Computational and Experimental Research in Materials and Renewable Energy (CERiMRE)

Aims and Scope
1️⃣ Materials Science and Engineering
Fundamental and applied research on materials for functional and energy applications.
• Metallic, ceramic, polymeric, and composite materials
• Semiconductor and electronic materials
• Magnetic and superconducting materials
• Nanomaterials and advanced functional materials
• Biomaterials which focus on physical and material properties

2️⃣ Energy Materials and Devices
Materials and devices for energy conversion, storage and utilization.
• Battery and supercapacitor materials
• Fuel cells and membrane materials
• Hydrogen production and storage materials
• Photovoltaic, optoelectronic, and thermoelectric devices
• Catalysts for energy applications

3️⃣ Energy Systems and Sustainable Technologies
Energy systems based on physical and engineering processes.
• Renewable energy systems (solar, wind, biomass, geothermal)
• Nuclear energy systems and reactor physics
• Thermal energy systems and heat transfer
• Energy conversion, efficiency, and sustainability
• Waste-to-energy and energy recovery systems

4️⃣ Computational and Multiscale Modeling in Materials and Energy
Physics-based modeling and simulation of material and energy systems.
• Density Functional Theory (DFT)
• Molecular Dynamics (MD)
• Monte Carlo and phase-field modeling
• CFD and FEM for materials and energy systems
• Micromagnetic and multiscale simulations
• Machine learning and data-driven modeling untuk material & energi

5️⃣ Experimental Characterization and Processing
Synthesis, fabrication, and characterization of energy materials and devices.
• Materials synthesis and processing
• Structural, thermal, electrical, and magnetic characterization
• In-situ and operando experimental techniques
• Device fabrication and performance testing
• Scale-up and processing technologies

6️⃣ Interdisciplinary Physical Applications of Materials and Energy
Interdisciplinary studies with a primary focus on materials, energy, or physical processes.
• Environmental and waste treatment based on materials or energy systems
• Medical and bio-physical applications involving physical materials or devices
• Transport, fluid flow, and thermal systems related to energy efficiency
• Environmental control systems (filtration, ventilation, thermal management)

Studies focusing purely on biological, medical, epidemiological, environmental, or social modeling without explicit involvement of materials, energy systems, or physical devices are outside the scope of this journal.