Pouyan Rezapoor is a Doctoral Researcher affiliated with Aalto University's Department of Electronics and Nanoengineering. His research focuses on terahertz imaging systems, medical physics, and computational modeling for cancer treatment. Research areas: Terahertz imaging, MRI-guided radiotherapy, and electromagnetic wave propagation Key collaborations: Zachary Taylor Group, Dan Ruan, and international researchers in biomedical engineering Current work examines radiation toxicity prediction in prostate cancer patients and optical system design for THz imaging. Recent publications analyze telecentric lens systems, cross-polarization effects, and computational methods to address feature correlation in clinical data.
Dr. David Chapman is a Senior Research Associate in the Department of Engineering Science at the University of Oxford and a Senior Research Fellow at Pembroke College, Oxford. He holds a visiting academic position at Imperial College London. His research focuses on shock compression, high strain-rate deformation of heterogeneous solids, synchrotron X-ray imaging, and time-resolved diagnostics. His work explores material failure under extreme conditions, with applications in dynamic material behavior analysis. Chapman’s research interests include: Shock compression mechanics Dynamic material characterization using synchrotron radiation Advanced diagnostics for high-speed material testing Thermomechanical coupling in polymers and composites Recent studies highlight his contributions to understanding granular material compaction, ionization in warm dense matter, and the role of crystal orientation in metallic alloys. His work bridges experimental mechanics with computational modeling. Scientific Awards: No awards explicitly mentioned in the provided text. Chapman collaborates with research groups at Oxford and Imperial College London, contributing to the Solid Mechanics and Materials Engineering domain. His research leverages cutting-edge facilities like the European Synchrotron Radiation Facility (ESRF) for ultra-high-speed imaging.
Dr. Danny Toohey is a Senior Lecturer in Business Information Systems at Curtin University’s School of Management and Marketing, within the Faculty of Business and Law. Previously, he held roles at Murdoch University including Senior Lecturer, Interim Dean of Learning and Teaching, and Associate Dean of Learning and Teaching. His academic career spans over two decades, combining teaching excellence with impactful research in educational technology. He holds a BSc (Hons) and PhD, and is a Senior Member of the Australian Computer Society (ACS). Key research focuses include Transnational Education (TNE) , Learning Analytics , and IoT applications in agriculture . Notably, his PhD work on TNE earned the International Education Association of Australia’s award for Outstanding Postgraduate Thesis. His research explores student-facing learning analytics dashboards, ethical data use in education, and smart hydroponic systems. He has published in journals like Journal of Studies in International Education and Australasian Journal of Educational Technologies , and his teaching innovations were nationally recognized through an OLT Citation for Outstanding Contribution to Student Learning. Awards: Murdoch VC Teaching Excellence Citation (201?), OLT Citation (201?), IEEA PhD Award (201?) Grants & Projects: Led projects on student retention analytics, TNE workforce challenges, and IoT-based agricultural systems. He advises on educational technology policy and collaborates internationally, with teaching and research activities across Curtin’s global campuses in Dubai, Malaysia, and Singapore.
Zachary Taylor is an Associate Professor at Aalto University's School of Electrical Engineering, specializing in terahertz science and biomedical engineering. His research focuses on advanced imaging and spectroscopy techniques for medical diagnostics. Specialized in terahertz and microwave-optical systems Recipient of Aalto University Doctoral Thesis Award Active in IEEE Transactions and IRMMW-THz conferences His work spans innovative technologies like Gaussian beam analysis for corneal sensing, quasioptical calibration methods, and frequency diversity applications in holography. Recent publications highlight his contributions to radiation oncology predictive modeling and millimeter-wave measurement systems. Key research domains include: Terahertz biomedical imaging Microwave-optical component integration Computational electromagnetic modeling MRI-guided radiotherapy prediction Reflective optical system design Precision calibration techniques Scientific Recognition: Aalto University School of Electrical Engineering Doctoral Thesis Award Prof. Taylor leads the Zachary Taylor Group, advising multidisciplinary researchers across terahertz science, medical physics, and computational modeling. His team's recent work demonstrates cross-domain applications from corneal diagnostics to cancer treatment prediction.
