Comparison of Deep Learing Algorithms for Indoor Monitoring using Bioelectric Potential of Living Plants

Hidetaka Nambo, Imam Tahyudin, Takeo Nakano, Tetsuya Yamada
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引用次数: 3

Abstract

This study aims to develop a monitoring system for an indoor space. We are investigating to use the bioelectric potential of living plants as a human sensor system in an indoor environment. The system utilizes a change of the bioelectric potential to estimate a resident’s location in a room. To build an estimation model, a lot of the bioelectric potential data are collected and processed by a machine learning method. We have studied to build the estimation model using a convolutional neural network. However, recently, there are many applications that utilize Long-Short Term Memory method for a time sequential data, and they obtained a good result successfully. Therefore, in this study we applied LSTM for the bioelectric potential data and investigate the availability of CNN and LSTM to estimate the location with the bioelectric potential. As the result of classification experiments with the model trained with collected bioelectric data, we obtained that CNN is better than LSTM for this problem. However, we need to improve the accuracy by adjusting parameters in future.
利用活体植物生物电位进行室内监测的深度学习算法比较
本研究旨在开发一套室内空间监控系统。我们正在研究在室内环境中使用活植物的生物电势作为人体传感器系统。该系统利用生物电电位的变化来估计居住者在房间里的位置。为了建立估计模型,我们收集了大量的生物电势数据,并用机器学习方法对其进行处理。我们研究了用卷积神经网络来建立估计模型。然而,近年来,利用长短期记忆方法对时间序列数据进行记忆的应用较多,并取得了较好的效果。因此,在本研究中,我们将LSTM应用于生物电势数据,并研究CNN和LSTM用于估计生物电势位置的有效性。通过对采集到的生物电数据训练的模型进行分类实验,我们得到CNN在这个问题上优于LSTM。但是,我们需要在未来通过调整参数来提高精度。
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