Abstract Submission Opens! - Early Bird Registration Deadline: 17th December, 2025
Materials Science and Applications: Materials Science and Applications is an interdisciplinary field combining physics, chemistry, and engineering to design, process, and apply advanced materials across sectors such as nanotechnology, healthcare, electronics, and clean energy.
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Engineering: Engineering applies scientific principles, mathematical methods, and design strategies to develop innovative systems, machines, infrastructure, and technologies that solve real-world problems and enhance performance and sustainability.
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Materials Science and Engineering: Materials Science and Engineering explores the structure-property relationships of materials through chemistry, solid-state physics, and metallurgy to support innovations in functional materials, energy systems, and manufacturing technologies.
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3D Printing and Additive Manufacturing: 3D Printing and Additive Manufacturing explores layer-by-layer fabrication techniques used to build complex structures with reduced material waste, enabling innovations in aerospace, biomedical devices, construction components, and precision engineering.
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Graphene and 2D Materials: Graphene and Two-Dimensional Materials studies ultra-thin materials composed of single or few atomic layers. These materials exhibit exceptional conductivity, flexibility, and strength for next-generation electronics, energy storage, and sensor technologies.
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Nanomaterials and Nanotechnology: Nanotechnology and Nanomaterials focuses on materials engineered at the nanoscale, enabling unique chemical, optical, electrical, and mechanical properties. This track explores applications in medicine, sensing, electronics, and environmental remediation.
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Functional Materials: Functional Materials examines materials engineered for targeted electrical, magnetic, optical, catalytic, or biological functions used in electronics, renewable energy, sensors, and healthcare systems.
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Catalysis and Chemical Engineering: Catalysis and Chemical Engineering investigates catalytic processes that enhance reaction efficiency and sustainability while advancing chemical manufacturing, energy conversion, and materials synthesis technologies.
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Polymer Science and Technology: Polymer Science and Nanotechnology covers the study of macromolecular materials, including plastics, elastomers, and functional polymers, alongside nanoscale material engineering for applications in medicine, energy systems, electronics, and manufacturing technologies.
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Biomechanics and Biosensors: Biomechanics and Biosensors integrates biological mechanics and sensor technology to analyze movement, tissue response, and physiological signals, supporting advancements in medical diagnostics, wearable technology, and healthcare monitoring.
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Mechanical and Civil Engineering: This track integrates mechanical systems engineering and civil infrastructure development, covering materials used in buildings, transportation networks, fluid systems, robotics, and energy-efficient constructions.
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Material Chemistry and Physics: Material Chemistry and Physics combines chemical synthesis and physical characterization to understand material composition, phase behavior, electronic structure, thermal response, and nanoscale interactions.
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Metal Materials: Metals are solid materials valued for their excellent conductivity of heat and electricity, along with properties such as strength, luster, malleability, fusibility, and ductility, making them essential for a wide range of industrial and engineering applications.
Metallurgy: Metallurgy is the science and technology of metals, focusing on their extraction, purification, processing, and performance evaluation. This field supports the development and enhancement of metal materials used across industries by improving durability, efficiency, and structural reliability under varying operating conditions.
Mining Materials: Mining materials include ores and naturally occurring resources obtained from the Earth, such as metals, coal, oil shale, limestone, gemstones, potash, and clay. Mining plays a vital role in supplying raw materials that cannot be produced through agricultural methods or laboratory synthesis, forming the foundation of many industrial sectors.
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Biopolymers and Bioplastics: Biopolymers and Bioplastics studies renewable and biodegradable materials designed as eco-friendly alternatives to petroleum-based plastics, advancing sustainable packaging, agriculture, medical disposables, and consumer goods.
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Computational Modeling of Metals and Materials: Computational Modeling of Metals and Materials uses simulation tools and mathematical frameworks to predict structure-property relationships, optimize processing parameters, and guide efficient materials development.
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Biomaterials and Medical Devices: Biomaterials and Medical Devices covers the design of biocompatible materials for implants, prosthetics, diagnostics, and tissue engineering, supporting advances in personalized healthcare and medical technology.
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Nanomedicine: Nanomedicine applies nanotechnology to drug delivery, diagnostics, and therapeutic systems. Working at the nanoscale enables enhanced targeting performance, improved bioavailability, and novel treatment strategies.
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Batteries: A battery is an electrochemical device composed of carefully engineered materials that work together to store and deliver electrical energy efficiently. Key components include electrodes, electrolytes, separators, and current collectors, each contributing to the battery’s overall performance, safety, and lifespan.
Solid-State Electrolytes: Solid-state electrolytes are materials that conduct ions while acting as electronic insulators, playing a critical role in the development of next-generation solid-state batteries. Unlike conventional liquid electrolytes, these solid materials offer enhanced safety, improved thermal stability, and higher energy efficiency. Their use enables greater energy density, reduced risk of leakage or combustion, and longer operational durability, making them ideal for advanced energy storage applications.
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Plastics and Recycling Materials: Plastics and Recycling Materials addresses sustainable plastics processing, waste recovery technologies, and circular economy strategies aimed at reducing environmental impact and promoting responsible materials management.
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Artificial Intelligence in Materials Science and Engineering: Artificial Intelligence in Materials Science and Engineering focuses on the use of machine learning and data-driven modeling to accelerate materials discovery, predict material performance, optimize processing methods, and enable smart material design.
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Polymers & Biopolymers: Polymers and Biopolymers examines synthetic and natural polymers, including materials derived from renewable biological sources. These materials are used across packaging, healthcare, textiles, and environmentally sustainable technologies.
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