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C
Processing
Area C covers all aspects of materials processing — from additive manufacturing and laser processing to powder metallurgy, coatings, ceramics, composites, casting, welding, thermomechanical processing, and nanoelectronics. Eleven symposia span the full manufacturing chain from fundamental processing science to industrial application.
11Symposia
33Organizers
126Topics
5Days
Anna Zervaki
FEMS Coordinator
Anna Zervaki
NTUA Athens, Greece
Biography

Anna D. Zervaki is currently an Assistant Professor of Metallic Materials and Welding at the School of Naval Architecture and Marine Engineering, National Technical University of Athens (NTUA), Greece. She holds a Diploma in Mining and Metallurgical Engineering from NTUA and a PhD in the welding of Al alloys from the Department of Mechanical Engineering, University of Thessaly (UTH). Prior to joining academia, she gained 12 years of industrial experience as a Research/Service Engineer at MIRTEC S.A. (Metallurgical Industrial Research and Technology). Her research interests lie in the fields of structure–processing–properties–performance relationships in metallic materials, computational alloy thermodynamics and kinetics, laser welding, friction stir welding (FSW), robotic welding, residual stresses, Wire Arc Additive Manufacturing (WAAM) for marine applications, failure analysis of mechanical components and structures, and materials for liquid hydrogen service. A co-author of more than 85 papers published in international journals and conference proceedings, she has also contributed to more than 600 failure analysis reports funded directly by industry. Her publication record includes 46 articles in peer-reviewed journals (h-index: 12 according to Scopus) and 70 papers in international and national conference proceedings, all focusing on welding and the behavior of materials in harsh environments. Her research activities include participation in numerous European and National research projects, with role as Scientific Coordinator for several of them. Her service to the international materials community includes membership on the Scientific Committees of numerous international and national conferences, as well as co-chairing two major international materials conferences (EUROMAT 2017 and EUROMAT 2025). She also served as President of the Federation of European Materials Societies (FEMS) during the 2022–2023 term.

Maria Cecilia Poletti
ASMET Coordinator
Maria Cecilia Poletti
TU Graz, Austria
Biography

Maria Cecilia Poletti studied chemical engineering at UNComa, Argentina. She earned her doctorate in titanium alloys in 2005 from TU Wien in Austria. She served as a university assistant before joining TUGraz in 2011 as a tenure-track professor at the Institute of Materials Science, Joining and Forming. By 2013, she became the leader of the Modelling and Simulation group and deputy head of the institute, directing research in both applied and fundamental aspects of solid-state and additive manufacturing of metallic materials. Her research focuses on understanding the physical phenomena during alloy processing, such as solidification, plastic deformation, and phase transformation. From 2017 to 2025, she led the Christian Doppler Laboratory for high-performance alloy design through thermomechanical processing. At TUGraz, she teaches materials science-related topics, supervises master’s and doctoral theses, and actively participates in scientific and teaching committees.

