Computer Organization and Architecture
For graduate and undergraduate courses in computer science, computer engineering, and electrical engineering
Fundamentals of Processor and Computer Design
Computer Organization and Architecture is a comprehensive coverage of the entire field of computer design updated with the most recent research and innovations in computer structure and function. With clear, concise, and easy-to-read material, the Tenth Edition is a user-friendly source for people studying computers. Subjects such as I/O functions and structures, RISC, and parallel processors are explored integratively throughout, with real world examples enhancing the text for reader interest. With brand new material and strengthened pedagogy, this text engages readers in the world of computer organization and architecture.
Why Read This Book
You should read this book if you want a thorough, systems-oriented grounding in how processors and computers are designed so you can reason about real embedded systems, firmware, and OS trade-offs; you will learn the principles behind instruction sets, microarchitecture, memory hierarchy, I/O, and parallel processors and how those principles map to practical engineering decisions. The 10th edition integrates modern research and examples so you can apply core concepts to ARM/RISC-style designs, embedded Linux platforms, and multi-core systems.
Who Will Benefit
Ideal for undergraduate and graduate students or practicing engineers with some programming and digital-design background who need a rigorous foundation to design or evaluate microcontroller-based systems, RTOS/firmware, and embedded hardware–software interfaces.
Level: Intermediate — Prerequisites: Basic programming (C or similar), introductory digital logic (gates, combinational/sequential circuits), and discrete math/algorithms; familiarity with basic operating system concepts is helpful but not required.
Key Takeaways
- Explain the structure and role of instruction set architectures and how ISA choices affect embedded implementations.
- Analyze CPU microarchitecture, pipelining and hazards, and apply techniques to improve instruction throughput.
- Design and evaluate memory hierarchies and cache strategies to balance latency, bandwidth, and cost in embedded systems.
- Apply I/O and storage organization principles, including interrupt-driven I/O and DMA, to real embedded firmware scenarios.
- Assess parallel and multi-core processor designs and interconnection networks for performance scaling in embedded and IoT devices.
Topics Covered
- Introduction to Computer Organization and Performance Metrics
- Data Representation and Number Systems
- Instruction Set Architectures and Addressing Modes
- CPU Microarchitecture and Control
- RISC and CISC Design Principles
- Pipelining, Hazards, and Pipeline Optimization
- Instruction-Level Parallelism and Dynamic Scheduling
- Memory Hierarchy: Caches, Virtual Memory, and Main Memory
- I/O Organization, Interrupts, and DMA
- Secondary Storage and File Systems (overview)
- Parallel Processors, Interconnection Networks, and Multiprocessor Design
- Performance Evaluation, Case Studies, and Future Trends
Languages, Platforms & Tools
How It Compares
Similar in scope to Patterson & Hennessy's Computer Organization texts but Stallings emphasizes integrative coverage of I/O and parallel architectures and provides a broader survey-style treatment compared with Tanenbaum's more implementation-focused approach.
