Fr. 206.00

Proceedings of the 9th International Symposium on Dielectric Materials and Applications (ISyDMA’9)

English · Hardback

Will be released 24.03.2026

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The International Symposium on Dielectric Materials and Applications (ISyDMA) conference series provides a distinguished global platform for researchers and scientists to exchange ideas, present findings, and engage in in-depth discussions on recent advances in dielectric materials and their emerging applications. The ISyDMA Proceedings volumes serve as comprehensive records of cutting-edge research on topics including high-κ dielectrics, electrical insulation, dielectric phenomena, and novel applications spanning biomedical technologies, energy harvesting, materials for critical infrastructure, and smart materials. The ninth edition of ISyDMA (ISyDMA’9) was hosted by Cadi Ayyad University, Marrakesh, Morocco, from May 7–9, 2025. This proceedings volume compiles the peer-reviewed papers presented at the conference. It opens with keynote contributions that offer overarching perspectives on mechanisms, processes, and applications of dielectric materials, followed by original research articles from participating scholars. Among the notable contributions, one study investigates how the structural self-organization of chalcogenide glasses influences low-frequency Raman scattering (Boson peaks), providing insights into the underlying mechanisms. Another article examines the impact of compositional variations and processing parameters on the optical characteristics of nonstoichiometric glassy films. Research on the parametric optimization of dielectric materials for energy harvesting in IoT devices demonstrates how systematic modeling can significantly reduce experimental trial-and-error in materials fabrication by identifying optimal process parameters. A study on microplasma-sprayed hydroxyapatite coatings illustrates enhanced surface bioactivity in 3D-printed titanium implants, underscoring their clinical promise for biomedical applications. Addressing environmental challenges, another contribution explores the use of dielectric barrier discharge as an innovative technique to mitigate microplastics in aquatic systems. Further, an article describes a photoacoustic method for evaluating the optical absorption coefficients of nanostructured silicon with varying morphologies, along with a comparative study of DC electrical conductivity in 2D and 3D polypyrrole particles embedded in different polymer matrices. Investigations into the synthesis, structural analysis, and dielectric properties of high-purity NiMoO₄ nanospheres with monoclinic symmetry reveal their potential for advanced electronic applications. A theoretical paper on the spectroscopy and electronic structure of group-12 metal carbides and nitrides provides critical insights to guide future experimental and computational studies of transition-metal-based diatomic materials. Several contributions highlight that moderate doping can significantly enhance the electrochemical performance of dielectric materials, demonstrating their suitability for next-generation energy storage systems. An interesting work discusses Poly(vinylidene fluoride) membranes fabricated via non-solvent-induced phase separation and modified with styrene–butadiene rubber and graphene nanosheets. The resulting β-phase-rich, polarizable structures exhibit tunable electronic conductivity, making them attractive for piezoelectric energy harvesting applications. Additional articles address the integration of AI in energy management and consumption optimization, as well as applications such as high-efficiency photodetectors based on optically transparent and dielectric materials for monitoring hazardous substances in mail distribution systems. The volume also includes several student contributions highlighting innovative aspects of dielectric science and its interdisciplinary applications. The unique collection of articles is intended for materials scientists, physicists, chemists, biologists, and electrical engineers engaged in fundamental and applied research or technical investigations involving dielectric materials and related technologies. 
The International Symposium on Dielectric Materials and Applications (ISyDMA) conference series provides a distinguished international platform for researchers to exchange ideas, present findings, and discuss recent advances in dielectric materials and their emerging applications. The ISyDMA Proceedings volumes document state-of-the-art research spanning high-κ dielectrics, electrical insulation, dielectric phenomena, and novel applications in biomedical technologies, energy harvesting, materials for critical infrastructure, and smart materials. The ninth edition of ISyDMA (ISyDMA’9) was hosted by Cadi Ayyad University, Marrakesh, Morocco, from May 7–9, 2025. This volume compiles peer-reviewed papers presented at the conference, starting with keynote contributions that offer broad perspectives on the mechanisms, processes, and applications of dielectric materials, followed by original research articles. Highlights include studies on the structural self-organization of chalcogenide glasses and its effect on low-frequency Raman scattering (Boson peaks), and on how compositional and process variations influence the optical characteristics of nonstoichiometric glassy films. Research on parametric optimization of dielectric materials for IoT energy harvesting demonstrates how modeling can minimize trial-and-error in fabrication. A study on microplasma-sprayed hydroxyapatite coatings reveals enhanced bioactivity in 3D-printed titanium implants, while another explores dielectric barrier discharge techniques for mitigating microplastics in aquatic systems. Further contributions include a photoacoustic method for measuring optical absorption in nanostructured silicon, a comparative study of DC conductivity in 2D and 3D polypyrrole composites, and investigations of nanospheres exhibiting monoclinic symmetry with promising dielectric performance. A theoretical analysis of metal carbides and nitrides offers valuable insights for designing transition-metal-based materials. Several papers also demonstrate that moderate doping enhances electrochemical performance, underscoring the potential of dielectrics for energy storage applications. Of particular note, Poly(vinylidene fluoride) membranes modified with styrene–butadiene rubber and graphene nanosheets exhibit β-phase-rich, polarizable structures with tunable conductivity—an attractive feature for next-generation piezoelectric energy harvesters. Additional studies integrate artificial intelligence in energy management and report high-efficiency photodetectors using optically transparent dielectric materials for monitoring hazardous substances. This collection serves materials scientists, physicists, chemists, biologists, and electrical engineers engaged in fundamental and applied research on dielectric materials and their multifaceted technological applications.

