Professor Peter Davis is an Adjunct Professor at the University of Newcastle , specifically within the School of Architecture and Built Environment and the Construction Management department . With a unique blend of equal parts industry and academic experience, he specializes in construction management, relationship-based procurement, and safety climate research. His work bridges practical industry applications with scholarly rigor, supported by professional relationships across global sectors including engineering, legal, and social sciences.
Dr. Traci Flynn is a Senior Lecturer at the School of Health Sciences, University of Newcastle. With clinical experience across USA, UK, and New Zealand, and industrial expertise from hearing aid manufacturers in Denmark, she combines clinical, academic, and technical perspectives in her research. Current focus: Quality of life and language abilities in children with hearing disorders Education: PhD in Audiology (University of Gothenburg), MD (University of Gothenburg), BS & MA in Speech Pathology (University of Minnesota) Research areas: Hearing impairment, speech pathology, language rehabilitation, pediatric audiology, hearing device design, and early intervention. Her work examines how hearing loss affects language acquisition and quality of life in children, with emphasis on cochlear implants and hearing aid efficacy. Article trends: Recent publications analyze longitudinal language outcomes in children with unilateral aural atresia, mild hearing loss impacts, and auditory variables in speech development. Studies often employ cross-sectional designs with mixed-method assessments of expressive vocabulary and device usage patterns. Scientific contributions: 2016: US Patent for hearing aid with visual indicator 2016: Majblomman Diploma Ceremony 2018: International Issues Board Chair, American Speech and Hearing Association Teaching: Course Coordinator for EDUC6165 at the University of Newcastle's School of Education. Over 15 years of professional experience in academic appointments at Karolinska Institute (2013-2017), University of Gothenburg (2008-2013), and Oticon A/S (2002-2007). Recipient of multiple research grants totaling $458,093 from sources including Stiftelsen Promobilia and Jerring Funden.
Professor Jane Lawrie serves as Professor and Deputy Dean for Academic Affairs at Brunel University London, within the College of Engineering, Design and Physical Sciences, Department of Mathematics. Her research specializes in theoretical and applied aspects of wave propagation in complex environments. Her primary research interests focus on structural acoustics and diffraction theory , with extensive work on waveguides, scattering phenomena, and fluid-structure interactions. She develops analytical methods including mode-matching techniques and Wiener-Hopf analysis to solve boundary value problems in acoustics and vibration. Publications demonstrate sustained focus on acoustic waveguides, scattering mechanisms, and resonance phenomena over three decades. Recent work (2021-2023) advances understanding of exceptional points, mode coalescence, and edge resonance in waveguides. Earlier foundational contributions established analytical frameworks for silencer design, duct acoustics, and fluid-loaded structures. Professor Lawrie leads research within the IMM (Institute of Materials and Manufacturing) group, collaborating internationally on wave propagation challenges. She maintains active investigations into energy localization and scattering at structural discontinuities.
Sara Antomarioni is a Researcher at the Department of Industrial Engineering and Mathematical Sciences (DIISM) within the Faculty of Engineering at Università Politecnica delle Marche (UNIVPM) in Ancona, Italy. Her work focuses on industrial engineering with particular emphasis on maintenance strategies, data-driven decision making, and sustainable technologies in various industrial contexts including maritime transportation and manufacturing systems. Dr. Antomarioni's research spans multiple key areas in modern industrial engineering. She specializes in applying data mining and machine learning techniques to solve complex production and maintenance problems. Her work bridges traditional engineering practices with cutting-edge digital technologies, particularly in the areas of Total Productive Maintenance (TPM), predictive maintenance, and Industry 4.0 applications. She has developed innovative frameworks combining association rule mining with mathematical models to optimize production scheduling and maintenance strategies across various industrial sectors. Her publication record demonstrates a strong focus on practical applications of advanced analytics in industrial settings. A significant portion of her recent work addresses sustainability challenges in maritime transportation, particularly through carbon capture technologies. She has also developed approaches combining data mining with augmented reality for applications in diverse industries including fashion. Her research consistently emphasizes the integration of theoretical models with real-world case studies, ensuring practical relevance and applicability of her findings. Dr. Antomarioni has contributed to numerous research projects focusing on industrial maintenance optimization, production efficiency, and sustainable engineering solutions. Her work often involves collaboration with industry partners to implement data-driven approaches for improving operational performance and environmental sustainability.
