Conference Tracks

This track encompasses a wide range of topics related to energy materials and technology, covering areas such as storage, conversion, transportation, and efficiency improvement.

• Advanced materials for energy storage: Batteries, supercapacitors, and fuel cells
• Advanced materials for energy-efficient electronics and power devices
• Materials for hydrogen production, storage, and utilization
• Energy conversion and storage in nanomaterials and nanostructures
• Materials and technologies for energy storage in electric vehicles
• Materials for energy-efficient and lightweight transportation
• Materials for energy-efficient catalysis and chemical processes
• Materials for energy-efficient insulation and thermal management
• Materials for energy-efficient lighting

This track explores the diverse range of materials essential for the development and deployment of renewable energy technologies, addressing topics such as solar, wind, hydro, geothermal, and bioenergy, as well as materials for energy storage, distribution, and infrastructure.

• Advanced materials for wind turbine blades and tower structures
• Materials for high-efficiency solar photovoltaic (PV) modules and concentrators
• Innovative materials for next-generation bioenergy production
• Materials for geothermal energy extraction and utilization
• Smart materials for energy-efficient building envelopes and insulation
• Materials for wave and tidal energy harvesting systems
• Hybrid materials for enhanced performance in renewable energy applications
• Nanomaterials for energy conversion and storage in renewable systems
• Sustainable materials for grid integration and energy storage
• Bio-based materials for biogas production and anaerobic digestion
• Materials for sustainable hydropower infrastructure and dam rehabilitation
• Advanced materials for hydrogen production, storage, and fuel cells
• Materials for sustainable urban infrastructure and energy systems
• Smart grid materials for energy distribution and management
• Materials for off-grid and decentralized renewable energy solutions
• Community-based renewable energy projects and materials innovation
• Ethical considerations in the use of materials for renewable energy
• Policy and regulatory frameworks for sustainable energy materials
• Education and training in materials for renewable energy systems
• Future prospects and challenges in materials for renewable energy

This track focuses on the development and application of materials science and engineering solutions to address challenges related to water treatment, purification, and resource management, with an emphasis on sustainability, efficiency, and accessibility.

• Advanced materials for water purification and desalination
• Nanomaterials and nanocomposites for water filtration and remediation
• Membrane materials and membrane-based separation processes
• Adsorbent materials for removing contaminants from water
• Smart materials for real-time monitoring and treatment of water quality
• Biodegradable materials for wastewater treatment and resource recovery
• Materials for decentralized and off-grid water treatment systems
• Sustainable materials for rainwater harvesting and greywater reuse
• Bioinspired materials for water purification and biomimetic filtration systems
• Novel materials for addressing emerging contaminants in water
• Photocatalytic materials for water disinfection and pollutant degradation
• Materials for addressing water scarcity and drought resilience
• Sensors and sensing materials for water quality monitoring
• Carbon-based materials for water treatment and resource management
• Materials for sustainable irrigation and agricultural water management
• Circular economy approaches to water resource utilization and recovery
• Community-based water management and materials innovation
• Ethical considerations in the use of materials for water treatment
• Policy and regulatory frameworks for sustainable water materials
• Education and training in water materials science and engineering
• Future prospects and challenges in materials for water treatment

This track addresses the pressing need for environmentally friendly and sustainable materials solutions, covering topics such as life cycle assessment, recycling, renewable materials, and green chemistry. It explores the role of materials science and engineering in addressing environmental challenges and promoting sustainability across various sectors.

• Life cycle assessment (LCA) of materials and products
• Environmental impact of materials production processes
• Resource efficiency and conservation in materials manufacturing
• Renewable and bio-based materials
• Recycling and upcycling of materials
• Circular economy principles in materials design and production
• Sustainable materials sourcing and supply chains
• Green chemistry and sustainable synthesis methods
• Biodegradable and compostable materials
• Environmental remediation using advanced materials
• Sustainable packaging materials and technologies
• Carbon footprint reduction in materials production
• Waste-to-energy conversion technologies
• Eco-friendly materials for construction and infrastructure
• Sustainable materials for water treatment and purification
• Climate change mitigation through materials innovation
• Environmental regulations and policies in materials industry
• Social and ethical aspects of sustainable materials
• Community engagement and sustainability initiatives
• Case studies of successful sustainable materials projects
• Collaborative approaches to sustainability in materials science
• Education and awareness on environmental sustainability
• Innovation challenges and opportunities in sustainable materials
• Integration of sustainability principles into materials research and development
• Emerging trends and future prospects in environmental and sustainable materials

This track highlights the vital role of materials science and engineering in promoting sustainability within urban environments and construction practices. It addresses the development and application of advanced materials that enhance the resilience, efficiency, and sustainability of urban infrastructure and buildings.

