Mariano Nerone, Igor Valic, Matteo Zauli, N. Matteazzi, L. Marchi
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引用次数: 0
摘要
温度监测是电机领域的一个重要方面。在高性能应用中,电机的转子可以达到非常高的温度,导致转子磁体过热,从而导致退磁或定子绕组恶化。这些问题会严重影响电机的使用寿命,因此监测转子温度非常重要:这样电机就可以始终在安全状态下运行,最大限度地减少意外故障。由于模拟阶段的小错误可能导致严重的故障,因此信任所实现的模拟非常重要,这可以通过监测现场的真实数据来实现。这些数据也可用于改进用于验证电机设计阶段的仿真工具。本文提出的测量系统旨在安装在电机转子内部,可测量多达8个热电偶(K, J, T, N, S, E, B和R型),采样频率为每秒8个样本,精度为±2°C,温度为0°C至250°C。放置在转子内部的电路板是通过近场通信能量收集的方式供电的。NFC协议还用于将数据传输到放置在电机定子上的电路板上。
A low power NFC data over power acquisition system for high speed Electric Motor Rotors
Temperature monitoring is a key aspect in the field of electric motors. In high performance applications the rotor of a motor can reach very high temperatures leading to an over-heating of the rotor magnets, which can consequently lead to a demagnetization or to stator windings deterioration. These kinds of issues can severely impact the lifetime of an electric motor, and it is for such matter that is really important to monitor rotor temperatures: this way the motor can always be operated in a safe state, minimizing unexpected faults. Since minor errors in the simulation phase can lead to severe faults it is important to trust the simulations implemented, and this can be done by monitoring real data on the field. Such data can also be used to improve the simulation tools used to validate the motor design phase.The measurement system proposed in this paper is meant to be installed inside the motor rotor and can measure up to 8 thermocouples (type K, J, T, N, S, E, B and R) with a sampling frequency of 8 samples per second and an accuracy of ±2°C for temperatures between 0°C and 250°C. The board placed inside the rotor is powered by means of NFC energy harvest. The NFC protocol is also used to transfer data to a board placed on the motor stator.