Valentina Sessini is a Researcher at the Department of Organic Chemistry and Inorganic Chemistry, Universidad de Alcalá (UAH), as part of the Ramón y Cajal Fellowship Program. Her research focuses on sustainable catalytic processes involving organometallic compounds and the development of biodegradable polymeric materials with advanced functionalities like piezoelectricity and shape-memory effects. Key projects include the design of multifunctional bioplastics for energy harvesting applications (2023-2027, funded by the Spanish Ministry of Science) and tailoring biopolymer systems for piezoelectric composites (2022-2024). She also participates in the EU-funded PRIORITY COST Action (2021-2025) addressing plastic pollution solutions. Her research interests span catalytic polymerization, green chemistry, and the synthesis of biodegradable materials with applications in energy, packaging, and biomedical fields. Notable contributions include studies on poly-L-lactic acid (PLA) modifications, nanocomposite design, and catalyst development for sustainable polymer production. Publications highlight advancements in shape-memory polymers, piezoelectric bioplastics, and catalytic processes for renewable monomers. Her work often integrates experimental and mechanistic studies to advance the scalability of eco-friendly materials.
Balestra Gioele is a Full Professor at the Fribourg School of Engineering and Architecture (HES-SO) and Co-Head of the iPrint Institute. His primary affiliations include the BSc HES-SO in Mechanical Engineering, where he teaches CFD simulation and Fluid Mechanics. He leads the ComplexFluidPrint project (since 2019), developing advanced inkjet technologies for complex fluids. His research focuses on fluid mechanics, microfluidics, and rheology, with recent projects addressing micro-manipulation via liquid plugs and composite materials for IoT applications. Research interests include thin film instabilities, droplet dynamics, and industrial applications of inkjet technology. Notable projects include the experimental validation of liquid plug-based micro-manipulation (2020-2022), funded by HEIA-FR, and a collaborative effort on multifunctional composite materials with COMATEC (2019-2021), yielding 250'000 CHF in funding. His work bridges theoretical models, numerical simulations, and experimental validation. Publications span topics like machine learning for inkjet behavior prediction (2023), karst drapery morphogenesis (2021), and instability mechanisms in curved substrates (2018-2020). Current research emphasizes inertial microfluidics, airflow visualization for inkjet systems, and advanced nozzle plate manufacturing (2024). Grants: HES-SO, HEIA-FR, COMATEC Team Collaborations: Over 20 researchers across projects, including Domae Yoshinori, Maturo Jonas, and Gallaire François Labs/Teams: iPrint Institute, ComplexFluidPrint team
Kaushik Dayal is a Professor in the Department of Civil and Environmental Engineering at Carnegie Mellon University's College of Engineering. He leads the Multiscale Mechanics Research Group and is affiliated with several interdisciplinary centers including the Center for Nonlinear Analysis, the Center for the Mechanics and Engineering of Cellular Systems, the NextManufacturing Center, and the Wilton E. Scott Institute for Energy Innovation. His research bridges theoretical and computational mechanics with applications in materials science, energy, and environmental systems. Ph.D., Mechanical Engineering, California Institute of Technology (2007) M.S., Aeronautics, California Institute of Technology (2001) B.Tech., Naval Architecture, Indian Institute of Technology Madras (2000) His research focuses on theoretical and computational multiscale methods , particularly in modeling the behavior of materials across atomic to continuum scales. Key areas include non-equilibrium response , electromagnetic effects , phase-field modeling of fracture , poroelasticity , soft active materials , and data-driven inverse design . He investigates phenomena such as microstructure evolution, dislocation dynamics, surface growth, and material behavior under extreme conditions. His work integrates mechanics with chemistry, robotics, and climate resilience, often leveraging machine learning and Bayesian inference. His recent publications reveal a strong trend in computational mechanics of heterogeneous and functional materials , with emphasis on phase-field models, multiscale homogenization, and instability exploitation in soft electromechanical systems. Many studies involve collaboration with national labs and cross-departmental teams, reflecting a highly interdisciplinary approach. McGaw Graduate Fellowship in Mechanical Engineering Army Research Laboratory Journeyman Fellowship Adamson Fellowship Bushnell Doctoral Fellowship Mao Yisheng Outstanding Dissertation Award MIT Postdoctoral Fellowship for Engineering Excellence Center for Machine Learning and Health Fellowship Dowd Doctoral Fellowship Steinbrenner Doctoral Fellowship Dunlap Awardee Dayal has advised numerous PhD students, many of whom have gone on to postdoctoral positions at institutions such as Caltech, MIT, Johns Hopkins, and Los Alamos National Laboratory. His research is supported by major grants from the Department of Defense (MURI program), Air Force Research Laboratory, and other federal agencies. He actively promotes education through teaching assistant awards and participation in Rising Stars workshops. He leads the Multiscale Mechanics Research Group , a vibrant team engaged in cutting-edge research on material modeling, soft robotics, energy materials, and environmental mechanics. The group emphasizes open scientific exchange, interdisciplinary collaboration, and innovation in computational methods.
