The exercise on the design methodologies of microprocessor software (instruction set, assembly programming) and hardware (arithmetic logic, control logic) is conducted in groups following the experimental guidebook. In the second half of the experiment, each group will choose a topic related to microprocessor design enhancement and carry out planning, implementation, and documentation to experience the creative design process.
Learn the instruction set and assembly programming techniques for a 16-bit microprocessor,
Learn the microprocessor design methodologies using hardware description languages and simulation techniques.
Perform your own microprocessor improvement design independently, and experience a project through a series of tasks, including topic planning, specification design, implementation design, design verification, design evaluation, and document creation for overall work.
Microprocessor, instruction set, assembly programming, hardware description language
✔ Specialist skills | Intercultural skills | ✔ Communication skills | ✔ Critical thinking skills | ✔ Practical and/or problem-solving skills |
Each group will conduct assembly programming, Verilog simulation, and a free topic project (microprocessor improvement design or application design), and submit a report on each subject.
Course schedule | Required learning | |
---|---|---|
Class 1 | Assembly programming exercise 1: Understanding Instruction set, Instruction formats, and Assembly language specifications | |
Class 2 | Assembly programming exercise 2: multiplication programming and division programming | |
Class 3 | Assembly programming exercise 3: Hexadecimal to decimal conversion programming | |
Class 4 | Assembly programming exercise 4: Prime number calculation programming | |
Class 5 | Assembly programming exercise 5: Sample program analysis (calculator program, Input/Output program) | Subject1.A: Creating assembly programs |
Class 6 | Hardware description language exercise 1: Understanding of Verilog language specification | |
Class 7 | Hardware description language exercise 2: Analyzing and understanding the hierarchical structure of the computer composed of various modules, from Verilog description to block diagrams | |
Class 8 | Hardware description language exercise 3: Understanding the operational behavior of a microprocessor through Verilog simulation | |
Class 9 | Hardware description language exercise 4: Logic simulations of the 4 created programs using Verilog simulator | Subject1.B: Microprocessor operation analysis and Verilog simulation of the 4 created programs |
Class 10 | Microprocessor application exercise 1: Planning for microprocessor improvement design topics (e.g. instruction set extensions, software development, etc.). Each group will select a topic and make a plan for work assignment and schedule | Subject2-1: Plan for the Microprocessor application design |
Class 11 | Microprocessor application exercise 2: Specification design for microprocessor improvement design | |
Class 12 | Microprocessor application exercise 3: Function design for microprocessor improvement design | |
Class 13 | Microprocessor application exercise 4: Implementation for microprocessor improvement design | |
Class 14 | Microprocessor application exercise 5: Design verification and documents creation for the microprocessor improvement design | Subject2-2: Microprocessor application design |
To enhance effective learning, students are encouraged to spend approximately 50 minutes preparing for class and another 50 minutes reviewing class content afterwards (including assignments) for each class.
They should do so by referring to textbooks and other course material.
Experimental manual/guidebook will be distributed on the experiment's website
reference materials and Q&A will be published on the experiment's website
Grades are scored on the submitted reports
It is desirable to have completed courses in "logic circuit theory" and "computer logic design" before participating in the experiment.
Appointments should be made via email