control structures with pseudocode control structures
play

Control Structures with Pseudocode Control Structures Any - PDF document

Feb 04, 2023 •170 likes •1.59k views

Control Structures with Pseudocode Control Structures Any computer-oriented problem can be solved using the following three structures: Sequence Decision or Selection Repetition or Iteration Sequence Carrying out one

  1. Nested IF – T est 1 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 1: 5 number Output 5

  2. Nested IF – T est 1 READ number IF number > 0 true DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 1: 5 number Output 5

  3. Nested IF – T est 1 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 1: 5 number Output 5 Positive

  4. Nested IF – T est 1 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 1: 5 number Output 5 Positive

  5. Nested IF – T est 2 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 2: 0 number Output 0

  6. Nested IF – T est 2 READ number IF number > 0 false DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 2: 0 number Output 0

  7. Nested IF – T est 2 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 1: 5 number Output 0

  8. Nested IF – T est 2 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 false DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 2: 0 number Output 0

  9. Nested IF – T est 2 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 2: 0 number Output 0

  10. Nested IF – T est 2 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 2: 0 number Output 0 Zero

  11. Nested IF – T est 2 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 2: 0 number Output 0 Zero

  12. Nested IF – T est 2 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 2: 0 number Output 0 Zero

  13. Nested IF – T est 3 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 3: -3 number Output -3

  14. Nested IF – T est 3 READ number IF number > 0 false DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 3: -3 number Output -3

  15. Nested IF – T est 3 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 3: -3 number Output -3

  16. Nested IF – T est 3 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 true DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 3: -3 number Output -3

  17. Nested IF – T est 3 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 3: -3 number Output -3 Negative

  18. Nested IF – T est 3 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 3: -3 number Output -3 Negative

  19. Nested IF – T est 3 READ number IF number > 0 DISPLAY “Positive” ELSE IF number < 0 DISPLAY “Negative” ELSE DISPLAY “Zero” END IF END IF T est Data Test 3: -3 number Output -3 Negative

  20. CASE Structure  An alternative way of representing nested IFs.  Used most often where there are more than two possible choices.  Easier to write and understand than a nested IF.  Guidelines: ◦ 2 choices, use IF ◦ 3 choices, use IF or CASE ◦ > 3 choices, use CASE  Conditions are tested one after another until a true condition is found.  Only one set of actions is executed, the actions of the true condition.  After execution of the true condition, control jumps to the end, skipping all of the remaining tests.  The OTHERWISE is optional, but it is a good programming habit to always include it. It is often used for an error message when none of the conditions are true.

  21. CASE Structure CASE variable WHEN value (literal or variable) statement(s) if true WHEN value statement(s) if true OTHERWISE statement(s) if all other cases are false END CASE

  22. CASE Example READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 1: 1 Test 2: 2 Test 3: 3 Test 4: 10 choice Output

  23. CASE Example – T est 1 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 1: 1 choice Output 1

  24. CASE Example – T est 1 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 1: 1 choice Output 1

  25. CASE Example – T est 1 READ choice CASE choice WHEN 1 true DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 1: 1 choice Output 1

  26. CASE Example – T est 1 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 1: 1 choice Output 1 Choice was 1

  27. CASE Example – T est 1 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 1: 1 choice Output 1 Choice was 1

  28. CASE Example – T est 2 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 2: 2 choice Output 2

  29. CASE Example – T est 2 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 2: 2 choice Output 2

  30. CASE Example – T est 2 READ choice CASE choice WHEN 1 false DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 2: 2 choice Output 2

  31. CASE Example – T est 2 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 true DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 2: 2 choice Output 2

  32. CASE Example – T est 2 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 2: 2 choice Output 2 Choice was 2

  33. CASE Example – T est 2 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 2: 2 choice Output 2 Choice was 2

  34. CASE Example – T est 3 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 3: 3 choice Output 3

  35. CASE Example – T est 3 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 3: 3 choice Output 3

  36. CASE Example – T est 3 READ choice CASE choice WHEN 1 false DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 3: 3 choice Output 3

  37. CASE Example – T est 3 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 false DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 3: 3 choice Output 3

  38. CASE Example – T est 3 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 true DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 3: 3 choice Output 3

  39. CASE Example – T est 3 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 3: 3 choice Output 3 Choice was 3

  40. CASE Example – T est 3 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 3: 3 choice Output 3 Choice was 3

  41. CASE Example – T est 4 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4

  42. CASE Example – T est 4 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4

  43. CASE Example – T est 4 READ choice CASE choice WHEN 1 false DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4

  44. CASE Example – T est 4 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 false DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4