• Advanced materials for sustainable construction and resilient infrastructure
• Innovations in fire-resistant, earthquake-resistant, and high-performance building materials
• Smart materials for infrastructure monitoring, maintenance, and energy-efficient buildings
• Sustainable materials for coastal, waterfront, and climate-adapted urban development
• Nanotechnology and biodegradable materials in construction and urban projects
• Recycled, upcycled, and bio-based materials in urban infrastructure and green spaces
• Energy-efficient materials for mitigating urban heat islands
• Circular economy principles and lifecycle assessment in urban and construction materials
• Policy, regulatory frameworks, and ethical considerations in sustainable materials use
• Case studies on successful implementation of innovative and sustainable materials
• Cross-disciplinary approaches and public-private partnerships in sustainable materials research
• Community engagement, social equity, and education in sustainable urban development
• Emerging trends and future directions in materials for urban and construction sustainability

This track explores the intersection of materials science and agriculture, focusing on innovative materials and technologies aimed at promoting sustainability, productivity, and resilience in food production systems.

• Advanced materials for crop protection and pest management
• Smart materials for precision agriculture and sensor-based monitoring
• Biodegradable and eco-friendly materials for agricultural packaging
• Nanomaterials for enhanced nutrient delivery and soil health
• Materials for controlled-release fertilizers and soil amendments
• Bio-based materials for biodegradable mulches and agricultural films
• Sustainable materials for irrigation systems and water conservation
• Biopolymers and biocomposites for food packaging and preservation
• Edible coatings and films for extending shelf life and reducing food waste
• Materials for vertical farming and urban agriculture
• Bioinspired materials for biomimetic crop production systems
• Nanotechnology applications in precision agriculture and agrochemicals
• Materials for aquaponics and hydroponic systems
• Sensors and biosensors for real-time monitoring of crop health and environmental conditions
• Smart packaging materials for freshness indicators and quality assurance
• Blockchain technology and traceability in agricultural materials supply chains
• Community-based approaches to sustainable agriculture and materials innovation
• Regenerative agriculture and soil health management
• Ethical considerations in the use of materials in agriculture
• Policy and regulatory frameworks for sustainable agricultural materials
• Education and training in agricultural materials science and engineering
• Future prospects and challenges in materials for sustainable agriculture

This track focuses on the development of materials and technologies aimed at reducing the environmental impact of packaging and consumer goods, promoting sustainability throughout the product lifecycle, and fostering responsible consumption habits.

• Biodegradable and compostable packaging materials
• Materials for lightweight and eco-friendly packaging
• Bio-based polymers and bioplastics for packaging applications
• Smart packaging materials for freshness monitoring and shelf-life extension
• Recyclable and reusable packaging materials and systems
• Nanomaterials for enhanced barrier properties and food preservation
• Sustainable packaging design and life-cycle assessment
• Materials for antimicrobial and food safety packaging
• Circular economy approaches to packaging materials
• Packaging materials for e-commerce and online retail
• Biodegradable materials for single-use products and disposable items
• Sustainable materials for cosmetics and personal care products
• Materials for eco-friendly textiles and apparel
• Ethical considerations in the use of materials for consumer goods
• Policy and regulatory frameworks for sustainable packaging materials
• Education and awareness campaigns on sustainable consumption
• Innovations in packaging materials recycling and upcycling
• Community-based initiatives in sustainable packaging innovation
• Future trends and challenges in materials for sustainable consumer goods

This track delves into the fascinating world of soft matter and polymers, exploring their diverse properties, synthesis methods, and applications across various fields such as biomedicine, electronics, and sustainability.

