A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells

Thermoablation of cancerous cells using probe-based strategies has received a lot of attention because it provides a localised minimally invasive strategy that minimizes injuries to collateral tissues. Although radiofrequency ablation is the most widely used probe-based method, skin injuries at the...

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Main Authors: Kwabena Kan-Dapaah, Bernard Owusu Asimeng, Samuel Kojo Kwofie, Abu Yaya
Format: Article
Language:English
Published: Taylor & Francis Group 2017-01-01
Series:Cogent Engineering
Subjects:
Online Access:http://dx.doi.org/10.1080/23311916.2017.1331966
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spelling doaj-73e6ac6f2f4144dd954101dd80753c4a2021-03-02T14:23:45ZengTaylor & Francis GroupCogent Engineering2331-19162017-01-014110.1080/23311916.2017.13319661331966A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cellsKwabena Kan-Dapaah0Bernard Owusu Asimeng1Samuel Kojo Kwofie2Abu Yaya3University of GhanaUniversity of GhanaUniversity of GhanaUniversity of GhanaThermoablation of cancerous cells using probe-based strategies has received a lot of attention because it provides a localised minimally invasive strategy that minimizes injuries to collateral tissues. Although radiofrequency ablation is the most widely used probe-based method, skin injuries at the site of the grounding pad are a major complication that limits its efficacy. This paper presents a novel plasmonic photo-thermal probe that has the potential to achieve reasonable lesion sizes without skin burns. First, the concept and its embodiment are presented. Then, its performance is investigated using a 3-D finite-element method (FEM) model. The FEM model was tested for its validity using an analytical model. Lesions are shown to have an ellipsoidal shape and their sizes controlled by the length of the active tip of the probe. The comparison with the analytical model showed reasonably good agreement to within 2%. Our predictions demonstrate the feasibility of our novel probe to achieve reasonable lesion sizes as well as show that generated heat is localised.http://dx.doi.org/10.1080/23311916.2017.1331966thermoablationbreast cancergold nanoparticlesplasmonic nanocomposite
collection DOAJ
language English
format Article
sources DOAJ
author Kwabena Kan-Dapaah
Bernard Owusu Asimeng
Samuel Kojo Kwofie
Abu Yaya
spellingShingle Kwabena Kan-Dapaah
Bernard Owusu Asimeng
Samuel Kojo Kwofie
Abu Yaya
A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells
Cogent Engineering
thermoablation
breast cancer
gold nanoparticles
plasmonic nanocomposite
author_facet Kwabena Kan-Dapaah
Bernard Owusu Asimeng
Samuel Kojo Kwofie
Abu Yaya
author_sort Kwabena Kan-Dapaah
title A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells
title_short A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells
title_full A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells
title_fullStr A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells
title_full_unstemmed A plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells
title_sort plasmonic photo-thermal probe for thermoablation of post-operative breast cancer cells
publisher Taylor & Francis Group
series Cogent Engineering
issn 2331-1916
publishDate 2017-01-01
description Thermoablation of cancerous cells using probe-based strategies has received a lot of attention because it provides a localised minimally invasive strategy that minimizes injuries to collateral tissues. Although radiofrequency ablation is the most widely used probe-based method, skin injuries at the site of the grounding pad are a major complication that limits its efficacy. This paper presents a novel plasmonic photo-thermal probe that has the potential to achieve reasonable lesion sizes without skin burns. First, the concept and its embodiment are presented. Then, its performance is investigated using a 3-D finite-element method (FEM) model. The FEM model was tested for its validity using an analytical model. Lesions are shown to have an ellipsoidal shape and their sizes controlled by the length of the active tip of the probe. The comparison with the analytical model showed reasonably good agreement to within 2%. Our predictions demonstrate the feasibility of our novel probe to achieve reasonable lesion sizes as well as show that generated heat is localised.
topic thermoablation
breast cancer
gold nanoparticles
plasmonic nanocomposite
url http://dx.doi.org/10.1080/23311916.2017.1331966
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