用于可穿戴应用的体内声波信号的检测和分类

Hector R. Moncada-Gonzalez, R. Aguilar-Ponce, J. L. Tecpanecatl-Xihuitl, P. López-Meyer, J. R. Camacho-Perez, J. Zamora-Esquivel, H. Cordourier‐Maruri, Alejandro Ibarra Von Borstel
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引用次数: 0

摘要

可穿戴设备(WD)是为完成特定任务而设计的系统,这些系统嵌入到日常生活中的个人物品中。可穿戴设备中常用的传感器包括加速度计、陀螺仪、照相机等。在WD中,需要在功率方面进行有效的设计。因此,一种新的趋势是采用不需要电源的声学换能器进行传感。它们很便宜,而且很容易更换。在WD中,这些传感器检测在人体组织和骨骼中传播的声波信号。这类信号的处理涉及到医学、手势识别、触觉等诸多领域。该系统使用一组三个传感器来捕获来自右手手腕的体内声波信号(IBAWS)。一个信号数据库由18个用户构建,每个用户重复30次提出的5种手势。该模式由六个特征组成,包括光谱通量、光谱质心和短时间能量。完整的建议模式包含18个特性。分类器结果表明,高斯核贝叶斯分类器准确率为75.37%,Knn分类器准确率为80%,人工神经网络分类器准确率为85.56%。所有这些都是针对18个用户的,支持了分类IBAWS独立于用户的假设,并且可以推广到WD中使用它们。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Detection and classification of intra boby acoustic wave signals for wearable applications
Wearable Devices (WD) are systems designed to do a specific task, these system are embedded in daily life personal objects. Usual transducers in wearable devices involve accelerometers gyroscopes, cameras etc. In WD is required to design efficiently in terms of power. Therefore, a new trend incorporates acoustic transducer that does not need a power supply to sense. They are very cheap and easy to replace. In WD, these transducers detect acoustic wave signals traveling in human tissue and bones. The processing of these kind of signals is related with many areas such as medical, gesture recognition, haptics etc. The proposed system uses a set of three sensors to capture Intra Body Acoustic Wave Signals (IBAWS) from the wrist of the right hand. A signal database is constructed using 18 users repeating 30 times each one of five gestures proposed. The patterns are composed by six features per sensor, including Spectral Flux, Spectral Centroid and Short Time Energy. Complete proposed patterns contains 18 features. Classifiers results shown 75.37% of accuracy using Bayesian classifier with Gaussian Kernel, 80% of accuracy using Knn classifier, and 85.56% of accuracy with Artificial Neural Networks. All this for a set of 18 users, supporting the hypothesis that classify IBAWS is independent from the user and could be generalized to use them in WD.
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