Mark Oldham is Professor of Radiation Oncology and Professor of Physics at Duke University, where he also serves as Director of the Duke Medical Physics MS/PhD Graduate Program and is a Member of the Duke Cancer Institute. His academic career spans over three decades with progressive appointments from Instructor to full Professor in Radiation Oncology. Dr. Oldham received his Ph.D. from Newcastle University (United Kingdom) in 1991. His research interests focus on innovative approaches to radiation therapy, particularly FLASH radiation therapy using the Duke High Intensity Gamma Source (HIGS), radiation and immunotherapy utilizing mini-grids, Radiation Therapy Enhanced by Cherenkov photo-Activation (RECA), and comprehensive 3D dosimetry systems. His work has been recognized with multiple Paper of the Year awards from SEAAPM and the prestigious Farrington Daniel Award from AAPM. His recent publications demonstrate a strong focus on 3D dosimetry systems, radiation therapy verification techniques, and novel cancer treatment approaches. His research integrates advanced dosimetry methods with innovative radiation therapy techniques to improve cancer treatment outcomes. His work on polymer gel dosimetry, optical CT scanning, and radiation-immunotherapy combinations represents cutting-edge developments in the field. Dr. Oldham's scientific achievements have been recognized through multiple awards including the Paper of the Year (2018, 2017), Farrington Daniel Award (2016, 2002), Excellence in Teaching (2014), Excellence in Mentoring (2011), and Fellow of the AAPM (2010). He has also received the Director's Award for Exemplary Service multiple times. As a principal investigator and co-investigator, Dr. Oldham has secured significant research funding from the National Institutes of Health, National Institute of Dental and Craniofacial Research, and Ian's Friends Foundation. His current research portfolio includes exploring synthetic lethality with high energy electron FLASH radiation beams, super-FLASH therapy for pediatric brain tumors, and radiation protection mechanisms. He serves on the Board of Directors of the American Association of Medical Physics and has made significant contributions to medical physics education through his leadership of Duke's Medical Physics Graduate Program.
Dr. Daniel Doveiko is a Researcher in the Pure & Applied Chemistry department at the University of Strathclyde's Faculty of Science . His work focuses on nanoparticle design, fluorescence spectroscopy, and material characterization, with applications in environmental science, biomedical engineering, and drug delivery systems. He is currently a Research Co-investigator on the EPSRC-funded Doctoral Training Partnership (2020-2025), collaborating on nanoparticle metrology and molecular dynamics studies. He holds a PhD in Physics and has published extensively in journals like Journal of Chemical Physics and Langmuir . His research employs advanced techniques including molecular dynamics simulations and fluorescence recovery after photobleaching (FRAP). Notable achievements include developing smartphone-based microscopy systems and studying silica nanoparticle interactions with fluorescent dyes. Key areas: Nanoparticle adsorption mechanisms, quantum chemistry calculations, biomedical nanocarriers Techniques: Molecular dynamics, fluorescence spectroscopy, X-ray scattering Award: Certificate of Achievement (2023) His work bridges theoretical and experimental chemistry, contributing to both fundamental material science and applied biomedical solutions.
Tabitha Hart is a Professor in the Department of Communication Studies at San Jose State University's College of Social Sciences. Her work focuses on the Ethnography of Communication and Speech Codes Theory, emphasizing inductive, immersive methodologies for understanding cultural communication norms. She has contributed to intercultural communication pedagogy and digital ethnography research. University: San Jose State University School: College of Social Sciences Department: Communication Studies Email: tabitha.hart@sjsu.edu Her research explores cultural navigation in life transitions, from graduate school to workplace integration, informed by her seven years teaching English abroad. She emphasizes unspoken communication rules alongside linguistic mechanics for true cultural competency. Recent publications focus on speech codes in diverse contexts, cultural pedagogy, and qualitative software tools. She has also examined intercultural communication in Starbucks' customer service and telecentre impacts on digital inclusion globally. Her methodological toolkit bridges traditional ethnography with digital research, including online community analysis and virtual interaction design. She advocates for rigorous interpretive fieldwork to decode cultural communication systems across physical and virtual environments.
Morten Falch is an Associate Professor at the Department of Electronic Systems, affiliated with The Technical Faculty of IT and Design at Aalborg University. His work focuses on cybersecurity, digital transformation, telecommunications policy, and public-private partnerships. He has led numerous projects addressing cybersecurity in wireless networks, EU-US policy frameworks, and sustainable telecommunication infrastructure. Key research areas include cybersecurity economics, regulatory frameworks for emerging technologies, and the societal impact of digital policies. Falch has collaborated on initiatives like the BEiNG WISE project (cybersecurity in wireless systems) and DINNOCAP (digital innovation capacity building). His publications span over 25 years, with recent emphasis on darkweb market analysis, IoT security, and EU cybersecurity institutions. He has supervised 4 PhD students and contributed to policy white papers on cross-border e-government services and Baltic Sea Region cybersecurity strategies. Falch’s work bridges academic research with practical industry challenges, emphasizing interdisciplinary approaches to technological governance. Notable projects include: CA22104 BEiNG WISE (2023-2027): Cybersecurity in next-gen wireless networks DINNOCAP (2021): Digital innovation capacity building across industries PISH (2020-2023): Intercultural communications in STEM education Labs/Teams: Active in interdisciplinary cybersecurity research groups and policy think tanks focusing on EU digital policy and emerging tech governance.
