About the Journal
Journal of Applied Science & Engineering Materials (JASEM) is an international, peer-reviewed, and interdisciplinary publication platform that bridges the theoretical principles of fundamental sciences with the practical applications of engineering disciplines. Our journal aims to publish original research situated at the intersection where scientific discoveries translate into technological innovations and tangible materials.
The scope of the journal encompasses application-oriented studies across the following three core disciplines and their respective subfields:
1. Engineering Sciences and Materials Technologies
This domain covers the design, fabrication, and performance analysis of materials utilized in solving engineering problems.
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Advanced Materials Engineering: Nanomaterials, composites, polymers, ceramics, metallic alloys, and smart materials.
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Manufacturing and Processing Technologies: Additive manufacturing (3D printing), laser processing, casting and welding technologies, and powder metallurgy.
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Mechanical and Structural Engineering: Fracture mechanics, fatigue analysis, tribology (friction and wear), structural materials, and concrete technologies.
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Electronic and Optical Engineering: Semiconductor technologies, optoelectronic materials, sensors, and actuators.
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Energy Systems: Battery technologies, fuel cells, photovoltaic materials, and energy storage systems.
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Structural and Construction Materials: Sustainable concrete technologies and geotechnical materials.
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Structural and Materials Mechanics: Experimental and theoretical characterization of mechanical, thermal, and chemical behaviors of materials.
2. Fundamental Sciences and Theoretical Applications
This domain encompasses studies wherein foundational physical, chemical, and mathematical principles are applied to resolve engineering challenges or develop emerging technologies.
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Applied Physics: Condensed matter physics, superconductivity, magnetism, plasma physics, and photonic applications.
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Applied Chemistry: Surface chemistry, catalysis, corrosion chemistry, electrochemistry, and polymer synthesis.
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Mathematical Modelling: Analytical and numerical modelling of physical and engineering problems.
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Numerical Analysis: Differential equation-based modelling of physical, chemical, and biological systems.
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Statistical Mechanics: Prediction of macroscopic material behaviors from microscopic properties.
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Applied Biology and Biochemistry: Fundamental investigations of biological processes intersecting with engineering and materials science.
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Molecular Biology and Genetics: Industrial applications of genetic modifications, protein engineering, and DNA technologies.
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Microbiology: Interactions between microorganisms and material surfaces (biofilm formation), biocorrosion mechanisms, and industrial fermentation processes.
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Biochemistry: Enzyme kinetics, biomolecular synthesis, and metabolic pathway engineering for industrial production.
3. Applied Sciences and Interdisciplinary Fields
This domain encompasses innovative, convergent disciplines addressing contemporary global challenges.
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Computer Science and Artificial Intelligence (AI): Machine learning in materials discovery, big data analytics, simulation, and optimization algorithms.
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Computational Materials Science: Density functional theory (DFT), molecular dynamics (MD) simulations, and finite element analysis (FEA).
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Process Optimization: Optimization of engineering processes regarding operational efficiency, cost-effectiveness, and environmental footprint.
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Bioengineering and Biotechnology: Biomaterials, tissue engineering, biosensors, biomimetic designs, and targeted drug delivery systems.
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Energy and Environmental Sciences: Renewable energy systems (solar, wind), battery and energy storage technologies, waste management, water purification, and sustainable green technologies.
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Control Systems and Automation: PID, Model Predictive Control (MPC), adaptive/robust control architectures, and autonomous operations in advanced energy and material processing.