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Muhamed F. Mudawar
mudawar@kfupm.edu.sa
Office: Building 22, Room 328, Phone: 4642
Schedule and
Office Hours
Syllabus |
Lectures |
Assignments |
Tools and Manuals |
Fall 2008
Announcements
Final Exam: Wednesday, June 24, 7 PM, Building 23, Room 011
Quiz 5 on Single-Cycle CPU Design: Saturday, May 23
Quiz 4 on Performance and Metrics: Monday, May 11
Quiz 3 on Integer Multiplication and Division:
Monday, May 4
Major Exam 1: Sunday, April 12, 7 pm, Building 24, Room 120
Covers: introduction, MIPS Instruction Set, MIPS Assembly Language, &
Floating-Point
Quiz 2 on MIPS Instruction and Assembly Language:
Wednesday, March 25
Quiz 1 on Computer Abstractions and Technology:
Wednesday, March 11
Assistant
Ammar Meer
Email:
mr-fi@hotmail.com
Any question related to grading should be directed to the teaching assistant
Textbook
David A. Patterson and John L. Hennessy Computer Organization & Design, The Hardware/Software Interface,
Third Edition, Morgan Kaufmann Publishers, 2005. ISBN: 1-55860-604-1.
Course Objectives
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Understanding the design process
of a modern computer system. This includes the design of the processor
datapath, control, memory system, and I/O subsystem.
Academic Honesty
View
important information on academic honesty
Exam
Schedule
Exam 1: Sunday, April 12, 7 PM,
Building 24, Room 120
Exam 2: Tuesday, May 26, 7 PM,
Building 24, Room 121
Final Exam: Wednesday, June 24,
7 PM, Building 23, Room 011
Sample Exams
Exam 1
- Spring 2008
Exam 2 - Fall 2008
Final Exam - Fall 2008
Grading
Homework & Quizzes: 10%
Projects: 25%
Major Exam I: 20%
Major Exam II: 20%
Final
Exam: 25%
Homework should be submitted
at the beginning of class time in the specified due date.
Late homework is not
accepted, especially if the solution is posted online.
Late projects are
accepted, but will be penalized 5% for each late day for a maximum of 5
late days.
Course
Topics and Lecture Breakdown by Week
Week |
Course Topics |
Reading |
1 |
Introduction to computer
architecture, ISA versus organization, components, abstraction,
technology improvements, chip manufacturing process. |
Chapter 1 |
2-4 |
Instruction set design,
RISC design principles, MIPS registers, instruction formats,
arithmetic instructions, immediate operands, bit manipulation,
load and store instructions, byte ordering, addressing modes,
flow control instructions, pseudo-instructions, procedures and
runtime stack, call and return, MIPS register conventions,
alternative IA-32 architecture. |
Sections 2.1 – 2.9
Sections 2.13, 2.15 – 2.18
Sections 3.2 – 3.3
Appendix A.9 – A.10 |
5 |
CPU performance and
metrics, CPI, performance equation, MIPS as a metric, Amdahl’s
law, benchmarks and performance of recent Intel processors. |
Chapter 4 |
6-7 |
Integer multiplication,
integer division, floating point representation, IEEE 754
standard, normalized and de-normalized numbers, zero, infinity,
NaN, FP comparison, FP addition, FP multiplication, rounding and
accurate arithmetic, FP instructions in MIPS. |
Sections 3.4 – 3.6
Sections 3.8 – 3.9 |
8-9 |
Designing a processor,
register transfer logic, datapath components, clocking
methodology, single-cycle datapath, main control signals, ALU
control, single-cycle delay, multi-cycle versus single-cycle instruction
execution. |
Sections 5.1 – 5.5 |
10 |
Pipelining versus serial
execution, MIPS 5-stage pipeline, pipelined datapath, pipelined
control, pipeline performance. |
Sections 6.1 – 6.3 |
11 |
Pipeline hazards,
structural hazards, data hazards, stalling pipeline, forwarding,
load delay, compiler scheduling, hazard detection, stall and
forwarding unit, control hazards, branch delay, dynamic branch
prediction, branch target and prediction buffer. |
Sections 6.4 – 6.6 |
12-13 |
Cache memory design,
locality of reference, memory hierarchy, DRAM and SRAM,
direct-mapped, fully-associative, and set-associative caches,
handling cache miss, write policy, write buffer, replacement
policy, cache performance, CPI with memory stall cycles, AMAT,
two-level caches and their performance, main memory organization
and performance. |
Sections 7.1 – 7.3
Sections 7.5 – 7.6 |
14-15 |
Introduction to parallel architectures |
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