Pam Fom is a Lecturer in Civil Engineering at the CEES School of The Environment. Her research focuses on advanced composite materials, particularly fiber-reinforced polymers (FRP), structural analysis, and sustainable construction techniques. She collaborates extensively on projects involving FRP-concrete interfaces, boundary conditions in structural systems, and lightweight construction materials. Her work combines experimental methodologies with material science to address challenges in structural engineering. Key areas of investigation include FRP composite jointed frames, shear characterization in superstructural connections, and the application of basalt FRP bars in concrete beams. Dr. Fom has contributed to peer-reviewed publications since 2019, with notable outputs in Engineering Solid Mechanics and Structures . Her research has been cited widely, reflecting its relevance to both academic and applied engineering contexts.
Anjali Sharma is a physician scientist at Albert Einstein College of Medicine, specializing in Internal Medicine with a focus on HIV-related metabolic complications and aging. Her work bridges clinical practice and research. MD and MS from Feinberg School of Medicine, Northwestern University Residency and fellowship at Montefiore Medical Center Her research explores: Bone loss mechanisms in HIV-infected women Visceral adiposity and aging-related disorders Cognitive decline and falls risk Gut microbiota and cardiovascular disease Recent publications highlight her work on: Metabolic comorbidities in HIV Imaging techniques for bone and fat analysis Social and biological factors in aging women with HIV Microbiome-plaque associations Scientific contributions include: NIH K23 Award for HIV aging research Robert Wood Johnson Foundation grant for bone loss studies Her work involves collaborations with HIV researchers and aging experts, utilizing cohorts like WIHS and MACS/WIHS Combined Cohort Study to address: Fracture incidence Metabolic disorders Neurocognitive effects of antiretrovirals Frailty and health disparities
Fulvio Lavecchia is an Associate Professor at the Department of Mechanics, Mathematics & Management (Politecnico di Bari). He coordinates Erasmus+ (incoming) for Mechanical Engineering and contributes to research in manufacturing technology and systems (ING-IND/16). Primary Affiliation: Politecnico di Bari, Bari, Italy Department: Mechanics, Mathematics & Management Email: fulvio.lavecchia@poliba.it Contact: +39 080 596 3463 | Viale Japigia 182, Bari His research focuses on: Additive Manufacturing (metal/polymer) including Material Extrusion, Laser Metal Deposition, and Powder Bed Fusion Photogrammetry and optical scanning techniques for precision measurements Sustainability strategies in AM technologies Process monitoring using layerwise analysis and optical systems Material property evaluation (metals, polymers, composites) Debinding/sintering process chains for metal/ceramic parts Recent article trends show expertise in: Fracture mechanics of composite materials Process optimization through in-situ monitoring Surface quality assessment and compensation techniques Energy efficiency and patent analysis for sustainable AM Dimensional accuracy in metal AM Multi-step processing of advanced materials He actively contributes to the academic community through: Coordinating international student exchanges Developing innovative manufacturing methodologies Advancing measurement techniques for industrial components
Dr. Florin Tudorache is affiliated with the Department of Exact and Natural Sciences at Alexandru Ioan Cuza University of Iași , focusing on ceramic materials and sensor technologies. His research spans: Ceramic material synthesis Electrical and magnetic property characterization Humidity and gas sensor development Nanostructured thin films and composites Doping techniques for material optimization Multiferroic and perovskite oxides Recent articles highlight his work in: Humidity sensor materials with doped tin sulfides and zinc oxides Multifunctional polymer-carbon composites Thermal and microstructural effects on sensor performance Magnetic textile engineering Spinel ferrite applications His team explores mixed ionic-electronic conductors and cost-effective fabrication methods, with expertise in spray coating, electrospinning, and X-ray diffraction.
