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Midterm Exam Study Guide - Computer Organization and Architecture | INFS 515, Study notes of Computer Architecture and Organization

Mid-Term Material Type: Notes; Professor: Masiyowski; Class: Computer Organization/Oper Sys; Subject: Information Systems; University: George Mason University; Term: Unknown 1989;

Typology: Study notes

Pre 2010

Uploaded on 02/12/2009

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koofers-user-q76 🇺🇸

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Download Midterm Exam Study Guide - Computer Organization and Architecture | INFS 515 and more Study notes Computer Architecture and Organization in PDF only on Docsity! INFS515 Computer Organization & Architecture Spring 2007 Mid-Term Exam − Student Study Guide Here are some guidelines for the mid-term exam. Note: The list below is not meant to be all-inclusive. NOTE: Make sure that you have checked your book against the publisher’s book errata sheet and made corrections as appropriate. Ensure that you are using the correct editions of the text and other material. 1. Keep in mind that the exams are closed book, closed notes and no calculators will be permitted. 2. Mid-Term Exam covers textbook Chapters 1-3 inclusive. 3. The mid-term exam will focus on problem solving questions. However, there may be a few essay type questions. 4. Review all homework assignments (both textbook and non-textbook). Use homework assignments as a study guide. 5. Review previous quizzes and use as a study guide. 6. Review all lecture slides and your lecture notes. 7. Review and answer the "review of essential terms and concepts" questions at the end of each chapter. 8. Work the exercises at the end of each chapter that were not assigned as homework for extra practice. 9. Understand the examples shown though out each chapter as well as the examples covered in class. 10. Lectures and corresponding class discussion. 11. Your notes from the lectures should serve you as a good list of topics to know. 12. Check the link "tips on exam taking" on the course's useful links page as an added study aid. 13. Know how to apply the principles of Moore’s & Rock's Laws. 14. Know positional number system concepts, principles and basics. Know how to convert between different number system bases. 15. When performing number conversion between difference base/radix number systems, know how to check the answers. 16. Know the "numbers to remember" (refer to Table 2.1 in the text) - memorize/ know how to reconstruct from your memory recall. 17. Boolean Algebraic identities will be provided to use for solving Boolean expression/equation identity and expression/equation simplification problems. 18. Know the rules for Modulo 2 arithmetic (including addition and division) 19. Know how to perform binary-based addition, subtraction, multiplication and division. 20. Know how to perform floating-point addition, subtraction, multiplication, and division in binary format. 21. Know how to represent floating point decimal numbers in a binary floating point representation. 22. Understand the sources of floating point error and how to compute the error? 23. Know how to compute and check CRCs what purpose CRC’s serve. 24. Know the fundamentals concepts of operation between combinatorial and sequential circuits. 25. Know how to evaluate and analyze combinatorial and sequential circuits. 26. Know how to use truth tables to evaluate Boolean expressions using Boolean Algebraic notation. 27. Understand how to state Boolean expressions in product-of-sums and sums-of-product forms. 28. Be able to write Boolean expressions from a given digital circuit diagram. 29. Know how to create an equivalent digital circuit diagram for a given Boolean expression. 30. Know the common Boolean operators and their equivalent logic gates. 31. Know the universal logic gates and their equivalents. 32. Understand the principle of clocks as applied to sequential circuits. 33. Understand the principles of abstraction and information hiding as applied to digital circuit design. 34. Understand the relationship between the binary number system, Boolean Algebra, and digital logic. 35. Check the useful links page for additional reference information. 36. Understand the principles of Finite State Machines (FSM). Know how to translate between a truth table and a Moore/Mealy FSM representation (and vice-versa). Know how to create a state diagram (Moore/Mealy) from a digital logic sequential circuit. 21 February 2007 Page 1 of 1
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