FOCUS AND SCOPE

Sustainable in Energy and Science Technology Scope:

Sustainable Energy Systems:

• Renewable energy technologies (solar, wind, biomass, biofuel, ICE, EV, geothermal, and hydropower)
• Energy storage, grid integration, and smart energy systems
• Energy efficiency and optimization in industrial processes
• Bioenergy production and biofuels from waste and renewable sources
• Environmental science and sustainability
• Life cycle assessment (LCA) of energy systems
• Carbon capture, utilization, and storage (CCUS)
• Circular economy approaches in energy and technology systems
• Environmental impact of renewable and conventional energy systems

Applied Engineering and Environmental

• Development of new materials for energy storage and conversion
• Advanced modelling and simulation for energy and environmental systems
• Machine learning applications in energy optimization and environmental monitoring
• Sustainable technologies for waste management and resource recovery
• Renewable energy systems and sustainable engineering solutions

Physical Sciences

• Materials science and nanotechnology
• Applied physics and quantum technologies
• Computational physics and numerical simulations.
• Optics and photonics
• Life sciences and biotechnology
• Properties of solids, liquids, and soft materials.
• Superconductivity, magnetism, and electronic properties
• Lasers, fiber optics, and optical communication systems
• Applications in imaging, sensing, and quantum technologies
• Plasma and high-energy physics
• Atomic, molecular, and chemical physics
• Spectroscopy, reaction dynamics, and molecular interactions
• Applications in energy, environment, and industry
• Energy systems and renewable energy technologies
• Contributions of physical sciences to environmental and sustainability challenges

Chemical Sciences

• Synthesis, characterization, and reactivity of organic and inorganic compounds
• Catalysis and its applications in green chemistry and industrial processes
• Applications of analytical methods in environmental, and material sciences.
• Thermodynamics, kinetics, and quantum chemistry
• Molecular modelling and computational chemistry
• Spectroscopic techniques and their applications
• Design and synthesis of functional materials (polymers, nanomaterials, composites)
• Green chemistry approaches for sustainable processes and products
• Molecular dynamics, quantum mechanics, and cheminformatics
• Simulation of chemical reactions and material properties
• Innovations in chemical engineering and process optimization
• Scale-up and commercialization of chemical technologies
• Sustainable and eco-friendly industrial practices

Engineering Technological Advancements

• Artificial intelligence and Smart systems and IoT (Internet of Things)
• Machine learning, and AI applications
• Computational modelling and simulation across disciplines