Surface acoustic wave (SAW)–matter interaction provides a fascinating key for inducing and
manipulating novel phenomena and functionalities in two-dimensional (2D) materials. The …

The displacement of a single electron enables exciting avenues for nanotechnology with
vast application potential in quantum metrology, quantum communication and quantum …

Superconductivity at the 2D limit is significant for advancing fundamental physics, leading to
extensive research on monolayer two-dimensional materials. In particular, monolayer …

Compensated synthetic antiferromagnets (SAFs) stand out as promising candidates to
explore various spintronic applications, benefitting from high precession frequency and …

Ultrathin superconducting films are the basis of superconductor devices. van der Waals
(vdW) NbSe2 with noncentrosymmetry exhibits exotic superconductivity and shows promise …

Surface acoustic waves (SAWs) provide a contactless method for measuring wave-vector-
dependent conductivity. This technique has been used to discover emergent length scales …

We investigate the interaction of excitons in monolayer WSe2 with the piezoelectric field of
surface acoustic wave (SAW) at room temperature using photoluminescence (PL) …

Superconducting nanocircuits, which are usually fabricated from superconductor films, are
the core of superconducting electronic devices. While emerging transition-metal …

The synthesis of single-cycle pulses of compressed light and microwave signals sparked
novel areas of fundamental research. In the field of acoustics, however, such a generation …

Strain is a powerful tool for tuning the properties of two-dimensional materials. Here, we
investigated the effects of large, uniform biaxial compressive strain on the superconducting …