REVISTA DE INGENIERIA DYNA

Guest Editors

1. S. M. Sapuan
Email: sapuan@upm.edu.my
Affiliation: Faculty of Engineering, Universiti Putra Malaysia, Serdang, Selangor, Malaysia
Homepage: https://scholar.google.com/citations?hl=en&user=unN9lzMAAAAJ&v
Research Interests: Natural fibre composites

2. A. Nazrin
Email: nurarief@upm.edu.my
Affiliation: Department of Science and Technology, Faculty of Humanities, Management and Science, Universiti Putra Malaysia Sarawak, Bintulu, Sarawak, Malaysia
Homepage: https://scholar.google.com/citations?user=u0b1eKoAAAAJ&hl=en
Research Interests: Polymer composites, Biocomposites

3. Abdul Habib
Email: abdulhaib0307@gmail.com
Affiliation: Advanced Engineering Materials and Composites Research Centre (AEMC), Department of Mechanical and Manufacturing Engineering, Universiti Putra Malaysia, Serdang, Selangor, Malaysia
Homepage: https://scholar.google.com/citations?user=bBSzMdMAAAAJ&hl=en Research Interests: Nanocellulose, Biocomposites, Material Characterization. Piezoelectric Composites

4. Faris M. Al-Oqla
Email: fmaloqla@hu.edu.jo
Affiliation: Department of Mechanical Engineering, Hashemite University
Homepage: https://scholar.google.com/citations?user=Dgwjq6QAAAAJ&hl=en
Research Interests: Sustainable Materials and Technology, Mechanical Design, Composite Materials, Material Characterization, Bio-based Composites and Green Composites, Computational Material Science

Introduction
The increasing demand for sustainable materials has accelerated global efforts to develop advanced polymer and composite systems that minimize environmental impact while maintaining high performance. Conventional petroleum-based polymers and non-recyclable composite materials have significantly contributed to resource depletion, greenhouse gas emissions, and plastic pollution. In response, researchers worldwide are increasingly focusing on bio-based polymers, biodegradable materials, recyclable composites, biomass valorisation, and advanced manufacturing technologies that support the transition toward a circular economy.
Recent advances in polymer chemistry, materials engineering, nanotechnology, additive manufacturing, and artificial intelligence have transformed the design and development of next-generation sustainable materials. Novel multifunctional polymer systems capable of self-healing, sensing, energy harvesting, intelligent packaging, and controlled degradation are emerging rapidly, creating new opportunities for industrial and societal applications.
This special issue aims to provide a comprehensive platform for reporting recent scientific and technological developments in sustainable polymer and composite materials. It seeks to bridge fundamental research with practical applications by bringing together contributions from materials scientists, polymer chemists, mechanical engineers, chemical engineers, environmental scientists, and industrial researchers working toward sustainable material innovation.

Scope
This special issue welcomes original research articles and comprehensive review papers covering the design, synthesis, processing, characterization, modelling, and application of advanced sustainable polymer and composite materials. The emphasis is on substances that enhance resource efficiency, diminish ecological consequences, and encourage circular material usage during their lifespan.
Submissions that use cutting-edge technologies such as artificial intelligence, machine learning, additive manufacturing, digital materials design, and life-cycle assessment are especially welcomed.
Rationale
The transition toward a circular economy has become a global research priority under initiatives such as the United Nations Sustainable Development Goals (SDGs), the European Green Deal, and numerous national sustainability roadmaps. Polymer and composite materials play a central role in this transition because they are widely used across packaging, transportation, construction, electronics, biomedical devices, and energy applications.
Despite substantial progress, many existing polymer systems continue to face challenges related to recyclability, biodegradability, material recovery, and resource efficiency. At the same time, rapid developments in renewable feedstocks, biomass-derived materials, functional nanomaterials, smart polymers, and digital manufacturing have created exciting opportunities for designing next-generation sustainable materials.

Topics of Interest
Sustainable Polymers
• Bio-based polymers
• Biodegradable polymers
• Recyclable polymer systems
• Circular polymer design
• Green polymer chemistry
• Polymer blends and alloys
Sustainable Composite Materials
• Natural fibre composites
• Polymer matrix composites
• Hybrid composites
• Polymer nanocomposites
• Functional composite materials
Renewable and Biomass-Derived Materials
• Nanocellulose and regenerated cellulose
• Biomass valorization
• Agricultural waste utilization
• Biochar and carbon materials
• Biomass-derived silica
• Lignin-based materials
• Starch-based materials
• Chitosan and other biopolymers
Smart and Functional Materials
• Smart polymers
• Self-healing materials
• Shape-memory polymers
• Responsive polymer systems
• Intelligent packaging
• Functional coatings
• Flexible and wearable electronics
• Polymer sensors
Emerging Manufacturing Technologies
• Additive manufacturing (3D/4D printing)
• Advanced polymer processing
• Sustainable manufacturing
• Digital manufacturing
• AI-assisted materials design
• Machine learning in polymer science
Sustainability Assessment
• Life-cycle assessment
• Eco-design
• Carbon footprint analysis
• Circular manufacturing
• Polymer recycling and upcycling
• Resource-efficient material design

Significance and Expected Impact
This special issue aims to become a valuable reference for researchers, engineers, policymakers, and industry professionals working in sustainable materials science. By presenting cutting-edge developments in polymer and composite technologies, it seeks to accelerate innovation toward environmentally responsible materials that support resource conservation, waste minimization, and circular manufacturing.
The multidisciplinary nature of the collection encourages collaboration across chemistry, materials science, mechanical engineering, chemical engineering, environmental science, food packaging, biomedical engineering, and manufacturing engineering. The published works are expected to stimulate new research directions, strengthen international collaboration, and contribute to the global transition toward sustainable and circular material systems.

Key Dates

• Opening date for submissions: 22 July 2026
• Submission deadline: 31 December 2026
• First editorial decision: Rolling review (typically within 4–8 weeks after submission)
• Final acceptance: Rolling acceptance following successful peer review and completion of all required revisions
• Special Issue publication: 1 January 2027. Accepted articles will be published online individually as soon as the production process has been completed and will subsequently be assigned to the January 2027 Special Issue.