• Structure-property relationships in soft materials
• Polymer synthesis and characterization techniques
• Self-assembly and hierarchical structures in soft matter
• Responsive and stimuli-sensitive polymers
• Biopolymers and bio-inspired materials
• Functional polymers for biomedical applications
• Polymer nanocomposites and hybrid materials
• Liquid crystals and their applications
• Gels, hydrogels, and their biomedical applications
• Microfluidics and soft lithography
• Polymer-based sensors and actuators
• Soft robotics and flexible electronics
• Polymeric membranes for separation and filtration
• Polymers for sustainable and green technologies
• Design and engineering of soft matter interfaces
• Mechanical properties of soft materials
• Rheological behavior and flow properties of polymers
• Polymer processing techniques and manufacturing
• Bio-based and biodegradable polymers
• Polymers for energy storage and conversion
• Soft matter in food science and packaging
• Polymers for additive manufacturing and 3D printing
• Polymers in tissue engineering and regenerative medicine
• Polymer-based biomaterials for drug delivery
• Advancements in polymer recycling and sustainability
• Emerging trends and future directions in soft matter and polymers

This track delves into the realm of functional materials and their diverse applications across various industries, ranging from electronics to healthcare, with a focus on design, synthesis, characterization, and practical implementation.

• 2D materials and their functional applications
• Advanced characterization techniques for functional materials
• Advanced functional polymers and composites
• Biomimetic and bioinspired materials: Design and functional properties
• Commercialization and industrial applications of functional materials
• Computational modeling and simulation of functional materials
• Emerging technologies and applications of functional materials
• Ferroelectric and piezoelectric materials
• Functional coatings and surface engineering
• Functional materials for biomedical applications
• Functional materials for catalysis and chemical processes
• Functional materials for electronics and optoelectronics
• Functional materials for energy conversion and storage
• Functional materials for environmental monitoring and remediation
• Functional materials for medical and healthcare applications
• Functional materials for sensors and actuators
• Functional materials for wearable technology and flexible electronics
• Functional nanomaterials: Synthesis, characterization, and applications
• Functional carbon/ quantum dots
• Functional materials-based technology, innovations and market
• Functional polymeric materials
• Magnetic and spintronic materials: Properties and applications
• Materials for energy conversion and storage
• Multifunctional composite materials: Design, fabrication, and properties
• Multifunctional materials: Design, synthesis, and characterization
• Photonic and plasmonic materials: Design, fabrication, and applications
• Piezoelectric and ferroelectric materials: Design and device integration
• Self-healing materials and technologies
• Shape memory materials: Behavior, applications, and advancements
• Smart materials and structures: Responsive and adaptive behavior
• Soft and flexible functional materials
• Stimuli-responsive and adaptive materials
• Superconducting materials and applications

This track explores cutting-edge materials and technologies driving advancements in electronics and information technology, addressing topics such as semiconductor materials, nanoelectronics, photonics, quantum materials, and more.

• Next-generation materials for semiconductor devices and integrated circuits
• 2D materials and beyond: Applications in electronics and photonics
• Materials for flexible and stretchable electronics
• Quantum materials and devices for information processing and communication
• Materials for neuromorphic computing and brain-inspired electronics
• Organic and molecular electronics for sustainable electronics
• Nanomaterials for high-speed and low-power electronics
• Materials for emerging memory technologies: Resistive, magnetic, and phase-change memories
• Bio-inspired materials for bio-electronics and bio-computing
• Materials for quantum computing and quantum information processing
• Smart materials for adaptive and reconfigurable electronics
• Materials for terahertz technology and communication
• Transparent conducting materials for displays and touchscreens
• Materials for photonic integrated circuits and optical communication
• Energy-efficient materials for data centers and information technology infrastructure
• Materials for sensing and Internet of Things (IoT) applications
• Materials for 5G and beyond: Wireless communication and network infrastructure
• Sustainable materials for electronic waste recycling and circular electronics
• Education and training in materials for advanced electronics
• Future prospects and challenges in materials for information technology

This track explores cutting-edge materials and technologies that drive innovation in both aerospace and transportation systems. It addresses the critical role of materials science in enhancing performance, sustainability, and resilience across various applications. Key focus areas include:

• Lightweight and high-strength composites for aerospace and automotive.
• Thermal protection and radiation shielding materials for space and high-speed transport.
• Advanced materials for electric vehicle batteries and hydrogen fuel cells.
• Nanomaterials and smart materials for enhanced safety and efficiency.
• Bioinspired and sustainable materials for improved resilience and reduced impact.
• 3D printing technologies for complex aerospace and transportation components.
• Materials and strategies for space debris management.
• Sustainable materials for transportation infrastructure.
• Robotic fabrication for aerospace and transportation assembly.
• Stealth and radar-absorbing materials for defense and aerospace.
• Recycling and circular economy approaches for transportation materials.
• Space-based agriculture and resource utilization materials.
• Smart sensors and autonomous system materials.
• Ethical and regulatory issues in aerospace and transportation materials.
• Global collaboration and education in materials science.
• Future trends and emerging technologies in materials.

