Department of Computer Science
CSU Stanislaus
California State University
CS3740-002: Computer Organization
Fall 2022
Instructor: Dr. Xuejun Liang
My Office: DBH 282
Office Hours: MWF 1:00PM-2:00AM
Phone : (209) 667-3169, Email : xliang@cs.csustan.edu
Class Information
Classroom: Bizzini 102
Class Date & Time: MWF 2:00PM-2:50PM
Class Website: https://www.cs.csustan.edu/~xliang/Courses2/CS3740-22F
Course Materials
Textbook: The Essentials of Computer Organization and Architecture, Fifth Edition, by LindaNull and Lobur, Jones & Bartlett Learning, 2019
Computer
Architecture Simulator:
The Marie Computer Architecture Simulator Revision (MarieSimR)
How to Install and Use MarieSim
and MarieSimR
Please reference the MarieSim quick
guide for installing and using MarieSim.
You can install and use MarieSimR in the exactly same way as for MarieSim.
The Simulator Jar Files (Executables) can be downloaded using the following
links. · MarieSim (MarieSim.jar) · MarieSimR (MarieSimR.jar) |
MARIE Assembly Language Programs with Using MarieSim
·
Example
4.0 (Ex4_0.mas) ·
Example
4.1 (Ex4_1.mas) ·
Example
4.2 (Ex4_2.mas) ·
Example
4.3 (Ex4_3.mas) ·
Example
4.3 (Ex4_4.mas) |
MARIE Assembly Language Programs with Using MarieSimR
·
Example
1 (Code for MarieSim
and Code for MarieSimR) ·
Example
2 Method 1 – Using Loop (Code for MarieSim and Code
for MarieSimR) ·
Example
2 Method 2 – Using Function and
Global Variables (Code for MarieSim and Code for MarieSimR) ·
Example
2 Method 3 – Using Function and
Local Variables (Code for MarieSimR) ·
Example
2 Method 4 – Using Recursive Function (Code for MarieSimR) ·
Presentation
Slides: MarieSimR
|
Lecture Slides with
the textbook
Chapter 4 MARIE: An Introduction to a Simple Computer
Chapter 5 A Closer Look at Instruction Set Architectures
Chapter 6 Memory
Chapter 7 Input/Output Systems
Chapter 8 System Software
Chapter 9 Alternative Architectures
Chapter 10 Topics in Embedded Systems
Chapter 11 Performance Measurement and Analysis
New Lecture Slides
with the textbook
Chapter 4 MARIE: An Introduction to a Simple Computer (A, B)
Chapter 5 A Closer Look at Instruction Set Architectures (A, B, C, D)
Chapter 6 Memory (A, B, C, D, E, F, G)
Chapter 7 Input/Output Systems (A, B, C, D, E)
Chapter 8 System Software (A, B)
Chapter 9 Alternative Architectures (A, B, C, D)
Chapter 10 Topics in Embedded Systems (A, B)
Chapter 11 Performance Measurement and Analysis (A, B, C, D, E)
Course Syllabus and Major Topics
Course
Description
Instruction set
architecture design, digital logic techniques, cache memory, virtual memory,
I/O architectures and devices, computer performance enhancements. Selected
topics on embedded systems, parallel computer architecture and processing
approaches.
Course Outcomes
After successful completion of this course, students will be able to:
1. Describe the organizations of a computer, its major functional units, its instruction set, its instruction formats, its instruction execution, as well as interrupts and I/O operations, and translate assembly instructions into object codes.
2. Describe memory hierarchy, cache memory, and virtual memory, and compute the cache miss ratio and the effective memory access time for a simple program, and the physical address for a given virtual address.
3. Describe I/O architectures, I/O bus operations, magnetic disks, solid state drives, optical disks, magnetic tape, and redundant array of independent disks (RAID), and compute the disk capacity and performance.
4. Become familiar with the functions provided by operating systems and programming tools. Understand the role played by each software component in maintaining the integrity of a computer system and its data.
5. Understand Flynn’s taxonomy and describe models, structures, and techniques used for organizations of parallel and multiprocessor architectures and interconnection networks.
6. Describe the processes and practices of embedded hardware design and understand key concepts and tools for embedded software development.
7. Evaluate computer performances by using quantitative approaches, including Amdahl’s law, and describe common benchmarks and their limitations.
Homework Assignments
HA#12 (Chapter 7): Exercises: 42, 48