing specific building challenges, showing particular expertise in adapting energy systems to extreme environments like the Arctic and the Faroe Islands. Arctic Building and Construction project (2018-2026) - researching sustainable architecture in Greenland and Arctic conditions Mapping of energy consumption in Faroese building types (2021-2024) - as Project Manager Heat 4.0 Digitally supported District Heating (2019-2022) - contributing to energy systems research SCA: Smart Cities Accelerator (2017-2020) - participating in smart city initiatives Nielsen's research directly contributes to UN Sustainable Development Goals related to sustainable cities and communities (SDG 11), affordable and clean energy (SDG 7), and climate action (SDG 13), with practical applications for reducing carbon emissions in building sectors across challenging environments.

• Pharmaceutical Sciences
• Nanocarrier Development
• Oligonucleotide Delivery
• +3 more

Haider Sami is a researcher at the University of Vienna , affiliated with the Faculty of Life Sciences and the Department of Pharmaceutical Sciences . He works in the Macromolecular Cancer Therapeutics (MMCT) laboratory under Professor Manfred Ogris, focusing on RNA-based therapeutics and nanocarrier delivery systems . His research addresses critical challenges in splice-switching oligonucleotide (SSO) delivery , particularly regarding endosomal escape , nuclear targeting , and systemic biodistribution . Haider Sami's research expertise spans nanocarrier design for RNA splicing modulation , with a particular emphasis on redox-responsive polymers like disulfide cross-linked polyethylenimine (cLPEI) . He has pioneered methods for accelerated endosomal release and hepatic splice correction , validated through transgenic mouse models expressing split-luciferase reporters . His work demonstrates that cLPEI-SSO polyplexes significantly improve in vivo bioavailability while reducing renal excretion and enhancing tumor accumulation . Key research contributions include disulfide crosslinking strategies for endosomal escape enhancement , one-step nanoparticle synthesis using Brij-linkers , and spatiotemporal delivery tracking via NIR fluorescence imaging and X-ray computed tomography . These studies have direct implications for monogenic disease therapies and cancer treatment applications. Haider Sami has authored 24 publications since 2014, with recent work (2023-2025) emphasizing biocompatible delivery systems , quantitative biodistribution analysis , and functional protein restoration in multiple organ systems including liver, lung, kidney, and bladder.

• Chaos Control
• Nonlinear Dynamics
• Power Electronics
• +3 more

Cristina MOREL is a Permanent lecturer-researcher at ESTACA since 2020, specializing in electrical engineering and control systems. Previously, she held academic positions at ESEO (2016-2020) and the IUT of Angers (2000-2020), and began her career at the Technical University of Cluj-Napoca (1992-1999). Her research focuses on nonlinear dynamics, chaos control, and applications in power electronics and renewable energy systems. Dr. MOREL holds a Doctorate in Automatics and Applied Computer Science from the University of Angers (2005) and a Habilitation to Direct Research (2016). She earned her Graduate Engineer degree in Automation and Computer Science from the Technical University of Cluj-Napoca (1992), where she was Vice-major of her promotion. 2016: Habilitation to Direct Research in Electronics, University of Angers 2005: Doctorate in Automatics and Applied Computer Science, University of Angers 1992: Graduate Engineer in Automation and Computer Science, Technical University of Cluj-Napoca Her research spans chaos control , nonlinear dynamics , and their applications in power electronics and renewable energy systems . She pioneered anticontrol of chaos to reduce electromagnetic interference in power converters and developed novel maximum power point tracking (MPPT) algorithms for photovoltaic systems under partial shading. Current work focuses on fault diagnosis for electric vehicle powertrains using entropy analysis and neural networks. Recent publications (2022-2025) show strong focus on chaos applications for MOSFET thermal management, entropy-based fault diagnosis in inverters, and energy storage optimization for electric vehicles and drones. There is clear evolution toward data-driven approaches (neural networks) for fault detection and real-world applications in e-mobility. Dr. MOREL has received several academic honors early in her career: Winner of the National University Assistant Competition (Romania, 1996) Winner of the National University Preparation Competition (Romania, 1993) Winner of the national entrance exam to the Polytechnic School of Cluj-Napoca (1987, 15th out of 700 candidates) She has supervised five PhD theses and three Master's research projects on topics including fault diagnosis in polyphase machines, energy management for battery-ultracapacitor vehicles, and MPPT for photovoltaic systems. Her research is supported by collaborations with University of Angers, ESEO, and ESTACA laboratories. Dr. MOREL led the Automation and Electrical Engineering research group at ESEO (2016-2018) and the Energy and Environment option (2016-2020), conducting experimental work in power electronics and control systems laboratories focused on converter design and EV powertrain validation.