This track focuses on the theoretical and computational aspects of materials science, covering a wide range of simulation techniques, modeling approaches, and applications. It provides insights into the role of computational methods in understanding, predicting, and designing materials with specific properties and functionalities.

• Density functional theory (DFT) and ab initio calculations
• Quantum mechanics/molecular mechanics (QM/MM) methods
• Classical molecular dynamics (MD) simulations
• Monte Carlo simulations of materials properties
• Finite element analysis (FEA) in materials science
• Kinetic Monte Carlo simulations
• Phase field modeling and simulations
• Statistical mechanics approaches to materials modeling
• Machine learning and artificial intelligence in materials science
• Data-driven materials discovery and design
• High-throughput computational screening of materials
• Multi-scale modeling and simulations of materials
• Electronic structure calculations for materials properties
• Thermodynamic modeling and phase diagram calculations
• Computational studies of defects and interfaces in materials
• Predictive modeling of materials behavior under extreme conditions
• Coupled multi-physics simulations in materials science
• Modeling and simulation of materials processing techniques
• Predictive modeling of materials degradation and aging
• Simulation-based design of functional materials
• Validation and verification of computational models
• Open-source software tools for materials modeling
• Collaborative and interdisciplinary approaches in computational materials science
• Challenges and opportunities in computational materials science
• Emerging trends and future directions in computational materials science

This track will focus on the latest research and innovations in understanding, preventing, and mitigating materials degradation. It will explore cutting-edge science and technology applied to extend the life and improve the performance of materials across various industries.

• Mechanisms of materials degradation, including corrosion, wear, fatigue, and environmental stress cracking
• Biological degradation of materials
• Advanced protective coatings and treatments for enhanced durability
• Nanocoatings and self-healing materials
• Anti-corrosive and anti-wear coatings
• Surface modifications and high-temperature protective coatings
• Corrosion-resistant alloys and composites
• Wear-resistant materials and smart materials for degradation resistance
• Bio-inspired materials for protection
• Non-destructive testing and evaluation methods
• Sensors and monitoring systems for real-time degradation assessment
• Predictive modeling and simulation of degradation processes
• Data analytics and machine learning in degradation prediction
• Aerospace and aviation materials protection
• Automotive and transportation industry advancements
• Materials protection in the energy sector, including oil, gas, and renewable energy
• Longevity of building materials in infrastructure and construction
• Enhancing lifespan and performance of biomedical devices and implants
• Challenges and future directions in materials degradation and protection

This track encompasses a wide array of topics related to composite and ceramic materials, covering their synthesis, properties, applications, and sustainability considerations across various industries.

• Additive manufacturing of composite and ceramic materials
• Advanced composite materials: Design, fabrication, and characterization
• Bio-inspired composites: Structure, mechanics, and applications
• Biomaterials and bioceramics: Design, fabrication, and biomedical applications
• Ceramic coatings and surface engineering: Deposition techniques, properties, and applications
• Ceramic materials for electronic and photonic applications
• Ceramic materials for energy applications: Fuel cells, solar cells, and batteries
• Ceramic matrix composites: Processing, properties, and applications
• Ceramic nanomaterials: Synthesis, assembly, and functionalization
• Characterization techniques for composite and ceramic materials
• Composite and ceramic materials for aerospace and automotive applications
• Composite and ceramic materials in medical and dental applications
• Electrically and thermally conductive composites
• Environmental and sustainability aspects of composites and ceramics
• Fiber-reinforced composites: Manufacturing and performance
• High-temperature ceramics and composites
• Hybrid composites: Combining different material types for enhanced performance
• Industrial applications and commercialization of composite and ceramic materials
• Lightweight and high-strength materials
• Modeling and simulation of composite and ceramic materials
• Multifunctional composite materials
• Nanocomposites and nanoceramics
• Polymer-ceramic composites
• Polymer-matrix composites: Manufacturing, performance, and optimization
• Processing innovations in composites and ceramics
• Smart and multifunctional composites: Sensing, actuation, and self-healing capabilities
• Smart and responsive composite materials
• Structural ceramics: Processing, characterization, and mechanical properties
• Structural health monitoring of composite materials
• Sustainable and eco-friendly composites: Recycling, biodegradability, and life-cycle assessment