List of contents

Effect Of Structural Self-Organization on Low-Frequency Raman Scattering In Chalcogenide Glasses.- Material Parameter Optimization For Energy Harvesting in IoT Edge Devices.- Microplasma Spraying of Hydroxyapatite Coatings to Enhance Surface Bioactivity of 3D Printed Medical Titanium Implants.- Dielectric Barrier Discharge for Microplastics Decomposition.- Photoacoustic Method for Evaluating Optical Absorption Coefficients and Thermal Transport in Nanostructured Silicon with Different Morphologies.- Influence of composition and annealing on optical absorption edge of nonstoichiometric AsS3 - GeS4 glasses.- Comparative study of DC electrical conductivity in two-dimensional and three-dimensional PPy-based composites.- Investigation of Electrical Properties in the Complexation of Gum Arabic and Chitosan: Insights from Complex Impedance and Conductivity Analysis.- Synthesis, Structural Analysis, and Dielectric Properties of  NiMoO₄ Nanoparticle.- Spectral Analysis With a Single Photodetector.- Theoretical investigation of the Spectroscopy and Electronic Structure of Group 12 Metal Carbides (MC) and Nitrides (MN) (M = Zn, Cd, Hg).- Effect of Cr Doping on the Structural, Optoelectronic, and Electrochemical Properties of Nickel Cobaltite (CrxNi1-xCo₂O₄).- From Self-Assembly to Self-Poling: PVDF Phase Transition and Polarization via Nucleating Agents – A Critical Perspective: Self-poling of PVDF using Nucleating Agents.- Exploring Dielectric and Electrical Characteristics of Bismuth-Strontium Phosphate Glasses via Impedance Spectroscopy.- Genetic Algorithm-Based Optimization of the Angular Distribution of Ejected Beryllium Species.- Intelligent Energy Management strategy via two machine learning algorithms.- Harnessing Neural Networks for Controlling Energy Consumption for Autonomous Vehicles.- Neural Network Control for Maximum Power Tracking in Smart Public Buildings.- Electrical and Dielectric Performance of Polyester and DGEBA Composites with Carbon Nanotube Inclusions.- Infrared Sensors and Detectors For Control of Potentially Hazardous Objects.- Electropolymerization of Polyindole on FTO substrates for Supercapacitor Application.- Synthesis and characterization of alginate-based capsules for controlled release of inhibitors.

