Instruction Format DescriptionlwSWIw (withoffset)sw (withoffset)addiaddsubmulmultmflobeqbnesltjjaljrIw $a,O($b)sw $a,O($b)Iw $a,C($b)sw $a,C($b)addi $a,$b. Cadd $a,$b. $csub $a,$b, $cmul $a,$b, $cmult $a,$bmflo $abeq $a,$b.BLabelbne $a,$b.BLabelslt $a, $b,$cj JLabelLoad word: Copies data from memory ataddress $b to register $a.jr $aStore word: Copies data from register $a tomemory at address $b.Load word: Copies data from memory ataddress $b + C to register $a.Store word: Copies data from register $a tomemory at address $b + C.Add: Computes the sum of registers $b and$c, and writes the sum into register $a.Subtract: Subtracts $c from $b, and writesthe difference into register $a.Multiply: Multiplies register $b and $c, andwrites the lower 32-bits of the product intoregister $a. mul is a pseudoinstructionimplemented using mult and mflo.Multiply: Multiplies register $a and $b.writing the 64-bit result to special register$LO and $HI.Add immediate: Adds register $b and theimmediate value C, and writes the sum into addi $13, $t2,7register $a.Move from LO register: Copies value held inspecial register $LO to register $a.Branch on equal: Branches to the instructionat BLabel if the values held in $a and $b areequal. Otherwise, instruction immediatelyafter beq is executed.Branch on not equal: Branches to theinstruction at BLabel if the values held in $aand $b are not equal. Otherwise, instructionimmediately after bne is executed.Set on less than: Write 1 to register $a ifvalue held in register $b is less than valueheld in register $c, and otherwise writes 0.Jump: Causes execution to continue with theinstruction at JLabel.Jump and link: Stores the address of the nextjal JLabel instruction to register $ra, but continuesexecution with the instruction at JLabel.ExampleJump register: Causes execution to continuewith the instruction at address $a.lw $13, 0($16)sw $t1, 0($13)lw $13, 20($16)sw $t1,-4($13)add $14, $t1, $12sub $13, $12, $15mul $t3, $12, $t1mult $13, $15mflo $t2beq $13, $12,SumEq5bne $14, $15,GuessNeqCorrectsit $t1, $15, $16j CalcTipjal CalcTipir $13 Assignment 2 DirectionsPlease choose Option 1 or Option 2. You do not need to do both.Option 1:Please write a short paper based on Module 2 Hardware Components. Anything in the module can be a topic.Write a summary paper as follows:• Prepare a Word document with a minimum of 3 pages (not including title and references pages) and a minimum of 3solid references.Be sure to use APA Guidelines for references.• Make sure to save the file in the following format: FirstName_LastName_Paper.doc(x)• Upload the completed file as an attachment to this assignment..Option 2:1. Create an algorithm to add two integer numbers.2. Implement the program in a high level language like C or Java. It does not need to run for me, but the code shouldbe included in a text document called FirstnameLastnameHLA2.txt in your assignment submission.3. Implement the program in MIPSzy Assembly language. Use the high level code as comments to the right of theAssembly code as the textbook does.4. If you write that MIPSzy program in a text editor, you can then paste it into the simulator box in 11.1.1 of Chapter11 in the ZYBook. You can run the simulation there to test the code.1. The input values should be read from memory locations 5000 and 5004.2. Include a comment at the top of the program with your name and Panther id.3. Place the result in register $t0 and in memory location 5008.1. Export the file by clicking the "More Options" button and then Export on the right side. That will paste your programinto a small box on the right. Copy and paste that into a text document. Call that documentFirstnameLastnameMIPSzyA2.txt.2. Zip up FirstnameLastnameMIPszA2.txt and FirstnameLastnameHLA2.txt into a zip file calledFirstnameLastnameA2.zip. Do not use any other kind of zip file formats.

Code in C language: include<stdio.h> int main(){ int A, B; scanf("%d %d",…

W -W ww (with ffset) w (with offset) ddi add -ub mul nult nflo lw $a, O($b) sw $a, O($b) lw $a, C($b) sw $a, C($b) addi $a, $b, C add $a, $b, $c sub $a, $b, $c mul $a, $b. $c mult $a, $b mflo $a ben Sa Load word: Copies data from memory at address $b to register $a. Store word: Copies data from register $a to memory at address $b. Load word: Copies data from memory at address $b + C to register $a. Store word: Copies data from register $a to memory at address $b+ C. Add: Computes the sum of registers $b and $c, and writes the sum into register $a. Subtract: Subtracts $c from $b, and writes the difference into register $a. Multiply: Multiplies register $b and $c, and writes the lower 32-bits of the product into register $a. mul is a pseudoinstruction implemented using mult and milo. Add immediate: Adds register $b and the immediate value C, and writes the sum into addi $13, $12, 7 register $a. Multiply: Multiplies register $a and $b, writing the 64-bit result to special register $LO and $HI. Move from LO register: Copies value held in special register $LO to register $a. lw $13, 0($16) Branch on equal: Branches to the instruction sw $t1, 0($13) lw $13, 20($16) sw $t1,-4($13) add $14, $t1, $12 sub $13. $12, $15 mul $t3, $12, $t1 mult $t3, $t5 mflo $t2

7th Edition

ISBN:9780133594140

Author:James Kurose, Keith Ross

Publisher:James Kurose, Keith Ross

Chapter1: Computer Networks And The Internet

Section: Chapter Questions

Problem R1RQ: What is the difference between a host and an end system? List several different types of end...