CDA-4101 Section 02, Fall 2001 Syllabus
Homework Grading Policy |
Each assignment |
0 to 20 points |
Exams and Assignments |
|
Exam 1 |
Exam 2 |
Homework |
% of Grade |
35% |
35% |
30% |
Dates |
Wednesday, 10/10 |
Monday, 12/10: 1825 - 2005 |
Various |
Text |
Structured Computer Organization, Fourth Edition,
Andrew S. Tannebaum, Prentice Hall, Fourth Edition |
Room and Time |
ECS-136 MW 1825-1940 |
Attendance I recommend that you attend every class. Those who attend
class have a better chance of passing the course.
Prerequisites MAD 2104, COP 3402, COP 3337
Late Assignment Policy Assignments are due at the START of class.
You lose 1 point off the grade for every 6 hours. You may hand in a nassignment
up to 1 week late, I will start the grading for very late assignments at
12 points (60%).
Working Together on Assignments is NOT
ALLOWED. There is a large difference between discussing general aspects
of the course and discussing specific aspects of an assignment. Do not discuss
your solution of a problem with others. Assignments that are too similar
will not be graded. With a second occurrence, you will earn an F in the course.
Course Content
-
-
Review: Multilevel Computers
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The Digital Logic Level
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The Microarchitecture Level
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The Instruction Set Architecture Level
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The Operating System Level
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The Assembly Language Level
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Computer Families
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Pentium II
-
UltraSPARC II
-
picoJava II
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Organization
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Processors
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RISC vs CISC
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Instruction-level parallelism
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Processor-level parallelism
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Array Computers
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Vector
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Multiprocessors
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Multicomputers
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The Digital Logic
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Level Gates and Boolean Algebra
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Basic Digital Logic
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Circuits
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Memory
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CPU Chips
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Buses
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I/O Chips
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The Microprogramming Level
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An Example Microarchitecture
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An Example Macroarchitecture (ISA)
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An Example Microcode
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Design of the Microarchitecture Level
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Improving Performance
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Examples of the Microarchitecture Level
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Machine Level
-
Assembly Level
Course Objectives
- Be exposed to the hierarchy of virtual machines in a computer system
- Be familiar with the CPU instruction execution cycle
- Master the design of memory, ALU, control unit, and design of microprogram
- Be familiar with cache architectures, branch predictions and
scheduling of multiple instruction issue
- Be familiar with instruction set architecture, interrupts, and traps
- Be familiar with CISC and RISC architectures, and parallel computer
configurations
- Be exposed to shared-memory and message-passing multicomputers, and
cache coherence protocols