PARI 1 DIGITAL LOGIC AND FINITE STATE MACHINES
CHAPTER 1 DIGITAL LOGIC FUNDAMENTALS
1.1 Boolean Algebra
1.2 Basic Combinatorial Logic
1.3 More Complex Combibatorial Components
1.4 Combinatirial Circuit Designs
1.5 Basic Sequential Components
1.6 More Complex Sequential Components
1.7 REAL WORLD EXAMPLE:PROGRAMMABLE LOGIC DEVICES
1.8 Summary
CHAPTER 2 INTRODUCTION TO FINITE STATE MACHINES
2.1 State Diagrams and State Tables
2.2 Mealy and Moore Machines
2.3 Designing State Diagrams
2.4 From State Diagram to lmplementation
2.5 REAL WORLD EXAMPLE:PRACTICAL CONSIDERATIONS
2.6 Summary
PART 2 COMPUTER ORGANIZATION AND ARCHITECTURE
CHAPTER 3 INSTRRCTION SET ARCHITECTURES
3.1 Levels of Programming Languages
3.2 Assembly Language Instructions
3.3 Instruction Set Archigecture Design
3.4 A Relatively Simple Instruction Set Architecture
3.5 REAL WORLD EXAMPLE:THE 8085MICROPROCESSOR INSTRUCRION SET ARCHITECTURE
3.6 Summary
CHAPTER 4 INTRODUCTION TO COMPUTER ORGANEZATION
4.1 Basic Computer Organization
4.2 CPU Organization
4.3 Memory Subsystem Organization and Interfacing
4.4 I/O Subsystem Organization and Interfacing
4.5 A Relatively Simple Computer
4.6 REAL WORLD EXAMPLE:AN 8085-BASED COMPUTER
4.7 Summary
CHAPTER 5 REGISTER TRANSFER LANGUAGES
5.1 Micro-Operations and Register Transfer Language
5.2 Using RTL to Specify Digital Systems
5.3 More Complex Digital Systems and RTL
5.4 REAL WORLD EXAMPLE:VHDL-VHSIC HARDWARE DESCRIPTION LANGUAGE
5.5 Summary
CHAPTER 6 CPU DESIGN
6.1 Specifying
6.2 Design and Implementateon of a Very Simple CPU
6.3 Design and Implementation of a Relatively Simple CPU
6.4 Shortcomings of the Simple CPUs
6.5 REAL WORLD EXAMPLE:INTERNAL ARCHITECTURE OF THE 8085-INTEL MICROPROCESSOR
6.6 Summary
CHAPTER 7 MICROSEQUENCER CONTROL UNIT DESIGN
7.1 Basic microsequencer Design
7.2 Design and Implementation of a Very Simple Microsequencer
7.3 Design and Implementation of a Relatively Simple Microsequencer
7.4 Reducing the Number of Microinstructeons
7.5 Microprogrammed Control VS.Hardwired Control
7.6 REAL WORLD EXAMPLE:A(MOSTLY)MICROCODED CPU:THE PENTIUM PROCESSOR
7.7 Summary
CHAPTER 8 COMPUTER ARITHMETIC
8.1 Unsigned Notation
8.2 Signed Notation
8.3 Binary Coded Decimal
8.4 Specialized Arithmetic Hardware
8.5 Floating Poing Numbers
8.6 REAL WORLD EXAMPLE:THE IEEE754FLOATING POINT STANDARD
8.7 Summary
CHAPTER 9 MEMORY ORGANIZATION
9.1 Hierarchical Memory Systems
9.2 Cache Memory
9.3 Virtual Memory
9.4 Beyond the Basics of Cache and Virtual Memory
9.5 REAL WORLD EXAMPLE:MEMORY MANAGEMENT IN A PENTIUM/WINDOWS PERSONAL COMPUTER
9.6 Summary
CHAPTER 10 INPUT/PUTPUT ORGANIZATION
10.1 Asynchronous Data Transfers
10.2 Programmed I/O
10.3 Interrupts
10.4 Direct Memory Access
10.5 I/O Processors
10.6 Serial Communication
10.7 REAL WORLD EXAMPLE:SERIAL COMMUNICATION STANDARDS
10.8 Summary
PART 3 ADVANCED TOPICS
CHAPTER 11 REDUCED INSTRUCTION SET COMPUTING
11.1 RISC Rationale
11.2 RISC Instruction
11.3 Instruction Pipelines and Register Windows
11.4 Instruction Pipeline Conflicts
11.5 RISC VS.CISC
11.6 REAL WORLD EXAMPLE:THE ITANIUM MICROPROCESSOR
11.7 Summary
CHAPTER 12 INTRODUCTION TO PARALLEL PROCESSING
12.1 Parallelism in Uniprocessor Systems
12.2 Organization of Multiprocessor Systems
12.3 Communication in Multistage Interconnection
12.4 Memory Organization in Multiprocessor Systems
12.5 Multiprocessor Operating Systems and Software
12.6 Parallel Algorithms
12.7 Alternative Parallel Architectures
12.8 Summary
INDES
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