Dr. Erke Arıbaş is a Lecturer at Istanbul Technical University's Faculty of Computer and Informatics , specializing in the Department of Computer Engineering . His research spans interdisciplinary domains including artificial intelligence, simulation modeling, and biophysics applications. Education: PhD in Computational Science and Engineering (2001-2013), Istanbul Technical University MA in Information Systems Design and Management (2001), Istanbul Technical University (Evening Education) BS in Physics (1992-1996), Istanbul Technical University BS in Physics (1996-2000), University of Missouri-Rolla His research focuses on generative AI applications , autonomous systems , and multi-phase flow simulations with thermal modeling. He has contributed to fields ranging from smart city cybersecurity to biomechanical modeling of blood flow. Article trends show expertise in AI-personality modeling integration , unmanned aerial vehicle design , and biofluid dynamics with specialized focus on red blood cell aggregation and arterial hemodynamics.
Martin Brehm is a Heisenberg Professor (W2) for Theoretical Spectroscopy at the University of Paderborn since May 2023. His research focuses on predicting vibrational spectra of condensed phase systems through advanced ab initio molecular dynamics simulations and software development, including contributions to the TRAVIS and CP2k packages. Academic Record : PhD (summa cum laude, University of Leipzig 2014), Habilitation (University of Halle–Wittenberg 2023) Research Highlights : Developing Voronoi integration methods for electromagnetic moments, creating force fields for bio-polymer solubility in ionic liquids, applying machine learning to atomistic simulations His work spans ionic liquids , vibrational spectroscopy , and computational chemistry applications in solubility prediction of complex systems. The TRAVIS software he co-develops has been cited over 500 times. Scientific accolades include the Hellmann Award 2021 (AGTC) and the BuildMoNa Award 'Outstanding Scientific Results' (2011). Current DFG-funded projects investigate atomistic simulation of complex liquids (€783,000) and spatial correlation effects on vibrational spectra (€194,000).
Nadja Møbjerg is an Associate Professor at the Department of Biology, University of Copenhagen, specializing in animal anatomy, physiology, and evolutionary biology. Her work focuses on tardigrades (water bears) and their ability to survive extreme environments through cryptobiosis, emphasizing osmolyte and water regulation. She leads a research group established in 2008 and has secured ~2.15 million EUR in funding. Education: PhD in Animal Physiology (2002, August Krogh Institute) M.Sc. in Cell Biology and Anatomy (1997, University of Copenhagen) Research Interests: Nadja explores tardigrade adaptations to desiccation, freezing, and salinity fluctuations using advanced microscopy, genomics, and bioinformatics. Her work intersects with molecular physiology, evolutionary morphology, and stress tolerance mechanisms. Article Trends: Recent publications highlight tardigrade thermotolerance limits, quantum entanglement studies, and environmental DNA techniques for biodiversity assessment. Themes span molecular physiology, cryobiology, and interdisciplinary physics-biology interfaces. Scientific Awards: WoRMS Top-Ten Marine Species Nomination (2021) Schibbye'ske Præmie (2001) Carlsberg Foundation Fellowship (2003-2004) Danish Natural Science Research Council Fellowship (2002-2003) Academic Leadership: She has mentored over 90 students at all levels, coordinated courses like Zoophysiology and Comparative Anatomy, and served on international teaching committees. She evaluates PhD theses across European universities and contributes to editorial boards and ethics committees.
Laura Bergamonti is a researcher in the Department of Chemical, Life and Environmental Sustainability Sciences at the University of Parma. Her research focuses on innovative materials and methods for cultural heritage conservation, particularly for stone, wood, and artwork preservation. She specializes in nanotechnology applications for conservation, including N-doped TiO2 coatings for self-cleaning properties Hydrophobic treatments for artifacts Bio-based materials for wood restoration Laura's work encompasses analytical chemistry techniques such as FTIR spectroscopy Raman spectroscopy GC/MS analysis X-ray diffraction for material characterization in cultural heritage contexts. Her research has significantly contributed to Understanding pigment-binder interactions Developing cleaning methods for artworks Investigating aging effects on materials Green extraction methods for nanomaterials Laura is actively involved in teaching, currently delivering courses on 'Chemistry and Technologies of Innovative Materials' for Mechanical Engineering students at the University of Parma. She serves as a reference teacher for the Mechanical Engineering bachelor's degree program.