Professor MEHMET TOPALBEKİROĞLU is a distinguished academic at Gaziantep University, Faculty of Engineering, Textile Engineering Department. He has held various academic positions at the university since 1993, progressing from Research Assistant to his current position as Professor since 2013. Throughout his career, he has served in multiple administrative roles including Department Head (2013-2026), Head of the Main Science Field (2013-2016), Deputy Dean (2011-2014), and Dean (2010-2011). Doctorate (1997-2002): Gaziantep University, Institute of Science, Department of Mechanical Engineering MSc (1993-1996): Gaziantep University, Institute of Science, Mechanical Engineering (With Thesis) Licence (1989-1993): Gaziantep University, Faculty of Engineering, Department of Mechanical Engineering Prof. Topalbekiroğlu's research spans multiple cutting-edge areas in textile engineering. His primary focus is on nanotechnology applications in textiles, particularly electrospinning techniques for nanofiber production. He has pioneered research in parallel electrode methods, helical spinnerets, and continuous nanofiber bundle production. His work in smart textiles includes thermal-regulation systems and electronic integrated textiles for sleep tracking and snoring reduction. In traditional textile engineering, he has made significant contributions to fabric defect detection systems, carpet technology, and yarn production methods. His research bridges fundamental textile science with practical industrial applications, often collaborating with industry partners through TÜBİTAK and SAN-TEZ projects. His recent publications (2023-2025) demonstrate a strong focus on advanced nanofiber production techniques, with particular emphasis on continuous nanofiber bundles using innovative electrospinning methods. His work shows a clear progression from fundamental nanofiber research toward practical applications in medical textiles, smart bedding systems, and functional fabrics with enhanced properties like flame retardancy and thermal regulation. The interdisciplinary nature of his research connects textile engineering with materials science, electronics, and even agricultural applications. Proje sanayiye uygulanabilir Y.Lisan ve Doktora Tezleri alanında ödüle layık görülmüştür (2013) TÜBİTAK Yayın Teşvik Ödülü (2005) TÜBİTAK Scientist Training Group doctoral scholarship (1999-2002) University Top student in undergraduate education (GO: 3.64/4.0) (1993) TÜBİTAK Scientist Training Group scholarship (1992-1993) Prof. Topalbekiroğlu has supervised an impressive 26 graduate theses (6 doctoral and 20 master's), demonstrating his commitment to mentoring the next generation of textile engineers. His research has been supported by numerous grants including TÜBİTAK 1001, TÜBİTAK 1002, SAN-TEZ projects, and university-funded research. His projects often focus on bridging academic research with industrial applications, as evidenced by collaborations with textile manufacturers and participation in industry-focused conferences. Notable projects include developing intelligent fabric defect inspection systems, innovative nonwoven composite structures, and machines for continuous nanofiber yarn production. His laboratory work centers around advanced textile machinery development, particularly for electrospinning applications and fabric quality control systems. His team has designed and built specialized equipment for nanofiber production, including multi-parallel electrode systems and helical spinnerets. The research group maintains strong connections with the Turkish textile industry, particularly in Gaziantep, which is a major textile manufacturing hub. Current work focuses on scaling up laboratory nanofiber production techniques for industrial applications and developing smart textile systems for healthcare applications.
Dimitrij Seibert is a researcher at the Faculty of Engineering at HTWK Leipzig, affiliated with the Lightweight Construction Research Group . He contributes to academic supervision of theses and delivers seminars focused on lightweight construction and multifunctional structures. His research expertise includes: Material characterization of composite materials Destructive and non-destructive testing methodologies Fiber-reinforced plastics and plastics technology He actively participates in projects addressing sustainable recycling of composite materials, notably the RecyRotor and EUReCOMP initiatives. Recent institutional developments include co-founding the Composite Circularity Lab and Advanced Materials and Structures Lab . Project highlights: RecyRotor (ZIM-funded, 2025-2027): Developing mobile analysis systems for recycling wind turbine rotor blades using mechanical and optical methods EUReCOMP (EU Horizon Europe, 2022-2026): Advancing circular economy approaches for composite material reuse in aerospace and wind energy sectors
Jinbo Bai leads a research laboratory at Paris-Saclay Mechanics Laboratory, where he conducts cutting-edge research in nanotechnology and advanced materials. His laboratory focuses on nanomaterials synthesis, composite materials development, and energy-related applications, particularly involving carbon nanotubes and catalytic systems. Research interests include: Nanomaterials Synthesis : Controlled fabrication of nanostructures including carbon nanotubes, metal oxides, and hybrid materials Energy Materials : Hydrogen production catalysts, energy storage composites, and dielectric materials Composite Engineering : Polymer nanocomposites with enhanced electrical, mechanical and functional properties Surface & Interface Science : Modification of nanomaterial surfaces and interface engineering in composites Recent publications demonstrate a strong focus on catalytic systems for simultaneous hydrogen production and carbon nanotube synthesis, dielectric properties of polymer nanocomposites, and advanced characterization of nanomaterial interfaces. Computational modeling complements experimental work in materials design.