This track explores the design, fabrication, characterization, and applications of multifunctional composite materials across various industries. It covers topics ranging from advanced manufacturing methods to nanocomposites and smart materials, offering insights into the latest developments and future prospects in this rapidly evolving field.

• Design and synthesis of multifunctional composite materials
• Characterization techniques for multifunctional composites
• Advanced manufacturing methods for multifunctional composites
• Applications of multifunctional composites in aerospace
• Applications of multifunctional composites in automotive industry
• Applications of multifunctional composites in construction
• Applications of multifunctional composites in electronics
• Applications of multifunctional composites in energy sector
• Applications of multifunctional composites in healthcare
• Applications of multifunctional composites in marine industry
• Applications of multifunctional composites in sports and recreation
• Nanocomposites for multifunctional applications
• Bio-inspired multifunctional composite materials
• Self-healing and self-sensing composite materials
• Smart and adaptive multifunctional composites
• Multifunctional ceramic matrix composites
• Multifunctional polymer matrix composites
• Multifunctional metal matrix composites
• Structural health monitoring of multifunctional composites
• Environmental and sustainability aspects of multifunctional composites
• Commercialization and industrial applications of multifunctional composites
• Challenges and opportunities in multifunctional composite materials
• Emerging trends in multifunctional composite research
• Integration of nanotechnology in multifunctional composites
• Multiscale modeling and simulation of multifunctional composites
• Performance optimization of multifunctional composite structures
• Future directions in multifunctional composite materials

This track covers various aspects of nanomaterials and nanotechnology, including synthesis, characterization, applications across different industries, and safety considerations.

• Characterization and metrology of nanomaterials
• Commercialization and industrial applications of nanomaterials
• Nanomaterials for 3D printing and additive manufacturing
• Nanomaterials for advanced coatings and surface engineering
• Nanomaterials for agriculture and food industry
• Nanomaterials for biomedical applications
• Nanomaterials for catalysis and chemical processes
• Nanomaterials for electronics and optoelectronics
• Nanomaterials for energy applications
• Nanomaterials for energy storage and conversion
• Nanomaterials for environmental applications
• Nanomaterials for flexible and wearable electronics
• Nanomaterials for photonics and plasmonics
• Nanomaterials for tissue engineering and regenerative medicine
• Nanomaterials for water purification and desalination
• Nanomaterials synthesis and fabrication techniques
• Nanoscale devices and sensors
• Nanoscale fabrication and manufacturing techniques
• Nanotechnology for space exploration and aerospace applications
• Nanotechnology for sustainable development
• Nanotechnology for water and air filtration
• Nanotechnology in agriculture and food industry
• Nanotechnology in medicine and healthcare
• Nanotechnology in optics and photonics
• Nanotoxicology and safety aspects of nanomaterials
• Physico-chemical nanomaterials and nanotechnology
• Synthesis and characterization of nanomaterials

This track explores the diverse realm of biomaterials and biodevices, covering topics such as materials for medical applications, biocompatibility, tissue engineering, and advanced biomedical devices.

