Please help me with this operating systems principles homework CSCI 340 Final Exam 10:45Part 2:NameMemory1. Given six memory partitions of A:300 KB, B,600 KB, C:350 KB, D:200 KB, E:750 KB, andF:125 KB (in order), how would the first-fit, next-fit best-fit, and worst-fit algorithms placeprocesses of size 115 KB, 500 KB, 358 KB, 200 KB, and 375 KB (in order)?[20]Use the arrays below to label the space allocated under each of the algorithms. (not drawn toscale)First-FitA: 300B: 600C: 350D:200E: 750F:125Next-FitA: 300B: 600C: 350D:200E: 750F:125Best-FitSAISTSA: 300 08B: 600C: 350D:2008S E: 750F:125Worst-FitA: 300B: 600C: 350D:200E: 750F:125513

Let's apply the first-fit, next-fit, best-fit, and worst-fit algorithms to the memory partition…

Answered: CSCI 340 Final Exam 10:45 Part 2: Name…

Database System Concepts

7th Edition

ISBN:9780078022159

Author:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Chapter1: Introduction

Section: Chapter Questions

Problem 1PE

See similar textbooks

Similar questions

Given five memory partitions of 100 KB, 500 KB, 200 KB, 300 KB, and 600 KB (in order),how would each of the first-fit, best-fit, and worst-fit algorithms place processes of 212KB, 417 KB, 112 KB, and 426 KB (in order)? Which algorithm makes the most efficient use of memory?
Write a complete Assembly Language program for (80x60) microprocessor to: Find the largest and smallest number from an array present in the memeory locations 0401-040A and store the Largest number in 040B (Largest No) and 040C (Smallest No). Note :numbers in the array are [67h,32h,6Fh,57h,22h,16h,08h,49h,78h,1Dh]. Show the output after execution.
Given the Five (5) memory partitions of size 90KB, 200KB, 70KB, 115KB and 15KB, how each of the first fit, best fit and worst fit algorithms place processes of size 11KB, 115KB, 200KB, and 66 KB. Which algorithm makes efficient use of memory?
Given five memory partitions of 150Kb,550Kb,250Kb,350Kb,600Kb(inorder),how would the first-fit,best-fit,and worst-fit algorithm splace processes of 202Kb,427Kb,122Kb,and426Kb(inorder)?
Given memory partitions of 100K, 600K, 400K, 500K, and 300K (inorder), howwould each of the First-fit, Best-fit, and Worst-fitalgorithms place processes of 117K, 412K, 325K, and 510K (inorder)?
Consider the free memory layout shown below (the blocks are ordered from top to bottom). To the right, draw to the what the free memory layouts would be after satisfying requests for (in order) memory blocks of size 55K, 210K, 381K, and 395K. Draw one memory layout for the best-fit algorithm, and one for first-fit. 500K 300K 200K 300K
Question 11 Given four memory partitions of 600 KB, 250 KB, 420 KB, 300KB (in order), how would the first-fit, and worst-fit algorithms place processes of size 220 KB, 350 KB, 158 KB, 400 KB, and 175 KB (in order)?
The associative memory formed by the four column vectors x1, x2, X3, and x4 is given by (a) X1X2X3X4 (b) x1x1* + x2x2* + X3X3'+ X4X4 (c) x1*x1 + x2*x2 + x3%3 + X4x4* (d) x1x1 - x2*x2 - x3'x3 - x4x4*
5. Given five memory partitions of 100 KB, 500 KB, 200 KB, 300 KB, and 600 KB (in order), how would each of the a) first-fit, b) best-fit, and d) worst-fit algorithms place processes of 212 KB, 417 KB, 112 KB, and 426 KB (in order)? Which algorithm makes the most efficient use of memory? Diagrams may be used for this question. ore pe incro
Principle of locality is defined by Stallings as the tendency of a processor to access the same set of memory locations repetitively over a short period of time. Locality is a universal behavior of all computational processes: They tend to refer repeatedly to subsets of their resources over extended time intervals. Use your own words to answer the following questions: What is the distinction between spatial locality and temporal locality? In general, what are strategies for exploiting spatial locality and temporal locality? How does the principle of locality relate to the use of multiple memory levels?
Simulated annealing requires a very small amount of memory, just enough to store two states: the current state and the proposed next state. Suppose we had enough memory to hold two million states. Propose a modification to simulated annealing that makes productive use of the additional memory. In particular, suggest something that will likely perform better than just running simulated annealing a million times consecutively with random restarts. [Note: There are multiple correct answers here.]
1) Suppose five memory partitions of 200 KB, 600 KB, 300 KB, 400 KB, and 700 KB (in order), how would each of the first-fit, best-fit, and worst-fit algorithms place processes of 315 KB, 520 KB, 115 KB, and 430 KB (in order)? Which algorithm makes the most efficient use of memory? 2) Compare the First fit and Best fit partition allocation with reference to Memory Man- agement. 3) What should be the optimal size of a page/frame?

SEE MORE QUESTIONS

Recommended textbooks for you

Database System Concepts

Computer Science

ISBN:

9780078022159

Author:

Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:

McGraw-Hill Education

Starting Out with Python (4th Edition)

Computer Science

ISBN:

9780134444321

Author:

Tony Gaddis

Publisher:

PEARSON

Digital Fundamentals (11th Edition)

Computer Science

ISBN:

9780132737968

Author:

Thomas L. Floyd

Publisher:

PEARSON

Database System Concepts

Computer Science

ISBN:

9780078022159

Author:

Abraham Silberschatz Professor, Henry F. Korth, S. Sudarshan

Publisher:

McGraw-Hill Education

Starting Out with Python (4th Edition)

Computer Science

ISBN:

9780134444321

Author:

Tony Gaddis

Publisher:

PEARSON

Digital Fundamentals (11th Edition)

Computer Science

ISBN:

9780132737968

Author:

Thomas L. Floyd

Publisher:

PEARSON

C How to Program (8th Edition)

Computer Science

ISBN:

9780133976892

Author:

Paul J. Deitel, Harvey Deitel

Publisher:

PEARSON

Database Systems: Design, Implementation, & Manag…

Computer Science

ISBN:

9781337627900

Author:

Carlos Coronel, Steven Morris

Publisher:

Cengage Learning

Programmable Logic Controllers

Computer Science

ISBN:

9780073373843

Author:

Frank D. Petruzella

Publisher:

McGraw-Hill Education

SEE MORE TEXTBOOKS