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引用次数: 1

摘要

我们提出了一个指尖形状的触觉传感器系统,可以测量静力和滑动振动使用相同的传感器。一个完全集成的应力传感器ASIC导致一个简单的设计和组装触觉指尖。我们不是通过校准指尖来定量测量力,而是使用机器学习从原始传感器数据中提取抽象信息。该方案避免了复杂的信号处理,速度快,占用空间小。结果表明,该系统能以99.8%的准确率对作用力方向进行分类。应力传感器阵列和机器学习方法的结合可以同时检测滑移和切向力方向。组合分类准确率达到99.6%。
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A Fingertip-Shaped Tactile Sensor with Machine-Learning-Based Sensor-To-Information Processing
We present a fingertip-shaped tactile sensor system that can measure static forces and slip vibrations using the same sensor. A fully integrated stress sensor ASIC leads to a simple design and assembly of the tactile fingertip. Instead of calibrating the fingertip to quantitatively measure forces, we use machine learning to extract abstract information out of the raw sensor data. Avoiding complex signal processing, this sensor-to-information processing scheme is fast and can have a small footprint. The results show that the system can classify the direction of applied forces with 99.8% accuracy. The combination of the stress sensor array and the machine learning approach allows to detect slip and tangential force direction simultaneously. The combined classification achieves 99.6% accuracy.
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