22nd ATHENS International Conference on Materials Science & Engineering (ICMSE-26) scheduled on June 3-5, 2026 Athens (Greece)

ICMSE-26


Materials Engineering Ceramic Engineering Engineering & Computer Science (General)



Call for papers/Topics



 



Topics of Interest for Submission include, but are Not Limited to:



1. Fundamentals of Materials Science



This area covers the "why" behind material behavior at the atomic level.





  • Atomic Structure and Bonding:





    • Quantum mechanics of atoms.




    • Primary bonds (Ionic, Covalent, Metallic).




    • Secondary bonds (Van der Waals, Hydrogen bonding).






  • Crystallography and Crystal Structures:





    • Unit cells and Bravais lattices.




    • Miller indices (planes and directions).




    • Crystalline vs. Amorphous materials.




    • Polymorphism and Allotropy.






  • Imperfections in Solids:





    • Point defects (Vacancies, Interstitials, Schottky/Frenkel defects).




    • Line defects (Dislocations: Edge, Screw, and Mixed).




    • Interfacial defects (Grain boundaries, Twin boundaries).




    • Bulk or volume defects.







2. Thermodynamics and Kinetics



These topics govern how materials change over time and under different environmental conditions.





  • Thermodynamics of Materials:





    • Laws of thermodynamics applied to solids.




    • Phase equilibria and Gibbs Phase Rule.




    • Free energy-composition diagrams.






  • Phase Diagrams:





    • Unary and Binary systems.




    • Eutectic, Eutectoid, Peritectic, and Peritectoid reactions.




    • The Iron-Carbon system ($Fe-Fe_3C$).






  • Kinetics and Diffusion:





    • Fick’s First and Second Laws of Diffusion.




    • Mechanisms of diffusion (Vacancy vs. Interstitial).




    • Nucleation and growth kinetics.




    • TTT (Time-Temperature-Transformation) diagrams.







3. Classes of Materials



Materials are generally categorized based on their chemical makeup and physical properties.





  • Metals and Alloys:





    • Ferrous alloys (Steels and Cast irons).




    • Non-ferrous alloys (Aluminum, Titanium, Magnesium, Copper).




    • Superalloys for high-temperature applications.






  • Ceramics and Glasses:





    • Structure of ionic crystals.




    • Traditional vs. Advanced ceramics.




    • Glass transition temperature and silicate structures.






  • Polymers:





    • Molecular weight and Degree of polymerization.




    • Thermoplastics vs. Thermosets.




    • Crystallinity in polymers.




    • Elastomers.






  • Composites:





    • Particle-reinforced vs. Fiber-reinforced.




    • Matrix types (MMC, CMC, PMC).




    • Rule of Mixtures.







4. Material Properties



This describes how a material responds to external stimuli.





  • Mechanical Properties:





    • Stress-strain behavior (Elastic and Plastic deformation).




    • Hardness, Toughness, and Ductility.




    • Fracture mechanics (Brittle vs. Ductile).




    • Fatigue and Creep.






  • Electrical Properties:





    • Conductivity and Resistivity.




    • Energy band structures.




    • Semiconductors (Intrinsic vs. Extrinsic).




    • Dielectrics and Piezoelectricity.






  • Thermal Properties:





    • Heat capacity and Thermal expansion.




    • Thermal conductivity.




    • Thermal shock resistance.






  • Magnetic and Optical Properties:





    • Diamagnetism, Paramagnetism, Ferromagnetism.




    • Refraction, Reflection, and Absorption.




    • Photoluminescence and Lasers.







5. Processing and Manufacturing



How we turn raw materials into useful shapes and components.





  • Metal Processing: Casting, Forging, Rolling, Extrusion, and Powder Metallurgy.




  • Polymer Processing: Injection molding, Blow molding, and 3D printing (Additive Manufacturing).




  • Ceramic Processing: Pressing, Slip casting, and Sintering.




  • Heat Treatment: Annealing, Quenching, Tempering, and Precipitation hardening.





6. Advanced and Functional Materials



Modern frontiers in MSE.





  • Nanomaterials: Carbon nanotubes, Graphene, and Quantum dots.




  • Biomaterials: Biocompatibility, Implants, and Tissue engineering.




  • Electronic/Optoelectronic Materials: Thin films and Photovoltaics.




  • Smart Materials: Shape memory alloys and Electroactive polymers.




  • Energy Materials: Battery electrodes, Fuel cells, and Supercapacitors.





7. Characterization Techniques



The tools used to "see" and measure material attributes.





  • Microscopy: Optical, SEM (Scanning Electron), and TEM (Transmission Electron).




  • Diffraction: X-ray Diffraction (XRD).




  • Spectroscopy: XPS, EDX, and FTIR.




  • Thermal Analysis: DSC (Differential Scanning Calorimetry) and TGA (Thermogravimetric Analysis).