John Balk is a Professor in the Department of Chemical and Materials Engineering at the University of Kentucky , where he has served as Associate Dean for Research and Graduate Studies since 2018. His research focuses on the mechanical behavior of nanoporous metals , scandate cathodes , and high entropy alloys , using advanced techniques like transmission electron microscopy and Kelvin probe systems. Education: B.S. in Materials Science & Engineering, University of California, Berkeley (1995) B.S. in Mechanical Engineering, University of California, Berkeley (1995) M.S. and Ph.D. in Materials Science & Engineering, Johns Hopkins University (1997, 2000) Postdoctoral work on Thin Film Plasticity at Max Planck Institute for Metals Research (2000–2002) His research group investigates structure-property relationships in materials, particularly through projects involving dealloying , thermionic emission , and mechanical testing of nanoscale structures. Recent work includes collaborations with LBNL on high entropy alloy development and studies on radiation effects in nanoporous metals. Scientific Facilities: The group utilizes advanced equipment such as the iNano Nanoindenter , ORION magnetron sputtering system , and Kelvin probe systems for material synthesis and characterization. Students: Balk currently supervises seven Ph.D. students, including Alex Allamon, Huanhuan Bai, and Tibra Das Gupta, while former students like Dr. Azin Akbari and Dr. Julius Schoop have transitioned to academic and research roles.
Tarik Dickens is an Assistant Professor in the Department of Industrial and Manufacturing Engineering at the Florida A&M University-Florida State University College of Engineering, Florida State University. He serves as Interim Associate Chair of Materials Science and Engineering, Department Graduate Director for IME, and Associate Director of CREST CoMand. He leads the SMART-CIIM Labs and Industrial Composite Engineering (ICE) lab at the High-Performance Materials Institute. His educational background includes: Ph.D. in Industrial and Manufacturing Engineering, Florida State University (2013) M.S.I.E., Florida State University (2007) B.S.I.E., Florida State University (2005) Dr. Dickens' research pioneers integrative composite manufacturing for online prognosis of composite structures, with emphasis on triboluminescent damage detection systems. His work spans multifunctional composites, additive manufacturing automation, failure prognosis, and Industry 4.0 integration, targeting aerospace, military, and commercial applications through novel sensor-embedded composites and co-additive processing techniques. Recent publications reveal dominant trends in advanced additive manufacturing, particularly field-assisted techniques, vitrimer materials, and in-situ structural health monitoring systems. His research integrates mechanoluminescent composites with real-time damage detection, focusing on robotic additive manufacturing, multi-material systems, and Industry 4.0 connectivity for next-generation composite structures. Scientific recognition includes: InNOLEvation Challenge award ($55,000) for entrepreneurial innovation in composite technology commercialization Dr. Dickens has secured approximately $1.3 million in research funding from NSF and DOD. He has graduated 4 master's students and currently mentors 3 PhD and 1 master's student. His research bridges fundamental material science with industrial applications, emphasizing scalable manufacturing solutions and commercialization pathways. The SMART-CIIM Labs (1.0 and 2.0) and ICE lab at HPMI drive experimental research in additive manufacturing, non-destructive testing, and composite material development, featuring robotic systems for co-additive processing and triboluminescent sensor integration for real-time structural health monitoring.
