Topotactic transition is a structural phase change in a matrix crystal lattice mediated by the
ordered loss/gain and rearrangement of atoms, leading to unusual coordination …

Brain‐inspired neuromorphic computing is a new paradigm that holds great potential to
overcome the intrinsic energy and speed issues of traditional von Neumann based …

Inspired by the human brain, nonvolatile memories (NVMs)–based neuromorphic computing
emerges as a promising paradigm to build power-efficient computing hardware for artificial …

Hardware implementation of artificial synaptic devices that emulate the functions of
biological synapses is inspired by the biological neuromorphic system and has drawn …

Applying functional oxide thin films to flexible devices is of great interests within the rapid
development of information technology. The challenges involve the contradiction between …

Distinct from the conductive filament-type counterparts, the interface-type resistive switching
(RS) devices are electroforming-free and exhibit bidirectionally continuous conductance …

Oxygen defects and their atomic arrangements play a significant role in the physical
properties of many transition metal oxides. The exemplary perovskite SrCoO3-δ (P-SCO) is …

Topotactic phase transformation enables structural transition without losing the crystalline
symmetry of the parental phase and provides an effective platform for elucidating the redox …

Redox‐based memristive devices are one of the most attractive candidates for future
nonvolatile memory applications and neuromorphic circuits, and their performance is …

Perovskite cobaltites have emerged as archetypes for electrochemical control of materials
properties in electrolyte-gate devices. Voltage-driven redox cycling can be performed …