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Nanocarbon-Scanning Probe Microscopy Synergy: Fundamental Aspects to Nanoscale Devices

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dc.contributor.author Kurra, Narendra
dc.contributor.author Reifenberger, Ronald G.
dc.contributor.author Kulkarni, G. U.
dc.date.accessioned 2017-02-21T06:59:33Z
dc.date.available 2017-02-21T06:59:33Z
dc.date.issued 2014
dc.identifier.citation Kurra, N; Reifenberger, RG; Kulkarni, GU, Nanocarbon-Scanning Probe Microscopy Synergy: Fundamental Aspects to Nanoscale Devices. ACS Applied Materials & Interfaces 2014, 6 (9) 6147-6163, http://dx.doi.org/10.1021/am500122g en_US
dc.identifier.citation ACS Applied Materials & Interfaces en_US
dc.identifier.citation 6 en_US
dc.identifier.citation 9 en_US
dc.identifier.issn 1944-8244
dc.identifier.uri https://libjncir.jncasr.ac.in/xmlui/10572/2377
dc.description Restricted Access en_US
dc.description.abstract Scanning probe techniques scanning tunneling microscopy (STM) and atomic force microscopy (AFM) have emerged as unique local probes for imaging, manipulation, and modification of surfaces at the nanoscale. Exercising the fabrication of atomic and nansocale devices with desired properties have demanded rapid development of scanning probe based nanolithographies. Dip pen nanolithography (DPN) and local anodic oxidation (LAO) have been widely employed for fabricating functional patterns and prototype devices at nanoscale. This review discusses the progress in AFM bias lithography with focus on nanocarbon species on which many functional quantum device structures have been realized using local electrochemical and electrostatic processes. As water meniscus is central to AFM bias lithography, the meniscus formation, estimation and visualization is discussed briefly. A number of graphene-based nanodevices have been realized on the basis AFM bias lithography in the form of nanoribbons, nanorings and quantum dots with sufficiently small dimensions to show quantum phenomena such as conductance fluctuations. Several studies involving graphitic surfaces and carbon nanotubes are also covered. AFM based scratching technique is another promising approach for the fabrication of nanogap electrodes, important in molecular electronics. en_US
dc.description.uri http://dx.doi.org/10.1021/am500122g en_US
dc.language.iso English en_US
dc.publisher American Chemical Society en_US
dc.rights @American Chemical Society, 2014 en_US
dc.subject Nanoscience & Nanotechnology en_US
dc.subject Materials Science en_US
dc.subject Nanocarbon en_US
dc.subject Graphene en_US
dc.subject Bias Lithography en_US
dc.subject Scanning Probe en_US
dc.subject Electrochemical en_US
dc.subject Quantum Devices en_US
dc.subject Atomic-Force Microscopy en_US
dc.subject Dip-Pen Nanolithography en_US
dc.subject Field-Effect Transistors en_US
dc.subject Tunneling Microscope en_US
dc.subject Nanometer-Scale en_US
dc.subject Carbon Nanotubes en_US
dc.subject Graphene Nanoribbons en_US
dc.subject Electron-Microscopy en_US
dc.subject Ambient Conditions en_US
dc.subject Silicon Surfaces en_US
dc.title Nanocarbon-Scanning Probe Microscopy Synergy: Fundamental Aspects to Nanoscale Devices en_US
dc.type Article en_US


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