Professor Patrick Fairclough is a Professor of Polymer and Composite Engineering at the School of Mechanical, Aerospace and Civil Engineering, University of Sheffield. He has been with the University of Sheffield since 1997, initially joining the Department of Chemistry before taking up a chair position in the Department of Mechanical Engineering in 2013. Professor Fairclough earned his BSc in Physics from the University of Birmingham in 1990 followed by a PhD in Neutron Scattering in 1995. Prior to joining Sheffield, he completed a postdoc in polymer science at UMIST in Manchester from 1994 to 1997. His research spans a wide range of polymer and composite systems, with particular focus on mold-free manufacturing of carbon fiber composites, structural color phenomena, and recyclable polymer systems. His group has developed innovative methods for electrically curing carbon fiber composites without traditional tooling and has conducted significant research on hydrolyzable thermoplastic composites. The team's work on structural color led to detailed studies of white beetle scales using synchrotron radiation at the ESRF in Grenoble, France. Analysis of his recent publications reveals a strong emphasis on advanced composite manufacturing techniques, particularly electrical curing methods and mold-free fabrication approaches. His research integrates materials science with practical engineering applications, focusing on sustainability through recyclable polymer systems and efficient manufacturing processes. Professor Fairclough has secured significant research funding including EPSRC grants such as 'Soft Nanotechnology' (2007-2012, £796,000), 'KTA KickStart Funding Biologics' (2011-2012, £1,116,000), and 'The Microscale Polymer Processing Consortium' (2005-2009, £815,000). He teaches MEC132: Matter Flow and Energy (Thermofluids) and MEC406: Engineering Composite Materials (Solids) at the University of Sheffield. His research group maintains active projects in mold-free manufacturing, fiber splicing, and tailored fiber placement technologies.
Tomasz Wiczenbach serves as an Assistant lecturer at the Department of Strength of Materials within the Faculty of Civil and Environmental Engineering at Gdańsk University of Technology. His academic work bridges biomechanics and material science, focusing on spinal structures and composite materials for biomedical and civil engineering applications. His research centers on spinal biomechanics, employing both experimental methods like uniaxial tensile testing of human spinal tissues and computational approaches using finite element analysis. Key interests include rate-dependent material behavior, visco-hyperelastic modeling of ligaments, and enhancement of polymer composites through fillers like sand. His work addresses critical gaps in understanding spinal tissue mechanics under dynamic loading conditions relevant to vehicular collisions and medical complications. Analysis of Wiczenbach's recent publications reveals a strong interdisciplinary trajectory combining computational biomechanics with experimental material science. His research consistently targets spinal structures—dura mater, ligaments, and vertebrae—using finite element modeling (particularly Ansys LS-Dyna) alongside experimental validation. The work demonstrates increasing sophistication in material modeling techniques, progressing from quasi-static ligament studies to advanced visco-hyperelastic implementations with filtering techniques, while simultaneously exploring practical applications of composite materials in biomedical contexts. Wiczenbach actively collaborates with researchers including R. Wolny, Ł. Pachocki, and K. Wilde across multiple publications, indicating established research partnerships within Gdańsk Tech's biomechanics community. His publications in journals like Scientific Reports and Journal of the Mechanical Behavior of Biomedical Materials reflect engagement with high-impact interdisciplinary research venues.
Wiyao Azoti is a Lecturer at the National Institute of Applied Sciences of Toulouse (INSA Toulouse), where he is a member of the Composite Materials and Structures group (MSC). His work focuses on the mechanics of composite materials and structures, with particular expertise in multi-scale modeling and micromechanics. Dr. Azoti's educational background includes: PhD in Materials Science from University of Lorraine, France (2012) MSc in Mechanical Engineering from University of Lorraine, France (2009) Engineering degree in Mechanical Engineering from ENSI, Togo (2008) His research interests center on the mechanics of materials, with emphasis on linear, nonlinear, and computational aspects; rate-independent and rate-dependent plasticity; micromechanics and mean-fields homogenization techniques; multi-scale modeling of composite materials; damage and fracture behaviors of composite materials; and multiphysics coupling of thermomechanical fields. His work bridges fundamental mechanics with practical applications in automotive, aerospace, and biomedical fields. Dr. Azoti has published extensively in the field of composite materials, with over 50 scientific contributions. His recent work shows a strong trend toward the application of multi-scale modeling techniques to graphene-reinforced composites, biocomposites, and advanced materials for automotive and aerospace applications. He has made significant contributions to understanding the electromechanical behavior of polymer composites, thermomechanical properties of natural fiber composites, and the crashworthiness of hierarchical composite structures. Professional memberships include: African Society of Eco-Materials (ECOMAT-AFRICA) American Society of Mechanical Engineers (ASME) European Mechanics Society (EUROMECH) Dr. Azoti teaches several courses at INSA Toulouse, including Design of Mechanical Systems, Materials Science and Heat Treatment, Automation of Mechanical Systems, Machine Elements and Eco-design, Eco-design and Innovation, and Composite Materials' Projects. His teaching reflects his research expertise, emphasizing sustainable materials and advanced composite technologies.
