A. Theory, Modeling and Calculation in Domain Structures

A1. Carbon and Graphene for microelectronic devices

A2. Theoretical approaches of multiferroic materials and multilayer ferroics

A3. Magnetic and Electronic Materials

A4. Advanced structural materials

A5. Storage devices in industry and fundamental research

B. Syntheses, Characterization and Experimental

B1. Ferroelectrics - Ferromagnetics - Multiferroics - Relaxors (ferroelectrics relaxors, morphotropic region) in Ceramics - Single crystals - Thin films – Superlattices

B2. Giant magnetoristance effects

B3. Structural and functional ceramic and metal-matrix composites

B4. Phase transitions in magnetic or metal-oxides materials

B5. Magnetism and superconductivity in new materials

B6. Resistance Switching Effects

B7. Advances in piezoelectrics, lead free piezoelectrics, sensors, transducers

B8. Electrocaloric materials

B9. Storage in advanced technology.

B10. From structural to mechanical properties of disordered solids

B11. Structural and chemical characterization of Metals and alloys compounds

B12. Electron microscopy of materials and nanomaterials

C. Nanoscience, Nanotechnology and Storage Devices

C1. Clusters and Cluster Assembled Materials / Nanostructured -Thin films for Nanotechnology

C2. Optical storage devices

C3. Nano/Meso-structured Carbon in Bulk Materials

C4. Synthesis, Functionalization, Interfacial Properties and Applications

C5. Processing methods and advances in characterization techniques in superlattices structures

C6. Advances in Functional Semiconducting Materials, Materials Devices for Flexible and Large Area Electronics

C7. Carbon and Graphene for microelectronic devices

C8. Strategies for Academy-Industry Relationship

C9. Integrated ferroelectrics: thin films, nanostructures, superlattices

C10. Advances in Computational Materials Science

C11. Applications of Ferroelectrics: energy storage/conversion

C12. Functional Magnetic Materials for Electrical Machines and Power Electronics