Beschreibung
InhaltsangabeTheoretical Aspects of Phase Transitions in Ferroelectric Thin Films.- Chemical Solution Deposition of Layered-Structured Ferroelectric Thin Films.- PB-Based Ferroelectric Thin Films Prepared by MOCVD.- Spontaneous Polarization and Crystal Orientation Control of MOCVD PZT and Bi4Ti3O12-Based Films.- Rhombohedral PZT Thin Films Prepared by Sputtering.- Scanning Nonlinear Dielectric Microscope.- Analysis of Ferroelectricity and Enhanced Piezoelectricity near Morphotropic Phase Boundary.- Correlation between Domain Structures in Dielectric Properties in Single Crystals of Ferroelectric Solid Solutions.- Relaxor Behaviors in Perovskite-Type Dielectric Compounds.- Artificial Control of Ordered/Disordered State of B-Site Ions in Ba(Zr,Ti)O3 by a Superlattice Technique.- Physics of Ferroelectric Interface: An Attempt to Nano-Ferrolectric Physics.- Preparation and Property of Ferroelectic-Insulator-Semiconductor Junction Using YMNO3 Thin Film.- Improvement of Memory Retention in Metal-Ferroelectric-Insulator-Semiconductor (MFIS) Structure.
Inhalt
Theoretical Aspects of Phase Transitions in Ferroelectric Thin Films.- Chemical Solution Deposition of Layered-Structured Ferroelectric Thin Films.- PB-Based Ferroelectric Thin Films Prepared by MOCVD.- Spontaneous Polarization and Crystal Orientation Control of MOCVD PZT and Bi4Ti3O12-Based Films.- Rhombohedral PZT Thin Films Prepared by Sputtering.- Scanning Nonlinear Dielectric Microscope.- Analysis of Ferroelectricity and Enhanced Piezoelectricity near Morphotropic Phase Boundary.- Correlation between Domain Structures in Dielectric Properties in Single Crystals of Ferroelectric Solid Solutions.- Relaxor Behaviors in Perovskite-Type Dielectric Compounds.- Artificial Control of Ordered/Disordered State of B-Site Ions in Ba(Zr,Ti)O3 by a Superlattice Technique.- Physics of Ferroelectric Interface: An Attempt to Nano-Ferrolectric Physics.- Preparation and Property of Ferroelectic-Insulator-Semiconductor Junction Using YMNO3 Thin Film.- Improvement of Memory Retention in Metal-Ferroelectric-Insulator-Semiconductor (MFIS) Structure.
