Graphene is the stiffest material known so far but, due to its one-atom thickness, it is also
very bendable. Consequently, free-standing graphene exhibit ripples that has major effects …

The emergent two-dimensional (2D) materials are atomically thin and ultraflexible,
promising for a variety of miniaturized, high-performance, and flexible devices in …

Graphene is a powerful membrane prototype for both applications and fundamental
research. Rheological phenomena including indentation, twisting, and wrinkling in …

Twisted bilayer graphene (TBG) exhibits extremely low Fermi velocities for electrons, with
the speed of sound surpassing the Fermi velocity. This regime enables the use of TBG for …

The excellent mechanical properties of single-and few-layer graphene have been well-
quantified and evidenced by computational methods and local indentation measurements …

We provide a comprehensive computational characterization of surface motion of two types
of nanomachines with four C60 “wheels”: a flexible chassis Nanocar and a rigid chassis …

Although both the tendency of 2D materials to bend out of plane as well as its effect on
materials' properties are well known, the factors influencing this phenomenon have not been …

We study the diffraction of neutral hydrogen atoms through suspended single-layer
graphene using molecular dynamics simulations based on density functional theory …

Precise control and in-depth understanding of the interfaces are crucial for the functionality-
oriented material design with desired properties. Herein, via modifying the long-standing …

Two-dimensional materials and their mechanical properties are known to be profoundly
affected by rippling deformations. However, although ripples are fairly well understood, less …