Parameters Variation to Estimate Performance Characteristics of 3-Phase Asynchronous Motor
DOI:
https://doi.org/10.25079/ukhjse.v7n1y2023.pp1-10Keywords:
SimscopeTM, 3-Phase Asynchronous Motor, Parameters Variation, Simulation Model, Torque and Current, EfficiencyAbstract
The 3-phase asynchronous squirrel cage motors (SCIM) are main competitor machines placed instead of other motors in the commercial and industrial fields. The stator and rotor material selection and construction topology influence the electrical machine design. The results illustrated with the motor of a 15 KW, variable controlled speed, for the constant frequency of 50 Hz or 60 Hz. The motor parameters created inside the simulation model must be matched with the value of a standard parameter for SCIM to achieve a high dynamic response. This work examines the effect of the parameters variation for synchronous motor on the performance characteristics at starting point and at a load change for different time and speed regions. Changing of the rotor power is taken into consideration, this occurs with dynamic change of the hydraulic pump load from the valve.
In the industrial applications, production, and manufacturing, till present there are still struggles to find the most holistic environment of the SCIM to achieve its efficiency at the lowest cost and same time control the motor performance, so we predicted the method of reducing the most effective motor parameters to improve the efficiency.
The offline method used the SCIM parameters to calculate the time-varying current, torque, and rotor speed. The results illustrated that this method was fully consistent with the experiment tests and the standard theoretical values.
A MATLAB program is used to simulate this study. The simulation model proved the feasibility of the proposed method with encouraging performance.
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