book

Software Architecture and Design

Name: Software Architecture and Design
ISBN: 9781807789893

by Rheinwerk Publishing, Inc, Kristian Köhler

April 2026

Intermediate

491 pages

18h 4m

English

Packt Publishing

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Notes on Usage
1 Introduction
1.1 Programming Paradigms1.1.1 Structured Programming1.1.2 Object-Oriented Programming1.1.3 Functional Programming1.1.4 Reactive Programming
1.2 What Are Design Patterns and How Did They Come About?
1.3 What Are Software Architecture and Software Design?
1.3.1 Tasks of a Software Architecture1.3.2 Architectural Styles and Architectural Patterns
1.4 The Evolution of Software Development and Architecture
1.4.1 Class-Responsibility-Collaboration Cards1.4.2 The “Gang of Four” Patterns and Their Structure1.4.3 Clean Code1.4.4 Component-Based Development1.4.5 Core J2EE Patterns1.4.6 Enterprise Integration Patterns1.4.7 Well-Architected Cloud
2 Principles of Good Software Design
2.1 Basic Concepts of Object-Oriented Programming2.1.1 Objects and Classes2.1.2 Encapsulation2.1.3 Abstraction2.1.4 Inheritance2.1.5 Polymorphism
2.2 Clean Code Principles
2.2.1 Identifier Names and Conventions in the Code2.2.2 Defining Functions and Methods2.2.3 Don’t Repeat Yourself2.2.4 Establishing Clear Boundaries Between Components2.2.5 The Broken Windows Theory and the Boy Scout Rule in Software
2.3 SOLID Principles
2.3.1 The Single Responsibility Principle2.3.2 The Open-Closed Principle2.3.3 The Liskov Substitution Principle2.3.4 The Interface Segregation Principle2.3.5 The Dependency Inversion Principle and the Inversion of Control
2.4 Information Hiding
2.5 Inversion of Control and Dependency Injection

