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Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model

Mammography is the gold standard technology for breast screening, which has been demonstrated through different randomized controlled trials to reduce breast cancer mortality. However, mammography has limitations and potential harms, such as the use of ionizing radiation. To overcome the ionizing ra...

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Autores principales: Rana, Soumya Prakash, Dey, Maitreyee, Loretoni, Riccardo, Duranti, Michele, Ghavami, Mohammad, Dudley, Sandra, Tiberi, Gianluigi
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9844448/
https://www.ncbi.nlm.nih.gov/pubmed/36648997
http://dx.doi.org/10.3390/tomography9010010
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author Rana, Soumya Prakash
Dey, Maitreyee
Loretoni, Riccardo
Duranti, Michele
Ghavami, Mohammad
Dudley, Sandra
Tiberi, Gianluigi
author_facet Rana, Soumya Prakash
Dey, Maitreyee
Loretoni, Riccardo
Duranti, Michele
Ghavami, Mohammad
Dudley, Sandra
Tiberi, Gianluigi
author_sort Rana, Soumya Prakash
collection PubMed
description Mammography is the gold standard technology for breast screening, which has been demonstrated through different randomized controlled trials to reduce breast cancer mortality. However, mammography has limitations and potential harms, such as the use of ionizing radiation. To overcome the ionizing radiation exposure issues, a novel device (i.e. MammoWave) based on low-power radio-frequency signals has been developed for breast lesion detection. The MammoWave is a microwave device and is under clinical validation phase in several hospitals across Europe. The device transmits non-invasive microwave signals through the breast and accumulates the backscattered (returned) signatures, commonly denoted as the [Formula: see text] signals in engineering terminology. Backscattered (complex) [Formula: see text] signals exploit the contrast in dielectric properties of breasts with and without lesions. The proposed research is aimed to automatically segregate these two types of signal responses by applying appropriate supervised machine learning (ML) algorithm for the data emerging from this research. The support vector machine with radial basis function has been employed here. The proposed algorithm has been trained and tested using microwave breast response data collected at one of the clinical validation centres. Statistical evaluation indicates that the proposed ML model can recognise the MammoWave breasts signal with no radiological finding (NF) and with radiological findings (WF), i.e., may be the presence of benign or malignant lesions. A sensitivity of 84.40% and a specificity of 95.50% have been achieved in NF/WF recognition using the proposed ML model.
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spelling pubmed-98444482023-01-18 Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model Rana, Soumya Prakash Dey, Maitreyee Loretoni, Riccardo Duranti, Michele Ghavami, Mohammad Dudley, Sandra Tiberi, Gianluigi Tomography Article Mammography is the gold standard technology for breast screening, which has been demonstrated through different randomized controlled trials to reduce breast cancer mortality. However, mammography has limitations and potential harms, such as the use of ionizing radiation. To overcome the ionizing radiation exposure issues, a novel device (i.e. MammoWave) based on low-power radio-frequency signals has been developed for breast lesion detection. The MammoWave is a microwave device and is under clinical validation phase in several hospitals across Europe. The device transmits non-invasive microwave signals through the breast and accumulates the backscattered (returned) signatures, commonly denoted as the [Formula: see text] signals in engineering terminology. Backscattered (complex) [Formula: see text] signals exploit the contrast in dielectric properties of breasts with and without lesions. The proposed research is aimed to automatically segregate these two types of signal responses by applying appropriate supervised machine learning (ML) algorithm for the data emerging from this research. The support vector machine with radial basis function has been employed here. The proposed algorithm has been trained and tested using microwave breast response data collected at one of the clinical validation centres. Statistical evaluation indicates that the proposed ML model can recognise the MammoWave breasts signal with no radiological finding (NF) and with radiological findings (WF), i.e., may be the presence of benign or malignant lesions. A sensitivity of 84.40% and a specificity of 95.50% have been achieved in NF/WF recognition using the proposed ML model. MDPI 2023-01-12 /pmc/articles/PMC9844448/ /pubmed/36648997 http://dx.doi.org/10.3390/tomography9010010 Text en © 2023 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Rana, Soumya Prakash
Dey, Maitreyee
Loretoni, Riccardo
Duranti, Michele
Ghavami, Mohammad
Dudley, Sandra
Tiberi, Gianluigi
Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model
title Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model
title_full Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model
title_fullStr Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model
title_full_unstemmed Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model
title_short Radiation-Free Microwave Technology for Breast Lesion Detection Using Supervised Machine Learning Model
title_sort radiation-free microwave technology for breast lesion detection using supervised machine learning model
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9844448/
https://www.ncbi.nlm.nih.gov/pubmed/36648997
http://dx.doi.org/10.3390/tomography9010010
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