Dr. Iulia Salaoru is an Associate Professor in Materials Science and Engineering at De Montfort University, affiliated with the School of Engineering and Sustainable Development within the Faculty of Computing, Engineering and Media. She is a key member of the Emerging Technologies Research Centre and the Institute of Engineering Sciences, where she leads research in functional electronic materials and green manufacturing technologies. PhD in Solid State Physics, Al.I. Cuza University, Romania MSc in Physics of Thin Films, Al.I. Cuza University, Romania BSc in Physics, Al.I. Cuza University, Romania Postgraduate Certificate in Teaching in Higher Education (Merit), De Montfort University, UK Her research expertise lies in printed and flexible electronics , with a focus on resistive memory devices (ReRAM) , inkjet printing , 3D printing , and green electronics . She investigates novel materials such as polymer composites, TiO2 thin films, and graphene-based materials for applications in sustainable electronics and energy harvesting. Her work bridges fundamental physics with practical device fabrication and manufacturing innovation. The most recent articles highlight a strong trend toward additive manufacturing of memory devices , green electronics , and functional materials for energy . Her publications span high-impact journals in materials science, nanotechnology, and electronic engineering, reflecting interdisciplinary innovation in memory technologies and sustainable fabrication methods. She has received several scientific recognitions, including: Doctoral College studentship (DMU, 2023) Award for Research Engaged Teaching (2020) Certificate of Outstanding Contribution in Reviewing, Additive Manufacturing (2018) Guest Editor for Special Issues in Micromachines (2020) and Materials (2023) Fellow of the Higher Education Academy (2017) Dr. Salaoru actively supervises PhD students and has served as principal investigator on multiple funded research projects, including grants from the Royal Society and De Montfort University. She mentors BSc, MSc, and MPhil students, acts as internal examiner for PhD theses, and has hosted Erasmus trainees. Her leadership in externally and internally funded research demonstrates a strong commitment to advancing knowledge and training future researchers. She is also involved in professional service as a member of editorial and reviewer boards for journals such as Electrochem, Micromachines, and Polymers (MDPI), and serves on organizing committees for international conferences including ICPAM and ICREPQ.
Prof. Dr.-Ing. Hans-Georg Herrmann holds the Chair of Lightweight Systems at Saarland University within the Faculty of Natural Sciences and Technology, Department of Materials Science and Engineering. He is actively affiliated with both the university and the Fraunhofer Institute for Non-Destructive Testing (IZFP), reflecting a strong industry-academia collaboration. His research spans the entire value chain of lightweight construction, integrating conceptual, structural, material, and manufacturing aspects. His primary research interests include: Robust lightweight systems Life-cycle-oriented structural optimization Multifunctional lightweight design Structural health monitoring (SHM) Bionic lightweight systems Evaluation methods for lightweight construction These areas reflect a systems-level approach to engineering, combining durability, functionality, and biomimetic principles. Although no publications are listed in the provided text, his research infrastructure and team suggest active work in experimental and applied materials science. The availability of advanced equipment such as micro-CT, nano-CT, thermography, and polymer processing systems indicates a strong experimental focus. His teaching of courses like 'Lightweight Systems 1 & 2' and supervision of student projects further demonstrate ongoing academic engagement. Scientific awards are not mentioned in the available information. Prof. Herrmann advises doctoral and master’s students, several of whom have completed their PhDs and gone on to notable positions, including alumni such as Prof. Dr. Henrique Coelho Fernandes (Humboldt Scholar) and others now at institutions like Cranfield University. He leads a multidisciplinary team of scientific and technical staff and offers opportunities for theses and student assistantships. His research is supported by institutional and industrial collaborations, particularly through the Fraunhofer IZFP. The research group operates within the Center for Correlative Microscopy and Tomography (CoMiTo) and has access to advanced facilities including: Thermography systems Micro-CT and Nano-CT scanners Injection molding machines Hot press equipment Polymer processing and testing labs Additive manufacturing for polymers These resources support experimental validation and characterization in lightweight materials and systems.