Dr. Megan L. Robertson is the Neal R. Amundson Professor and Associate Chair for Faculty Development in the William A. Brookshire Department of Chemical and Biomolecular Engineering at the University of Houston . She directs the university's Materials Engineering Program and holds joint appointments in the Department of Chemistry. Ph.D., Chemical Engineering, University of California, Berkeley (2006) B.S., Chemical Engineering, Washington University in St. Louis (2001) Her research focuses on polymer science with applications in sustainability, wind energy, and biomedical engineering. Key projects include: Developing biorenewable and biodegradable polymers with tunable properties Creating degradable epoxy resins for wind turbine blades Studying block copolymer self-assembly for drug delivery systems Designing pH-responsive polymer brushes for antifouling surfaces Characterizing polyolefin/polydiene blend thermodynamics Her scientific awards include: National Academy of Inventors Senior Member (2025) NSF Special Creativity Award (2023) ACS Fellow (2022) NSF CAREER Award (2014) Dr. Robertson has advised 15+ graduate students and participates in STEM outreach programs for K-12 students.
Alireza Bahrami is an Associate Professor (Docent) and Head of the Building Engineering Subject at the University of Gävle. He specializes in Civil and Structural Engineering, with expertise spanning academic research and industrial applications in construction. His responsibilities include teaching specialized courses, supervising student theses, and leading research on sustainable building materials and structural performance. His research focuses on: Innovations in concrete technology (geopolymers, 3D-printed concrete) Structural strengthening techniques (FRP, post-tensioning) Sustainable material utilization (timber, waste ceramics, bagasse ash) Seismic and fire performance of structures Recent publications emphasize sustainable construction, with dominant themes including geopolymer concrete development, timber connection systems, and waste-material integration. His work frequently employs experimental validation and machine learning for material optimization. Dr. Bahrami leads research on structural retrofitting methods using eco-friendly materials like bamboo laminates and aluminum composites. He collaborates internationally on projects related to low-carbon concrete, cross-laminated timber, and infrastructure durability.
Claude Thibeault is a Professor in the Department of Electrical Engineering at École de technologie supérieure (ÉTS), with a Ph.D. from Polytechnique Montréal and a B.Eng. from UQAC. His research focuses on microelectronics , integrated circuit testing , and fault tolerance , particularly in aerospace and FPGA systems. He leads the LaCIME lab, which specializes in communications and microelectronic integration. His work spans radiation effects on circuits , asynchronous design , and test methodologies . Recent publications analyze cosmic radiation impacts on FPGA architectures and knowledge-based diagnostic systems . He supervises numerous graduate students in projects related to hardware acceleration , chaotic communication systems , and power-aware testing . LaCIME emphasizes industry collaboration and technology transfer , with research axes in intelligent systems and connectivity . The lab actively recruits students with backgrounds in electrical or microelectronics engineering.
Behnaz Baghaei is a Senior Lecturer at the Department of Textile Technology, Faculty of Textiles, Engineering and Business, University of Borås. Her research focuses on bio-based composites and textile waste recycling. Role: Senior Lecturer in Textile Materials Technology Institution: University of Borås Research: All-cellulose composites, waste valorization, sustainable materials Research Interests: Dr. Baghaei specializes in transforming textile waste into sustainable composites. Her work explores all-cellulose composites , bio-based materials , and thermoplastic processing for structural applications. Recent Publications: Focus on denim waste recycling, hybrid yarn composites, and fungal biomass production for sustainable food systems. Projects: Involved in the RECYCELL project targeting textile waste recycling through all-cellulose composites.
