Direct Thrust Inverse Control of Aero-Engine Based on Deep Neural Network

Author(s):  
Qiangang Zheng ◽  
Ziyan Du ◽  
Dawei Fu ◽  
Zhongzhi Hu ◽  
Haibo Zhang

Abstract A novel thrust control method based on inverse control is proposed to improve engine response ability. The On Line Sliding Window Deep Neural Network (OL SW DNN) is proposed and adopted as inverse mapping model modeling method of inverse control. The OL SW DNN has deeper layer structure, which makes the inverse mapping model have stronger fitting capacity for nonlinear object than traditional NN. Moreover, due to adopt on-line learning modeling method, the proposed adaptive control method can obtain desired thrust whether engine degrades or not. The comparison simulations of the traditional control method based on PID and the proposed control method are carried out. Compared with the traditional control method, the proposed control method can obtain desired thrust when the engine degradation occurs, but also has fast response ability (the acceleration times for engine thrust increase to 95 % thrust of acceleration object decreases by 1.35 seconds).

Author(s):  
Rached Dhaouadi ◽  
◽  
Khaled Nouri

We present an application of artificial neural networks to the problem of controlling the speed of an elastic drive system. We derive a neural network structure to simulate the inverse dynamics of the system, then implement the direct inverse control scheme in a closed loop. The neural network learning is done on-line to adaptively control the speed to follow a stepwise changing reference. The experimental results with a two-mass-model analog board confirm the effectiveness of the proposed neurocontrol scheme.


2021 ◽  
Vol 58 (8) ◽  
pp. 0820001
Author(s):  
孙一宸 Sun Yichen ◽  
董明利 Dong Mingli ◽  
于明鑫 Yu Mingxin ◽  
夏嘉斌 Xia Jiabin ◽  
张旭 Zhang Xu ◽  
...  

2013 ◽  
Vol 561 ◽  
pp. 448-453
Author(s):  
Jian Hua Song ◽  
Da Wei Cai ◽  
Xing Dong Zhu

According to pipe racking system exist nonlinear characteristics and in order to get smooth velocity of the racking in moving process. This paper structures a new kind of fuzzy neural network PID which identifies the target model and also provides a non-linear relation model for dynamic programming. In addition, by adopting robust feedback controller, the stability of the closed-loop system and satisfactory control results in initial stage of fuzzy neural network learning are also guaranteed. And we analyze the error response curve of sine signal tracking, the experimental results show that the improved fuzzy neural network PID controller has a higher control performance. The control method has fast response speed, less overshoot and error, strong robust and can meet the requirements of the nonlinear system.


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