Abstract Two‐dimensional (2D) materials have attracted extensive research interests due to
their excellent properties related to unique structure. Strain engineering, as an important …

Abstract Two-dimensional (2D) transition metal dichalcogenides (TMDCs) and graphene
compose a new family of crystalline materials with atomic thicknesses and exotic …

Room-temperature optoelectronic devices that operate at short-wavelength and mid-
wavelength infrared ranges (one to eight micrometres) can be used for numerous …

Triggered by the growing needs of develo** semiconductor devices at ever‐decreasing
scales, strain engineering of 2D materials has recently seen a surge of interest. The goal of …

Graphene is very popular because of its many fascinating properties, but its lack of an
electronic bandgap has stimulated the search for 2D materials with semiconducting …

Abstract 2D materials are promising for strain engineering due to their atomic thickness and
exceptional mechanical properties. In particular, non‐uniform and localized strain can be …

We demonstrate the continuous and reversible tuning of the optical band gap of suspended
monolayer MoS2 membranes by as much as 500 meV by applying very large biaxial strains …

Strain engineering is the process of tuning a material's properties by altering its mechanical
or structural attributes. Atomically thin two-dimensional nanomaterials (2DNMs), which have …

Two-dimensional (2D) materials have shown extraordinary performances as photocatalysts
compared to their bulk counterparts. Simulations have made a great contribution to the deep …

The application of strain to semiconductors allows for controlled modification of their band
structure. This principle is employed for the manufacturing of devices ranging from high …