A Phase Field Crystal Method for Multilayer Graphene Structure
Kai Liu

TL;DR
This paper extends a phase field crystal method to model multilayer graphene, incorporating external potentials from adjacent layers, and analyzes how layer addition affects atomic configurations, aiding understanding of multilayer graphene structures.
Contribution
It introduces a phase field crystal approach that includes external potentials from neighboring layers and applies it to multilayer graphene, including up to six layers.
Findings
Layer addition method influences atomic layout.
External potentials from adjacent layers can be effectively modeled.
The approach aligns with atomistic simulation results.
Abstract
Bilayer graphene has been a subject of intense study in recent years. We extend a structural phase field crystal method to include an external potential from adjacent layer(s), which is generated by the corresponding phase field and changes over time. Moreover, multiple layers can be added into the structure. Using the thickness of the boundaries between different stacking variants of the bilayer structure as the key parameter, we quantify the strength of the adjacent layer potential by comparing with atomistic simulation results. We then test the multiple graphene structures, including bilayers, triple layers, up to 6 layers. We find that besides the initial conditions, the way of new layers added into the structure will also affect the layout of the atomic configuration. We believe tour results can help understanding the mechanism of graphene structure consists of more than one layer.
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Taxonomy
Topicsnanoparticles nucleation surface interactions · Theoretical and Computational Physics · Solidification and crystal growth phenomena
