Question 12Given the following C variables and their assignments to registers, translate the C code to assembly. You must use conditional execution with explicit IT instrucC Variableuint16_t a;uint16_t b;uint16_t c;Registerror1r2C code:if (a > b) {C = a - b;} else {C = b - a;For the toolbar, press ALT+F10 (PC) or ALT+FN+F10 (Mac).BIUSParagraphA v*G白QArial14pxTCD

Please give positive ratings for my effort. Thanks. ANSWER main: push rbp mov…

Given the following C variables and their assignments to registers, translate the C code to assembly. You must use conditional execution with explicit IT instru C Variable uint16 t a; uint16 t b; uint16 t c; Register ro r1 r2 C code: if (a > b) { C = a - b; } else { C = b - a; } For the toolbar, press ALT+F10 (PC) or ALT+FN+F10 (Mac). BIU up Paragraph Arial 14px A v Q

Given the following C variables and their assignments to registers, translate the C code to assembly. You must use conditional execution with explicit IT instru C Variable uint16 t a; uint16 t b; uint16 t c; Register ro r1 r2 C code: if (a > b) { C = a - b; } else { C = b - a; } For the toolbar, press ALT+F10 (PC) or ALT+FN+F10 (Mac). BIU up Paragraph Arial 14px A v Q

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

To demonstrate each of the addressing modes presented in this chapter, translate the following pseudo code into MIPS assembly. Because variables x and y are static and volatile, they should be kept in data memory. You do not need to save the register while utilising registration direct access. variables in memory.main() { static volatile int miles = prompt("Enter the number of miles driven: "); static volatile int gallons = prompt("Enter the number of gallons used: "); static volatile int mpg = miles / gallons; output("Your mpg = " + mpg);}
To demonstrate each of the addressing modes presented in this chapter, translate the following pseudo code into MIPS assembly. Because variables x and y are static and volatile, they should be kept in data memory. You do not need to keep variables in memory when utilising register direct access. main() { static volatile int miles = prompt("Enter the number of miles driven: "); static volatile int gallons = prompt("Enter the number of gallons used: "); static volatile int mpg = miles / gallons; output("Your mpg = " + mpg);}
Answer the given question with a proper explanation and step-by-step solution. PLEASE PAY ATTENTION TO THE DATA TYPES AND FOLLOW THE CODE AND DIRECTIONS EXACTLY Convert the following C++ program into an x86 assembly language program.Comment the start of each "code block" that performs one of the listed mathematical calculations.Comments go to the right of the actual code, all starting on the same column.Post ONLY your ASM file here to Blackboard when complete. // Global variableschar a = 5;char b = 6;char c = 7;char d = 8;char e = 2;char f = 3;char g = 1;char h = 4;// Codeint main(){ --h; c = g + h; d = e + 22 - c - b; g = -h; ++b; a = g + d - 15; b = a + 92 - b; h = d + (-f) - d; // Move a into the eax register // Move b into the ebx register // Move c into the ecx register // Move d into the edx register // Call the DumpRegs function // Move e into the eax register // Move f into the ebx register // Move g into the ecx register…
Take a look at the following assembly code. Which of the following describes what is going on in the code? MOVQ $0 , %raxmystery: INCQ %rax CMPQ $5 , %rax JL mystery Group of answer choices A. This is a function call to the function 'mystery' where we increment the value stored in rax. B. This is essentially a while loop decreasing a counter by 1. C. First 0 is stored in a register--rax. Then we increment rax by 1, and compare to see if the value is 5. If it is less than 5, then we jump back to the label mystery. This is essentially a while loop incrementing a counter by 1.
To illustrate each of the addressing modes discussed in this chapter, translate the following pseudocode into MIPS assembly. The variables x and y should be placed in data memory since they are static and volatile. There is no requirement to keep the data while utilising registration direct access. variables in memory.main() { static volatile int miles = prompt("Enter the number of miles driven: "); static volatile int gallons = prompt("Enter the number of gallons used: "); static volatile int mpg = miles / gallons; output("Your mpg = " + mpg);}
Translate the following pseudo code into MIPS assembly to show each of the addressing modes covered in this chapter. Note that variables x and y are static and volatile, so should be stored in data memory. When using register direct access, you do not need to store the variables in memory. main() { static volatile int miles = prompt("Enter the number of miles driven: "); static volatile int gallons = prompt("Enter the number of gallons used: "); static volatile int mpg = miles / gallons; output("Your mpg = " + mpg);}
To illustrate each of the addressing modes discussed in this chapter, translate the following pseudocode into MIPS assembly. The variables x and y should be placed in data memory because they are static and volatile. You do not need to keep the variables in memory while utilising register direct access. main() { static volatile int miles = prompt("Enter the number of miles driven: "); static volatile int gallons = prompt("Enter the number of gallons used: "); static volatile int mpg = miles / gallons; output("Your mpg = " + mpg);}
Translate the following pseudo code into MIPS assembly to show each of the addressing modes.. Variables x and y should be maintained in data memory since they are static and volatile. When using register direct access, you do not need to retain variables in memory. main() { static volatile int miles = prompt("Enter the number of miles driven: "); static volatile int gallons = prompt("Enter the number of gallons used: "); static volatile int mpg = miles / gallons; output("Your mpg = " + mpg); }
For the following C statement, write the correspondingRISC-V assembly code. Assume that the variables f, g, h, i, and j are assigned toregisters x5, x6, x7, x28, and x29, respectively. Assume that the base address ofthe arrays A and B are in registers x10 and x11, respectively. B[8] = A[i−j];
NASM CODE, modify the code below Write an assembly program for the processor family x86-32 that reads three signed interger numbers from the standard input and writes the greatest of them on the console. Use the C functions scanf and printf for the management of data input and data output. section .datamsg db "The largest number is: %d", 0xa,0v1 equ -47v2 equ 32v3 equ 21num1 times 4 db 0num2 times 4 db 0num3 times 4 db 0 section .textextern printfglobal main ;must be declared for using gcc main: ;tell linker entry point mov dword [num1], v1mov dword [num2], v2mov dword [num3], v3 mov ecx, [num1]cmp ecx, [num2]jg check_third_nummov ecx, [num2]check_third_num: cmp ecx, [num3]jg _exitmov ecx, [num3]_exit:;Print the greatest numberpush ecxpush msgcall printf ;Exit process mov eax, 1int 80h
MIS asssembly Write an assembly program for the processor family x86-32 that reads three signed interger numbers from the standard input and writes the greatest of them on the console. Use the C functions scanf and printf for the management of data input and data output. Concepts in practice: Data Transfer, Input-Output Management and Conditional Jumps.
You may use only the instructions we covered in class: add, sub, addi, lw, sw, and the same rules as mentioned earlier still apply.AssignmentWrite MIPS assembly code implementing the following C/C++ statement:a[k*2-4] = a[k]*2 + 7;