❖Why need memory management ❖Memory partitioning ❖Paging ❖Segmentation 3.1 Memory Management Requirements ♣ Relocation(重定位) ♣ Memory Protection（保护） ♣ Memory Sharing（共享） ♣ Logical Organization（逻辑组织） ♣ Physical Organization（物理组织） 3.2 Memory Partitioning • Fixed Partitioning • Dynamic Partitioning • Buddy System(伙伴系统) 3.3 Simple Paging Technique ❖ A process can be loaded into several not continuous frames(页帧). ❖ The efficiency of main memory is higher 3.4 Simple Segmentation Technique • A program and its associated data are divided into a number of segments. The segments may be not the same length. Main memory is divided into many partitions 3.5 Virtual Memory 虚拟存储

Text Understanding of Text A Text Organization Language Points Useful Expressions Sentences to Be Remembered Exercises Background Information Text Understanding of Text B Text Organization Language Points Useful Expressions Sentences to Be Remembered Exercises Background Information Grammar Focus Grammatical Points Exercises Communicative Activities Listening Communicative Expressions Learn to Communicate

◼ Why Data Mining? ◼ What Is Data Mining? ◼ A Multi-Dimensional View of Data Mining ◼ What Kinds of Data Can Be Mined? ◼ What Kinds of Patterns Can Be Mined? ◼ What Kinds of Technologies Are Used? ◼ What Kinds of Applications Are Targeted? ◼ Major Issues in Data Mining ◼ A Brief History of Data Mining and Data Mining Society ◼ Summary

What are we going to do?: First Half: Describe what is an AIS Why bother with the immune system? Be familiar with relevant immunology Second Half: Appreciation of were AIS are used Be familiar with the building blocks of AIS Resources

• To be familiar with the type of capillary. • To be familiar with the type of artery and vein. • To distinguish with all the types of blood vessels

1 PREAMBLE 2 THE CONTEXT FOR DESIGN 3 ARRIVING AT THE DIAGRAM RESPONDING TO THE SITE CHOOSING AN APPROPRIATE ‘MODEL’ ORGANISING THE PLAN 4 CHOOSING APPROPRIATE TECHNOLOGIES STRUCTURE SERVICES HOW WILL IT STAND UP? HOW IS IT MADE? WILL IT BE COMFORTABLE? WILL IT BE GREEN? 5 HOW WILL IT LOOK? EXPRESSION V SUPPRESSION ROOF OPENINGS ELEVATIONS WALL MEMBRANES THE CORNER SCALE 6 THE SPACES AROUND CENTRIFUGAL AND CENTRIPETAL SPACE URBAN SPACE TYPOLOGY 7 POSTSCRIPT: A WORKING METHOD TRADITION V THE VIRTUAL BUILDING FURTHER READING

In this appendix, we present a primer for people who are unfamiliar with the Java language. This introduction is intended to allow you to develop the Java skills necessary to understand the programs in this text. It is not a complete Java reference; for a more thorough coverage of Java, consult the Bibliographical Notes. We do not assume that you are familiar with object-oriented principles, such as classes, objects, and encapsulation, although some knowledge of these topics would be helpful. If you are already familiar with C or C++, the transition to Java will be smooth, because much Java syntax is based on C/C++

For contact information about worldwide offices, see the MathWorks Web site. MAT-File Formo COPYRIGHT 1984-1999 by The Math Works, Inc. The software described in this docu nder a license agreement. The software may be used or copied only under the No part of this manual may be photocopied or repro- duced in any form without pri

Heat treatment changes the structure of the cobalt binder phase and the properties of the WC-Co hardmetals. The higher the cobalt content in the alloy is, the more effective the heat treatment is. The present work has found that the transformation of α-Co to ε-Co can be depressed by quenching the specimens in oil from 1000℃ and hence the transverse rupture strength of these specimens can be increased. During tempering the quenched specimens, new precipitated phases which have dispersion hardening effect on the cobalt binder phase have been observed

The Present work has found that the transverse rupture strength of WC-Co hardmetals can be improved by queuching heat treatment. The increment of transverse rupture strength （ΔTRS） was dependent on the cobalt content of hardmetal. The higher the cobalt content of hardmetal is, the more the increment of transverse rupture strength is. The main reason is that the transformation of face centered cubic cobalt stabilized at high temperature to hexagonal close packed cobalt can be depressed by quenching. The transformation temperature of hexagonal close packed cobalt binder phase was determined by differential thermal analysis. It was found that the transformation temperature increases with increase of cobalt content of hardmetal. The reason is that the cobalt binder phase of high cobalt hardmetal contains higher tungsten content than that of low cobalt hardmetal after quenching