• Concrete Engineering
• Alkali-Aggregate Reactions
• Material Science
• +3 more

Jan Lindgård is a Researcher at the Department of Structural Engineering , Norwegian University of Science and Technology (NTNU). His work focuses on alkali-aggregate reactions (AAR) and concrete durability, with particular emphasis on alkali-silica reactions (ASR) and pyrrhotite-induced degradation in concrete structures. Key Research Areas: Concrete durability, AAR/ASR mechanisms, accelerated testing methods, alkali leaching, microstructural analysis. Collaborations: Active in RILEM Technical Committee 258-AAA, SINTEF, international institutions. His recent publications analyze pyrrhotite quantification in aggregates, ASR damage assessment in dams, and validation of CEN/RILEM testing standards. He investigates alkali release mechanisms and their impact on concrete performance through both field surveys and laboratory experiments. Scientific activities include: Co-authoring multiple Academic Articles and Technical Reports Contributing to RILEM STAR Reports and Guidelines Participating in Norwegian Infrastructure Projects like COIN and PARTNER Projects address ASR mitigation via low-alkali cements, silica fume additives, and field-lab correlation studies. His work informs Norwegian concrete standards and international AAR prevention strategies.

Barry MyersView profile

Professor

• Head and Neck Impact Injury Biomechanics
• Translational Research Innovation
• Injury Prevention
• +5 more

Barry Myers, M.D., Ph.D. is a Professor of Biomedical Engineering at Duke University's Pratt School of Engineering, where he has been a faculty member since 1991. He serves as the Coulter Program Director and holds the Bass Chair in recognition of his accomplishments in research and teaching. Dr. Myers directs the Coulter Foundation Translational Partnership Program at Duke, providing over $1 million annually in early-stage funding for healthcare innovations, and serves as Director of Innovation in the Duke CTSI. His work spans academic research, technology commercialization, and industry consulting with organizations including the NFL-PA, NASCAR, and Pappas Ventures. Dr. Myers' research focuses on head and neck impact injury biomechanics with the goal of injury prevention. His work has significant applications in automotive safety, sports equipment design (particularly football helmets), and pediatric head protection. He has examined biomechanical responses across various impact scenarios and populations, from professional athletes to children. His translational approach bridges fundamental biomechanical research with practical safety applications, overseeing more than $3 million annually in funding for life science projects. Dr. Myers' publications demonstrate consistent research output spanning over three decades, with recent work focusing on football helmet performance, concussion mechanisms in the NFL, and pediatric head biomechanics. His research employs laboratory testing, computational modeling, and real-world data analysis to understand injury mechanisms and develop prevention strategies. Stapp Award (6 times winner - more than any other individual) Isbrandt Award for automotive safety from the Society of Automotive Engineers Bertil Aldman award for impact biomechanics research Founders Award, Southern Consortium for Injury Biomechanics (2008) Fellow, American Institute for Medical & Biological Engineering (2008) Fellow, American Institute for Medical and Biological Engineering (2003) Dr. Myers has secured substantial funding for translational research, including the Duke-Coulter Translational Partnership providing $1 million annually and a national fund for football safety research. He has advised four student teams to winning graduate student paper competitions at national meetings. His leadership extends to curriculum development, having revised the Pratt School of Engineering undergraduate curriculum in 2004, and administrative roles including Director of Undergraduate Studies, Director of Graduate Studies, and Senior Associate Dean for Industrial Partnerships. He maintains active consulting relationships with major automotive manufacturers, racing organizations, and serves as an Executive-in-Residence at Pappas Ventures.

