臺灣博碩士論文加值系統

生物啟發控制媒介的使用在農業,醫學,工業和環境系統裡是非常普遍的.生物啟發控制系統的動態主要依賴於受控目標與類捕食者或類獵物的控制媒介間的類食性作用.這些生物啟發控制媒介,譬如:農藥,肥料或藥物,的數量,在整個控制過程裡是很難被任意決定的,而且可能會因為被受控目標,如:害蟲,作物或病原,吸收而減少,或是隨時間衰變.因此,為了管理的目的或是模型參照追蹤,一個合適的時程管理方針藉由脈衝引入生物啟發控制媒介,如:週期性灌溉作物/餵食牲畜或時程性投藥/治療,是必須的.此時程管理方針必須能確保強健性的參照追蹤性能,即便是處於來自隨機的內部波動和不確定的環境擾動的干擾之下.在此研究裡,我們提出一個對非線性隨機生物啟發控制系統的時程管理方針藉由強健性脈衝追蹤控制的策略,來削弱隨機內部波動和不確定性環境擾動對預期的參照追蹤和脈衝控制輸入的影響.此強健性脈衝追蹤控制策略可協助管理者決定使用何種生物啟發控制媒介以及脈衝引入控制媒介的數量.為了簡化設計流程避開對複雜Hamilton Jacobi integration inequality (HJII) 的求解,我們結合全域線性化方法與數值近似來處理HJII中的非線性和積分,如此一個等效的LMIs便可被用來有效地求解此強健性脈衝追蹤控制問題.我們也用模擬結果來驗證此脈衝追蹤控制設計應用在非線性隨機生物啟發控制系統的效率.

The dynamics of bio-inspired control systems mainly rely on the trophic-like interactions among the controlled objects and their predator-like or prey-like control agents. The amounts of the bio-inspired control agents like pesticide, fertilizer or drugs are difficult to be arbitrarily specified during the whole control process, and may be fewer and fewer because they are absorbed by controlled objects like pest, crop or pathogen, or decay with time. Therefore, for some managing purpose or model reference tracking, a proper scheduled managing policy by impulsively introducing bio-inspired control agents, such as periodic irrigation/feeding for crop/livestock or scheduled dosing/treatment for patients, will be necessary. The scheduled managing policy should ensure a robust reference tracking performance even under the interference from random intrinsic fluctuation and uncertain environmental disturbance. In this study, we propose a scheduled managing policy for nonlinear stochastic bio-inspired control systems via a robust impulsive tracking control strategy to attenuate the effects of random intrinsic fluctuations and uncertain environmental noises on desired reference tracking and impulsive control input. To simplify the design procedure without solving a complex Hamilton Jacobi integration inequality (HJII), we combine the global linearization approach with numerical approximation to deal with nonlinearity and integration in HJII so that an equivalent LMIs is proposed for solving this robust impulsive tracking control problem efficiently. Simulation results are also given to verify the efficiency of the impulsive tracking control design of nonlinear stochastic bio-inspired control systems.

Table of Contents

Abstract
Acknowledgements
Table of Contents
List of Figures
1. Introduction
2. Model of Nonlinear Stochastic Bio-inspired Control systems with Impulsive Effect and Preliminary Problem Formulation
3. The Analysis and Design of Robust Impulsive Tracking Control Strategy for Nonlinear Stochastic Bio-inspired Control Systems
4. The Design of Robust Impulsive Tracking Control Strategy based on Globally Linearized Model
5. Computer Design Examples and Results
6. Discussion and Conclusion
Figures
Bibliography
Appendix
Curriculum Vitae

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