Sentence examples for behavior of a graphene from inspiring English sources

The fracture behavior of a graphene sheet, containing a center crack (length of 2a) was characterized based on the atomistic simulation and the concept of continuum mechanics.

Based on a graphene-spring model, using molecular dynamics simulations, we investigate the friction behavior of a graphene flake sliding on a supported graphene substrate.

"It's possible that the behavior of a graphene sheet can map directly to a pair plasma, and if we know how to read that map, we [might create] the first quote-unquote pair plasma in the lab". He credits the Bose grant for giving him a chance to pursue this unorthodox idea, and stretch beyond his own research.

Here we employ molecular dynamics simulation to explore the behavior of a graphene aerogel-inspired superstructure under applied compression and tension with a focus on the mechanical stabilizing mechanisms and properties of the deformed structures.

The vibrational behavior of a graphene resonator can be numerically described by solving the Duffing equation given by Equation 8.

This indicates that a continuum elastic model (i.e., plate model) is suitable for understanding the dynamic behavior of a graphene resonator.

This paper studies the vibrational behavior of a circular graphene sheet operating as resonance nanomechanical mass sensor.

Subsequently, assuming the geometric characteristics of graphene, support conditions as well as the weight, number and position of the attached masses as the global design parameters, a parametric study on mass sensing characteristics is presented in order to examine the potential behavior of a circular graphene monolayer sheet as mass sensor.

Fang et al.[24] has studied the mechanical behavior of a rectangular graphene film under various indentation depths, velocities, and temperatures using molecular dynamics (MD) simulations.

For a graphene resonator actuated by an actuation amplitude of 1 fN, the dimensionless parameter for a bare graphene resonator (i.e. N0 = 0) is in the order of 10, which indicates that the vibration behavior of a bare graphene is almost nonlinear oscillation.

The presented model confirms the reported experimental data and in addition facilitates the employment of alpha and beta as biosensor control parameters to predict the behavior of graphene in graphene-based biosensors.