Book Image

Computer Architecture with Python and ARM

By : Alan Clements
Book Image

Computer Architecture with Python and ARM

By: Alan Clements

Overview of this book

This comprehensive guide offers a unique and immersive learning experience by combining Python programming with ARM architecture. Starting with an introduction to computer architecture and the flow of data within a computer system, you’ll progress to building your own interpreter using Python. You’ll see how this foundation enables the simulation of computer operations and learn ways to enhance a simulator by adding new instructions and displaying improved results. As you advance, you’ll explore the TC1 Assembler and Simulator Program to gain insights into instruction analysis and explore practical examples of simulators. This will help you build essential skills in understanding complex computer instructions, strengthening your grasp of computer architecture. Moreover, you’ll be introduced to the Raspberry Pi operating system, preparing you to delve into the detailed language of the ARM computer. This includes exploring the ARM instruction set architecture, data-processing instructions, subroutines, and the stack. With clear explanations, practical examples, and coding exercises, this resource will enable you to design and construct your own computer simulator, simulate assembly language programs, and leverage the Raspberry Pi for ARM programming.
Table of Contents (18 chapters)
1
Part 1: Using Python to Simulate a Computer
Free Chapter
2
Chapter 1: From Finite State Machines to Computers
10
Part 2: Using Raspberry Pi to Study a Real Computer Architecture

Raspberry Pi basics

Microcomputers have been around since the 1970s. In the 1970s, several systems aimed at the enthusiast based on the Z80, 6502, and 6809 8-bit microprocessors appeared. Operating systems, apps, and the web didn’t exist then.

Then, in the late 1970s, Intel introduced the 8086 and Motorola its 68000 16-bit CPU (the 68000 microprocessor actually had a 32-bit instruction set architecture, but Motorola marketed it initially as a 16-bit machine. In my view this was a catastrophic marketing mistake. 16-bit computers were a giant leap up from their 8-bit predecessors for two reasons. First, the technology had advanced, permitting designers to put far more circuitry on a chip (i.e., more registers, more powerful instruction sets, etc.), and second, processors were far faster due to the reduction in feature size (i.e., smaller transistors). Finally, the declining cost of memory meant that people could run larger and more sophisticated programs.

In the 1960s, the...