• Working memory
• Long-term memory
• Cognitive development
• +4 more

Amy Atkinson is a Lecturer in Developmental Psychology at the Department of Psychology, Faculty of Science and Technology, Lancaster University. She specializes in cognitive psychology with a focus on memory systems and developmental trajectories across the lifespan. Her primary research interests include: Working memory development during childhood and adolescence, and its operation in adulthood Long-term memory retention and forgetting, particularly accelerated long-term forgetting Early life experiences and their impact on later cognitive and academic outcomes Dr. Atkinson's research portfolio demonstrates a strong integration of theoretical cognitive psychology with practical applications. Her recent publications reveal expanding work in clinical neuropsychology (particularly regarding epilepsy and memory disorders) alongside educational policy implications. She has developed innovative approaches to diagnosing accelerated long-term forgetting and investigates how working memory relates to attention and learning across developmental stages. Notable scientific contributions include: Development of remote testing protocols for accelerated long-term forgetting Research on attention direction in working memory across development Examination of early childhood predictors of later educational outcomes Policy-oriented research on special educational needs assessment Dr. Atkinson currently supervises PhD students, including Michelle Kan, and leads multiple research projects: "Does reward affect executive functions? An examination across development and cultures" (2025-2028) "Working memory and its relation to key outcomes in the real world" (2023-2026) "How do adults and children direct attention in working memory?" (2022-2024) "Understanding The Downstream Effects Of Early Sleep For Education And Mental Health" (2022-2024)

• Neuromorphic Computing
• Embodied Artificial Intelligence
• Robotics
• +6 more

Dr. Yulia Sandamirskaya is the Head of Research Center "Cognitive Computing in Life Sciences" at Zurich University of Applied Sciences (ZHAW), focusing on neuromorphic computing applications for embodied artificial intelligence. Her work bridges computational neuroscience and robotics, emphasizing neural-dynamic architectures for real-time decision-making, learning, and sensorimotor integration in autonomous agents. Key Research Areas: Neuromorphic hardware, dynamic neural fields, spiking neural networks, spatial language modeling, and autonomous sequence generation. Projects: Developed controllers for UAVs and robotic arms using event-based vision sensors, explored on-chip unsupervised learning, and designed models for spatial language interpretation in robots. Scientific Contributions: Her publications span robotics conferences and journals like Science Robotics and Frontiers in Neurorobotics , addressing topics such as path integration, obstacle avoidance, and cognitive architectures. Recent work (2024) includes visual odometry with resonator networks and hyperdimensional scene factorization on neuromorphic chips. Advising: Supervised multiple MSc theses at ETH Zurich and NSC/INI programs, mentoring students on neuromorphic navigation, spiking networks, and tactile learning. Collaborated with institutions like ETH Zurich, University of Queensland, and INI Bochum. Labs & Collaborations: Leads the "Neuromorphic Computing Applications: Embodied AI" group at ZHAW, partnering with INIvation (Zurich) and Jörg Conradt (KTH) on neuromorphic hardware implementations. Projects integrate cognitive models with robotic platforms, emphasizing energy efficiency and low-latency interaction.

