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author Qu, Yuan
Hu, Peng
Shi, Junhui
Maslov, Konstantin
Zhao, Peinan
Li, Chiye
Ma, Jun
Garcia-Uribe, Alejandro
Meyers, Karen
Diveley, Emily
Pizzella, Stephanie
Muench, Lisa
Punyamurthy, Nina
Goldstein, Naomi
Onwumere, Oji
Alisio, Mariana
Meyenburg, Kaytelyn
Maynard, Jennifer
Helm, Kristi
Altieri, Emma
Slaughter, Janessia
Barber, Sabrina
Burger, Tracy
Kramer, Christine
Chubiz, Jessica
Anderson, Monica
McCarthy, Ronald
England, Sarah K.
Macones, George A.
Stout, Molly J.
Tuuli, Methodius
Wang, Lihong V.
author_facet Qu, Yuan
Hu, Peng
Shi, Junhui
Maslov, Konstantin
Zhao, Peinan
Li, Chiye
Ma, Jun
Garcia-Uribe, Alejandro
Meyers, Karen
Diveley, Emily
Pizzella, Stephanie
Muench, Lisa
Punyamurthy, Nina
Goldstein, Naomi
Onwumere, Oji
Alisio, Mariana
Meyenburg, Kaytelyn
Maynard, Jennifer
Helm, Kristi
Altieri, Emma
Slaughter, Janessia
Barber, Sabrina
Burger, Tracy
Kramer, Christine
Chubiz, Jessica
Anderson, Monica
McCarthy, Ronald
England, Sarah K.
Macones, George A.
Stout, Molly J.
Tuuli, Methodius
Wang, Lihong V.
author_sort Qu, Yuan
collection PubMed
description Premature cervical remodeling is a critical precursor of spontaneous preterm birth, and the remodeling process is characterized by an increase in tissue hydration. Nevertheless, current clinical measurements of cervical remodeling are subjective and detect only late events, such as cervical effacement and dilation. Here, we present a photoacoustic endoscope that can quantify tissue hydration by measuring near-infrared cervical spectra. We quantify the water contents of tissue-mimicking hydrogel phantoms as an analog of cervical connective tissue. Applying this method to pregnant women in vivo, we observed an increase in the water content of the cervix throughout pregnancy. The application of this technique in maternal healthcare may advance our understanding of cervical remodeling and provide a sensitive method for predicting preterm birth.
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spelling pubmed-63188102019-12-05 In vivo characterization of connective tissue remodeling using infrared photoacoustic spectra Qu, Yuan Hu, Peng Shi, Junhui Maslov, Konstantin Zhao, Peinan Li, Chiye Ma, Jun Garcia-Uribe, Alejandro Meyers, Karen Diveley, Emily Pizzella, Stephanie Muench, Lisa Punyamurthy, Nina Goldstein, Naomi Onwumere, Oji Alisio, Mariana Meyenburg, Kaytelyn Maynard, Jennifer Helm, Kristi Altieri, Emma Slaughter, Janessia Barber, Sabrina Burger, Tracy Kramer, Christine Chubiz, Jessica Anderson, Monica McCarthy, Ronald England, Sarah K. Macones, George A. Stout, Molly J. Tuuli, Methodius Wang, Lihong V. J Biomed Opt Special Section on Laser-Tissue Interaction and Optical Properties of Biological Tissues: Honoring Prof. Steven Jacques, a Pioneer in Biomedical Optics Premature cervical remodeling is a critical precursor of spontaneous preterm birth, and the remodeling process is characterized by an increase in tissue hydration. Nevertheless, current clinical measurements of cervical remodeling are subjective and detect only late events, such as cervical effacement and dilation. Here, we present a photoacoustic endoscope that can quantify tissue hydration by measuring near-infrared cervical spectra. We quantify the water contents of tissue-mimicking hydrogel phantoms as an analog of cervical connective tissue. Applying this method to pregnant women in vivo, we observed an increase in the water content of the cervix throughout pregnancy. The application of this technique in maternal healthcare may advance our understanding of cervical remodeling and provide a sensitive method for predicting preterm birth. Society of Photo-Optical Instrumentation Engineers 2018-12-05 2018-12 /pmc/articles/PMC6318810/ /pubmed/30520275 http://dx.doi.org/10.1117/1.JBO.23.12.121621 Text en © The Authors. https://creativecommons.org/licenses/by/3.0/ Published by SPIE under a Creative Commons Attribution 3.0 Unported License. Distribution or reproduction of this work in whole or in part requires full attribution of the original publication, including its DOI.
spellingShingle Special Section on Laser-Tissue Interaction and Optical Properties of Biological Tissues: Honoring Prof. Steven Jacques, a Pioneer in Biomedical Optics
Qu, Yuan
Hu, Peng
Shi, Junhui
Maslov, Konstantin
Zhao, Peinan
Li, Chiye
Ma, Jun
Garcia-Uribe, Alejandro
Meyers, Karen
Diveley, Emily
Pizzella, Stephanie
Muench, Lisa
Punyamurthy, Nina
Goldstein, Naomi
Onwumere, Oji
Alisio, Mariana
Meyenburg, Kaytelyn
Maynard, Jennifer
Helm, Kristi
Altieri, Emma
Slaughter, Janessia
Barber, Sabrina
Burger, Tracy
Kramer, Christine
Chubiz, Jessica
Anderson, Monica
McCarthy, Ronald
England, Sarah K.
Macones, George A.
Stout, Molly J.
Tuuli, Methodius
Wang, Lihong V.
In vivo characterization of connective tissue remodeling using infrared photoacoustic spectra
title In vivo characterization of connective tissue remodeling using infrared photoacoustic spectra
title_full In vivo characterization of connective tissue remodeling using infrared photoacoustic spectra
title_fullStr In vivo characterization of connective tissue remodeling using infrared photoacoustic spectra
title_full_unstemmed In vivo characterization of connective tissue remodeling using infrared photoacoustic spectra
title_short In vivo characterization of connective tissue remodeling using infrared photoacoustic spectra
title_sort in vivo characterization of connective tissue remodeling using infrared photoacoustic spectra
topic Special Section on Laser-Tissue Interaction and Optical Properties of Biological Tissues: Honoring Prof. Steven Jacques, a Pioneer in Biomedical Optics
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC6318810/
https://www.ncbi.nlm.nih.gov/pubmed/30520275
http://dx.doi.org/10.1117/1.JBO.23.12.121621
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