2.6 Separation of Concerns and Aspect Orientation
2.7 Quality Assurance with Unit Tests
3 Source Code and Documenting the Software Development
3.1 Comments in the Source Code3.1.1 Documenting Interfaces Using Comments3.1.2 Creating Expressive Code3.1.3 Necessary and Meaningful Comments3.1.4 Comments Not Needed
3.2 Documenting the Software Architecture
3.2.1 Documenting Quality Features3.2.2 Rules for Good Software Architecture Documentation3.2.3 arc42 for the Complete Documentation
3.3 Representing Software in Unified Modeling Language
3.3.1 Use Case Diagram3.3.2 Class Diagram3.3.3 Sequence Diagram3.3.4 State Diagram3.3.5 Component Diagram
3.4 C4 Model for Representing Software Architecture
3.4.1 System Context (Level 1 or C1)3.4.2 Container (Level 2 or C2)3.4.3 Component (Level 3 or C3)3.4.4 Code (Level 4 or C4)
3.5 Doc-as-Code
3.5.1 AsciiDoc3.5.2 PlantUML3.5.3 Structurizr
4 Software Patterns
4.1 Factory Method4.1.1 Problem and Motivation4.1.2 Solution4.1.3 Sample Solution4.1.4 When To Use the Pattern4.1.5 Consequences4.1.6 Real-World Example in Open-Source Software
4.2 Builder
4.2.1 Problem and Motivation4.2.2 Solution4.2.3 Sample Solution4.2.4 When To Use the Pattern4.2.5 Consequence4.2.6 Real-World Example in Open-Source Software
4.3 Strategy
4.3.1 Problem and Motivation4.3.2 Solution4.3.3 Sample Solution4.3.4 When To Use the Pattern4.3.5 Consequences4.3.6 Real-World Example
4.4 Chain of Responsibility
4.4.1 Problem and Motivation4.4.2 Solution4.4.3 Sample Solution4.4.4 When To Use the Pattern4.4.5 Consequences4.4.6 Real-World Example
4.5 Command
4.5.1 Problem and Motivation4.5.2 Solution4.5.3 Sample Solution4.5.4 When To Use the Pattern4.5.5 Consequences4.5.6 Real-World Example
4.6 Observer
4.6.1 Problem and Motivation4.6.2 Solution4.6.3 Sample Solution4.6.4 When To Use the Pattern4.6.5 Consequences4.6.6 Real-World Example
4.7 Singleton
4.7.1 Problem and Motivation4.7.2 Solution4.7.3 Sample Solution4.7.4 When To Use the Pattern4.7.5 Consequences4.7.6 Real-World Example
4.8 Adapter/Wrapper
4.8.1 Problem and Motivation4.8.2 Solution4.8.3 Sample Solution4.8.4 When To Use the Pattern4.8.5 Consequences4.8.6 Real-World Example
4.9 Iterator
4.9.1 Problem and Motivation4.9.2 Solution4.9.3 Sample Solution4.9.4 When To Use the Pattern4.9.5 Consequences4.9.6 Real-World Example
4.10 Composite
4.10.1 Problem and Motivation4.10.2 Solution4.10.3 Sample Solution4.10.4 When To Use the Pattern4.10.5 Consequences4.10.6 Real-World Example
4.11 The Concept of Anti-Patterns
4.11.1 Big Ball of Mud4.11.2 God Object4.11.3 Spaghetti Code4.11.4 Reinventing the Wheel4.11.5 Cargo Cult Programming
5 Software Architecture, Styles, and Patterns
5.1 The Role of the Software Architect
5.2 Software Architecture Styles
5.2.1 Client-Server Architecture5.2.2 Layered Architecture and Service Layers5.2.3 Event-Driven Architecture5.2.4 Microkernel Architecture or Plugin Architecture5.2.5 Microservices
5.3 Styles for Application Organization and Code Structure
5.3.1 Domain-Driven Design5.3.2 Strategic and Tactical Designs5.3.3 Hexagonal Architecture/Ports and Adapters5.3.4 Clean Architecture
5.4 Patterns for the Support of Architectural Styles
5.4.1 Model View Controller Pattern5.4.2 Model View ViewModel Pattern5.4.3 Data Transfer Objects5.4.4 Remote Facade Pattern
6 Communication Between Services
6.1 Styles of Application Communication6.1.1 Synchronous Communication6.1.2 Asynchronous Communication and Messaging6.1.3 Streaming
6.2 Resilience Patterns
6.2.1 Error Propagation6.2.2 Subdivision of the Resilience Patterns6.2.3 Timeout Pattern6.2.4 Retry Pattern6.2.5 Circuit Breaker Pattern6.2.6 Bulkhead Pattern6.2.7 Steady State Pattern
6.3 Messaging Patterns
6.3.1 Messaging Concepts6.3.2 Messaging Channel Patterns6.3.3 Message Construction Patterns6.3.4 Messaging Endpoint Pattern
6.4 Patterns for Interface Versioning
6.4.1 Endpoint for Version Pattern6.4.2 Referencing Message Pattern6.4.3 Self-Contained Message Pattern6.4.4 Message with Referencing Metadata6.4.5 Message with Self-Describing Metadata
7 Patterns and Concepts for Distributed Applications
7.1 Consistency
7.2 The CAP Theorem
7.3 The PACELC Theorem
7.4 Eventual Consistency
7.5 Stateless Architecture Pattern
7.5.1 Problem and Motivation7.5.2 Solution7.5.3 Sample Solution7.5.4 When To Use the Pattern7.5.5 Consequences
7.6 Database per Service Pattern
7.6.1 Problem and Motivation7.6.2 Solution7.6.3 Sample Solution7.6.4 When To Use the Pattern7.6.5 Consequences
7.7 Optimistic Locking Pattern
7.7.1 Problem and Motivation7.7.2 Solution7.7.3 Sample Solution7.7.4 When To Use the Pattern7.7.5 Consequences7.7.6 Pessimistic Locking
7.8 Saga Pattern: The Distributed Transactions Pattern
7.8.1 Problem and Motivation7.8.2 Solution7.8.3 Sample Solution7.8.4 When To Use the Pattern7.8.5 Consequences
7.9 Transactional Outbox Pattern
7.9.1 Problem and Motivation7.9.2 Solution7.9.3 Sample Solution7.9.4 When To Use the Pattern7.9.5 Consequences
7.10 Event Sourcing Pattern
7.10.1 Problem and Motivation7.10.2 Solution7.10.3 Sample Solution7.10.4 When To Use the Pattern7.10.5 Consequences
7.11 Command Query Responsibility Segregation Pattern
7.11.1 Problem and Motivation7.11.2 Solution7.11.3 Sample Solution7.11.4 When To Use the Pattern7.11.5 Consequences
7.12 Distributed Tracing Pattern
7.12.1 Problem and Motivation7.12.2 Solution7.12.3 Sample Solution7.12.4 When To Use the Pattern7.12.5 Consequences
The Author
Index
Service Pages
Legal Notes

Content preview from Software Architecture and Design

6.2 Resilience Patterns

Errors can occur during any data transfer between systems, regardless of the communication style used. These can be caused, for example, by technical faults, faulty software, or human intervention.

If a system calls another system, a total of 10,000 errors can occur with 10,000 calls, for example. The probability of one of these possible 10,000 errors occurring increases with the number of systems or components involved in the call. The longer a call chain of the components involved is, the higher the actual probability of an error occurring.

The example shown in Figure 6.4 is an example of a call chain for a simple service that uses a central database to answer client queries. In this call chain, however, not only ...

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