Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following Microsurgery

Background: Microvascular tissue transfer is a common reconstructive procedure. We designed a bioelectrical impedance assessment (BIA) system for quantitative analysis of tissue status. This study attempts to verify it through the animal model. Methods: The flaps of the rat model were monitored by t...

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Main Authors: Yao-Kuang Huang, Min Yi Wong, Chi-Rung Wu, Yung-Ze Cheng, Bor-Shyh Lin
Format: Article
Language:English
Published: MDPI AG 2021-05-01
Series:Journal of Personalized Medicine
Subjects:
Online Access:https://www.mdpi.com/2075-4426/11/5/373
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author Yao-Kuang Huang
Min Yi Wong
Chi-Rung Wu
Yung-Ze Cheng
Bor-Shyh Lin
author_facet Yao-Kuang Huang
Min Yi Wong
Chi-Rung Wu
Yung-Ze Cheng
Bor-Shyh Lin
author_sort Yao-Kuang Huang
collection DOAJ
description Background: Microvascular tissue transfer is a common reconstructive procedure. We designed a bioelectrical impedance assessment (BIA) system for quantitative analysis of tissue status. This study attempts to verify it through the animal model. Methods: The flaps of the rat model were monitored by the BIA system. Results: The BIA variation of the free flap in the rat after the vascular compromise was recorded. The non-vascular ligation limbs of the same rat served as a control group. The bio-impedance in the experimental group was larger than the control group. The bio-impedances of both the <b>thigh</b>/<b>feet</b> flaps in the experimental group were increased over time. In the <b>thigh</b>, the difference in bio-impedance from the control group was first detected at 10 kHz at the 3rd and last at 1 kHz at the 6th h, after vascular compromise. The same finding was observed in the <b>feet</b>. Compared with the control group, the bio-impedance ratio (1 kHz/20 kHz) of the experimental group decreased with time, while their variation tendencies in the thigh and feet were similar. Conclusions: The flap may be monitored by the BIA for vascular status.
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spelling doaj.art-eb457180f0a94c989779e1a9971a0b162023-11-21T18:18:57ZengMDPI AGJournal of Personalized Medicine2075-44262021-05-0111537310.3390/jpm11050373Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following MicrosurgeryYao-Kuang Huang0Min Yi Wong1Chi-Rung Wu2Yung-Ze Cheng3Bor-Shyh Lin4Division of Thoracic and Cardiovascular Surgery, Chia Yi Chang Gung Memorial Hospital, College of Medicine, Chia-Yi and Chang Gung University, Taoyuan 33302, TaiwanDivision of Thoracic and Cardiovascular Surgery, Chia Yi Chang Gung Memorial Hospital, College of Medicine, Chia-Yi and Chang Gung University, Taoyuan 33302, TaiwanInstitute of Imaging and Biomedical Photonics, National Yang Ming Chiao Tung University, Tainan 71150, TaiwanDepartment of Medical Research, Chi-Mei Medical Center, Tainan 71004, TaiwanInstitute of Imaging and Biomedical Photonics, National Yang Ming Chiao Tung University, Tainan 71150, TaiwanBackground: Microvascular tissue transfer is a common reconstructive procedure. We designed a bioelectrical impedance assessment (BIA) system for quantitative analysis of tissue status. This study attempts to verify it through the animal model. Methods: The flaps of the rat model were monitored by the BIA system. Results: The BIA variation of the free flap in the rat after the vascular compromise was recorded. The non-vascular ligation limbs of the same rat served as a control group. The bio-impedance in the experimental group was larger than the control group. The bio-impedances of both the <b>thigh</b>/<b>feet</b> flaps in the experimental group were increased over time. In the <b>thigh</b>, the difference in bio-impedance from the control group was first detected at 10 kHz at the 3rd and last at 1 kHz at the 6th h, after vascular compromise. The same finding was observed in the <b>feet</b>. Compared with the control group, the bio-impedance ratio (1 kHz/20 kHz) of the experimental group decreased with time, while their variation tendencies in the thigh and feet were similar. Conclusions: The flap may be monitored by the BIA for vascular status.https://www.mdpi.com/2075-4426/11/5/373flap graftingmicrosurgerybiosensorbioelectrical impedancerat
spellingShingle Yao-Kuang Huang
Min Yi Wong
Chi-Rung Wu
Yung-Ze Cheng
Bor-Shyh Lin
Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following Microsurgery
Journal of Personalized Medicine
flap grafting
microsurgery
biosensor
bioelectrical impedance
rat
title Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following Microsurgery
title_full Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following Microsurgery
title_fullStr Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following Microsurgery
title_full_unstemmed Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following Microsurgery
title_short Free Myocutaneous Flap Assessment in a Rat Model: Verification of a Wireless Bioelectrical Impedance Assessment (BIA) System for Vascular Compromise Following Microsurgery
title_sort free myocutaneous flap assessment in a rat model verification of a wireless bioelectrical impedance assessment bia system for vascular compromise following microsurgery
topic flap grafting
microsurgery
biosensor
bioelectrical impedance
rat
url https://www.mdpi.com/2075-4426/11/5/373
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