The Industrial IoT Control Design of Three Phase Induction Motor using Conventional V/F Method

A. Aditya, R. M. Utomo, Nur Rani Alham, Hilmansyah Hilmansyah
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Abstract

Nowadays, the Internet of Things (IoT) is inseparable from the industrial revolution 4.0 and society 5.0. IoT allows all aspects to be connected at the same time. In industrial processes, the IoT controls the actuator and monitors the behavior system. Industrial IoT (IIoT) connected the Human Machine Interface (HMI) Haiwell C7S with the actuator (Schneider Altivar 12) and the controller (OMRON CP1E-NA20DRA). The communication between the variable speed drive and Haiwell C7S using Modbus protocol is connected with RS485. Schneider Altivar 12 is a variable-speed drive that controls the Induction Motor (IM) rotor speed using the conventional V/F method. The scalar control of IM controls supply frequency and voltage simultaneously. The success parameter of the proposed systems is a rotor speed response and voltage in various supply frequencies. The results show that the 5 Hz supply frequency makes the absolute error of rotor speed response 11.43% for tachometer measurement, 0.67% from VSD data, and 12.67% for rotary encoder measurement. This absolute error will decrease significantly when the supply frequency exceeds 20 Hz, or the rotor speed response exceeds 1200 rpm. The changes in the supply frequency change the voltage's magnitude. The voltage will increase proportionally, along with the increase in supply frequency.
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基于传统V/F方法的三相感应电机工业物联网控制设计
如今,物联网(IoT)与工业革命4.0和社会5.0密不可分。物联网允许所有方面同时连接。在工业过程中,物联网控制执行器并监控行为系统。工业物联网(IIoT)将人机界面(HMI) Haiwell C7S与执行器(施耐德Altivar 12)和控制器(欧姆龙CP1E-NA20DRA)连接起来。变频器与海威C7S之间的通信采用Modbus协议,通过RS485连接。施耐德Altivar 12是一种变速驱动器,使用传统的V/F方法控制感应电机(IM)转子速度。IM的标量控制同时控制电源频率和电压。所提出的系统的成功参数是转子在不同电源频率下的转速响应和电压。结果表明,在5 Hz供电频率下,转速表测量的转速响应绝对误差为11.43%,VSD测量的转速响应绝对误差为0.67%,旋转编码器测量的转速响应绝对误差为12.67%。当供电频率超过20hz,或转子转速响应超过1200rpm时,此绝对误差将显著减小。电源频率的变化改变了电压的大小。随着电源频率的增加,电压将成比例地增加。
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审稿时长
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