  45. CASE Example – T est 4 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 false DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4

  46. CASE Example – T est 4 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4

  47. CASE Example – T est 4 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4 Invalid choice

  48. CASE Example – T est 4 READ choice CASE choice WHEN 1 DISPLAY “Choice was 1” WHEN 2 DISPLAY “Choice was 2” WHEN 3 DISPLAY “Choice was 3” OTHERWISE DISPLAY “Invalid choice” END CASE Test Data Test 4: 4 choice Output 4 Choice was 4

  49. Repetition or Iteration  Use in a situation where a single task must be performed several times.  Loop  The number of times it is processed depends on the condition that is evaluated each time the group is processed.  Indent all statements which fall within the loop structure

  50. Three Types of Repetition Structures 1. Pretest Loop LOOP WHILE condition statement(s) if true END LOOP ◦ Must initialize the test value before the condition can be tested. ◦ Be sure the test value changes so the condition will eventually tests false. ◦ IF the condition tests false the first time, the statements in the loop are never executed.

  51. Three Types of Repetition Structures 2. Counter Controlled Loop LOOP # times statement(s) if true END LOOP ◦ Specialized type of pre-test loop. 3. Posttest Loop LOOP UNTIL condition statement(s) if true END LOOP ◦ Tested at end of the loop. ◦ Statements in the loop are always executed at least once. ◦ Loop terminates when the condition evaluates to true. ◦ Primarily used for searching through data for a specific value.

  52. LOOP WHILE Example READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 Test 2: 5 Test 3: 7 num Output

  53. LOOP WHILE - T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3

  54. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 true PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3

  55. LOOP WHILE - T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3

  56. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4

  57. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 true PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4

  58. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4

  59. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5

  60. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 true PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5

  61. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5 num = 5

  62. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5 num = 5 6

  63. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 false PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5 num = 5 6

  64. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5 num = 5 6

  65. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5 num = 5 6 After the loop num =

  66. LOOP WHILE – T est 1 READ num LOOP WHILE num <= 5 PRINT “num = ” num ADD 1 to num END LOOP DISPLAY “After the loop num = ” DISPLAY num Test data Test 1: 3 num Output 3 num = 3 4 num = 4 5 num = 5 6 After the loop num = 6

Download Presentation
Download Policy: The content available on the website is offered to you 'AS IS' for your personal information and use only. It cannot be commercialized, licensed, or distributed on other websites without prior consent from the author. To download a presentation, simply click this link. If you encounter any difficulties during the download process, it's possible that the publisher has removed the file from their server.

Recommend

Control Structures CS2253, Owen Kaser Control Structures Implementing familiar HLL control

Control Structures CS2253, Owen Kaser Control Structures Implementing familiar HLL control

Control Structures CS2253, Owen Kaser Control Structures Implementing familiar HLL control structures: if-then if-then-else while do..while Omit: switch See textbook Chapter 8 Basic Mechanism Essentially, to

311 views • 16 slides
Control Structures CIS 118 Intro to LINUX Basic Control Structures TEST The test utility,

Control Structures CIS 118 Intro to LINUX Basic Control Structures TEST The test utility,

Control Structures CIS 118 Intro to LINUX Basic Control Structures TEST The test utility, has many formats for evaluating expressions. For example, when given three arguments, will return the value true if the first and third argument

269 views • 10 slides
UMBC A B M A L F T U M B C I O M Y O T R 1 (November 26, 2000 9:39 pm) I E S

UMBC A B M A L F T U M B C I O M Y O T R 1 (November 26, 2000 9:39 pm) I E S

Advanced VLSI Design Subsystem Design CMSC 491C/691C Control Control is the hard part of design. The regularity found in arithmetic and memory structures usually not present in control structures. Finite-State machines provide an organized

521 views • 4 slides
CSC 1800 Organization of Programming Languages Control Structures 1 Control Structure A

CSC 1800 Organization of Programming Languages Control Structures 1 Control Structure A

CSC 1800 Organization of Programming Languages Control Structures 1 Control Structure A control structure is a control statement and the statements whose execution it controls Design question Should a control structure have multiple

318 views • 15 slides
Control Structures Lecture 4 COP 3014 Fall 2020 September 10, 2020 Control Flow Control flow

Control Structures Lecture 4 COP 3014 Fall 2020 September 10, 2020 Control Flow Control flow

