Machine learning is a powerful way of uncovering hidden structure/property relationships in nanoscale materials, and it is tempting to assign structural causes to properties based on feature rankings reported by interpretable models. In this study of defective graphene oxide nanoflakes, we use classification, regression, and causal inference to show that not all important structural features directly influence the concentration of broken bonds, as a representative property. We find that while the presence of oxygen is important for actual bond breakage the presence and distribution of hydrogen determines how often bond breakage occurs
Graphene is an exotic nanomaterial consisting of a single layer of carbon atoms arranged in a two-di...
Pure graphene is known as the strongest material ever discovered. However, the unavoidable defect fo...
Graphene oxide (GO) and reduced GO (rGO) are the only variants of graphene that can be manufactured ...
Defects in graphene can profoundly impact its extraordinary properties, ultimately influencing the p...
Understanding fracture is critical to the design of resilient nanomaterials. Molecular dynamics offe...
Graphene oxide (GO) represents a complex family of materials related to graphene: easy to produce in...
Graphene oxide (GO) represents a complex family of materials related to graphene: easy to produce in...
Although it has been well established that the stability and properties of graphene oxide nanostruc...
Graphene's intrinsically corrugated and wrinkled topology fundamentally influences its electronic, m...
Defect-free graphene nanosheets are the strongest material known but manufactured graphene tends to ...
Although the energy of the Fermi level is of critical importance to designing electrically conductiv...
Graphene’s intrinsically corrugated and wrinkled topology fundamentally influences its electronic, m...
Notably known for its extraordinary thermal and mechanical properties, graphene is a favorable build...
PhDGraphene is the first 2D material consisting of carbon atoms densely packed into planar structure...
Despite the tremendous capabilities of Molecular dynamics (MD) simulations, they suffer from the lim...
Graphene is an exotic nanomaterial consisting of a single layer of carbon atoms arranged in a two-di...
Pure graphene is known as the strongest material ever discovered. However, the unavoidable defect fo...
Graphene oxide (GO) and reduced GO (rGO) are the only variants of graphene that can be manufactured ...
Defects in graphene can profoundly impact its extraordinary properties, ultimately influencing the p...
Understanding fracture is critical to the design of resilient nanomaterials. Molecular dynamics offe...
Graphene oxide (GO) represents a complex family of materials related to graphene: easy to produce in...
Graphene oxide (GO) represents a complex family of materials related to graphene: easy to produce in...
Although it has been well established that the stability and properties of graphene oxide nanostruc...
Graphene's intrinsically corrugated and wrinkled topology fundamentally influences its electronic, m...
Defect-free graphene nanosheets are the strongest material known but manufactured graphene tends to ...
Although the energy of the Fermi level is of critical importance to designing electrically conductiv...
Graphene’s intrinsically corrugated and wrinkled topology fundamentally influences its electronic, m...
Notably known for its extraordinary thermal and mechanical properties, graphene is a favorable build...
PhDGraphene is the first 2D material consisting of carbon atoms densely packed into planar structure...
Despite the tremendous capabilities of Molecular dynamics (MD) simulations, they suffer from the lim...
Graphene is an exotic nanomaterial consisting of a single layer of carbon atoms arranged in a two-di...
Pure graphene is known as the strongest material ever discovered. However, the unavoidable defect fo...
Graphene oxide (GO) and reduced GO (rGO) are the only variants of graphene that can be manufactured ...