AbstractCarbon-based materials have generated a wealth of interest in recent years, both on the fundamental side as well as on the technological side. The lecture will provide a broad insight into nanoscale carbon-based materials, from their fundamental opto-electronic properties to their implementation in practical devices. We will first discuss the electronic properties of carbon-based materials, focusing on low-dimensionality systems, starting from short molecules that can be seen as 0D quantum dots, to graphene, a 2D material with remarkable mechanical, electrical and optical properties. The experimental techniques to fabricate and electronically characterize such systems will then be addressed and their electronic transport properties discussed. Finally, we will extend the discussion to practical devices such as ion-sensing field-effect transistors.
Introduction. Carbon from 0D to 3D.
Condensed matter physics reminder and fundamental properties of electronic systems.
Molecular junctions: formation mechanisms, transport, spectroscopy, data analysis and insights from theory.
Graphene for electronics: electrodes, junctions, nanoribbons, quantum interference effects & thermal transport.
Molecule assemblies: imaging, contacting, from junction to function
Nanoscale devices for neuromorphic computing.
Nanoscale devices for sensing.
Mini-workshop: Talks by students (15′ talk + 5′ discussion).