Selvum Pillay serves as Associate Professor and Chair of the Materials Science and Engineering Department within the College of Engineering at the University of Alabama at Birmingham (UAB). His academic leadership role indicates significant influence in shaping the department's research direction and educational programs. Dr. Pillay's research interests span multiple critical areas in advanced materials, with primary focus on composite materials, additive manufacturing techniques, mechanical properties characterization, fiber-reinforced polymers, thermoplastic composites, and sustainable materials development. His work bridges fundamental materials science with practical engineering applications across various industries. Analysis of his most recent publications reveals a strong emphasis on developing and characterizing advanced composite materials, particularly those involving continuous fiber reinforcement and additive manufacturing processes. His research demonstrates expertise in mechanical testing methodologies, finite element analysis, and the development of novel composite processing techniques that address both performance requirements and sustainability concerns. Dr. Pillay has maintained an active research program with publications extending through 2025, indicating ongoing scholarly contributions to the field of materials science and engineering. His work shows particular strength in translating materials research into practical applications across aerospace, automotive, and infrastructure sectors. As department chair, Dr. Pillay likely oversees curriculum development, faculty recruitment, research initiatives, and industry partnerships within the Materials Science and Engineering program at UAB, contributing significantly to the educational experience of undergraduate and graduate students in the field.
Chandraprakash Chindam is an Associate Professor in the Department of Mechanical Engineering at the Indian Institute of Technology (IIT) Kanpur. He joined IIT Kanpur as a Visiting Assistant Professor in 2017, became an Assistant Professor from 2018-2024, and was promoted to Associate Professor in 2024. His academic journey includes a PhD in Engineering Science and Mechanics from Pennsylvania State University, an M.Tech in Product Design from IIT Madras, and a B.Tech in Mechanical Engineering also from IIT Madras. Prior to his academic career, he worked as a Project Officer at the Centre for Non-Destructive Evaluation at IIT Madras and as a Technical Manager at TATA Motors' Engineering Research Centre. Education: 2017: PhD in Engineering Science and Mechanics, Pennsylvania State University 2010: M.Tech in Product Design, Mechanical Engineering, IIT Madras 2008: B.Tech in Mechanical Engineering, IIT Madras Dr. Chindam's research focuses on the intersection of wave mechanics, thermal diffusion, and material characterization. His primary research interests include acoustic metamaterials, thermal nondestructive evaluation, soft robotics, multifunctional materials, instrumentation, and computer vision. His work combines computational approaches with experimental techniques to develop innovative materials and characterization methods. He has pioneered research in phononic crystals, acoustic foams, and advanced surface characterization techniques, with applications in noise control, structural health monitoring, and sustainable materials development. His recent publications demonstrate a strong trend toward interdisciplinary research combining materials science, acoustics, computer vision, and sustainable engineering. He has made significant contributions to the understanding of phononic crystals for sound absorption, development of biodegradable acoustic materials from agricultural waste, and computer vision applications for non-destructive evaluation. His work bridges fundamental material properties with practical engineering applications, particularly in the areas of noise control and structural health monitoring. Scientific Awards: Best PhD thesis award 2017 Distinguished Teaching Fellow 2015-16 during PhD Dr. Chindam teaches several courses at IIT Kanpur including ME222A (Nature and properties of materials), ME321A (Advanced mechanics of solids), ME698E (Fabrication and mechanics of thin films), ME621A (Introduction to solid mechanics), ME683A (Techniques in non-destructive evaluation), and ME723A (Wave propagation in solids). His teaching approach integrates theoretical concepts with practical applications, particularly in the areas of material characterization and wave mechanics. While specific grant information isn't detailed in the provided text, his research output suggests involvement in projects related to acoustic metamaterials, non-destructive evaluation techniques, and sustainable material development. His laboratory work focuses on developing advanced characterization techniques for materials, particularly in the areas of acoustic metamaterials and thermal nondestructive evaluation. His team appears to work at the intersection of computational mechanics, experimental characterization, and sustainable materials development, with emphasis on practical applications for noise control and structural health monitoring.