About the author

VASEASHTA, Ashok Prof. Dr. Acad. received a Ph.D. from the Virginia Polytechnic Institute and State University, Blacksburg, VA in 1990 followed by Kobe’s post-doctoral fellowship. He served as a Professor at Virginia Tech and Marshall University and Vice-Provost for Research at the Molecular Biology and Research Center in South Carolina. His honorary appointments include being a professor at the Transylvania University of Brasov; a Professor at Riga Technical University; a Chaired Professor of Nanotechnology at the Ghitu Institute of Electrical Engineering and Nanotechnologies, an Honorary member of the Academy of Sciences of Moldova; an Academician at the Euro-Mediterranean Academy of Arts and Sciences, member of CIRET, France, and Senior Strategic Research Advisor for several organizations. He served the U.S. Department of State in two rotations, as strategic S&T advisor and U.S. diplomat. He is the founder and Executive director of research with the International Clean Water Institute in Virginia, Manassas, USA. Inspired by nature and guided by societal necessities, he strives for technological innovations to address the global challenges of the 21st century. His research interests span nanotechnology, environmental/ecological science, heuristics, and critical infrastructure safety and security. He is the author/editor of 26 books and has published over 350 articles in scientific journals, book chapters, and conferences. He serves on the editorial boards of several prestigious international journalsand is an active member of various professional organizations. He is a fellow of the American Physical Society, a life member of the Institution of Electrical and Electronics Engineers, and a fellow of the Institute of Nanotechnology and the New York Academy of Sciences. He has earned several other fellowships and awards for his meritorious service including 2004/2005 Distinguished Artist and Scholar award.
ACHOUR Mohammed Essaid received his “Thèse de 3ème cycle" from The Bordeaux University (France) and “Thèse d’état” from the Moulay Ismail University of Meknes (Morocco) degrees in the field of Physics in 1983 and 1991 respectively. From 1983 to 1992 he was an “Maitre assistant”, at the Sciences Faculty of Meknes (Morocco), “Maitre de Conférence” (1992-1996), and Professor. He joined the Sciences Faculty at Kenitra in 1999. From 1997 to 2011, he was also a teacher with the Royal Military Academy at Meknes. He is an Expert evaluator, a member of the scientific committee of the National Center for Scientific and Technical Research (CNRST), The Moroccan Center for Innovation (CIM) and he is Chair and founder member of the Moroccan Association of the Advanced Materials (A2MA). He is an honorary guest professor at Brest University in France and a visiting scientist/researcher at different universities and research Centers in France, Canada, Portugal, Hungary, Italy, and Tunisia. His research interests include electromagnetic and electrical properties, microwave characterization, and dielectric responses of composite materials: carbon dots, graphene, carbon nanotubes, carbon black, and natural fibers in natural or synthetic polymers. Experience, modeling, and numerical simulations. Pr. ACHOUR M.E. has co-authored peer-review more than 65 scientific papers published in leading refereed journals, about 100 congress communications, 2 Book Chapters, and 6 Guest editorials. He participated in 12 cooperation projects. He was the chair of the First International Symposium on Dielectric Materials and Applications “ISyDMA’2016” (Kenitra-Rabat, Morocco May 4-6, 2016), the Fourth Meeting On Dielectric Materials “IMDM’4” (Marrakech, Morocco May 29-31, 2013) and the Co-Chair of the International Symposium on the Advanced Materials for Optics Micro-Electronics and Nanoelectronics “AMOMEN'2011.
