研究生: |
羅維恆 Wei Herng Luo |
---|---|
論文名稱: |
植基於扇形區間滑動模式之小腦模型控制器之研究 A Study of Cerebellar Mode Ariticulation Controller based on Sector Boundary Sliding Mode |
指導教授: |
洪欽銘
Hong, Chin-Ming |
學位類別: |
碩士 Master |
系所名稱: |
工業教育學系 Department of Industrial Education |
論文出版年: | 2001 |
畢業學年度: | 89 |
語文別: | 中文 |
論文頁數: | 107 |
中文關鍵詞: | 可變結構系統 、指數趨近律 、扇形區間滑動模式 、小腦模型控制器 、階層式量化 、資訊源熵 、模糊推論 |
英文關鍵詞: | Variable structure system, Exponential approach rule, Sector boundary sliding mode, Cerebellar Mode ArticulationController(CMAC), Hierarchical quantization, Entropy, Fuzzy inference |
論文種類: | 學術論文 |
相關次數: | 點閱:178 下載:4 |
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傳統可變結構系統中,加速到達模式之到達時間與降低滑動
模式之顫動現象是兩個重要卻相斥的課題,本研究採用指數趨近
模式與扇形區間滑動模式來解決這個問題。指數趨近控制係由設
計者自行規劃趨近過程之時間響應,可加速趨近時間並降低到達
模式受到系統參數變動及外部干擾的影響,以增加系統的強健性。
扇形區間滑動模式能有效的降低滑動過程的顫動現象及避免傳統
使用連續控制造成的系統穩態誤差。小腦模型控制器是一種以查
表方式獲得網路輸出的類神經計算技術,具備優越的區域類化能
力及快速的學習收斂速度。傳統小腦模型控制器採用輸入空間均
等量化方式無法實際反映函數在學習範圍內變化趨勢,本研究提
出結合資訊源熵與模糊推論之階層式多解析度量化策略,以獲得
良好的學習精準度、收斂性與較佳的記憶體使用效率。最後,本
研究提出一植基於扇形區間滑動模式之小腦模型控制器,其兼具
兩類控制法則的優點,以期提昇控制器之效能達到高性能的要求。
In the traditional variable structure system, hitting time reduction and chattering attenuation are two important but contradictory issues. The thesis employ exponential approach control rule and sector boundary sliding mode to resolve this conflict. A system should be reduced approach time and sensitivity to parameter variance and external disturbance by the exponential approach control rule. The dynamic response of the exponential approach time can be designed by the user himself. The control rule based on the sector boundary sliding mode can successfully attenuate the chattering phenomena and avoid steady-state of the system error. Cerebellar Mode Articulation Controller (CMAC) is a table look-up neuron-computing technique. It is good local generalization capability and convergence speed of learning is very fast. The conventional CMAC has the input space quantized into equal-size resolution without considering variation of the target function in different areas in the input space. In this study, an hierarchical quantization method with advantages of entropy and fuzzy inference is proposed for input space quantization. It is able to achieve better learning accuracy, convergence speed, and memory utilization efficiency. This thesis proposes a Cerebellar Mode Articulation Controller based sector boundary sliding mode. It combines the merits of the two control rules together. The demand of the high performance controller is achieved by using the design.
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