• Antibacterial and antimicrobial biomaterials
• Bioactive and antimicrobial materials for infection control
• Bioactive coatings and surface modifications for medical devices
• Bioactive glasses and ceramics for medical applications
• Bioactive materials for wound healing and tissue repair
• Biocompatibility assessment and testing of biomaterials and biodevices
• Biocompatible and bioresorbable materials: Design and applications
• Biocompatible polymers and hydrogels for biomedical applications
• Biodegradable and bioresorbable materials for medical applications
• Biodegradable stents and cardiovascular devices
• Biodevices for drug screening and personalized medicine
• Bioelectronics and implantable medical devices
• Biofabrication and 3D bioprinting of tissues and organs
• Bioinspired and biointerfacing materials for improved biocompatibility
• Biomaterial-host interactions and biocompatibility assessment
• Biomaterials and biodevices in nanomedicine and nanotechnology
• Biomaterials for cardiovascular, dental and orthopedic applications
• Biomaterials for drug delivery and controlled release systems
• Biomaterials for neural interfaces and neuroengineering
• Biomaterials for tissue engineering and regenerative medicine
• Biomaterials: Synthesis and characterization
• Biomechanics and mechanobiology of biomaterials
• Biomedical applications of 3D printing and additive manufacturing
• Biomimetic materials and structures for biomedical engineering
• Biosensors and diagnostic devices for healthcare monitoring
• Imaging and visualization devices
• Implantable biodevices and bioelectronics
• Lab-on-a-chip and microfluidic devices
• Nanomaterials and nanoparticles for targeted drug delivery
• Radio and photo therapy devices
• Wearable biodevices and biosensors

This track delves into the dynamic interplay between materials science and biomedical engineering, focusing on the development of cutting-edge materials and technologies designed to enhance human health and well-being. The track encompasses a wide range of topics, including:

• Advanced Biomaterials for Medical Implants and Prosthetics.
• Bioactive Materials for Tissue Engineering and Regenerative Medicine.
• Drug Delivery Systems and Controlled-Release Materials.
• Smart Materials for Wearable Health Monitoring Devices.
• Biofabrication Techniques for Engineering Tissues and Organs.
• Biosensing Materials for Early Disease Detection and Monitoring.
• Biodegradable and Resorbable Materials for Temporary Implants.
• Materials for Neurological Interfaces and Brain-Computer Interfaces.
• Bio-inspired Materials for Wound Healing and Tissue Regeneration.
• Materials for Combating Antimicrobial Resistance.
• Regulatory Pathways and Standards for Medical Materials.
• Ethical Considerations in the Development and Use of Medical Materials.
• Patient-Centric Design and User Experience in Medical Materials.
• Global Health Challenges and Materials Solutions.
• Emerging Trends and Future Prospects in Materials for Health, Well-Being, and Biomedical Engineering.

This track focuses on the innovative use of light in 3D printing and materials processing. It aims to explore how light-based techniques are transforming the fabrication and elaboration of materials, leading to advancements in manufacturing, design, and functionality.

• Photopolymerization in 3D Printing:
  • Advances in photopolymer resins for 3D printing.
  • Techniques for improving resolution and speed in photopolymerization-based 3D printing.

• Laser-Based 3D Printing:
  • Laser sintering and melting for metal and ceramic 3D printing.
  • Development of new materials and methods for laser-based additive manufacturing.

• Light-Driven Processing Techniques:
  • Photolithography and its applications in creating micro- and nanoscale structures.
  • Ultrafast laser processing for precision engineering and surface modification.

• Hybrid Manufacturing Techniques:
  • Combining light-based 3D printing with traditional manufacturing methods.
  • Innovations in multimaterial 3D printing using light.

• Material Development for Light-Based Processing:
  • Designing materials specifically for light-driven fabrication techniques.
  • Enhancing material properties through light-based processing.

• Applications in Biomedical Engineering:
  • Using light-based 3D printing for creating biomedical devices and implants.
  • Advances in bioprinting using photopolymerizable bioinks.

• Environmental and Sustainable Manufacturing:
  • Developing sustainable materials and processes for light-based 3D printing.
  • Reducing waste and energy consumption in light-driven manufacturing techniques.

• Quality Control and Metrology:
  • Techniques for in-situ monitoring and quality control in light-based 3D printing.
  • Advances in optical metrology for assessing 3D printed parts.

This track focuses on the latest advancements in manufacturing and processing techniques for a wide range of materials, including metals, ceramics, polymers, and biomaterials. It also explores the role of materials science and engineering in driving innovation and efficiency in modern manufacturing processes, with a focus on emerging technologies, materials, and strategies associated with Industry 4.0.

