2. Write a MIPS program that will handle calculating minifloat addition for two numbers using the rules discussed in class and storing each of the parts as a binary integer. To do this, each 'minifloat number will need to be represented (I suggest hard coded) as one register for the sign, one for the exponent part, one for the 'significand' (which you then conve to the fraction part). Hard coding means here that you don't need to read in the 6 parts as use input, just have something like li $s0, 0 li $1, 12 li $2, 5 which is equivalent to a minifloat of 0 1101 101 = 1.101 * 2^(12-7) = 1.101*2^5 This means your program will be work with at least 6 registers as variables. For testing, show that your program can correctly calculate the Lab 5 X+Y and A+B and then on other example of your choosing. Don't worry about special cases of 0 0000 000 or 1 1111 111 or similar, but your program shoul detect overflow. This will involve a lot of (in your head) jumping back and forth between decimal and binary potentially: that's the point.

2. Write a MIPS program that will handle calculating minifloat addition for two numbers using the rules discussed in class and storing each of the parts as a binary integer. To do this, each 'minifloat number will need to be represented (I suggest hard coded) as one register for the sign, one for the exponent part, one for the 'significand' (which you then conve to the fraction part). Hard coding means here that you don't need to read in the 6 parts as use input, just have something like li $s0, 0 li $1, 12 li $2, 5 which is equivalent to a minifloat of 0 1101 101 = 1.101 * 2^(12-7) = 1.101*2^5 This means your program will be work with at least 6 registers as variables. For testing, show that your program can correctly calculate the Lab 5 X+Y and A+B and then on other example of your choosing. Don't worry about special cases of 0 0000 000 or 1 1111 111 or similar, but your program shoul detect overflow. This will involve a lot of (in your head) jumping back and forth between decimal and binary potentially: that's the point.

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

Please help with the following Computer Science question:
Siemens programming uses the letter 'Q' to indicate an output address. What letter does the Allen Bradley software use? (Just the letter for an answer)
In order to correct errors, what factors must be considered? What do the lines that seem like debugging instructions really mean?
Write assembly code that compare two different integer numbers in a loop. Increment the lowest number till they are equal. If the numbers are equal exit. Implement conditional and unconditional jump instructions
It is well known that computers operate in binary. Why aren't alternative systems like decimal, octal, and sixteenth used instead?
IS IT TRUE OR FALSE?The benefit of zero-address instruction computers is that their programs are short; the drawback is that the instructions need many bits, resulting in extremely lengthy programs.
Answer ?
Can someone please show me a program written in mips that will calculate the nth root of any number written from the beginning. I have a formula but I can't get it into code. Thank you!
Create a MASM assembly program called "Equation.asm" that calculates the following: A = B * 3 +6 / (X + D) where B == 10, X == 4, D == 2 Define all variables as Word. Make sure you use: .model small.586.stack 100h.data.code
Correct and detailed answer will be Upvoted else downvoted. Thank you!
To perform the actions of fetch and execute, all CPU are equipped with the following resources, except A. Arithmetic Logic Unit B. Program Counter C. Registers D. Instruction Decoder E. Memory
What happens if you run an error-prone programme?