Rachel Hillner, Luke Perry, Natalie Hill, Aditya V Badheka, Venkat Keshav Chivukula
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We developed specialized metrics to identify relative smoothness between successive peaks, time between peaks and overall smoothness indicators to quantify and compare between multiple cases.</p><p><strong>Results: </strong>Our results demonstrate that EMMA can successfully identify the motion and wrinkles on each video frame and quantify the smoothness and identify the phases of each cardiac cycle. Moreover, EMMA can obtain the smoothness of each frame and the temporal evolution of membrane smoothness across all image frames for the video sequence.</p><p><strong>Conclusions: </strong>EMMA allows for a fast, accurate, quantitative assessment to be completed and reduces user error. 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引用次数: 0
摘要
背景:小儿心力衰竭死亡率高,是当前的临床负担。目前只有一种经 FDA 批准的小儿 VAD(柏林心脏 EXCOR)可用于治疗。血栓栓塞并发症是一项重大的临床挑战,可导致中风等破坏性并发症,并损害 EXCOR 的有效功能。目前,临床医生主要通过观察快速移动的膜的运动来定期对 EXCOR 的运行情况进行定性评估,这很容易造成人为错误,并可能导致遗漏关键信息:在这项研究中,我们设计并实施了一种定量预警系统,用于对 EXCOR 膜进行准确的定量评估,该系统被命名为 EXCOR 膜运动分析仪(EMMA)。我们结合使用图像分析、计算机视觉和定制设计的算法,对 EXCOR 膜视频数据进行严格的逐帧分析。我们开发了专门的指标来识别连续峰值之间的相对平滑度、峰值之间的时间和整体平滑度指标,以量化和比较多个案例:我们的结果表明,EMMA 可以成功识别每个视频帧上的运动和皱纹,并量化平滑度和识别每个心动周期的阶段。此外,EMMA 还能获得视频序列中每个帧的平滑度以及所有图像帧中膜平滑度的时间演变:结论:EMMA 可以快速、准确地完成定量评估,并减少用户误差。这使得 EMMA 能够有效地用作快速识别设备异常的预警系统。
EXCOR membrane motion analyzer (EMMA) to quantify and assess hemodynamic performance of the EXCOR pediatric heart assist device.
Background: Pediatric heart failure is associated with high mortality rates and is a current clinical burden. There is only one FDA approved pediatric VAD, Berlin Heart EXCOR, for treatment. Thrombo-embolic complications are a significant clinical challenge, which can lead to devastating complications such as stroke and impair efficient EXCOR function. Currently, clinicians perform largely qualitative periodic assessment of EXCOR operation by observing the motion of a rapidly moving membrane, which can be prone to human error and can lead to missing out on crucial information.
Methods: In this study, we design and implement a quantitative early warning system for accurate and quantitative assessment of the EXCOR membrane, named EXCOR Membrane Motion Analyzer (EMMA). Using a combination of image analysis, computer vision and custom designed algorithm, we perform rigorous frame by frame analysis of EXCOR membrane video data. We developed specialized metrics to identify relative smoothness between successive peaks, time between peaks and overall smoothness indicators to quantify and compare between multiple cases.
Results: Our results demonstrate that EMMA can successfully identify the motion and wrinkles on each video frame and quantify the smoothness and identify the phases of each cardiac cycle. Moreover, EMMA can obtain the smoothness of each frame and the temporal evolution of membrane smoothness across all image frames for the video sequence.
Conclusions: EMMA allows for a fast, accurate, quantitative assessment to be completed and reduces user error. This enables EMMA to be used effectively as an early warning system to rapidly identify device abnormalities.
期刊介绍:
Perfusion is an ISI-ranked, peer-reviewed scholarly journal, which provides current information on all aspects of perfusion, oxygenation and biocompatibility and their use in modern cardiac surgery. The journal is at the forefront of international research and development and presents an appropriately multidisciplinary approach to perfusion science.