Dr. Martin A. Schroer is a researcher at the University of Duisburg-Essen's Department of Engineering Sciences, with a habilitation in Materials Science (submitted 2024). He works in the Nanoparticle Process Technology (NPPT) group and is affiliated with the Center for Nanointegration Duisburg-Essen (CENIDE) since 2023. His research focuses on: Structure and dynamics of biological/soft matter systems under in situ conditions Development of X-ray scattering techniques at synchrotrons Biomedical applications of nanomaterials Additive manufacturing of metallic glasses Scientific achievements include: 2012 Promotionspreis from TU Dortmund 95+ publications with >2,245 citations Key contributions to: X-ray scattering methodology Nanoparticle self-assembly mRNA delivery systems Pressure-induced phase transitions Teaching activities since 2021 include: Lectures on Nanotechnology for mechanical engineers Tutorials in Measurement Technology Lab course organization Collaboration network spans institutions in Germany, Italy, UK, Czech Republic, and France, focusing on: European Molecular Biology Laboratory (EMBL) Deutsches Elektronen-Synchrotron (DESY) Palacky University Westlake University
Amar Bhalla is a Distinguished Research Professor in the Department of Electrical and Computer Engineering at the Klesse College of Engineering and Integrated Design, University of Texas at San Antonio (UTSA). His office is located in BSE 1.554, and he can be contacted via email at amar.bhalla@utsa.edu or by phone at 210-458-6268. His work is integral to UTSA's mission of advancing knowledge through research and discovery in engineering disciplines. Dr. Bhalla's research centers on advanced functional materials with emphasis on multiferroic composites, piezoelectric energy harvesting systems, and nanomaterials for biomedical applications. He investigates core-shell magnetoelectric nanoparticles (e.g., cobalt ferrite-barium titanate), printable electronic materials, and energy conversion devices. His methodologies combine experimental techniques like inkjet printing and intense pulsed light processing with computational modeling, including finite element analysis. Key projects involve developing self-sustainable IoT sensors powered by energy harvesters, magnetoelectric nanovehicles for targeted cell manipulation, and optimized drug delivery systems using nanocomposites. Analysis of Dr. Bhalla's 15 most recent publications (2023-2025) reveals consistent innovation in energy harvesting and multifunctional materials. His work bridges fundamental material properties with practical applications in extreme environments, including cryogenic temperatures for aerospace equipment and biomedical settings. Recurring themes include strain-mediated magnetoelectric coupling in nanocomposites, thermal stability of printed electronics, and polaron dynamics in doped ceramics. His publications demonstrate interdisciplinary collaboration across materials science, electrical engineering, and biomedical fields, with a strong focus on experimental validation and computational modeling to optimize device performance.
Christina Dahlström is a Senior Lecturer in the Department of Engineering, Mathematics and Science Education (IMD) at Mid Sweden University. Her research focuses on cellulose-based materials for triboelectric nanogenerators (TENGs), sustainable energy technologies, and self-powered sensors. She leads projects like 'Cellulose-Based Triboelectric Filters for Airborne Particles' and contributes to HIPS - Sustainable Innovations in Forest Bioeconomy. Current Research: Molecular cellulose design for TENGs Finished Projects: Cello, LEAP - Large-Area Energy Application Platform Her 15 most recent publications highlight advancements in green TENGs, energy harvesting from wastepaper, and optimized cellulose regeneration for high-performance devices. Key keywords include Triboelectric Nanogenerators , Cellulose Engineering , and Sustainable Materials .
Dr. Mingyuan Lu serves as a Senior Lecturer at The University of Queensland's School of Mechanical and Mining Engineering and is an Affiliate of the Centre for Advanced Materials Processing and Manufacturing (AMPAM). With over a decade of research experience, she specializes in nanomechanical characterization and advanced manufacturing techniques for materials engineering applications spanning aerospace, biomedical, and energy sectors. Her educational background includes: PhD in Mechanical and Mining Engineering from The University of Queensland (2014) Masters of Engineering in Materials Science and Engineering from Central South University, China (2009) Bachelor of Engineering in Materials Science and Engineering from Central South University, China (2007) Research interests center on laser-based surface engineering, additive manufacturing of biodegradable scaffolds, and nanomechanical testing methodologies. She pioneered the FIB-machined micro-cantilever bending technique for interfacial adhesion assessment of multilayer systems and developed selective laser sintering processes for bone tissue engineering scaffolds without artificial 3D models. Current projects focus on pre-clinical mouse model testing of scaffolds and laser deposition of titanium oxide coatings for aerospace components. Recent publications (2023-2025) reveal strong interdisciplinary trends: nanomechanical characterization methods dominate 50% of outputs, while additive manufacturing (30%) and computational modeling (20%) address applications in biomedical devices, semiconductor reliability, and petroleum engineering. The work consistently integrates experimental techniques like electron microscopy with simulations for wear resistance, biodegradation, and interfacial failure analysis. No scientific awards, fellowships, or medals are documented in the provided materials. Dr. Lu actively manages major grant funding as Principal Investigator and Associate Advisor. Current projects include the ARC Research Hub for Future Digital Manufacturing (2024-2029) and ARC Training Centre for Innovative Composites (2023-2028). Past grants feature an ARC DECRA award (2019-2024) for micro/nano-mechanical testing and industry collaborations with WIN Semiconductor, Baosteel, and HBIS Group on ceramic coatings and semiconductor reliability. She supervises four PhD students as Principal Advisor with completed projects including PHBV scaffold evaluation and laser surface engineering for tribological applications. She is embedded in UQ's Nanomechanics and Nanomanufacturing research group, leveraging AMPAM's resources for collaborative industry-facing work. Her technical leadership in focused ion beam (FIB) micromachining and laser processing directly supports the Centre's mission in translating materials research into manufacturing solutions.