Luciano OstView profile

Senior Lecturer

• Embedded Systems
• Hardware/Software Co-design
• Cybersecurity
• +7 more

Luciano Ost is a Senior Lecturer and Programme Director of the Computer and Electronic Engineering (CEE) Programme at the University of Leicester. He holds a Ph.D. in Computer Science from Pontifical Catholic University of Rio Grande do Sul (PUCRS), Brazil (2010). His research focuses on enhancing reliability, security, and performance of embedded and life-critical systems through innovative hardware/software co-design approaches. Key areas include fault tolerance in neural networks, radiation effects on embedded systems, and real-time control systems. Prior to Leicester, he worked at the University of Montpellier II (France) as an assistant professor and research assistant. He has authored/co-authored over 100 papers and two books, with notable contributions to soft error reliability assessment frameworks (e.g., SOFIA, gem5-FIM) and embedded system security solutions like BIDS for in-vehicle networks. His research spans topics like FPGA-accelerated intrusion detection (BNN-based), radiation resilience in IoT edge devices, and compiler optimization impacts on multicore reliability. He has conducted extensive studies using Geant4 simulations and virtual platforms for fault injection analysis.

Linda van de BurgwalView profile

Associate Professor

• Knowledge Valorisation
• Healthcare Innovation
• Societal Impact of Technology
• +3 more

Linda van de Burgwal is an Associate Professor at Vrije Universiteit Amsterdam, affiliated with the Faculty of Science's Athena Institute, Amsterdam Sustainability Institute, and Network Institute. She holds a cum laude PhD in societal impact of knowledge in life sciences and a cum laude master’s in health and life sciences management. Her research focuses on stakeholder interactions, knowledge valorisation, and societal entrepreneurship in healthcare innovation. She advises on ancillary roles in companies like Sovalacc BV and Genewity BV, emphasizing entrepreneurship and public health. Education: PhD (cum laude) and master’s (cum laude) from Vrije Universiteit Amsterdam. Teaching includes societal entrepreneurship for biomedical students and finance for health sciences growth. Research interests span blockchain in food systems, federated learning compliance, pharmaceutical R&D efficiency, and probiotic interventions. Awards include the 2015 Best PhD Student Presentation Award. She has supervised six PhD theses and led projects like Take Off Fase 1 Halbaarheid. Her work addresses UN SDGs related to health equity and sustainable systems.

• Stress Process Theory
• Mental Health Disparities
• Work-Family Balance
• +2 more

Susan Roxburgh is Professor and Graduate Coordinator in the Department of Sociology and Criminology at Kent State University's College of Arts & Sciences. Her research examines Stress Process Theory, Mental Health Disparities, Work-Family Balance, Sociology of Food, and Gender/Race Studies, with consistent focus on how social roles impact psychological well-being. Her extensive publication record demonstrates methodological rigor in analyzing stress mechanisms across diverse populations, including incarcerated individuals, dual-career families, and dietary subcultures. Recent work explores compassion pedagogy and vegan stigma, reflecting evolving interests in educational justice and food sociology. Longitudinal findings reveal persistent intersections between time pressure, gender roles, and mental health outcomes. Professor Roxburgh maintains active editorial roles at major sociology journals and significant university service commitments, including Faculty Senate and Institutional Review Board membership. Her community engagement includes public health advocacy through roles on municipal health boards and nonprofit advisory councils.

Stephan SeifertView profile

Professor

• Chemometrics
• Bioinformatics
• Food Profiling
• +3 more

Professor Stephan Seifert leads research at the University of Hamburg's Department of Chemistry, focusing on chemometrics and bioinformatic methods for food profiling and manuscript analysis. His group develops analytical approaches using vibrational spectroscopy, machine learning, and data fusion techniques. Research spans: Chemometric method development (random forests, variable selection) Spectroscopic analysis (FTIR, Raman, NMR) Food authentication and quality control Manuscript material characterization Recent publications demonstrate increasing use of machine learning for metabolomics data interpretation and multi-technique data fusion. Research integrates analytical chemistry with computational approaches to solve problems in food science and cultural heritage. Current projects include the Cluster of Excellence 'Understanding Written Artefacts' and Palm-Leaf Manuscript Profiling Initiative. Leads the Seifert AG research group at the Institute of Food Chemistry.