Associate Professor Adam Fish is a cultural anthropologist, documentary producer, and interdisciplinary scholar at the University of New South Wales , affiliated with the Faculty of Arts and Social Sciences, School of Arts and the Media . His work bridges social science, computer engineering, environmental science, and visual arts through ethnographic, participatory, and creative methodologies . Current research explores Aboriginal and Torres Strait Islander renewable energy industries and "ancient media studies" across biology, physics, and AI. Prior roles include positions at Lancaster University (Reader/Senior Lecturer/Lecturer in Sociology), Technische Universität Berlin (Weizenbaum Institute), and University of Bremen (ZeMKI). Key publications include books on drone governance (Duke 2024), state hacking (MIT 2020), and digital democracy (Polity 2017). Research interests span technology ethics , indigenous sovereignty , environmental anthropology , and critical media studies . His work on drones in marine conservation connects UNSW's technology-for-good mission with Faculty of Arts and Social Sciences interdisciplinary ethos. Scientific awards include the 2016 Pilkington Teaching Award for transformative undergraduate sociology education at Lancaster University. His article portfolio reveals trends in decolonizing technology , planetary media systems , and environmental storytelling through drones .
A.A.M. Dieudonné is a researcher at Delft University of Technology's School of Civil Engineering & Geosciences, specializing in Geo-engineering. He focuses on geotechnical challenges related to energy systems, soil stabilization, and geological disposal. Key Research Areas: Geothermal energy, bio-cemented sands, radioactive waste repositories, and unsaturated soil behavior. Recent Projects: Developed small-strain stiffness models for bio-cemented sands, designed experimental devices for crack visualization in clays, and conducted numerical simulations for geothermal reservoir fracturing. Collaborations: Works with international teams on geomechanics, including energy geotechnics and carbon sequestration. His publications and datasets highlight advancements in understanding fluid-driven cracks, carbonate distribution effects, and bentonite swelling mechanics. Scientific Recognition: NWO Veni (2019) and Vidi (2024) grants. ABTUS Scientific Prize (2012) and Ioannis Vardoulakis PhD Prize (2017). Dieudonné actively contributes to public engagement, including Dutch media discussions on radioactive waste storage in clay layers.
Dr. Katrina Williams is a Senior Lecturer in Physiotherapy at the School of Health and Rehabilitation Sciences, University of Queensland, with affiliations to the Centre for Hearing Research (CHEAR) and the Centre for Neurorehabilitation, Ageing and Balance Research. Her work focuses on neurological and vestibular disorders, examining how sensory systems interact with the brain to optimize movement control and quality of life. Research Themes: Her studies span sensory integration in Multiple Sclerosis (MS), symptom impacts on function in Meniere's disease, and biophysical markers for balance outcomes in neurological conditions. She advocates for bio-social-physical models in rehabilitation. Article Trends: Recent publications analyze gait analysis in MS, vestibular-visual interactions, and the influence of hearing impairment on balance in older adults. Her work bridges clinical practice and translational research. Collaborations: She partners with the Whirled Foundation (formerly Meniere's Australia) and Sonova AG, contributing to policy initiatives like Hearing Health Australia.
Ali Amiri serves as a Postdoctoral Researcher in the Department of Built Environment at Aalto University's School of Engineering, specializing in sustainable construction systems with emphasis on wood-based building technologies. His research integrates environmental science, engineering, and urban policy to quantify carbon impacts across building lifecycles. His primary research interests focus on wood construction decarbonization , where he pioneers methodologies for measuring embodied carbon displacement factors and whole-life carbon accounting in urban contexts. Work spans technical analysis of multi-storey wood systems, circular material flows including mycelium-wood composites, and policy frameworks for scaling sustainable construction. Key contributions include establishing wood's role in urban carbon storage and identifying technical barriers to mass timber adoption. Analysis of his 15 most recent publications (2022-2025) reveals three dominant research trajectories: (1) Quantifying wood construction's GHG reduction potential through displacement factor modeling, (2) Developing spatiotemporal carbon assessment tools for urban districts, and (3) Innovating circular material systems like bio-composites. His work consistently bridges technical engineering with urban policy, featuring collaborations across Nordic research networks. As a core member of Aalto's Real Estate research group, Amiri contributes to projects examining sustainable urban development pathways. His current work leverages Finland's wood construction leadership to develop transferable frameworks for global urban decarbonization, with emerging focus on mycelium-based insulation materials and policy mechanisms for accelerating circular building practices.