MABROUKI Mustapha is Permanent Professor at Sultan Moulay Slimane University. He obtained a doctorate 3rd cycle graduate and state thesis (Thèse d’Etat) from Cadi Ayyad University in 2004. Followed by a Postdoctoral Fellowship at the University of Miami (USA) with Doctor Roger M. LEBLANC in Supramolecular Research Center. He has been a professor at the Faculty of Sciences and Technologies Beni Mellal since 1994. Head and member of the Industrial Engineering Laboratory (LGI). His field of interest is the organic and inorganic materials applied in electronic and optoelectronic areas. His actual work is to understand how the surface is involved in biological adhesion. Professor Mabrouki co-authors more than seventy articles and a hundred papers at national and international conferences. He has participated in several scientific events (conferences, workshops, and meetings) as chairman. He was the chair of the Third International Symposium on Dielectric Materials and Applications “ISyDMA’2018” (Beni Mellal, Morocco April 17-19, 2018), a member as an organizer. He was also the source of several cooperation projects at the national level and international level. He is also a member of many scientific associations like the European Physical Society (EPS), Moroccan Society of Applied Physics (FSSM) Marrakech, and an active member of the Moroccan Society of Nanotechnology (MANAT).
Professor AIT ALI Mustapha is a full professor and Head of the Chemistry Department at the University Cadi Ayad in Marrakech. He is working in Organic Chemistry, Organometallic Chemistry, and catalysis in the Department of Chemistry, Faculty of Sciences Semlalia, Marrakech-Morocco. His research interests include Coordination Chemistry, asymmetric Catalysis, Green chemistry, and the chemistry of nanostructured materials: graphene; silicene, and phosphorene. Pr. AIT ALI M. was a guest professor at Villeneuve d’Ascq University, France, ENS Chimie de Rennes France and at the University of Cergy Pontoise France. He co-authored more than 130 papers published in leading refereed journals. He participated at more than 70 congresses andsupervised more than 12 PhD students. He also participated in several international cooperation projects and he was an active member in the organization of several international conferences.
Prof. IDOUHLI Rachid is a Professor of Electrochemistry at the Faculty of Science Semlalia, Cadi Ayyad University, Morocco. He obtained his master's degree in materials chemistry from Cadi Ayyad University in 2014 and his Ph.D. in electrochemistry and corrosion from Cadi Ayyad University in 2019. He is currently part of the Electrochemical and Corrosion Research Unit. His research interests focus on the corrosion and protection of metals, electrodeposition, surface treatments for industrial applications, as well as electrochemical applications and the complexation of pollutants in industrial processes. Professor Idouhli has co-authored numerous articles in international journals and has presented his findings at various national and international conferences. He has also led several research projects, particularly focusing on environmental aspects and innovative material protection methods."