Jean-Charles StinvilleView profile

Assistant Professor

• Materials Informatics
• Cryogenic Materials
• Deformation Processes
• +3 more

Dr. Jean-Charles Stinville is an Assistant Professor in the Materials Science and Engineering Department at the University of Illinois at Urbana-Champaign (UIUC), where he also holds appointments in the Materials Research Laboratory. Previously, he served as a Specialist (2019-2021) and Associate Specialist (2015-2019) at the University of California Santa Barbara (UCSB). His research focuses on the mechanical and environmental performance of metallic materials for extreme applications, including cryogenic and high-temperature environments. He leads experimental developments in in-situ SEM mechanical characterization and materials informatics. Education: Ph.D., Solid Mechanics, Materials Science and Structures Mechanics (Ecole Nationale Supérieure de Mécanique et Aerotechnique / University of Poitiers, 2010) M.Sc., Materials Science and Mechanical Engineering (ISAE-ENSMA / University of Poitiers, 2006) M.Eng., Aeronautics, Computer Science, Materials Science, and Mechanics (ISAE-ENSMA, 2006) Research Interests: Materials Informatics Cryogenic Materials In-situ Characterization Deformation Processes High-/Low-Temperature Materials Sustainable Metallurgy Recent Research Trends: His work emphasizes high-throughput experimental methods and machine learning to predict material behavior. Recent studies focus on plastic localization in nickel-based superalloys, cryogenic performance, and microstructural heterogeneity analysis. Awards: 2024 National Science Foundation Career Award 2024 Kent D. Peaslee Junior Faculty Award 2024 Stanford/Elsevier World's Top 2% Scientists Teaching: Teaches courses including MSE 529 (Hard Materials), MSE 598 (Materials Informatics), and MSE 443 (Design of Engineering Alloys). Recognized with student excellence awards in 2023 and 2024. Labs/Teams: Leads the Stinville Research Group, focusing on experimental and computational approaches to materials design. Collaborates with UCSB and institutions globally via projects like AdvancedExperiment (YouTube) and ResearchGate.

Jose Brandao DelgadoView profile

Assistant Professor

• Food Safety
• Pathogen Control
• Food Toxicology
• +3 more

Jose Brandao Delgado serves as an Assistant Professor and Extension Food Safety Specialist at Utah State University's Department of Nutrition, Dietetics, and Food Sciences, based at the Logan Campus. His work integrates academic research with practical industry collaboration to advance food safety standards and regulatory compliance across Utah's agricultural sector. His educational foundation includes: PhD in Food Science from Louisiana State University (2019) BS in Food Technology from Escuela Agrícola Panamericana Zamorano (2012) Dr. Brandao's research centers on developing innovative food safety solutions for Utah's unique agricultural challenges, with particular emphasis on pathogen control in irrigation systems and food waste reduction. His expertise spans food toxicology, safety practices in food processing, and agricultural pathogen management, directly addressing critical gaps in fresh produce safety. Through extension programs, he translates complex food safety science into actionable industry protocols for both consumer and manufacturing contexts. Analysis of his 15 most recent publications (2015-2024) reveals a consistent research trajectory focused on practical food safety interventions. His work predominantly addresses irrigation water decontamination using surfactant-modified zeolite filtration systems, demonstrating significant pathogen reduction efficacy for high-risk pathogens like Salmonella and Listeria in strawberry and lettuce production. Secondary themes include horticultural by-product valorization, shelf-life extension techniques, and household food waste reduction strategies—showcasing his commitment to sustainable food systems from farm to consumer. No scientific awards were documented in the provided materials. Dr. Brandao actively secures research funding to support Utah's food safety infrastructure while mentoring students through courses like NDFS 6180 - Food Safety Inspection and Auditing. His dual extension appointments in Consumer Food Safety Education and Food Safety of Manufacturing Industry (both ongoing since 2024) demonstrate his commitment to bridging academic research with real-world industry implementation across multiple food system sectors.