Control Structures Lecture 4 COP 3014 Fall 2020 September 10, 2020 Control Flow Control flow refers to the specification of the order in which the individual statements, instructions or function calls of an imperative program are executed or

333 views • 19 slides
Bash Scripting: control structures CISC3130 Spring 2013 Fordham Univ. 1 Roadmap Shell

Bash Scripting: control structures CISC3130 Spring 2013 Fordham Univ. 1 Roadmap Shell

Bash Scripting: control structures CISC3130 Spring 2013 Fordham Univ. 1 Roadmap Shell variables Shell Arithmetic Control Structures Test, condition, logic operations Selection: if statements Loop: while, until, for

817 views • 62 slides
Algorithm Control Structures Analysis of Algorithms Sequencing If-Then-Else

Algorithm Control Structures Analysis of Algorithms Sequencing If-Then-Else

Algorithm Control Structures Analysis of Algorithms Sequencing If-Then-Else For loop Algorithm Control Structures While loop Recursive calls http://www.cp.eng.chula.ac.th/faculty/spj Sequencing Sequencing

564 views • 9 slides
Expressions, Statements, and Control Structures Announcements Assignment 2 out, due next

Expressions, Statements, and Control Structures Announcements Assignment 2 out, due next

Expressions, Statements, and Control Structures Announcements Assignment 2 out, due next Wednesday, February 1. Explore the Java concepts we've covered and will be covering. Unleash your creative potential! YEAH Hours Y our E

1.1k views • 61 slides
Control Structures Week 4: Control Structures Week 4: Monchai Sopitkamon Sopitkamon, Ph.D. ,

Control Structures Week 4: Control Structures Week 4: Monchai Sopitkamon Sopitkamon, Ph.D. ,

204111: Computer and 204111: Computer and Programming Programming Control Structures Week 4: Control Structures Week 4: Monchai Sopitkamon Sopitkamon, Ph.D. , Ph.D. Monchai Overview Overview Types of control structures Types of

428 views • 41 slides
Control Structures in Java if-else and switch Lecture 4 CGS 3416 Spring 2016 February 2, 2016

Control Structures in Java if-else and switch Lecture 4 CGS 3416 Spring 2016 February 2, 2016

Control Structures in Java if-else and switch Lecture 4 CGS 3416 Spring 2016 February 2, 2016 Control Flow Control flow refers to the specification of the order in which the individual statements, instructions or function calls of an

639 views • 19 slides
UNIT 2: CONTROL STRUCTURES. IF ELSE, FOR, WHILE TEXT LOGISTICS Lab #3 due Friday - must

UNIT 2: CONTROL STRUCTURES. IF ELSE, FOR, WHILE TEXT LOGISTICS Lab #3 due Friday - must

CS103L SPRING 2017 UNIT 2: CONTROL STRUCTURES. IF ELSE, FOR, WHILE TEXT LOGISTICS Lab #3 due Friday - must go if you havent checked it off yet HW#2 due Thursday - note updated due dates TEXT LEARNING OBJECTIVES Understand

1.01k views • 53 slides
More More JavaScript Lecture 8 CGS 3066 Fall 2016 October 13, 2016 JavaScript Control

More More JavaScript Lecture 8 CGS 3066 Fall 2016 October 13, 2016 JavaScript Control

More More JavaScript Lecture 8 CGS 3066 Fall 2016 October 13, 2016 JavaScript Control Structures Control structures are used when we want control to take a particular path through the code, depending on certain conditions. Control

287 views • 10 slides
CS 103 Lecture 3 Slides Control Structures Mark Redekopp 2 Announcements Lab 2 Due

CS 103 Lecture 3 Slides Control Structures Mark Redekopp 2 Announcements Lab 2 Due

1 CS 103 Lecture 3 Slides Control Structures Mark Redekopp 2 Announcements Lab 2 Due Friday 3 Review Write a program to ask the user to enter two integers representing hours then minutes. Output the equivalent number of

762 views • 72 slides
Control Structures 1 / 34 Control Flow Issues Multiple vs. single entry (&quot;How did we get

Control Structures 1 / 34 Control Flow Issues Multiple vs. single entry (&quot;How did we get

Control Structures 1 / 34 Control Flow Issues Multiple vs. single entry (&quot;How did we get here?&quot;) Multiple vs. single exit (&quot;Where do we go from here?&quot;) goto considered harmful ( goto makes it hard to answer

910 views • 34 slides
Machine-Level Programming II: Control Flow Today Condition codes Control flow structures

Machine-Level Programming II: Control Flow Today Condition codes Control flow structures

