Phase-field method is a density-based computational method at the mesoscale for modeling
and predicting the temporal microstructure and property evolution during materials …

Understanding mesoscale ferroelectric domain structures and their switching behavior
under external fields is critical to applications of ferroelectrics. The phase-field method has …

Abstract Domain switching is crucial for achieving desired functions in ferroic materials that
are used in various applications. Fast control of domains at sub‐nanosecond timescales …

Ferroelectric barium titanate (BaTiO3) with an intrinsic spontaneous polarization performs
multiple remarkable properties. Recently, ferroelectric BaTiO3 based materials and devices …

In the quest for energy efficient and fast memory elements, optically controlled ferroelectric
memories are promising candidates. Here, we show that, by taking advantage of the imprint …

Ferroelectric materials have been a key research topic owing to their wide variety of modern
electronic and photonic applications. For the quick exploration of higher operating speed …

Exploring the dynamic responses of a material is of importance to both understanding its
fundamental physics at high frequencies and potential device applications. Here we develop …

The performance parameters for characterizing the electrocaloric effect are isothermal
entropy change and the adiabatic temperature change, respectively. This paper reviews the …

To enhance the efficiency of next-generation ferroelectric (FE) electronic devices, new
techniques for controlling ferroelectric polarization switching are required. While most prior …

Ferroelectric materials subjected to ultrafast external stimuli have been demonstrated to
exhibit dynamic phenomena with potential applications in the high‐speed operation of …