Research paperExperimental CharacterizationComputational MultiscaleDirect-write electrochemical nanofabrication of ultrasmall graphene devicesX. Liu, C. Durkan2024·arXiv:2605.12660AbstractGraphene nanoribbons are promising channel materials for next-generation ultra-miniaturized devices. This study presents a direct-write electrochemical AFM lithography approach using an alternating-current bias to pattern sub-10 nm graphene nanoribbons, explains the underlying electrochemical process, and develops a model for the electric field, adsorbed water meniscus, and frequency-dependent etching behavior.Read more
CVD graphene sample patterned by AC-local anodic oxidation using a conductive AFM tip under humid conditions.1 characterization3 properties4 figuresExperimentalCStudied MaterialSiO₂Substrate / DielectricSiSubstrate / DielectricExpand
Research paperExperimental CharacterizationComputational MultiscaleDirect-write electrochemical nanofabrication of ultrasmall graphene devicesX. Liu, C. Durkan2024·arXiv:2605.12660AbstractGraphene nanoribbons are promising channel materials for next-generation ultra-miniaturized devices. This study presents a direct-write electrochemical AFM lithography approach using an alternating-current bias to pattern sub-10 nm graphene nanoribbons, explains the underlying electrochemical process, and develops a model for the electric field, adsorbed water meniscus, and frequency-dependent etching behavior.Read more
CVD graphene sample patterned by AC-local anodic oxidation using a conductive AFM tip under humid conditions.1 characterization3 properties4 figuresExperimentalCStudied MaterialSiO₂Substrate / DielectricSiSubstrate / DielectricExpand
Research paperExperimental CharacterizationComputational MultiscaleDirect-write electrochemical nanofabrication of ultrasmall graphene devicesX. Liu, C. Durkan2024·arXiv:2605.12660AbstractGraphene nanoribbons are promising channel materials for next-generation ultra-miniaturized devices. This study presents a direct-write electrochemical AFM lithography approach using an alternating-current bias to pattern sub-10 nm graphene nanoribbons, explains the underlying electrochemical process, and develops a model for the electric field, adsorbed water meniscus, and frequency-dependent etching behavior.Read more
CVD graphene sample patterned by AC-local anodic oxidation using a conductive AFM tip under humid conditions.1 characterization3 properties4 figuresExperimentalCStudied MaterialSiO₂Substrate / DielectricSiSubstrate / DielectricExpand
Research paperExperimental CharacterizationComputational MultiscaleDirect-write electrochemical nanofabrication of ultrasmall graphene devicesX. Liu, C. Durkan2024·arXiv:2605.12660AbstractGraphene nanoribbons are promising channel materials for next-generation ultra-miniaturized devices. This study presents a direct-write electrochemical AFM lithography approach using an alternating-current bias to pattern sub-10 nm graphene nanoribbons, explains the underlying electrochemical process, and develops a model for the electric field, adsorbed water meniscus, and frequency-dependent etching behavior.Read more
CVD graphene sample patterned by AC-local anodic oxidation using a conductive AFM tip under humid conditions.1 characterization3 properties4 figuresExperimentalCStudied MaterialSiO₂Substrate / DielectricSiSubstrate / DielectricExpand
