Study the quantum resolution sizes and atomic bonding states of two-dimensional tin monoxide

TL;DR

This study employs density functional theory and bond models to analyze the atomic bonding, electronic properties, and quantum resolution sizes of 2D tin monoxide (SnO), providing insights into its local bonding states and phase transitions.

Contribution

It introduces a combined approach using DFT and bond models to analyze interatomic bonding and quantum resolution sizes in 2D SnO, advancing understanding of its electronic and structural properties.

Findings

Detailed analysis of interatomic bonding in 2D SnO

Identification of charge transfer characteristics

Determination of wave function at various quantum resolutions

Abstract

Understanding the interatomic bonding and electronic properties of two-dimensional (2D) materials is crucial for preparing high-performance 2D semiconductor materials. We have calculated the band structure, electronic properties, and bonding characteristics of SnO in 2D materials by using density functional theory (DFT) and combining bond energy and bond charge models. Atomic bonding analysis enables us to deeply and meticulously analyze the interatomic bonding and charge transfer in the layered structure of SnO. This study greatly enhances our understanding of the local bonding state on the surface of 2D structural materials. In addition, we use the renormalization method to operate energy to determine the wave function at different quantum resolutions. This is of great significance for describing the size and phase transition of nanomaterials.