[ENGN3213 Home]

Contents

• Contents
• Introduction
  • General
  • Notebooks
  • Laboratory Objectives
  • What is expected from you in the Labs and Tuts?
• Computer Lab 1 - Introduction to Xilinx
  • Aim
  • Preparation
  • Equipment
  • Digital Logic Schematics
  • Xilinx Foundation Projects
  • Starting Xilinx Foundation
  • Opening a Xilinx Project
  • Schematic Editor
  • Simulating a Digital Circuit
  • Implementing a Digital Circuit for FPGA
  • Bit Slice 4-Bit Adder
  • Creating a New Project
  • Creating a New Schematic
  • Simulation of the Full Adder
  • Hierachical Design
  • Appendix: Binary Arithmetic
• Computer Lab 2 - Introduction to VHDL
  • Aim
  • Preparation
  • Equipment
  • Digital Circuits and VHDL
  • A Warning About VHDL
  • Creating a New VHDL Project
  • 4-bit Adder using Schematics and VHDL
  • 4-bit Adder using only VHDL
• Computer Lab 3 - Flip Flops and State Machines: Schematics
  • Aim
  • Preparation
  • Equipment
  • Pedestrian Crossing Controller
  • Flip Flops
  • Up/Down/Stop Counter
• Computer Lab 4 - Flip Flops and State Machines: VHDL
  • Aim
  • Preparation
  • Equipment
  • JK Flip Flop
  • Pedestrian Crossing Controller
  • Up/Down/Stop Counter
• Computer Lab 5 - Introduction to BSVC 68000 Simulator
  • Aim
  • Preparation
  • Equipment
  • Introduction
  • The BSCV 68000 Simulator
  • Hand Assembly and Running
  • The 68kasm Assembler
  • Running a Program on the BSVC
  • Assembly Code and Directives
• Computer Lab 6 - Assembly Language Programming
  • Aim
  • Preparation
  • Equipment
  • Introduction
  • Subroutines
  • Methods for Parameter Passing
  • Local Variables and Stack Frames
  • Nested Subroutines
• Computer Lab 7 - Assembly and C Programming
  • Aim
  • Preparation
  • Equipment
  • Preliminaries
  • gcc Assembler Syntax and Directives
  • Assembling and Linking
  • Scripts and Makefiles
  • C Programming
• Hardware Lab 1 - Combinational Design using Schematics
  • Aim
  • Preparation
  • Equipment
  • Preliminaries
  • 4-bit ALU Design - PREPARATION
  • LABORATORY - Hardware Implementation of the ANDOR Project
  • LABORATORY - Hardware Implementation of the 4-bit ALU Project
• Hardware Lab 2 - Combinational Design using VHDL
  • Aim
  • Preparation
  • Equipment
  • 4-bit ALU Design using VHDL only - PREPARATION
  • LABORATORY - Hardware Implementation of the 4-bit ALU Project
• Hardware Lab 3 - Counter Design using VHDL
  • Aim
  • Preparation
  • Equipment
  • Binary/Gray Counter Design
  • Laboratory Tasks
• Hardware Lab 4 - Counter Design using Schematics
  • Aim
  • Preparation
  • Equipment
  • Binary/Gray Counter Design
  • Laboratory Tasks
• Hardware Lab 5 - Reaction Timer Design
  • Aim
  • Preparation
  • Equipment
  • Reaction Timer
  • Design
  • Laboratory Tasks
• Hardware Lab 6 - Introduction to Coldfire uP and I/O
  • Aim
  • Preparation
  • Equipment
  • The Coldfire 5206 Single Board Computer
  • Getting Started
  • The dBug Monitor
  • A First Example
  • Assembling and Linking
  • Scripts and Makefiles
  • Calling a C Function from Assembler
  • A C Example
  • Linking Two or More Object Files
  • Microprocessor Input/Output
  • Text-based I/O via dBug Monitor
  • Parallel Port
  • Timer
  • Interrupts
  • A Note on Using GCC Under UNIX
• Hardware Lab 7 - Assembly Language I/O
  • Aim
  • Preparation
  • Equipment
  • LED Flasher - Documented Assembly Language Program
  • Laboratory Tasks
• Hardware Lab 8 - C Language I/O
  • Aim
  • Preparation
  • Equipment
  • LED Flasher - Documented C Language Program
  • Laboratory Tasks
• Hardware Lab 9 - Reaction Timer and Serial Communication
  • Aim
  • Preparation
  • Equipment
  • Introduction
  • System Design
  • Laboratory
  • Appendix - MCF5206 UART 1 Registers
  • Appendix - Serial Communication
• APPENDIX: The Digital Design and Microprocessor Lab
  • Overview
  • Xilinx FPGA
  • Xilinx Demo Board
  • Digital Trainer Board
  • Motorola Coldfire SBC Cable

[ENGN3213 Home]