TY - JOUR
T1 - Polarization fatigue in ferroelectrics
T2 - Fundamentals and recent developments
AU - Lou, Xiaojie
PY - 2013
Y1 - 2013
N2 - In this paper, we firstly give a brief review on the fundamentals and recent developments on polarization fatigue in ferroelectric materials. The LPD-SICI model (LPD-SICI stands for local phase decomposition induced by switching-induced charge injection) developed by the present author and his colleagues has been introduced and discussed in detail. The main scenario proposed for polarization fatigue in ferroelectrics in the LPD-SICI model is that the unscreened bound charge formed at the tip of the needle-like domain at the very early stage of polarization reversal will induce an intensive charge injection (mostly electrons) near the electrode-film interface, and subsequently local Joule heating, and finally local phase decomposition around the domain nucleation site. By reviewing the recent progress on experimental studies of electrical fatigue in a variety of ferroelectric samples in both thin film and bulk form, we show that the LPD-SICI model is in good agreement with most of the observations published in the last three years in the literature. Therefore, local phase decomposition induced by switching-induced charge injection may indeed be the generic reason for polarization fatigue in a variety of ferroelectric materials, and probably antiferroelectric materials as well.
AB - In this paper, we firstly give a brief review on the fundamentals and recent developments on polarization fatigue in ferroelectric materials. The LPD-SICI model (LPD-SICI stands for local phase decomposition induced by switching-induced charge injection) developed by the present author and his colleagues has been introduced and discussed in detail. The main scenario proposed for polarization fatigue in ferroelectrics in the LPD-SICI model is that the unscreened bound charge formed at the tip of the needle-like domain at the very early stage of polarization reversal will induce an intensive charge injection (mostly electrons) near the electrode-film interface, and subsequently local Joule heating, and finally local phase decomposition around the domain nucleation site. By reviewing the recent progress on experimental studies of electrical fatigue in a variety of ferroelectric samples in both thin film and bulk form, we show that the LPD-SICI model is in good agreement with most of the observations published in the last three years in the literature. Therefore, local phase decomposition induced by switching-induced charge injection may indeed be the generic reason for polarization fatigue in a variety of ferroelectric materials, and probably antiferroelectric materials as well.
KW - Ferroelectric materials
KW - Phase decomposition
KW - Polarization fatigue
KW - Size effect
KW - Switching
UR - https://www.scopus.com/pages/publications/84894792929
U2 - 10.7502/j.issn.1674-3962.2013-0006-04
DO - 10.7502/j.issn.1674-3962.2013-0006-04
M3 - 文章
AN - SCOPUS:84894792929
SN - 1674-3962
VL - 32
SP - 362
EP - 368
JO - Materials China
JF - Materials China
IS - 6
ER -