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C1
Additive manufacturing of metallic materials
Additive manufacturing (AM) is widely recognized as a revolutionary technology. Over the past decade, metal AM techniques have garnered significant attention in both industry and academia. The primary metal AM methods include Powder Bed Fusion – Laser Beam (PBF-LB), Powder Bed Fusion – Electron Beam (PBF-EB), Directed Energy Deposition (DED), and Binder Jetting (BJT), while new methods and hybrid processes evolve. Metal AM enables the creation of parts with unique shapes and exceptional mechanical properties.
Description, Topics & Organizers
In the last decade, the industrial application of these technologies has surged, demonstrating immense potential across various sectors such as aerospace, medical/dental, and automotive. Due to the temperature gradients, high cooling rates, inherent process complexity, and numerous interlinked process parameters, the microstructure and mechanical properties of metal AM components differ significantly from those produced by conventional methods. Exploiting these advantages opens new possibilities in material synthesis with tailored properties. This symposium aims to address all aspects of metal additive manufacturing, from powder production and material development to the latest advances in processing, final part qualification, and characterization through process optimization.
Production and characterization of powders for AM to ensure quality parts.Creation of new materials to improve AM part properties.Link AM process settings to part properties for optimization.Setting of standards to ensure consistent and reliable AM parts.New designs and technologies enhancing AM capabilities.Improve surface integrity through post-processing.Use of design rules and optimization for better AM parts.Prediction and optimization of AM processes and part performance.Enhance AM parts with surface engineering, heat treatment, and machining.Machine Learning in AM to optimize processes, predict outcomes, and improve quality control.NDT and Process Monitoring to ensure quality and reliability of AM parts during and after production.Life Cycle Assessment and Sustainability to evaluate environmental impact for eco-friendly manufacturing.Development of novel formulations and additives for enhanced printabilityInnovative processing strategies in AMPost-processing of 3D printed partsModelling and simulation of AM systemsMonitoring, data-driven approaches and machine learning in printing technologiesDesign and fabrication of porous and reticular structuresMaterials and applications of 4D printingAdditive manufacturing of ceramics and carbonaceous materialsAdditive manufacturing of polymersAdditive manufacturing of cements and building materialsAdditive manufacturing of composites, multi-materials and hybrid structuresComplex architectures, functionally graded structures, metamaterials
Nicolaos Michailidis
Nicolaos Michailidis
Aristotle University of Thessaloniki, Greece
Eduard Hryha
Eduard Hryha
Chalmers University of Technology, Sweden
C2
Additive manufacturing of non-metallic materials
This symposium aims at providing a forum for researchers, students, industry representatives and institutions worldwide to address the most recent advances in the science and technology of additive manufacturing (AM) of non-metallic materials, including ceramics, cements, polymers, carbon-based materials, and composites. The symposium covers all stages of additive manufacturing, including the development and characterization of novel feedstocks, the optimization of printing parameters, the development of innovative AM processes, the control of post-processing such as debinding and sintering for improved surface finish and final microstructures; moreover, it includes evaluation of the influence of feedstock characteristics and printing parameters on the microstructure and properties, and the behavioral properties of materials shaped by additive manufacturing, such as thermo-mechanical, electrical, optical, etc.; finally, it covers the incorporation of digital modeling, simulations, and AI/machine learning algorithm into all stages of the AM workflow.
Description, Topics & Organizers
Additive manufacturing (AM) is a set of techniques that have revolutionized the design and production in a broad variety of disciplines and technologies. Unlike subtractive manufacturing, AM builds up complex parts layer by layer from digital designs. The development of AM allows us the design of geometric shapes that could not be produced before with unprecedent efficiency and precision, enabling material customization and on-demand manufacture. The families of AM techniques are VAT photopolymerization, material extrusion, material jetting, binder jetting, powder bed fusion, and sheet lamination. The development of new formulations, the precise control of the additives, the design of hybrid and multi-material processes, the microstructural control and the defect-free upscale production are still challenging and require much work to achieve fabrication competitiveness.

The objectives of this symposium are to bring together all actors involved in the research and production of non-metallic materials by AM routes, including researchers with different backgrounds, engineers, industrial experts, students, etc. All of them are strongly encouraged to present their latest advancements in the field of AM and explore the fascinating trends, milestones and opportunities in the manufacturing of non-metallic materials.
Development of novel formulations and additives for enhanced printabilityInnovative processing strategies in AMPost-processing of 3D printed partsModelling and simulation of AM systemsMonitoring, data-driven approaches and machine learning in printing technologiesDesign and fabrication of porous and reticular structuresMaterials and applications of 4D printingAdditive manufacturing of ceramics and carbonaceous materialsAdditive manufacturing of polymersAdditive manufacturing of cements and building materialsAdditive manufacturing of composites, multi-materials and hybrid structuresComplex architectures, functionally graded structures, metamaterials
Rodrigo Moreno
Rodrigo Moreno
Institute of Ceramics and Glass, CSIC, Madrid, Spain
Paulina Wiecinska
Paulina Wiecinska
Warsaw University of Technology, Poland
Giorgia Franchin
Giorgia Franchin
University of Padova, Italy

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