12.1可编程控制器的结构和工作原理 12.2可编程控制器的程序编制 12.3可编程控制器应用举例

8-1三相异步电动机的构造 8-2工作原理 8-3三相异步电动机的电路分析 8-4转矩与机械特性 8-5三相异步电动机的使用 8-6铭牌数据大 8-7单相异步电动机

一、设计要求 二、变压器设计原理 三、稳压电路 1线性稳压原理 2开关稳压原理 四、保护电路 五、测试方法

一、选择题(每小题1分,共计20分) BDBAC ACBBA DABCB AD BCD

第一部分 电阻电路的分析 第二部分 动态电路的分析 第三部分 正弦稳态分析

一、工作中心(working center,简称WC) 1 一生产资源,包括机器、人和设备(模具); 2 一是生产加工单元或能力的总称; 3 一由一台或几台功能相同的设备,一个班组,一条自动生产线,一个装配场等组成;有时甚至是生产某种单一产品的封闭车间; 4 一是计划范畴,而不是固定资产或设备管理范畴

Preamble This note has been written for a b asic course in robust and optimal control at 9th term of the ystem Construction Line, Institute of Electronic Systems, Aalborg University. Originall the note was intended for a course consisting of six modules of four hours each. Currently

Chapter 3 Nominal and Robust Performance This chapter presents approaches to formulate performance specifications for a control sy stem

In this chapter, st ability and performance for multivariable systems with uncertainty will be considered. Consider a general multivariable system as depicted in Figure 5.1. All signals will in general be vectors, and G() and K(s) will be transfer matrices. d(s) is an output distur- bance signal and n() represents

There are two main limit ations in the use of Hoo theory for compensator design. First, only full complex perturb ations() Cnm can be treated in a non-conservative way in an Ho robust st ability test. Second, robust performance can only be handled in a conservative way even for full complex perturbations since st ability and performance can not be separated in the Hoo structure