ISAF

• Fundamentals of ferroelectrics and multiferroic materials (theory, modeling and experiments)
• Processing of piezoelectric crystals, ceramics, thick and thin films, composite, polymers, glassceramics and MLCCs.
• Lead free dielectric and piezoelectric materials (A3+)
• Structure characterization and properties of ferroelectric materials (dielectric, piezoelectric, ferroelectric, pyroelectric, electrocaloric, flexoelectric, photovoltaics and photocatalytics, etc.)
• Applications of ferroelectrics (sensing, transducing, thermal imaging, energy harvesting and storage, etc.)

ISIF

• Materials for non-volatile memory and neuromorphic computing (including ferroelectrics, phase change, RRAM, magnetic)
• Integrated dielectrics (energy storage, 5G, high K, gate dielectrics)
• Piezoelectric MEMS and NEMS (resonators, energy harvesters, sensors, actuators, and transducers)
• Wearable and implantable devices (biosensing, neural stimulation, prosthetics, hard coatings)
• Processing routes for heterogeneous materials integration (oxides, chalcogenides, metals, and carbons)
• Hybrid perovskites (photovoltaics, nonlinear optics, semiconductors)

PFM

• Instrumental aspects of PFM, ESM, SS-PFM and related techniques
• Nanoelectromechanics of materials and PFM/ESM theory
• Ferroelectric tunnelling and memristor effect via PFM/ESM
• Multiferroic phenomena on the nanoscale
• Disordered ferroelectrics and mesoscopic effects by PFM
• Ferroelectric data storage and polarization lithography
• Ionic conductors, battery materials and fuel cells on the nanoscale
• Ferroelectric photovoltaics and tipenhanced phenomena
• Ferroelectric semiconductors and surface phenomena »Interface engineering via PFM
• Biocompatible & organic polar materials on the nanoscale
• 1D and 2D nanostructured materials via PFM