Simulation of the Motor Operating Mechanism Using Double-motion Technology

Q. Feng, Yuan Deng, Naiyuan Fan, Yulong Huang
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Abstract

The motor operating mechanism helps to meet the requirement of intelligent operation of high-voltage circuit breakers. However, the current motor operation mechanism needs motors with low inertia and large torque to meet the opening and closing speed requirements, which limits the development of motor driving circuit breakers to high voltage level. In order to reduce the torque demand of the motor operating mechanism, this paper studied the feasibility of applying 252kV double-motion arc extinguishing chambers to the motor mechanism, and the relative displacement between two contacts and the torque curve during the opening and closing operation are calculated. The results show that the motor operating mechanism with double-motion mechanism can meet the speed requirements of the 252 kV circuit breaker. Compared with the single-motion mechanism, the demand for the maximum motor torque can be reduced by nearly 25%. The research shows that double-motion mechanisms help to reduce the torque requirements, which provides the possibility to apply the current motor driving circuit breakers to higher voltage levels.
基于双运动技术的电机操作机构仿真
电机操动机构有助于满足高压断路器智能化操作的要求。然而,目前的电机运行机构需要低惯性、大转矩的电机来满足启闭速度要求,这就限制了电机驱动断路器向高压水平发展。为了降低电机操作机构的转矩需求,本文研究了将252kV双运动灭弧室应用于电机机构的可行性,并计算了两个触点之间的相对位移和开闭操作过程中的转矩曲线。结果表明,采用双动机构的电机操动机构能够满足252kv断路器的转速要求。与单运动机构相比,对电机最大扭矩的需求可以降低近25%。研究表明,双运动机构有助于降低扭矩要求,这为将当前电机驱动断路器应用于更高电压水平提供了可能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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