9780130471109

For courses in Software Engineering, Software Development, or Object-Oriented Design and Analysis at the Junior/Senior or Graduate level. This text can also be utilized in short technical courses or short, intensive management courses. This textbook shows how to use both the principles of software engineering as well as the practices of various object-oriented tools, processes, and products. Using a step by step case study to illustrate the concepts and topics in each chapter, this book emphasizes practical experience: participants can apply the techniques learned in class by implementing a real-world software project.

Getting Started
Introduction to Software Engineering
Modeling with UML
Project Organization and Communication
Dealing with Complexity
Requirements Elicitation
Analysis
System Design
Object Design: Reusing Pattern Solutions
Object Design: Specifying Interfaces
Mapping Models to Code
Testing
Managing Change
Rationale Management
Software Configuration Management
Project Management
Software Life Cycle
Reflections
Reflections
Appendices
Design Patterns
Glossary
Bibliography
Index
Table of Contents provided by Publisher. All Rights Reserved.

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The K2 towers at 8,611 meters in the Karakorum range of the western Himalayas. It is the second highest peak of the world and is considered the most difficult 8000er to climb. An expedition to the K2 typically lasts several months in the summer, when the weather is most favorable. Even in summer, snowstorms are frequent. An expedition requires thousands of pounds of equipment, including climbing gear, severe weather protection gear, tents, food, communication equipment, and pay and shoes for hundreds of porters. Planning such an expedition takes a significant amount of time in the life of a climber and requires dozens of participants in supporting roles. Once on site, many unexpected events, such as avalanches, porter strikes, or equipment failures, will force the climbers to adapt, find new solutions, or retreat. The success rate for expeditions to the K2 is currently less than 40%. The United States National Airspace System (NAS) monitors and controls air traffic in the United States. The NAS includes more than 18,300 airports, 21 air route traffic control centers, and over 460 control towers. These add up to more than 34,000 pieces of equipment, including radar systems, communication switches, radios, computer systems, and displays. The current infrastructure is aging rapidly. The computers supporting the 21 air route traffic control centers, for example, are IBM 3083 mainframes that date back to the early 1980s. In 1996, the United States government initiated a program to modernize the NAS infrastructure, including improvements such as satellite navigation, digital controller/pilot communications, and a higher degree of automation in controlling the air routes, deciding the order in which aircraft land, and controlling ground traffic as aircraft move from and to the runways. Such a complex infrastructure, however, can only be modernized incrementally. Consequently, while new components offering new functionality are introduced, older components still need to be supported. For example, during the transition period, a controller will have to be able to use both analog and digital voice channels to communicate with pilots. Finally, the modernization of the NAS coincides with a dramatic increase in global air traffic, predicted to double within the next 10-15 years. The previous modernizing effort of the NAS, called the Advanced Automation System (AAS), was suspended in 1994 because of software-related problems, after missing its initial deadline by several years and exceeding its budget by several billions of dollars. Both of the above examples discuss complex systems in which external conditions can trigger unexpected changes. Complexity puts the problem beyond the control of any single individual. Change forces participants to move away from well-known solutions and to invent new ones. In both examples, several participants need to cooperate and develop new techniques to address these challenges. Failure to do so results in failure to reach the goal. This book is about conquering complex and changing software systems. The theme The application domain (mountain expedition planning, air traffic control, financial systems, word processing) usually includes many concepts that software developers are not familiar with. The solution domain (user interface toolkits, wireless communication, middleware, database management systems, transaction processing systems, wearable computers) is often immature and provides developers with many competing implementation technologies. Consequently, the system and the development project are complex, involving many different components, tools, methods, and people. As developers learn more about the application domain from their users, they update the requirements of the system. As developers learn more about emerging technologies or about the limitations of current technologies, they adapt the system design and implementation. As quality control fin

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Object-Oriented Software Engineering : Using UML, Patterns and Java

Object-Oriented Software Engineering : Using UML, Patterns and Java

0130471100

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