Summary

The International Symposium on Dielectric Materials and Applications (ISyDMA) conference series provides a distinguished global platform for researchers and scientists to exchange ideas, present findings, and engage in in-depth discussions on recent advances in dielectric materials and their emerging applications. The ISyDMA Proceedings volumes serve as comprehensive records of cutting-edge research on topics including high-κ dielectrics, electrical insulation, dielectric phenomena, and novel applications spanning biomedical technologies, energy harvesting, materials for critical infrastructure, and smart materials. The ninth edition of ISyDMA (ISyDMA’9) was hosted by Cadi Ayyad University, Marrakesh, Morocco, from May 7–9, 2025. This proceedings volume compiles the peer-reviewed papers presented at the conference. It opens with keynote contributions that offer overarching perspectives on mechanisms, processes, and applications of dielectric materials, followed by original research articles from participating scholars. Among the notable contributions, one study investigates how the structural self-organization of chalcogenide glasses influences low-frequency Raman scattering (Boson peaks), providing insights into the underlying mechanisms. Another article examines the impact of compositional variations and processing parameters on the optical characteristics of nonstoichiometric glassy films. Research on the parametric optimization of dielectric materials for energy harvesting in IoT devices demonstrates how systematic modeling can significantly reduce experimental trial-and-error in materials fabrication by identifying optimal process parameters. A study on microplasma-sprayed hydroxyapatite coatings illustrates enhanced surface bioactivity in 3D-printed titanium implants, underscoring their clinical promise for biomedical applications. Addressing environmental challenges, another contribution explores the use of dielectric barrier discharge as an innovative technique to mitigate microplastics in aquatic systems. Further, an article describes a photoacoustic method for evaluating the optical absorption coefficients of nanostructured silicon with varying morphologies, along with a comparative study of DC electrical conductivity in 2D and 3D polypyrrole particles embedded in different polymer matrices. Investigations into the synthesis, structural analysis, and dielectric properties of high-purity NiMoO₄ nanospheres with monoclinic symmetry reveal their potential for advanced electronic applications. A theoretical paper on the spectroscopy and electronic structure of group-12 metal carbides and nitrides provides critical insights to guide future experimental and computational studies of transition-metal-based diatomic materials. Several contributions highlight that moderate doping can significantly enhance the electrochemical performance of dielectric materials, demonstrating their suitability for next-generation energy storage systems. An interesting work discusses Poly(vinylidene fluoride) membranes fabricated via non-solvent-induced phase separation and modified with styrene–butadiene rubber and graphene nanosheets. The resulting β-phase-rich, polarizable structures exhibit tunable electronic conductivity, making them attractive for piezoelectric energy harvesting applications. Additional articles address the integration of AI in energy management and consumption optimization, as well as applications such as high-efficiency photodetectors based on optically transparent and dielectric materials for monitoring hazardous substances in mail distribution systems. The volume also includes several student contributions highlighting innovative aspects of dielectric science and its interdisciplinary applications. The unique collection of articles is intended for materials scientists, physicists, chemists, biologists, and electrical engineers engaged in fundamental and applied research or technical investigations involving dielectric materials and related technologies. 
The International Symposium on Dielectric Materials and Applications (ISyDMA) conference series provides a distinguished international platform for researchers to exchange ideas, present findings, and discuss recent advances in dielectric materials and their emerging applications. The ISyDMA Proceedings volumes document state-of-the-art research spanning high-κ dielectrics, electrical insulation, dielectric phenomena, and novel applications in biomedical technologies, energy harvesting, materials for critical infrastructure, and smart materials. The ninth edition of ISyDMA (ISyDMA’9) was hosted by Cadi Ayyad University, Marrakesh, Morocco, from May 7–9, 2025. This volume compiles peer-reviewed papers presented at the conference, starting with keynote contributions that offer broad perspectives on the mechanisms, processes, and applications of dielectric materials, followed by original research articles. Highlights include studies on the structural self-organization of chalcogenide glasses and its effect on low-frequency Raman scattering (Boson peaks), and on how compositional and process variations influence the optical characteristics of nonstoichiometric glassy films. Research on parametric optimization of dielectric materials for IoT energy harvesting demonstrates how modeling can minimize trial-and-error in fabrication. A study on microplasma-sprayed hydroxyapatite coatings reveals enhanced bioactivity in 3D-printed titanium implants, while another explores dielectric barrier discharge techniques for mitigating microplastics in aquatic systems. Further contributions include a photoacoustic method for measuring optical absorption in nanostructured silicon, a comparative study of DC conductivity in 2D and 3D polypyrrole composites, and investigations of nanospheres exhibiting monoclinic symmetry with promising dielectric performance. A theoretical analysis of metal carbides and nitrides offers valuable insights for designing transition-metal-based materials. Several papers also demonstrate that moderate doping enhances electrochemical performance, underscoring the potential of dielectrics for energy storage applications. Of particular note, Poly(vinylidene fluoride) membranes modified with styrene–butadiene rubber and graphene nanosheets exhibit β-phase-rich, polarizable structures with tunable conductivity—an attractive feature for next-generation piezoelectric energy harvesters. Additional studies integrate artificial intelligence in energy management and report high-efficiency photodetectors using optically transparent dielectric materials for monitoring hazardous substances. This collection serves materials scientists, physicists, chemists, biologists, and electrical engineers engaged in fundamental and applied research on dielectric materials and their multifaceted technological applications.

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