Key Topics:

• Additive Manufacturing and Advanced Fabrication: Additive manufacturing (3D printing) of advanced materials, advanced fabrication techniques for nanomaterials, and biofabrication and bioprinting techniques.
• Advanced Processing Methods: Advanced manufacturing processes for functional materials, composite and ceramic materials, and tailored processing methods for soft matter and polymers.
• Digital and Smart Manufacturing: Digital manufacturing and Industry 4.0 in materials production, smart manufacturing for materials design and production, and integration of AI and machine learning in materials processing.
• Sustainable and Efficient Production: Innovative processing techniques for sustainable materials, efficient and sustainable materials recycling methods, and materials for sustainable and eco-friendly manufacturing processes.
• High-Throughput and Continuous Processes: High-throughput synthesis and screening methods, continuous manufacturing processes for materials, and scaling up lab-scale processes for industrial production.
• Materials for Advanced Applications: Nanomaterials and nanocomposites for lightweighting and high-performance components, materials for next-generation electronics and flexible displays, and high-temperature materials for aerospace and automotive manufacturing.
• Surface and Coating Technologies: Materials deposition and coating technologies, advanced coatings and surface treatments for enhanced functionality and durability.
• Precision and Microfabrication: Precision machining and finishing of materials, microfabrication and miniaturization techniques, and materials for precision machining and tooling applications.
• Robotics and Automation: Materials for robotics and automation in manufacturing, robotic automation in materials manufacturing.
• Energy and Resource Efficiency: Materials for energy-efficient manufacturing and resource conservation, large-scale production methods for energy materials.
• Emerging Trends and Technologies: Emerging trends in materials production and processing, emerging materials technologies for Industry 4.0 applications.
• Characterization and Quality Control: Advanced characterization techniques for assessing manufacturing quality, techniques for controlling material microstructure and properties.
• Education and Policy: Education and training in materials science for the manufacturing workforce, policy and regulatory considerations for advanced manufacturing materials.
• Case Studies and Future Trends: Case studies on successful implementation of advanced materials in manufacturing, future trends and opportunities in materials-enabled manufacturing.

This track explores the latest trends and innovations in materials design, highlighting the role of advanced computational techniques, data-driven approaches, and interdisciplinary collaborations in shaping the future of materials science and engineering.

• Machine learning and artificial intelligence in materials design
• High-throughput screening methods for materials discovery
• Data-driven materials design and informatics
• Computational materials design and virtual screening
• Materials informatics and big data analytics
• Advanced characterization techniques for materials design
• Integrated computational-experimental approaches in materials design
• Materials genome initiative and materials design databases
• Materials design for additive manufacturing and 3D printing
• Novel materials design concepts and paradigms
• Bioinspired and biomimetic materials design
• Design of materials with tailored mechanical properties
• Materials design for energy storage and conversion
• Materials design for catalysis and chemical processes
• Smart and functional materials design
• Materials design for environmental and sustainability applications
• Design of materials with specific optical and electronic properties
• Multi-scale modeling and simulation in materials design
• Challenges and opportunities in materials design
• Collaborative approaches to materials design
• Education and training in materials design
• Ethical considerations in materials design
• Emerging trends and future directions in materials design

This track covers cross-disciplinary and interdisciplinary applied research in materials science and technology bridging the gap between materials science and other disciplines including physics, chemistry, mathematics, engineering, biology, energy, environment, and information. This track engages a wide range of researchers and professionals from academia, industry and policy.

This track focuses on the intersection of materials science with policy, regulation, and societal implications, exploring topics such as ethics, governance, sustainability, and public engagement. It aims to foster discussions on the broader impact of materials research and development on society and the environment.

• Government policies and regulations in materials science and engineering
• Ethical considerations in materials research and development
• Intellectual property rights and patent regulations
• International collaborations and partnerships in materials science
• Standards and certifications for materials quality and safety
• Environmental regulations and sustainability standards
• Impact of materials science on society and economy
• Public perception and awareness of materials issues
• Science communication and outreach in materials science
• Role of education and academia in shaping materials policies
• Industry perspectives on materials regulations and standards
• Social responsibility in materials research and development
• Ethical implications of emerging materials technologies
• Policy interventions for promoting innovation in materials science
• Inclusive and equitable access to materials resources and technologies
• Addressing disparities in materials research funding and opportunities
• Community engagement and stakeholder involvement in materials decisions
• Case studies on the societal impact of materials innovations
• Cross-disciplinary approaches to addressing materials challenges
• Sustainability metrics and indicators for materials evaluation
• Economic analysis and cost-benefit assessments of materials technologies
• Policy responses to emerging materials-related risks and opportunities
• Future directions in materials policy, regulation, and societal impact