The reversible phase transition in vanadium dioxide (VO 2) with light, heat, electric,
magnetic, and mechanical stimuli is the enabling concept to function as a smart material. It is …

Designing transparent flexible electronics with multi‐biological neuronal functions and
superior flexibility is a key step to establish wearable artificial intelligence equipment. Here …

The quest for multifunctional, low-power and environment friendly electronics has brought
research on materials to the forefront. For instance, as the emerging field of transparent …

With their unique advantages in portability, shape adaptability, and human friendly surfaces,
flexible electronics pave the way for the implementation of wearable electronic textiles and …

Phase change materials (PCMs), such as GeSbTe (GST) alloys and vanadium dioxide
(VO2), play an important role in dynamically tunable optical metadevices. However, the …

The process of memory and learning in biological systems is multimodal, as several kinds of
input signals cooperatively determine the weight of information transfer and storage. This …

To realize the potential of Mott transition of multiphasic vanadium oxides (VOx) for memory
applications, the development of VOx memtransistors on SiO2 wafer is introduced. Through …

The exploration of ferroelectric phase transitions enables an in-depth understanding of
ferroelectric switching and promising applications in information storage. However …

Flexible synaptic devices that emulate biological synapses are the key to developing
wearable intelligent equipment. However, there are still challenges to achieving multiple …

As a typical phase-transition material, VO2 could show great potential in the process of
precise modulation of gas-sensing selectivity. However, the effect and mechanism of the …