This track focuses on ensuring universal access to affordable, reliable, sustainable, and modern energy. It highlights innovations that support the transition to clean energy systems, including:

1. Renewable Energy Systems – Solar, wind, geothermal, and hybrid systems for sustainable power generation.
2. Next-Generation Battery Technologies – Advanced energy storage solutions for grid and off-grid applications.
3. Fuel Cell Technologies – Efficient and low-emission systems for power generation and transportation.
4. Smart Grid Integration – Decentralized and resilient energy systems for urban and remote applications.

This track emphasizes urgent climate action through the development and deployment of carbon management solutions. It includes:

1. CO₂ Capture Technologies – Techniques for capturing carbon dioxide from industrial, transportation, and energy sectors.
2. CO₂ Storage Technologies – Secure and long-term storage solutions including geological sequestration and mineralization.
3. CO₂ Utilization – Conversion of captured CO₂ into fuels, construction materials, and chemicals.
4. Integration in Circular Carbon Economy – Cross-sectoral approaches to embed CCU into sustainable value chains.

This track explores advances in materials science and digital fabrication to support sustainability, resource efficiency, and high-performance engineering. Topics include:

1. Additive Manufacturing Technologies – Industrial 3D printing applications in energy, aerospace, and construction.
2. Advanced Materials – Lightweight composites, metals, ceramics, and bio-based materials for sustainable additive processes.
3. Circular Economy for Composites – Design, disassembly, recyclability, and reuse of composite materials.
4. AI in Materials Science and Composites – Use of AI predictive analysis, design, digital twins, and scale up in composite manufacturing process
5. Composites in Energy and Infrastructure Applications – Climate-Resilient Composites for wind, hydrogen storage, and structures.

This track focuses on catalytic technologies that enable clean energy and environmental protection. Themes include:

1. Hydrogen Production – Catalytic, electrocatalytic, and photocatalytic techniques for green hydrogen.
2. CO₂ Conversion – Catalysis-based transformation of CO₂ into fuels and industrial chemicals.
3. Pollutant Degradation – Advanced catalysts for treatment of water, soil, and emerging contaminants.
4. Air Purification – Catalytic systems for gas separation and indoor/outdoor air quality improvement.
5. Scalability and Policy – Roadmaps for implementation at scale, including regulation and infrastructure.

This interdisciplinary track highlights emerging technologies that accelerate sustainability solutions, including:

1. Aerospace Systems for Monitoring – Satellite and aerial platforms for climate, land use, and pollution monitoring.
2. Low-Carbon Aviation – Sustainable fuels, lightweight materials, and propulsion innovations.
3. Sustainable Space Operations – Reducing environmental footprint of space missions and debris.
4. Robotics for Climate Solutions – Precision farming, environmental restoration, and waste cleanup.
5. AI and Machine Learning – Predictive analytics, optimization, and decision-making tools for sustainable infrastructure.

This track explores the interconnectedness of energy, water, and food systems, promoting integrated solutions to enhance climate resilience. Topics include:

1. Systems-Based Approaches and Nexus Modelling – Tools and methods for optimizing resource interdependencies.
2. Renewable Energy in Agriculture and Water – Solar, wind, and bioenergy in irrigation, desalination, and farm operations.
3. Soil, Water, and Land Management – Sustainable practices for resource conservation and land productivity.
4. Water Use and Food Security in Arid Regions – Technologies and practices for resilience in water-scarce areas.
5. Circular and Low-Carbon Food Systems – Minimizing emissions and waste across the food value chain.
6. Resource Recovery – Reuse of agricultural and wastewater byproducts for energy and materials.
7. Governance and Policy – Frameworks for integrated, cross-sectoral climate action.

This track focuses on forward-thinking design and construction methods that are energy-efficient, low-impact, and socially inclusive:

1. Circular Construction – Low-carbon, recycled, and regenerative materials for closed-loop design.
2. High-Performance Design – Passive and active strategies for energy savings and occupant comfort.
3. Smart and Resilient Buildings – Integration of sensors, automation, and adaptive systems.
4. Water and Waste Management – Efficient plumbing, greywater systems, and material recovery.
5. Health, Equity, and Inclusion – Biophilic design, universal accessibility, and affordable green housing.
6. Innovation Ecosystems – Community-scale sustainability, green startups, and finance models.

This track explores the enabling systems that drive climate action through learning, governance, and circular practices:

1. Sustainability Education – Curricula, capacity building, and community engagement for climate literacy.
2. Policy and Regulation – Climate governance frameworks at local, national, and international levels.
3. Circular Economy – Strategies for zero waste, resource efficiency, and sustainable product lifecycles.
4. Public Awareness and Behavioral Change – Tools to shift consumer and institutional practices.