Professor Veronique Bonnet is a leading researcher at the Glycochemistry and Agroresources Laboratory of Amiens (UR 7378) at Université de Picardie Jules Verne. Her work bridges carbohydrate chemistry, nanotechnology, and pharmaceutical sciences, focusing on developing innovative cyclodextrin-based systems for drug delivery and materials science applications. Professor Bonnet's research primarily centers on sugar-protein recognition and vectorization , with special emphasis on overcoming biological barriers like the blood-brain barrier. Her laboratory develops amphiphilic cyclodextrin derivatives that self-assemble into nanocarriers capable of transporting therapeutic agents across these barriers. She has made significant contributions to understanding cyclodextrin-metal interactions, carbohydrate conformation analysis using ion mobility mass spectrometry, and developing selective enzyme inhibitors for diabetes treatment. Her recent publications (2021-2023) demonstrate a diverse research portfolio spanning pharmaceutical applications, analytical methodology development, and sustainable materials science. Notably, her work on enzymatically modified pectins from fruit waste has shown exceptional promise as polymer binders for next-generation lithium-ion batteries, demonstrating the interdisciplinary nature of her research. Professor Bonnet has been authorized to supervise research since 2013 and maintains an active research program with numerous publications in high-impact journals across chemistry, materials science, and pharmaceutical fields. Her laboratory serves as a hub for interdisciplinary research connecting carbohydrate chemistry with practical applications in medicine and technology.
Dr. Anca STANCULESCU is a Scientific Researcher I at the Laboratory of Optical Processes in Nanostructured Materials, National Institute of Materials Physics (INFIM) in Romania. Her research focuses on the development and characterization of advanced organic and inorganic materials for optoelectronic applications, with expertise spanning thin film technology, crystal growth, and nanomaterials engineering. Her primary research interests include: Organic materials: multifunctional thin films, nanostructured composites, and heterostructures for photovoltaic cells, OLEDs, and transistors Inorganic materials: transparent conducting oxides, semiconductor compounds, and silicon technology Advanced characterization: AFM, SNOM, UV-Vis spectroscopy, FTIR, and electrical measurements Dr. STANCULESCU specializes in laser-based deposition techniques, particularly Matrix Assisted Pulsed Laser Evaporation (MAPLE), for fabricating novel organic-inorganic hybrid systems. Her work demonstrates how strategic integration of inorganic components within organic matrices enhances device performance in terms of electrical conductivity, optical properties, and mechanical flexibility. Analysis of her recent publications (2022-2025) reveals a strong emphasis on flexible optoelectronics, with particular focus on nanostructured electrodes, non-fullerene acceptors for photovoltaics, and the effects of substrate patterning on device performance. Her research consistently bridges fundamental materials science with practical applications in next-generation electronic devices. She currently leads two major research projects: Flexible and nanostructured Organic Field Effect Transistor for UV-VIS detection (2022-2024) Investigation of organic thin films after high-energy ion and neutron irradiation (2020) Dr. STANCULESCU has also contributed to five book chapters on organic semiconductors and optoelectronic materials, establishing herself as a recognized expert in the field. Her laboratory maintains strong expertise in the fabrication and characterization of nanostructured materials, with particular capabilities in laser processing and advanced optoelectronic device development.