Machine-Level Programming II: Control Flow Today Condition codes Control flow structures Next time Procedures Fall 2011 Monday, October 10, 2011 Condition codes Single bit registers CF Carry Flag SF Sign Flag ZF Zero Flag OF

610 views • 37 slides
Complement Structures: Outline Complement Structures and Non-Finite Constructions in HPSG

Complement Structures: Outline Complement Structures and Non-Finite Constructions in HPSG

Complement Structures: Outline Complement Structures and Non-Finite Constructions in HPSG Category selection Nonfinite constructions: Raising and control Passive construction Introduction to HPSG 19. Mai 2009 Kordula De Kuthy 1 2

316 views • 10 slides
TRILL Fine Grained Labeling Donald Eastlake 3 rd Huawei

TRILL Fine Grained Labeling Donald Eastlake 3 rd Huawei

TRILL Fine Grained Labeling Donald Eastlake 3 rd Huawei Technologies d3e3e3@gmail.com November 2011 TRILL WG 1 Fine Grained Labeling A way to

469 views • 8 slides
On the Fefferman Construction Andreas Cap (joint with A. Rod Gover) May 2005 Associate to

On the Fefferman Construction Andreas Cap (joint with A. Rod Gover) May 2005 Associate to

On the Fefferman Construction Andreas Cap (joint with A. Rod Gover) May 2005 Associate to a nondegenerate CR structure of hypersurface type on a manifold M a circle bundle M M and a conformal structure on the total space M

343 views • 9 slides
www.farmvetco.org/homegrown-by-heroes/ Who is Matt Mccue? U.S. Army OIF veteran and returned

www.farmvetco.org/homegrown-by-heroes/ Who is Matt Mccue? U.S. Army OIF veteran and returned

Homegrown By Heroes www.farmvetco.org/homegrown-by-heroes/ Who is Matt Mccue? U.S. Army OIF veteran and returned Peace Corps volunteer Owner/Operator of Shooting Star Organic Farm and CSA in Fairfield, CA 10 years farming

517 views • 9 slides
FBK's Machine Translation Systems for IWSLT 2012's TED Lectures Nick Ruiz, Arianna Bisazza

FBK's Machine Translation Systems for IWSLT 2012's TED Lectures Nick Ruiz, Arianna Bisazza

FBK's Machine Translation Systems for IWSLT 2012's TED Lectures Nick Ruiz, Arianna Bisazza Roldano Cattoni, Marcello Federico FBK's Machine Translation Systems for IWSLT 2012's TED Lectures 1 Hong Kong, 6 December 2012 2 Outline Common

310 views • 27 slides
Internet Lab (iLab1) Basics Lars Wstrich ilab1@net.in.tum.de Chair of Network Architectures

Internet Lab (iLab1) Basics Lars Wstrich ilab1@net.in.tum.de Chair of Network Architectures

Chair of Network Architectures and Services Department of Informatics Technical University of Munich Internet Lab (iLab1) Basics Lars Wstrich ilab1@net.in.tum.de Chair of Network Architectures and Services Department of Informatics

240 views • 22 slides
Addressing the Challenges of Underspecification in Web Search Michael Welch mjwelch@cs.ucla.edu

Addressing the Challenges of Underspecification in Web Search Michael Welch mjwelch@cs.ucla.edu

Addressing the Challenges of Underspecification in Web Search Michael Welch mjwelch@cs.ucla.edu Why study Web search? ! ! Search engines have enormous reach ! ! Nearly 1 billion queries globally each day ! ! Search engines drive online

1.11k views • 66 slides
Wireless Communication Systems @CS.NCTU Lecture 12: Soft Information Instructor: Kate Ching-Ju

Wireless Communication Systems @CS.NCTU Lecture 12: Soft Information Instructor: Kate Ching-Ju

Wireless Communication Systems @CS.NCTU Lecture 12: Soft Information Instructor: Kate Ching-Ju Lin ( ) 1 PPR: Partial Packet Recovery for Wireless Networks ACM SIGOCMM, 2017 Kyle Jamieson and Hari Balakrishnan CSAIL, MIT What is

541 views • 26 slides
Contents of the Lecture Display of Remotely Sensed Images False color composites Natural

Contents of the Lecture Display of Remotely Sensed Images False color composites Natural

IIT Bombay Slide 1 July 31, 2014 Lecture 05 Image Display and Data Formats Contents of the Lecture Display of Remotely Sensed Images False color composites Natural

663 views • 50 slides

More recommend