Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct Monitor

Summary:. Remote monitoring capability does not currently exist for Periflux (Perimed AB, Järfälla, Sweden) laser Doppler and other perfusion monitors. Two simple adaptations using free apps (applications) and smart devices can enable transmission of the perfusion readout to the surgeon's smart...

Full description

Bibliographic Details
Main Author: James C. Yuen, MD
Format: Article
Language:English
Published: Wolters Kluwer 2017-09-01
Series:Plastic and Reconstructive Surgery, Global Open
Online Access:http://journals.lww.com/prsgo/fulltext/10.1097/GOX.0000000000001507
id doaj-cf52d26fde834217a733777b70a59cdd
record_format Article
spelling doaj-cf52d26fde834217a733777b70a59cdd2020-11-24T22:29:16ZengWolters KluwerPlastic and Reconstructive Surgery, Global Open2169-75742017-09-0159e150710.1097/GOX.0000000000001507201709000-00029Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct MonitorJames C. Yuen, MD0From the Division of Surgical Oncology, Banner MD Anderson Cancer Center, Gilbert, Ariz.Summary:. Remote monitoring capability does not currently exist for Periflux (Perimed AB, Järfälla, Sweden) laser Doppler and other perfusion monitors. Two simple adaptations using free apps (applications) and smart devices can enable transmission of the perfusion readout to the surgeon's smartphone. A literature review was conducted to identify reports relating to remote free flap monitoring. In addition, 2 wireless methodologies are devised: One method uses a free app that converts a smart device into a camera, stationed next to the perfusion monitor, to stream live video of the laser Doppler readout to the surgeon's smartphone; a second method uses a free app installed on a bedside laptop computer, which is connected to the laser Doppler flowmeter via a data cord. A live feed of the computer's desktop as a teleconference host is transmitted to the surgeon's smart device over the Internet. These 2 methodologies were employed on 9 and 8 free flaps, respectively, as a pilot study. All free flaps were monitored remotely for 4–6 days with near 100% reliability. The Internet connectivity became disrupted only on several occasions, requiring simple Wi-Fi and software reset. Minor mechanical issues were encountered with the video streaming method. Literature review identified very few articles describing remote monitoring of free flaps. The 2 methodologies reported here provided reliable continuous transmission of quantitative data of flap perfusion to smart devices via Internet connection, which can revolutionize the microsurgeon's practice if his/her adjunctive perfusion monitor with display does not yet have Wi-Fi capability.http://journals.lww.com/prsgo/fulltext/10.1097/GOX.0000000000001507
collection DOAJ
language English
format Article
sources DOAJ
author James C. Yuen, MD
spellingShingle James C. Yuen, MD
Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct Monitor
Plastic and Reconstructive Surgery, Global Open
author_facet James C. Yuen, MD
author_sort James C. Yuen, MD
title Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct Monitor
title_short Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct Monitor
title_full Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct Monitor
title_fullStr Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct Monitor
title_full_unstemmed Enabling Remote Monitoring Using Free Apps and Smart Devices for a Free-Flap Adjunct Monitor
title_sort enabling remote monitoring using free apps and smart devices for a free-flap adjunct monitor
publisher Wolters Kluwer
series Plastic and Reconstructive Surgery, Global Open
issn 2169-7574
publishDate 2017-09-01
description Summary:. Remote monitoring capability does not currently exist for Periflux (Perimed AB, Järfälla, Sweden) laser Doppler and other perfusion monitors. Two simple adaptations using free apps (applications) and smart devices can enable transmission of the perfusion readout to the surgeon's smartphone. A literature review was conducted to identify reports relating to remote free flap monitoring. In addition, 2 wireless methodologies are devised: One method uses a free app that converts a smart device into a camera, stationed next to the perfusion monitor, to stream live video of the laser Doppler readout to the surgeon's smartphone; a second method uses a free app installed on a bedside laptop computer, which is connected to the laser Doppler flowmeter via a data cord. A live feed of the computer's desktop as a teleconference host is transmitted to the surgeon's smart device over the Internet. These 2 methodologies were employed on 9 and 8 free flaps, respectively, as a pilot study. All free flaps were monitored remotely for 4–6 days with near 100% reliability. The Internet connectivity became disrupted only on several occasions, requiring simple Wi-Fi and software reset. Minor mechanical issues were encountered with the video streaming method. Literature review identified very few articles describing remote monitoring of free flaps. The 2 methodologies reported here provided reliable continuous transmission of quantitative data of flap perfusion to smart devices via Internet connection, which can revolutionize the microsurgeon's practice if his/her adjunctive perfusion monitor with display does not yet have Wi-Fi capability.
url http://journals.lww.com/prsgo/fulltext/10.1097/GOX.0000000000001507
work_keys_str_mv AT jamescyuenmd enablingremotemonitoringusingfreeappsandsmartdevicesforafreeflapadjunctmonitor
_version_ 1725744200551497728