Ali Tarhini is a Postdoctoral Researcher at the Department of Bioproducts and Biosystems at Aalto University . His work focuses on materials science and textile engineering, particularly in developing sustainable and conductive textiles using bio-based and graphene-based technologies. Research Interests: Conductive coatings, cellulose modification, graphene composites, sustainable e-textiles, biobased functionalization Publications: 15 most recent articles (8 shown here) highlight advancements in eco-friendly textile conductivity, antibacterial properties, and polymer composite modeling. Contact: ali.tarhini@aalto.fi
Matteo Cavaliere is an Associate Professor at the Department of Physical, Computer and Mathematical Sciences, University of Modena and Reggio Emilia. His research bridges Evolutionary Game Theory , Membrane Computing , and Computational Biology , focusing on cooperation dynamics in structured populations, algorithmic modeling of biological processes, and network resilience mechanisms. Key Research Themes: Strategic cooperation in social/biological systems, information-driven network dynamics, and synthetic biology applications. Teaching Responsibilities: Courses in Algorithms and Problem Solving , Game Theory , and Digital Communication Tools at graduate and undergraduate levels. His recent publications emphasize evolutionary stability through network rankings, cyber-physical cooperation frameworks , and multi-scale biological modeling using agent-based simulations. Collaborative work spans interdisciplinary domains including epidemiology, tissue morphogenesis, and distributed cellular computing, with no scientific awards explicitly mentioned in the provided texts.
Senbo Xiao is an Associate Professor in the Department of Structural Engineering at the Norwegian University of Science and Technology (NTNU), specializing in nanomechanics and computational materials science. His research focuses on nanoscale phenomena at interfaces with applications in energy, oil recovery, and anti-icing technologies. Dr. Xiao's educational background includes biophysics studies at Nankai University (2000-2007), a PhD in molecular biophysics from Heidelberg University (2007-2011), followed by postdoctoral work at the Heidelberg Institute for Theoretical Studies (2011-2013) and Max Planck Institute for Polymer Research (2013-2015). His primary research interests center on nanoscale mechanisms in materials science, utilizing molecular dynamics simulations and multiscale modeling to investigate: Icing and hydrate formation processes Icevoltaics (energy harvesting from freezing) Interface mechanics at atomic scales Soft materials mechanics Nano-enabled enhanced oil recovery Carbon capture and storage mechanisms His groundbreaking IceVoltaics project, funded by an ERC Consolidator Grant, aims to develop technology for harvesting electrical energy from water freezing processes, analogous to photovoltaics. Analysis of his recent publications reveals strong focus on molecular-scale interface phenomena , particularly ice-solid and hydrate-solid interactions, with significant applications in energy infrastructure protection. His work increasingly integrates machine learning with molecular dynamics, showing evolution toward multi-scale predictive modeling of complex phase transitions. Scientific recognition includes: ERC Consolidator Grant for IceVoltaics project Extensive publication record in high-impact journals including Chemical Engineering Journal, ACS Applied Materials & Interfaces, and Langmuir Dr. Xiao actively supervises master's and PhD students through the NTNU Nanomechanical Lab , which offers thesis topics on nanoscale icing, anti-hydrate technologies, and icing energy harvesting. His research group maintains strong international collaborations, particularly with Brno University of Technology, focusing on multi-scale modeling of materials. Current projects include developing icephobic coatings with self-healing capabilities and investigating hydrogen storage mechanisms in clathrate hydrates. The NTNU Nanomechanical Lab operates as a hub for computational and experimental nanomechanics research, with specialized facilities for molecular dynamics simulation and nanoscale characterization. The lab emphasizes translating fundamental interface science into practical applications for energy, petroleum, and environmental engineering sectors.
