Universal scaling of weak localization in graphene due to bias-induced dispersion decoherence

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dc.contributor.authorR. Somphonsane
dc.contributor.authorH. Ramamoorthy
dc.contributor.authorG. He
dc.contributor.authorJ. Nathawat
dc.contributor.authorS. Yin
dc.contributor.authorC.-P. Kwan
dc.contributor.authorN. Arabchigavkani
dc.contributor.authorB. Barut
dc.contributor.authorM. Zhao
dc.contributor.authorZ. Jin
dc.contributor.authorJ. Fransson
dc.contributor.authorJ. P. Bird
dc.date.accessioned2025-07-21T06:03:15Z
dc.date.issued2020-03-27
dc.description.abstractThe differential conductance of graphene is shown to exhibit a zero-bias anomaly at low temperatures, arising from a suppression of the quantum corrections due to weak localization and electron interactions. A simple rescaling of these data, free of any adjustable parameters, shows that this anomaly exhibits a universal, temperature- (T) independent form. According to this, the differential conductance is approximately constant at small voltages (V < k
dc.identifier.doi10.1038/s41598-020-62313-3
dc.identifier.urihttps://dspace.kmitl.ac.th/handle/123456789/9294
dc.subjectAnomaly (physics)
dc.subjectBiasing
dc.subjectWeak localization
dc.subject.classificationGraphene research and applications
dc.titleUniversal scaling of weak localization in graphene due to bias-induced dispersion decoherence
dc.typeArticle

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