Design of SoC based Compact, High Bandwidth Electro-Mechanical Actuation (EMA) System for Aerospace Application

Srinivas Hogipuram, Vamshi Krishna Gunti, Ramesh Kumar, K. S
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Abstract

Actuation systems are widely used in the aerospace vehicle for controlling the motion against the varying aerodynamic load. The Electro-mechanical actuations system provides a suitable and reliable solution against the electro-hydraulic (EHA) systems. The EMA System consists of BLDC motor coupled with the transmission mechanism and is operated by a servo controller. The servo controller is having control loop processing part along with the power electronics. The EMA System design for aerospace application is complicated due to the space constraint and operation of it under varying aerodynamic loads. High Slew rate and high bandwidth is required in the Re-entry part of the trajectory of the vehicles, this again poses the due problem in handling high current in power Electronics and computational intensive task for handling 04 channels simultaneously. The Servo Controller is configured with Smart Fusion SOC (System On Chip) with required peripherals and Switching Devices. In the Motor design, the motor time constant is kept low to achieve the high bandwidth and desired closed loop performance. This paper presents the design philosophy adopted for a particular aerospace vehicle with Re-entry application. The paper deals with the servo controller and BLDC motor design and its performance optimization. The realized prototype results show the promising results and can create a baseline for critical aerospace application.
基于SoC的紧凑型高带宽航空航天机电致动(EMA)系统设计
作动系统广泛应用于航天飞行器中,用于控制飞行器在不同气动载荷下的运动。机电驱动系统为对抗电液(EHA)系统提供了一种合适且可靠的解决方案。EMA系统由无刷直流电机与传动机构耦合组成,由伺服控制器控制。伺服控制器与电力电子一起具有控制回路处理部分。由于空间的限制和在不同气动载荷下的运行,航空应用的电磁系统设计非常复杂。在飞行器轨迹的再入部分需要高转换率和高带宽,这再次在处理电力电子中的大电流和同时处理04通道的计算密集型任务中提出了应有的问题。伺服控制器配置了智能融合SOC(片上系统)与所需的外设和开关设备。在电机设计中,电机时间常数保持较低,以实现高带宽和理想的闭环性能。本文介绍了一种具有再入应用的航天飞行器的设计思想。本文研究了伺服控制器和无刷直流电机的设计及其性能优化。实现的样机结果显示了良好的效果,可以为关键的航空航天应用创建基线。
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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