Nicolas Martin is a CNRS Researcher at the Centre de Recherche Paul Pascal (CRPP), a joint research unit of the CNRS and the University of Bordeaux. Based in Pessac, France at 115 avenue Dr Schweitzer, he works as a member of the BIO 2.0 research team. His research focuses on liquid-liquid phase separation, coacervation, artificial cells, and stimuli-responsive systems. Dr. Martin's research centers on creating and studying synthetic cells using principles of liquid-liquid phase separation. His work explores how coacervate droplets serve as models for prebiotic protocells and how these systems can be engineered for various applications. He investigates stimuli-responsive systems that change properties in response to external triggers like light, with applications in synthetic biology and materials science. His research bridges chemistry, physics, and biology to understand and engineer compartmentalized systems that mimic cellular organization. Analysis of Dr. Martin's recent publications reveals a consistent focus on coacervate systems with increasing complexity. His work spans from fundamental studies of phase separation phenomena to practical applications in creating artificial cells. A notable trend is his growing emphasis on light-responsive systems and the integration of biological components into synthetic compartments. His research has evolved from studying basic coacervation phenomena to developing increasingly sophisticated protocell systems with multiple functionalities and environmental responsiveness. ANR PRC PROTOPOLYM (partner, 2025) ANR PRC SHEILA (partner, 2024) Doctoral Network SIGSYNCELL (partner, 2023) RIE U. Bordeaux Project (coordinator, 2023) ANR PRC CHEMinDROPS (partner, 2023) ANR PRC WalLesShape (partner, 2022) CEFIPRA (coordinator, 2022) ANR JCJC LASCO2 (coordinator, 2021) Nouvelle-Aquitaine Region Project (coordinator, 2020) ANR PRC CoSyCell (partner, 2019) IdEx Bordeaux Junior Chair (coordinator, 2018) Marie Skłodowska-Curie Individual Fellowship (declined, 2018) Dr. Martin has coordinated multiple significant research projects including the IdEx Bordeaux Junior Chair (2018), CEFIPRA (2022), and RIE U. Bordeaux Project (2023), demonstrating his leadership capabilities. He has served as a partner in numerous ANR-funded projects, indicating strong collaborative networks across French and international research institutions. His research has received consistent funding from various sources including the French National Research Agency, regional initiatives, and international collaborations. As a member of the BIO 2.0 team at CRPP, Dr. Martin collaborates with researchers working at the intersection of biology, chemistry, and physics. His laboratory focuses on creating and studying synthetic cellular systems using principles of phase separation. The team employs a multidisciplinary approach combining experimental techniques from multiple scientific disciplines to engineer and characterize complex coacervate systems with potential applications in biotechnology and synthetic biology.
Marie Duquesne is a Teacher-Researcher affiliated with the University of La Rochelle, working within the E2 - BVD research team. Her research bridges thermal science and sustainable engineering, with a focus on optimizing energy efficiency in buildings and electronics through advanced materials. Research Interests: Dr. Duquesne's work centers on three interconnected pillars: Thermal Energy Storage : Developing latent heat systems using phase-change materials (PCMs) for seasonal energy conservation. Phase Change Materials : Innovating bio-based and shape-stabilized PCMs for eco-friendly applications. Eco-Responsible Building : Designing sustainable construction materials (e.g., hemp concrete composites) to enhance hygrothermal performance and reduce carbon footprints. Publication Trends: Her recent articles (2021–2025) emphasize experimental and computational approaches to thermal management. Key themes include infrared thermography for material analysis, numerical modeling of building envelopes, and bio-sourced PCMs. Collaborative works frequently address electronics cooling, passive energy storage, and hazard reduction in consumer products. Affiliations & Collaboration: She actively collaborates with multidisciplinary teams (e.g., materials scientists, building physicists) and contributes to projects involving carbon foams, metal alloys, and electronic device safety. The E2 - BVD team facilitates applied research in energy-efficient technologies.
