1) discrete linear system
离散线性系统
1.
In this paper, a primary proof about a stability criterion of a constant discrete linear system is given by means of differential calculus.
本文用微分学方法给出了关于定常离散线性系统稳定性判据的一种初等证明。
2) linear discrete system
线性离散系统
1.
Structure of radical solution to order coefficient linear discrete system;
常系数线性离散系统基本解组的结构
2.
By using the existing optimal state estimation theory,the problem of optimal state estimation for two-dimensional (2-D) linear discrete systems has been discussed in this paper.
本文利用最优状态估计理论，讨论了二维线性离散系统一般模型（2－DGeneralModel,简称2－DGM）最优状态估计问题。
3) nonlinear discrete-time systems
非线性离散系统
1.
Optimal control for a class of nonlinear discrete-time systems:a successive approximation approach;
非线性离散系统最优控制——逐次逼近方法
2.
Direct adaptive fuzzy control for a class of nonlinear discrete-time systems;
一类非线性离散系统的直接自适应模糊控制
3.
Feedforward and feedback optimal control for nonlinear discrete-time systems with deterministic disturbances;
受扰非线性离散系统的前馈反馈最优控制
4) nonlinear discrete-time system
非线性离散系统
1.
H_∞PI fuzzy controller design for nonlinear discrete-time systems;
非线性离散系统的H_∞ PI模糊控制器设计
2.
In this paper,the issues of observer design for a class of Lipschitz nonlinear discrete-time systems with time-delay and disturbance input are addressed,where the Lipschitz condition is expressed in a component-wise rather than an aggregated manner.
文章讨论了一类具有时滞和干扰输入满足Lipschitz条件的非线性离散系统的观测器的设计问题,其中Lips-chitz条件以分量的形式给出。
3.
An adaptive controller is designed utilizing Lyapunov function and weighting least-squares estimator for a nonlinear discrete-time system.
针对一类非线性离散系统 ,利用 Lyapunov方法和加权最小二乘估计设计了一种自适应控制器 ,在对非线性 (不加增长条件约束 )的情况下 ,得到了闭环系统的全局跟踪性能 。
5) discrete time linear system
线性离散系统
1.
The full order state observers for discrete time linear systems with unknown inputs were considered The necessary and sufficient conditions for the existence of state observers and design procedure were provided To design a disturbance decoupled observer,the state of the observer and output of system are used to estimate state of discrete time linear syste
研究了含未知输入的线性离散系统的全阶状态观测器 ,给出了观测器存在的充要条件和设计方法 :设计一个干扰解耦观测器 ,用观测器的状态与系统输出估计线性离散系统的状态。
2.
This paper discusses the adaptive control problems of a class of typicaI nonlinearsystems一discrete time linear systems with input nonlinearity.
讨论一类典型的非线性系统─—具有输入非线性环节的线性离散系统的自适应控制问题。
3.
This paper persents an adaptive control algorithm of discrete time linear systems with multivalued non-linearity.
提出了带有多值非线性环节的线性离散系统的自适应控制算法。
6) linear discrete time systems
线性离散系统
1.
Method of constructing Lyapunov functions for linear discrete time systems;
构造用于线性离散系统的李雅谱诺夫函数
补充资料：离散时间周期序列的离散傅里叶级数表示
(1)
式中χ((n))N为一离散时间周期序列，其周期为N点，即
式中r为任意整数。X((k))N为频域周期序列，其周期亦为N点，即X(k)=X(k+lN)，式中l为任意整数。
从式(1)可导出已知X((k))N求χ((n))N的关系
(2)
式(1)和式(2)称为离散傅里叶级数对。
当离散时间周期序列整体向左移位m时,移位后的序列为χ((n+m))N，如果χ((n))N的离散傅里叶级数(DFS)表示为,则χ((n+m))N的DFS表示为
式中χ((n))N为一离散时间周期序列，其周期为N点，即
式中r为任意整数。X((k))N为频域周期序列，其周期亦为N点，即X(k)=X(k+lN)，式中l为任意整数。
从式(1)可导出已知X((k))N求χ((n))N的关系
(2)
式(1)和式(2)称为离散傅里叶级数对。
当离散时间周期序列整体向左移位m时,移位后的序列为χ((n+m))N，如果χ((n))N的离散傅里叶级数(DFS)表示为,则χ((n+m))N的DFS表示为
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条