▎ 摘　　要

Graphene plates are widely used in petroleum, automotive, aerospace, and electrical power industries thanks to favorable mechanical, electrical, and thermal properties. The synthesis of graphene plates for the empirical analysis of graphene atoms' behavior entails spending a great deal of time and cost, whereas the behavior of the atoms can be investigated and analyzed via software using the molecular dynamics simulation method. According to simulation results, the parameters affecting graphene behavior may be optimized, thus preventing undue time and cost being spent on trial and error experimentation. Hence, the behavior of graphene plates was analyzed using molecular dynamics simulation. The effect of exerting force on the resulting stress, atoms' temperature, potential and kinetic energy of graphene atoms and the total energy of the graphene plate was examined.