Liu Yang is a Reader in Mechanical and Aerospace Engineering at the University of Strathclyde's Faculty of Engineering. With a Doctor of Engineering from the University of Strathclyde (2011) and a Master in Science from the University of Sheffield (2007), Dr. Yang currently serves as Principal Investigator on active research projects and accepts PhD students. Dr. Yang's research focuses on composites recycling and reuse , developing economically viable routes for recycling fiber reinforced composites; composites interface studies examining fiber-matrix physicochemical interactions; aerogel composites design for energy-saving applications; self-healing elastomer development; and multi-scale material modelling for understanding structure-property relationships. Their work contributes significantly to sustainable materials research. Analysis of Dr. Yang's recent publications reveals a strong emphasis on advanced composite materials, particularly examining material behavior under extreme conditions like cryogenic temperatures and developing innovative energy conversion systems. The research demonstrates interdisciplinary approaches combining materials science, mechanical engineering, and sustainable design principles. Industry Fellow of Royal Academic of Engineering (2019) Scottish Crucible Award (2017) Dr. Yang has supervised 16 students and maintains significant industrial collaborations with PPG Industries, 3B Fibreglass, Blueshift International Materials, BOSCH, Sain-Gobain, Weir Group PLC, and Composites Scaffolding Company. Their 34 projects (4 active, 30 completed) demonstrate extensive research leadership, including the 'Development of a numerical analysis framework for the pump-pipeline system design and optimization' as Principal Investigator and the 'SRSS - Innovative manufacturing of sustainable composites using natural fibres and biopolymers' as Co-investigator. As an active researcher with 136 total research outputs, 5 datasets, and 23 professional activities, Dr. Yang contributes to multiple UN Sustainable Development Goals through their work in sustainable materials and manufacturing.
Prof. Evren Mutlugun is an Associate Professor at the School of Engineering , Abdullah Gul University , Turkey. He earned his Ph.D. in Physics from Bilkent University (2012) and prior held a NRF-CRP research fellowship at Nanyang Technological University (2012-2014). His research focuses on colloidal quantum dot-based exciton harvesting systems and perovskite nanocrystals for optoelectronic applications. Research Areas : Electrical and Electronics Engineering, Nanotechnology, Optics and Photonics, Metallurgical and Materials Engineering Leadership : Vice Dean of School of Engineering (2015-2020 BAP Scientific Commissioner) Scientific Contributions : Co-authored 119 WoS publications with an h-index of 28. Key projects include quantum dot light-emitting diodes , plasmon-enhanced emission , and bio-nanohybrid energy transfer systems . His work spans exciton dynamics , white light generation , and UV photovoltaic enhancement . Scientific Recognition : Recipient of multiple awards including the 2014 BAGEP Young Scientist Award and 2017 TÜBA Outstanding Young Scientist Award . Active in professional societies as a TÜBİTAK advisory board member and Global Young Academy fellow.
Dr. Matthias Stosiek is a Lecturer and researcher at the Technical University of Munich (TUM) , affiliated with the TUM School of Natural Sciences , Department of Physics , and the Chair of AI-based Materials Science led by Prof. Dr. Patrick Rinke. His role involves both teaching and advanced research in applying machine learning to materials science and biophysical systems. Education: PhD (Dr. rer. nat.), Universität Regensburg , 2020. Dissertation: "Self-consistent-field ensembles of disordered Hamiltonians: Superconductor-Insulator Transition" under Prof. Dr. Ferdinand Evers. Research Interests: Dr. Stosiek's research integrates machine learning with materials science and biophysics . He focuses on understanding the structure-property relationships of Lignin-Carbohydrate Complexes (LCCs) , a key component in plant biomass. His work includes developing AI-driven models to predict and optimize material properties, contributing to sustainable materials and biorefinery processes. He also explores disordered systems and superconductivity , particularly the superconductor-insulator transition in 2D materials. Publications Overview: His recent publications (2018–2025) span machine learning applications in materials science , including datasets for LCCs, optimization of polymer actuators, and AI-guided biorefinery processes. Earlier works delve into quantum transport and superconductivity in disordered systems , highlighting his expertise in both fundamental physics and applied AI. Teaching: Dr. Stosiek co-teaches courses such as "Introduction to Machine Learning for Materials Science 2" and its associated computer tutorials. He also supervises student theses, fostering the next generation of interdisciplinary scientists. Labs & Teams: He is an integral part of the Chair of AI-based Materials Science , working alongside Prof. Rinke and a multidisciplinary team including Casper Larsen, Xiangzhou Zhu, Nitik Bhatia, and Prajwal Pisal. The group is located at the Garching campus, a hub for cutting-edge research in physics and materials science at TUM.