Mariel Alfaro-Ponce serves as an Assistant Professor in the Biomedical Engineering Program at Tecnológico de Monterrey's Campus Ciudad de México, where she leads the Manufacturing Processes for Advanced Materials research unit since 2022. Her academic journey spans biomedical engineering, microelectronics, and computer science, creating a unique interdisciplinary profile that bridges engineering disciplines with practical healthcare applications. Dr. Alfaro-Ponce earned her Bio-medical Engineering degree, Master of Science in Microelectronics Engineering, and PhD in Computer Science from Instituto Politécnico Nacional in Coyoacán, Mexico. This educational foundation has enabled her to develop innovative approaches at the intersection of multiple engineering disciplines. Her research program demonstrates remarkable breadth across several interconnected domains. She applies artificial intelligence techniques to develop rehabilitation devices and intelligent bioinstrumentation systems, with particular focus on neural network applications for medical diagnostics and prosthetics. Her work extends into sustainable manufacturing processes, including advanced 3D printing applications for both medical devices and food systems. The integration of machine learning with traditional engineering problems represents a consistent thread throughout her research portfolio, demonstrating how computational approaches can solve practical engineering challenges in healthcare and manufacturing. Analysis of her recent publications reveals a clear trajectory toward increasingly sophisticated applications of AI in biomedical contexts, with growing emphasis on sustainable manufacturing solutions. Her work spans from fundamental neural network research to practical implementations in medical devices, food engineering, and environmental applications. The interdisciplinary nature of her research connects computer science, electrical engineering, mechanical engineering, and biomedical applications through the unifying framework of machine learning and intelligent systems. National System of Researchers of Mexico (SNI-Level I) Mexican Researcher Certification - Level 1 Dr. Alfaro-Ponce's academic leadership extends beyond her research publications to include significant educational contributions. She teaches advanced courses including Design of Digital Bioinstrumentation Systems and supervises doctoral research across multiple disciplines. Her expertise aligns with multiple UN Sustainable Development Goals, particularly in areas of good health and well-being, industry innovation, responsible consumption, and clean energy. The practical orientation of her research suggests strong potential for technology transfer and real-world implementation of her innovations in medical devices and sustainable manufacturing systems. As leader of the Manufacturing Processes for Advanced Materials research unit in Mexico City, Dr. Alfaro-Ponce oversees a multidisciplinary team working at the cutting edge of sustainable manufacturing technologies. Her research group focuses on integrating artificial intelligence with advanced materials processing, particularly in medical device development and sustainable food production systems. The team's work demonstrates strong connections between theoretical machine learning approaches and practical engineering implementations across multiple application domains.
Elham MOHSENZADEH is an Associate Professor and Research Supervisor at JUNIA - HEI (Higher School of Engineering) in France, specializing in electrospinning technology and nanofiber applications. She leads the Multifunctional Textiles & Processes Group and holds Section CNU 61 affiliation. Her research spans multiple interdisciplinary fields including materials science, textile engineering, and biomedical applications. Her research interests focus on developing nanofibers, microfibers, and nanocomposites for diverse applications such as sensors, energy harvesting, filtration systems, and biomedical devices. She has pioneered work in electrospun membranes for air filter clogging detection, gas sensors for NO/NO 2 detection, and thermal management textiles. Her expertise includes electrospinning techniques, nanofiber characterization, and functional textile development. Analysis of her recent publications reveals strong trends in environmental monitoring applications, particularly gas sensing for medical diagnostics (asthma detection through NO monitoring) and energy-efficient building technologies. Her work bridges fundamental materials science with practical engineering solutions for air quality monitoring, personal thermal management, and medical diagnostics. Best Presentation Award, Development of an Electrospun Composite as Substitutive Diaphragmatic Membrane (2017) As a research supervisor, she leads multiple significant projects including ANR-PRCE POCOMA on polymer membranes for thermal comfort, ANR-PRCE SAFIRS on intelligent air filtration, and the Interreg MOTION project developing orthosis for children with neurological disorders. Her work demonstrates strong industry and international academic collaboration across France, Belgium, and the UK. Her laboratory work focuses on the Multifunctional Textiles & Processes Group at JUNIA, where she develops innovative electrospun membranes and nanofiber-based sensors. Current research directions include improving gas sensor sensitivity at lower temperatures, optimizing nanofiber structures for specific applications, and developing dual-mode temperature regulation textiles.