Cameron Welker serves as a Researcher in the Department of Tailored Lightweight Composites within the Polymer Materials Engineering Division at the Leibniz Institute of Polymer Research Dresden (IPF Dresden). The department operates under the leadership of Prof. Dr.-Ing. Axel Spickenheuer and focuses on advanced material science research with practical engineering applications. The research interests of Dr. Welker center on material-related adaptations at meso- and macroscales of continuous fiber-reinforced composites for extreme lightweight construction applications. This includes developing generative manufacturing processes for efficient material utilization and functionalization of macroscopic structural components through innovative design methodologies. The department's work spans three primary research groups: Advanced Composite Modeling, Lightweight Design, and Multi-Material Composites, with emphasis on creating highly optimized structural solutions for demanding engineering applications. As part of the Leibniz Institute, Dr. Welker contributes to the institute's mission of advancing polymer science and engineering through both theoretical and practical research approaches. The institute maintains strong connections with academic and industrial partners to translate research findings into real-world applications.
Gérard Bernhart is a Professor at IMT Mines Albi (National School of Mines of Albi-Carmaux), where he is a member of the Composite Materials and Structures group (MSC). He serves as Director of Corporate and Alumni Relations at the institution and maintains active research and teaching responsibilities in the field of composite materials and superplastic forming. His research interests focus on composite process engineering, including thermo-compression and inflation forming using specialized equipment like the EDyCO pilot and lamp forming systems. He investigates multifunctional composite materials with mechanical, shielding, thermal, and electromagnetic properties, working with innovative fibers like basalt and carbon nanotube mats. His work extends to polymerization kinetics of thermosetting composites, recycling of composite materials, welding of thermoplastic composites, and superplastic forming of metal sheets. Professor Bernhart teaches courses in continuous media mechanics, elasticity, RdM, and behavior and modeling of composite materials across various training programs. His research output includes 174 scientific contributions spanning two decades, with recent publications demonstrating continued activity in composite materials science and engineering. His work shows strong connections between theoretical modeling, experimental validation, and industrial applications, particularly in aerospace and advanced manufacturing sectors. He contributes significantly to the academic community as a member of the International Advisory Board of the ICSAM conference series (International Conference on Superplasticity of Advanced Materials) and the International Board of the EuroSPF conference series (European Conference on Superplasticity).
Oliver Lottes serves as Professor of Textile Technology and Head of the Institute for Materials Science (ifm) at Hof University of Applied Sciences' Münchberg campus since September 2008, concurrently leading the Mesh Technology research group. His career bridges academic instruction and industrial textile innovation, leveraging prior experience as head of application technology in textile machinery manufacturing. Education: Textile Technology studies completed at Münchberg campus (historically part of Coburg University of Applied Sciences) Research Focus: Specializing in knitting technology and technical textiles, Lottes investigates structure-property relationships in knitted fabrics for applications including wind turbine components, medical compression systems, and sustainable textiles. His work emphasizes translating theoretical knowledge into industry-ready solutions through precise parameter control and material innovation. Publication Trends: Recent work centers on circular knitting advancements documented at ITMA 2019, revealing strong industry movement toward functional textiles in healthcare (e.g., thrombosis prevention), renewable energy infrastructure, and eco-friendly travel apparel with integrated physiological monitoring. Project Leadership: Directs impactful industry collaborations including Sensitex (functional skin textiles), Gebe (thermophysiological bedding), Icompression (smart medical stockings), Traveltex (performance travel wear), FaRec (AI-driven fiber recycling), and Organoscrim (lightweight composite reinforcements). Academic Contributions: Teaches specialized courses in English and German covering knitting technology, textile testing, and nonwoven production, training students to develop requirement-driven textile solutions through hands-on scientific projects and design coursework.
