This Collection aims to explore the emerging field of sustainable materials which focuses on the application of self-healing materials to address environmental challenges. Self-healing materials, inspired by natural processes, have garnered significant attention for their ability to autonomously repair damage and extend the life span of products, reducing waste and resource consumption. By combining the principles of sustainability and self-healing performance, this proposal specifies a comprehensive investigation of the development, implementation, and impact of self-healing materials to assist the performance of polymer based materials. The Collection will delve into cutting-edge research, industrial applications, and the potential of these materials to contribute to a circular economy, reduce carbon footprints, and foster environmental sustainability.
This Collection convers topics but not limited to stimuli responsive self healing polymers, 3D printed self healing materials, computational modeling and simulations, wearable electronics and applications in environmental remediation and water purification. Through case studies, research findings, and forward-looking insights, this proposal will serve as a resource for academics, researchers, industry professionals, and policymakers interested in sustainable self-healed materials.
Key Features:
• Offers an interdisciplinary approach to develop the sustainable self-healed materials.
• Covers recent advancements in self-healing materials and their applications in various sectors, including automobiles, spacetechnology, construction, transportation, and energy.
• Highlights the environmental benefits of self-healing materials in reducing waste and resource consumption.
• Explores future trends and potential challenges in scaling up these materials for commercial use.
Important topics which will be covered in the proposed collection is:
• Introduction to Sustainable Polymeric Materials
• Understanding Self-healing Materials with Mechanisms of Self-healing at the Nano-scale
• Role of Nanoparticles to Employs the Self-healing Properties
• Nano scale Engineering for Enhanced Material Properties
• Innovations in Nano-based Self-healing Systems
• Damage Mechanism Through Self-healing Particles
• Efeect on properties after incorporation of Self-healed Particles
• Reducing Maintenance Costs and Material Use Using Self-healing Behaviour
• Case Studies in Smart Buildings and Sustainable Cities
• Self-healing Materials in Energy and Electronics
• Reducing E-waste through Self-healing Technologies
• Carbon Footprint, Resource Efficiency and Waste Reduction of Self-healing Materials
Keywords:
Self-healing Polymers, Nano Particles, Sustainable Materials, Waste Reduction, Nano-composites, Nano-Technology, Self-healing Materials, Environmental Sustainability, Transportation Infrastructure, Smart Buildings and Sustainable Cities
This Collection supports and amplifies research related to SDG 7, SDG 9 and SDG 11.