Prof. Dr. Alf Mews is a full Professor of Physical Chemistry at the University of Hamburg, where he leads the Research Group Mews within the Institute of Physical Chemistry, Department of Chemistry. His research focuses on the synthesis, characterization, and application of nanoscopic structures, particularly semiconductor nanocrystals, nanowires, and nanosheets. Alf Mews studied chemical engineering in Aachen (Diploma in 1988) and Chemistry in Siegen (Diploma in 1992). He received his PhD in 1994 from the Hahn-Meitner-Institute in Berlin under Prof. Horst Weller, focusing on semiconductor nanocrystals. After a DFG fellowship with Prof. Paul Alivisatos at UC Berkeley (1995), he worked with Prof. Christian Bräuchle in Munich (1996) and completed his Habilitation in 2003 at Johannes Gutenberg University Mainz under Prof. Thomas Basché. He was appointed to a full professorship at the University of Siegen in 2004 and moved to the University of Hamburg in 2008. Prof. Mews' research interests span multiple areas of nanoscience and nanotechnology. His group investigates the nucleation and growth processes of colloidal nanoparticles, structure determination of nanoscopic systems using X-ray diffraction, and atomic modeling based on high-resolution electron microscopy. They also study the attachment and uptake mechanisms of nanoparticles in biological cells, synthesis of semiconductor nanostructures (nanorods, nanowires, nanoplatelets), development of surface-modified gold clusters, and biofunctionalization of nanoparticles for medical diagnostics. A key aspect of their work involves determining structure-property relationships by combining different microscopy methods. The research group has published extensively on semiconductor nanowires, particularly focusing on CdS, CdSe, and CdTe systems. Their publications reveal a strong emphasis on understanding the fundamental optical, structural, and electronic properties of nanoscopic model structures. The group employs sophisticated microscopic techniques to investigate individual nanostructures, with significant contributions in areas like cation exchange reactions, quantum confinement effects, and nanowire-based device fabrication. Their research often bridges fundamental science with potential applications in optoelectronics and nanomedicine. Scientific recognition includes: DFG fellowship (1995) to work with Prof. Paul Alivisatos at UC Berkeley Prof. Mews has advised numerous PhD students throughout his career, with a substantial list of former group members who have completed their doctorates under his supervision. His research group maintains active collaborations and participates in various research networks at the University of Hamburg, including those focused on nanochemistry and materials science. The group operates specialized laboratory facilities for nanomaterial synthesis and characterization, including equipment for electrical measurements, optical spectroscopy, and surface potential analysis. The Research Group Mews operates within the Institute of Physical Chemistry at the University of Hamburg, with laboratory and office space at Grindelallee 117. The group maintains strong connections with other research groups within the Department of Chemistry and participates in interdisciplinary research initiatives focused on nanoscience and nanotechnology.
Dr. Sunita Mahavar serves as an Assistant Professor and Research Scientist in the Department of Physics at the University of Rajasthan, Jaipur, India. She has held this academic position since 2013 and maintains an active research laboratory focused on solar energy applications. Her professional profile indicates she is recognized as an expert in her field, available for speaking engagements, and participates in mentoring programs as a mentor. Dr. Mahavar's research interests center on renewable energy technologies with specific expertise in solar thermal systems. Her work spans solar thermal collectors, heat storage and transfer mechanisms, thermal energy storage materials and systems, analysis and simulation of concentrated solar power (CSP) and hybridized systems, point focus systems (including receivers and heat transfer media), and solar collector systems. She has developed practical applications including solar cookers, dryers, and distillation systems that address real-world energy needs in India and potentially other developing regions. Analysis of her recent publications (2019-2025) reveals a consistent research trajectory focused on practical solar thermal applications. Her work demonstrates progression from fundamental thermal engineering principles to implementable solutions, with increasing emphasis on cost-effective designs for residential and small-scale industrial applications. The publications show strong interdisciplinary connections between thermal engineering, materials science, and sustainable development, with particular attention to sensible heat storage methods and innovative heat transfer fluids including bio-based alternatives. CSIR-SRF Scholarship (January 2012) CSIR-JRF Scholarship (January 2009) Dr. Mahavar has investigated three research projects resulting in approximately 40 research papers published in reputed national and international journals and conferences. Her research has accumulated over 300 citations according to her ResearchGate profile. She collaborates extensively with researchers both within the University of Rajasthan and internationally, with notable co-authors including Boris V Balakin from Western Norway University of Applied Sciences and Ashmore Mawire from North-West University. Her work appears to focus on practical implementations of solar thermal technology that address energy needs in developing contexts. Dr. Mahavar maintains an active research laboratory at the University of Rajasthan where she conducts experimental work on solar thermal appliances. Her lab appears to focus on developing low-cost, practical solar energy solutions suitable for Indian conditions, with particular emphasis on cooking, drying, and water purification applications. The lab work integrates theoretical modeling with experimental validation, demonstrating a comprehensive approach to solar thermal research.
