用深度学习将低成本陀螺仪校准时间缩短89%
Rapid Gyroscope Calibration: A Deep Learning Approach
- 构建端到端卷积神经网络,融合真实与虚拟陀螺数据
- 仅需原时长11%即可完成校准,性能接近长时间平均法
- 适合对启动速度要求高的移动设备与嵌入式系统
低成本陀螺仪校准对测量精度至关重要。静态校准用于估计测量误差的确定性部分,通常通过在预设时间段内对陀螺仪读数取平均来估算偏置。校准时间越长,性能越好,但某些应用要求快速启动,限制了校准时长。本文提出一种基于深度学习的端到端卷积神经网络方法,以缩短校准时间。我们探索了使用多个真实和虚拟陀螺仪提升单个陀螺仪校准性能的可能。为训练与验证,我们采集了36个不同品牌陀螺仪共186.6小时的真实数据,并构建了模拟数据集。六个数据集用于评估该方法。关键成果是:使用三个低成本陀螺仪,校准时间最多减少89%。数据集已公开,支持研究复现与领域发展。
原文摘要 · Abstract (English)
Low-cost gyroscope calibration is essential for ensuring the accuracy and reliability of gyroscope measurements. Stationary calibration estimates the deterministic parts of measurement errors. To this end, a common practice is to average the gyroscope readings during a predefined period and estimate the gyroscope bias. Calibration duration plays a crucial role in performance, therefore, longer periods are preferred. However, some applications require quick startup times and calibration is therefore allowed only for a short time. In this work, we focus on reducing low-cost gyroscope calibration time using deep learning methods. We propose an end-to-end convolutional neural network for the application of gyroscope calibration. We explore the possibilities of using multiple real and virtual gyroscopes to improve the calibration performance of single gyroscopes. To train and validate our approach, we recorded a dataset consisting of 186.6 hours of gyroscope readings, using 36 gyroscopes of four different brands. We also created a virtual dataset consisting of simulated gyroscope readings. The six datasets were used to evaluate our proposed approach. One of our key achievements in this work is reducing gyroscope calibration time by up to 89% using three low-cost gyroscopes. Our dataset is publicly available to allow reproducibility of our work and to increase research in the field.
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