基于ARM9的嵌入式系统在电动汽车电源管理系统中的应用
[Abstract]:With the development of information technology, embedded systems are widely used in all aspects of daily life. Embedded systems are used in automotive electronics, network equipment, aerospace, micro-control, consumer electronics, industrial control, and so on. Safety systems and other fields are in the ascendant, especially in the field of automotive electronics has become an integral part of the vehicle. As a result of the development of our country's national economy and the increasing living standard of the people, cars begin to enter thousands of households, and at the same time, the environmental problems brought about by them are becoming more and more prominent. With the zero emission of electric vehicles, The advantages of low noise are getting more and more popular. As a key part of electric vehicle, power management system has been paid more and more attention by many countries. This paper focuses on the characteristics and future development of electric vehicle power management system, and designs an embedded power management system based on ARM9. Because the traditional power management system is greatly influenced by the external factors, it is very difficult for us to establish the specific model of the system. Therefore, the neural network algorithm is used to predict the residual power of the battery pack, which makes it very difficult for us to establish the specific model of the system. The neural network algorithm does not need to establish the complex battery model, but the neural network algorithm needs a lot of measured values to train the network, and needs a long training time. At the same time, the network is easy to fall into the local extremum, in order to overcome these shortcomings. The neural network algorithm optimized by adaptive genetic algorithm is adopted. The simulation results show that the algorithm has good stability and control precision. Using the ARM9 core chip S3C2410 of Samsung Company as the main controller of the system, the minimum system design is carried out. At the same time, the data acquisition circuit and the thermal management circuit are designed, and the corresponding software development is carried out. Finally, running and debugging in the laboratory environment, the system has a good stability.
【学位授予单位】:燕山大学
【学位级别】:硕士
【学位授予年份】:2012
【分类号】:TP368.1;TP315
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