MRNet - A Deep Learning Based Multitasking Model for Respiration Rate Estimation in Practical Settings

K. Rathore, V. Sricharan, S. Preejith, M. Sivaprakasam
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引用次数: 1

Abstract

The explosion of unobtrusive wearable technology has made seamless data aggregation possible, ultimately improving preventive care and diagnosis. Amidst all these burgeoning data points, the respiratory rate remains a crucial descriptor of health, well-being, and performance. While the traditional modes of measurement are accurate, they remain impractical for long-term respiratory rate measurement in an ambulatory setting. Interestingly, respiratory rate can be estimated from physiological signals like Electrocardiogram, Photoplethysmogram, and accelerometer waveforms. While respiration rate estimation from these methods is accurate when the subject is at rest, the estimation is thrown off by motion artifacts and a relatively poor signal-to-noise ratio during ambulatory movement. Addressing this issue, this work presents a novel Deep Learning-based multitasking network that jointly predicts both respiratory rate and the respiratory waveform, thus aiding in an overall reduction in error scores during various activities, including walking, running, etc. Apart from comparisons against the previous state-of-the-art approaches, this work thoroughly discusses the practical aspects of adopting a Deep Learning approach during inference and briefly alludes to the tradeoff between time complexity, parameter counts, and accuracy. While the proposed approach improved overall estimation accuracy, it inevitably requires more parameters and runtime than a traditional approach.
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MRNet -一种基于深度学习的多任务模型,用于实际设置中的呼吸速率估计
不引人注目的可穿戴技术的爆炸式增长使无缝数据聚合成为可能,最终改善了预防保健和诊断。在所有这些迅速增长的数据点中,呼吸频率仍然是健康、幸福和表现的关键描述符。虽然传统的测量模式是准确的,他们仍然不切实际的长期呼吸率测量在动态设置。有趣的是,呼吸频率可以通过生理信号如心电图、光电容积图和加速度计波形来估计。当受试者处于静止状态时,这些方法的呼吸速率估计是准确的,但在动态运动期间,运动伪影和相对较差的信噪比会导致估计误差。为了解决这个问题,这项工作提出了一种新颖的基于深度学习的多任务网络,该网络可以联合预测呼吸频率和呼吸波形,从而帮助整体减少各种活动(包括步行,跑步等)中的错误分数。除了与以前最先进的方法进行比较外,本工作还深入讨论了在推理过程中采用深度学习方法的实际方面,并简要地提到了时间复杂性,参数计数和准确性之间的权衡。虽然该方法提高了总体估计精度,但与传统方法相比,它不可避免地需要更多的参数和运行时间。
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