Biosensing-inspired Nanostructures:

Thesis advisor: Michael J. Naughton === Nanoscale biosensing devices improve and enable detection mechanisms by taking advantage of properties inherent to nanoscale structures. This thesis primarily describes the development, characterization and application of two such nanoscale structures. Namely,...

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Main Author: D'Imperio, Luke A.
Format: Others
Language:English
Published: Boston College 2019
Subjects:
Online Access:http://hdl.handle.net/2345/bc-ir:108627
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spelling ndltd-BOSTON-oai-dlib.bc.edu-bc-ir_1086272019-10-08T03:01:50Z Biosensing-inspired Nanostructures: D'Imperio, Luke A. Thesis advisor: Michael J. Naughton Text thesis 2019 Boston College English electronic application/pdf Nanoscale biosensing devices improve and enable detection mechanisms by taking advantage of properties inherent to nanoscale structures. This thesis primarily describes the development, characterization and application of two such nanoscale structures. Namely, these two biosensing devices discussed herein are (1) an extended-core coaxial nanogap electrode array, the ‘ECC’ and (2) a plasmonic resonance optical filter array, the ‘plasmonic halo’. For the former project, I discuss the materials and processing considerations that were involved in the making of the ECC device, including the nanoscale fabrication, experimental apparatuses, and the chemical and biological materials involved. I summarize the ECC sensitivity that was superior to those of conventional detection methods and proof-of-concept bio-functionalization of the sensing device. For the latter project, I discuss the path of designing a biosensing device based on the plasmonic properties observed in the plasmonic halo, including the plasmonic structures, materials, fabrication, experimental equipment, and the biological materials and protocols. Nanostructures Copyright is held by the author, with all rights reserved, unless otherwise noted. Thesis (PhD) — Boston College, 2019. Submitted to: Boston College. Graduate School of Arts and Sciences. Discipline: Physics. Extended-core coaxial nanogap electrode array Plasmonic resonance optical filter array http://hdl.handle.net/2345/bc-ir:108627
collection NDLTD
language English
format Others
sources NDLTD
topic Nanostructures
Extended-core coaxial nanogap electrode array
Plasmonic resonance optical filter array
spellingShingle Nanostructures
Extended-core coaxial nanogap electrode array
Plasmonic resonance optical filter array
D'Imperio, Luke A.
Biosensing-inspired Nanostructures:
description Thesis advisor: Michael J. Naughton === Nanoscale biosensing devices improve and enable detection mechanisms by taking advantage of properties inherent to nanoscale structures. This thesis primarily describes the development, characterization and application of two such nanoscale structures. Namely, these two biosensing devices discussed herein are (1) an extended-core coaxial nanogap electrode array, the ‘ECC’ and (2) a plasmonic resonance optical filter array, the ‘plasmonic halo’. For the former project, I discuss the materials and processing considerations that were involved in the making of the ECC device, including the nanoscale fabrication, experimental apparatuses, and the chemical and biological materials involved. I summarize the ECC sensitivity that was superior to those of conventional detection methods and proof-of-concept bio-functionalization of the sensing device. For the latter project, I discuss the path of designing a biosensing device based on the plasmonic properties observed in the plasmonic halo, including the plasmonic structures, materials, fabrication, experimental equipment, and the biological materials and protocols. === Thesis (PhD) — Boston College, 2019. === Submitted to: Boston College. Graduate School of Arts and Sciences. === Discipline: Physics.
author D'Imperio, Luke A.
author_facet D'Imperio, Luke A.
author_sort D'Imperio, Luke A.
title Biosensing-inspired Nanostructures:
title_short Biosensing-inspired Nanostructures:
title_full Biosensing-inspired Nanostructures:
title_fullStr Biosensing-inspired Nanostructures:
title_full_unstemmed Biosensing-inspired Nanostructures:
title_sort biosensing-inspired nanostructures:
publisher Boston College
publishDate 2019
url http://hdl.handle.net/2345/bc-ir:108627
work_keys_str_mv AT dimperiolukea biosensinginspirednanostructures
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