Wireless Self-Powered Vibration Sensor System for Intelligent Spindle Monitoring

Lei Yu, Hongjun Wang, Yubin Yue, Shucong Liu, Xiangxiang Mao, F. Gu
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Abstract

In recent years, high-end equipment is widely used in industry and the accuracy requirements of the equipment have been risen year by year. During the machining process, the high-end equipment failure may have a great impact on the product quality. It is necessary to monitor the status of equipment and to predict fault diagnosis. At present, most of the condition monitoring devices for mechanical equipment have problems of large size, low precision and low energy utilization. A wireless self-powered intelligent spindle vibration acceleration sensor system based on piezoelectric energy harvesting is proposed. Based on rotor sensing technology, a sensor is made to mount on the tool holder and build the related circuit. Firstly, the energy management module collects the mechanical energy in the environment and converts the piezoelectric vibration energy into electric energy to provide 3.3 V for the subsequent circuit. The lithium battery supplies the system with additional power and monitors’ the power of the energy storage circuit in real-time. Secondly, a three-axis acceleration sensor is used to collect, analyze and filter a series of signal processing operations of the vibration signal in the environment. The signal is sent to the upper computer by wireless transmission. The host computer outputs the corresponding X, Y, and Z channel waveforms and data under the condition of the spindle speed of 50∼2500 r/min with real-time monitoring. The KEIL5 platform is used to develop the system software. The small-size piezoelectric vibration sensor with high-speed, high-energy utilization, high accuracy, and easy installation is used for spindle monitoring. The experiment results show that the sensor system is available and practical.
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智能主轴监测无线自供电振动传感器系统
近年来,高端设备在工业上的应用越来越广泛,对设备的精度要求也逐年提高。在加工过程中,高端设备的故障可能会对产品质量产生很大的影响。对设备进行状态监测和故障诊断预测是十分必要的。目前,大多数机械设备状态监测装置存在体积大、精度低、能量利用率低等问题。提出了一种基于压电能量采集的无线自供电智能主轴振动加速度传感器系统。基于转子传感技术,制作了传感器安装在刀柄上,并搭建了相应的电路。首先,能量管理模块收集环境中的机械能,将压电振动能转换为电能,为后续电路提供3.3 V。锂电池为系统提供额外的电力,并实时监控储能电路的功率。其次,利用三轴加速度传感器对环境中的振动信号进行采集、分析和滤波等一系列信号处理操作。信号通过无线传输发送到上位机。上位机在主轴转速为50 ~ 2500r /min的情况下输出相应的X、Y、Z通道波形和数据,并进行实时监控。系统软件采用KEIL5平台开发。采用高速、高能、高精度、安装方便的小型压电振动传感器对主轴进行监测。实验结果表明,该传感系统是可行的、实用的。
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