摘要:测量:使用带有消费级加速度计的智能设备作为精确的测量尺度

Vivek Chandel, Avik Ghose
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引用次数: 1

摘要

在运动过程中计算加速度计的准确距离涉及整合其原始数据,并且已经确定,当运动由人类传递时,消费级MEMS加速度计由于其高误差配置文件而不适合此任务,即使是短间隔应用。这项工作提出了“测量”,这是解决这个问题的一步,它是一个完全与传感器无关的、精确的误差缓解模型,使用时间参数对加速度和速度的累积误差进行建模,从而产生准确的距离。利用一种新颖的无延迟陀螺仪方法去除固有重力。该方法已在独立的MEMS传感器板和多种智能设备上进行了测试,这些设备包括手机和手表,具有不同的IMU传感器集。测量长度可达5米,平均测量误差小于3厘米。作为一个演示,我们介绍丈量作为一个非常有用的和高度精确的长度测量工具,在智能手机和智能手表。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Demo Abstract: EMeasure: Using a Smart Device with Consumer-Grade Accelerometer as an Accurate Measuring Scale
Calculating accurate distance from an accelerometer during motion involves integrating its raw data and it has been well-established that when the motion is imparted by humans, consumer-grade MEMS accelerometers are rendered unsuitable for this task due to their high error-profiles even for short-interval applications. This work presents 'EMeasure', a step towards addressing this problem with a completely sensor-agnostic and elegantly accurate error-mitigating model using temporal parameters for modeling the cumulated error in acceleration and velocity, yielding accurate distance. Inherent gravity is removed using a novel latency-free method using a gyroscope. The method has been tested on stand-alone MEMS sensor boards and multiple smart devices, in both phone and wrist-watch form factor with varied IMU sensor sets. Lengths up to 5 m have been measured with a mean measurement error of less than 3 cm. As a demo, we introduce EMeasure as an immensely useful and highly accurate length-measuring utility both on smartphones and smartwatches.
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