VDI Vision - Analysis of Ventricular Electrical Dyssynchrony in Real-Time

F. Plesinger, I. Viscor, V. Vondra, J. Halámek, Zuzana Koscova, P. Leinveber, K. Čurila, P. Jurák
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引用次数: 1

Abstract

Background: Ventricular electrical dyssynchrony can be examined using ultra-high-frequency (UHF-ECG) analysis. Furthermore, UHF-ECG analysis would allow direct optimization of pacing therapy. Here we introduce VDI vision (Ventricular Dyssynchrony Imaging), a desktop application for the real-time processing of UHF-ECG recordings. Method: Incoming ECG data (5kHz, 26 bits, 24 channels) are processed as follows: QRS detection, pacemaker stimuli elimination, QRS clustering, amplitude envelopes in nine frequency bands, and final combination into the Ventricular Depolarization (VD) map. The VD map is updated whenever a new QRS is detected. Results: We developed the VDI vision using the. NET platform. Until the end of March 2021, the VDI monitor was used to analyze 773 and 4,849 recordings at ICRC-FNUSA hospital (Brno, Czechia) and FNKV hospital (Prague, Czechia), respectively. The median length for ICRC-FNUSA recordings was 124 (IQR 121–139) seconds. The median length for recordings at FNKV hospital was 157 seconds (IQR 127–200). Conclusion: The VDI vision delivers information about electrical ventricular dyssynchrony in real-time. The instant analysis allows using the software during implant procedures for optimizing electrode placement and pacing. The presented real-time solution also significantly minimized measurement duration.
VDI视觉-心室电不同步的实时分析
背景:室性电非同步化可以通过超高频(UHF-ECG)分析来检测。此外,超高频心电图分析可以直接优化起搏治疗。在这里,我们介绍VDI视觉(心室非同步成像),一个桌面应用程序,用于实时处理超高频心电图记录。方法:对输入的5kHz, 26位,24通道的心电数据进行以下处理:QRS检测,起搏器刺激消除,QRS聚类,9个频段的幅值包络,最后合并成心室去极化(VD)图。每当检测到新的QRS时,VD地图就会更新。结果:我们开发了VDI视觉。网络平台。截至2021年3月底,VDI监测器分别用于分析红十字国际委员会-南斯拉夫联盟医院(捷克布尔诺)和南斯拉夫联盟医院(捷克布拉格)的773条和4,849条录音。ICRC-FNUSA记录的中位长度为124 (IQR 121-139)秒。FNKV医院记录的中位长度为157秒(IQR 127-200)。结论:VDI视觉可实时提供室性电非同步化信息。即时分析允许在植入过程中使用软件优化电极放置和起搏。所提出的实时解决方案还显着缩短了测量时间。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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