Dr Steven Sam is a Lecturer in Computer Science at Brunel University London, affiliated with the College of Engineering, Design and Physical Sciences. He leads the Computer Science for Social Good research group and the African Regional Working Group , focusing on computing for social good (AI4SG), data ethics, responsible AI, and sustainable human-computer interaction (HCI4D). PhD from University of Queensland (2016) with Dean’s Award for Outstanding HDR Thesis Co-led projects in infant monitoring systems, indigenous knowledge platforms, and violence prevention technologies Specializes in participatory design methodologies and technology impact assessment His research bridges digital systems with sustainable development goals, particularly through ethical AI, mobile technology in plural health systems, and e-governance. Collaborations span academic institutions, governments, and NGOs across Africa. Recent publications emphasize participatory frameworks for democracy, healthcare wearables, and user-centered approaches to gender-based violence. Recipient of UQ Dean’s Award (2016) Active reviewer for BCS HCI Conference (2024) and IDIA conferences As a PhD supervisor, he guides students in topics like AI for SMEs in Global South, e-participation models, and telecentre development methodologies. His teaching includes ethics of digital systems, human-computer interaction, and machine learning applications for social impact projects.
M. Hassan Arbab is an Assistant Professor in the Department of Electrical and Computer Engineering at Stony Brook University. His research focuses on developing novel terahertz emission, detection, and imaging technologies with applications in biophotonics, medical imaging, non-destructive testing, and material characterization. Key projects include the PHASR (Portable Handheld Spectral Reflection) scanner for burn wound assessment and polarization-sensitive imaging of biological tissues. His work integrates electro-optic theory, instrumentation design, and advanced signal processing techniques. Research Highlights: Development of handheld THz imaging systems for clinical burn triage and material analysis Monte Carlo modeling of Mie scattering effects in tissue imaging Integration of physics-based deep learning models for automated wound classification Advancements in THz time-domain spectroscopy for material characterization Key Technologies: Polarization-sensitive THz spectral imaging Wavelet-based signal processing for scattering mitigation Telecentric optics for high-resolution THz imaging Labs/Teams: His research group collaborates with medical professionals and engineers to translate terahertz technologies into clinical and industrial applications.
Professor Miguel Maravall is a Professor of Neuroscience at the School of Life Sciences, University of Sussex , where he also serves as Deputy Head of School (Research) . With a background in Physics, his career transitioned to systems neuroscience through postdoctoral work at Cold Spring Harbor Laboratory and SISSA. He led a lab at the Instituto de Neurociencias in Alicante (2004-2015) before joining Sussex. His research focuses on principles of sensory coding in the brain , particularly how neuronal populations encode tactile information via the mouse whisker system . Techniques include two-photon imaging , electrophysiology , and behavioral task design . Funding comes from the MRC , BBSRC , and the Royal Society . His publications highlight trends in sensory adaptation , cortical circuit dynamics , and optical imaging innovations . Awards include the Ramon y Cajal Fellowship , Marie Curie Fellowship , and La Caixa Foundation Studentship . He has held leadership roles in Athena SWAN and Equality, Diversity & Inclusion initiatives at Sussex. Email : M.Maravall@sussex.ac.uk Phone : +44 (0)1273 877263 As co-director of the Sussex Neuroscience Centre (2019-2025), he supports PhD programs and seed funding for researcher innovations. His work bridges experimental and computational neuroscience .
Aleksi Tamminen serves as a Lecturer in the Department of Electronics and Nanoengineering at Aalto University, Finland, specializing in terahertz and submillimeter-wave technologies with significant biomedical applications. His academic role bridges electrical engineering, optics, and medical diagnostics, focusing on instrumentation development for non-invasive corneal water-content sensing. His research expertise spans: Terahertz imaging system design Quasioptical measurement techniques Submillimeter-wave holography Biomedical sensor development Corneal diagnostic instrumentation Analysis of his 15 most recent publications (2023-2025) reveals a concentrated evolution toward automated optimization frameworks and telecentric imaging systems. His work increasingly integrates computational methods (automatic differentiation, boundary integral techniques) with optical engineering to solve calibration challenges in cryogenic and biomedical contexts. A dominant theme across 70% of these publications is corneal sensing, demonstrating sustained focus on ophthalmic applications of terahertz technology. While specific awards remain undocumented in source materials, his extensive publication record in SPIE journals and IEEE transactions indicates recognition within the terahertz research community. His technical contributions to quasioptical calibration standards and frequency-diverse holography represent significant methodological advances. Dr. Tamminen's academic activities include teaching within Aalto's microelectronics curriculum and collaborative research with medical institutions for terahertz corneal diagnostics. His laboratory work centers on developing vacuum-compatible measurement systems and compact imaging apparatus for submillimeter-wave applications, with ongoing projects targeting real-time video-rate imaging for medical diagnostics.
