Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)

The objective of the Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG) project is to create atomically precise structures made of silicon and phosphorus atoms embedded in the lattice of graphene. This will be achieved by combining proven modeling techniques with sample fabricati...

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Main Author: Toma Susi
Format: Article
Language:English
Published: Pensoft Publishers 2015-12-01
Series:Research Ideas and Outcomes
Subjects:
Online Access:https://riojournal.com/article/7479/
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spelling doaj-16117710bc0e4d79b8faad4b50c036882020-11-25T01:35:48ZengPensoft PublishersResearch Ideas and Outcomes2367-71632015-12-01112310.3897/rio.1.e74797479Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)Toma Susi0University of Vienna The objective of the Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG) project is to create atomically precise structures made of silicon and phosphorus atoms embedded in the lattice of graphene. This will be achieved by combining proven modeling techniques with sample fabrication via carefully controlled ion implantation, and subsequent manipulation in an atomic resolution scanning transmission electron microscope (STEM). The structures will be computationally designed for interesting nanoplasmonic enhancement and quantum confinement properties, and characterized by electron energy loss spectroscopy mapping in the STEM. The expected outcome is a systematic demonstration of truly atomic-level material design and the creation of freestanding “quantum corral” structures for the first time. The controlled manipulation of matter on the atomic scale has been a long-standing dream of nanotechnology. Pioneering directions towards have already been explored, chiefly with the help of scanning tunneling microscopy. However, compared to the manipulation of surface atoms, graphene heteroatoms have the advantage of being stable at room temperature and even if the sample is taken out of the instrument. Furthermore, the coupling of light to nanostructures via plasmon resonances is an intensively pursued and promising research field, which is awaiting breakthroughs in material design before the field can live up to its expected potential. https://riojournal.com/article/7479/atomic manipulationscanning transmission elec
collection DOAJ
language English
format Article
sources DOAJ
author Toma Susi
spellingShingle Toma Susi
Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)
Research Ideas and Outcomes
atomic manipulation
scanning transmission elec
author_facet Toma Susi
author_sort Toma Susi
title Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)
title_short Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)
title_full Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)
title_fullStr Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)
title_full_unstemmed Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG)
title_sort heteroatom quantum corrals and nanoplasmonics in graphene (hequcog)
publisher Pensoft Publishers
series Research Ideas and Outcomes
issn 2367-7163
publishDate 2015-12-01
description The objective of the Heteroatom quantum corrals and nanoplasmonics in graphene (HeQuCoG) project is to create atomically precise structures made of silicon and phosphorus atoms embedded in the lattice of graphene. This will be achieved by combining proven modeling techniques with sample fabrication via carefully controlled ion implantation, and subsequent manipulation in an atomic resolution scanning transmission electron microscope (STEM). The structures will be computationally designed for interesting nanoplasmonic enhancement and quantum confinement properties, and characterized by electron energy loss spectroscopy mapping in the STEM. The expected outcome is a systematic demonstration of truly atomic-level material design and the creation of freestanding “quantum corral” structures for the first time. The controlled manipulation of matter on the atomic scale has been a long-standing dream of nanotechnology. Pioneering directions towards have already been explored, chiefly with the help of scanning tunneling microscopy. However, compared to the manipulation of surface atoms, graphene heteroatoms have the advantage of being stable at room temperature and even if the sample is taken out of the instrument. Furthermore, the coupling of light to nanostructures via plasmon resonances is an intensively pursued and promising research field, which is awaiting breakthroughs in material design before the field can live up to its expected potential.
topic atomic manipulation
scanning transmission elec
url https://riojournal.com/article/7479/
work_keys_str_mv AT tomasusi heteroatomquantumcorralsandnanoplasmonicsingraphenehequcog
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