Andrea Albarelli is an Associate Professor at Ca' Foscari University of Venice, affiliated with the Department of Environmental Sciences, Informatics and Statistics. His research focuses on Artificial Intelligence, Machine Learning, and Computer Vision, with a particular emphasis on Explainable AI, Pattern Recognition, and Data Analytics applications. He has contributed to numerous peer-reviewed publications, including studies on hierarchical text classification, fruit ripeness analysis, and embedded vision systems. His teaching activities include courses on Data Analytics for Business and Society, emphasizing practical applications of AI and informatics. Albarelli's work spans theoretical frameworks and applied research, addressing challenges in both academic and industrial contexts. Research Interests: Machine Learning algorithms, computer vision techniques, and their applications in agriculture, edge computing, and multi-camera systems. Recent Contributions: Over 90 publications, including high-impact journals like Electronics and Expert Systems with Applications . His academic contributions reflect a balance between foundational research and real-world problem-solving, with notable projects on model explainability, quantization-aware neural networks, and calibration techniques for vision systems. Albarelli serves as a faculty member in both undergraduate and graduate programs, integrating cutting-edge research into curriculum design.
Isabella Rega is a Professor in Digital Media for Social Change at Bournemouth University's Faculty of Media and Communication. She holds a Ph.D. in Communication Sciences (Università della Svizzera Italiana) and an Executive Master in Intercultural Communication. Her research focuses on leveraging digital technologies to empower marginalized communities in the Global South, including refugee education, media activism, and cultural heritage preservation. She co-chairs INEE's Distance Education Working Group and has led over 30 international projects funded by institutions like the UK Arts and Humanities Council and the European Commission, totaling over €4 million in grants. Education: PhD in Communication Sciences (Università della Svizzera Italiana, 2010); Executive Master in Intercultural Communication (Università della Svizzera Italiana). Research emphasizes participatory methods to understand technological appropriation and social change. Current projects include digital storytelling for heritage reflection and education access in refugee contexts. She served as Global Research Director at Jesuit Worldwide Learning (2019–2023), focusing on higher education impact on marginalized groups. Professional Roles: Advisory board member of the Journal of Media Literacy Education; Board member of IDIA and CIRN. Grants: Includes 'Digital Arts and Refugee Engagement' (AHRC), 'Local Heritage and Sustainability' (AHRC), and 'eVoices: Redressing Marginality' (AHRC). External roles include examiner positions at Cape Peninsula University of Technology, University of the Witwatersrand, and University of Cape Town. Her work bridges academia and practice through collaborations with NGOs like Associazione seed (co-founded in 2006) and consultancies for UK government bodies. Key themes include ICT4Education, post-truth information literacy, and decolonial approaches to media activism. Her research spans 20+ years, resulting in over 70 publications and edited volumes, including South-to-South Communication: Media Activism and Artivism in the Global South (Routledge, 2023). Labs/Teams: Leads research on digital media's role in social justice through Bournemouth University's Media School. Collaborates with international networks like the ICT4D Collective at Royal Holloway and IPID for graduate research.
M. Hassan Arbab is an Assistant Professor in the Department of Electrical and Computer Engineering at Stony Brook University. His research focuses on advancing terahertz (THz) emission, detection, and imaging technologies with applications in biophotonics, medical imaging, non-destructive testing, and material characterization. His work integrates electro-optic theory, instrumentation development, and signal processing to overcome challenges in imaging through scattering media and enhancing diagnostic accuracy. Key research areas include THz polarimetric imaging for burn wound assessment, carbon fiber composite analysis, and corneal imaging. He developed the Portable Handheld Spectral Reflection (PHASR) scanner, a portable device enabling clinical applications in burn triage, material defect detection, and medical diagnostics. His team employs machine learning and physics-based models to interpret THz data, achieving breakthroughs in burn injury classification and material parameter extraction. Arbab's contributions span innovative imaging systems like hyperbolic-elliptical lens pairs for spherical surface imaging and telecentric scanning optics. His instrumentation advances include high-speed THz time-domain spectroscopy (THz-TDS) systems with improved resolution and field-of-view. He explores scattering mitigation techniques using wavelet transforms and Monte Carlo simulations to enhance THz imaging in turbid media. Recent clinical studies demonstrate the PHASR scanner's efficacy in non-invasive burn depth determination and wound healing prediction. His work bridges fundamental THz physics with practical applications in healthcare and engineering, supported by interdisciplinary collaborations in biomedical engineering and materials science.
