Multiple Choice Statement: In the Integer division block, the width of the quotient register cannot be the same size as that of the divisor or the dividend. Select the best answer that correctly gives the reason if the above statement is true or false O False: The quotient registers needs to be the same size as that of the dividend, as this number could be equal to the dividend False: The quotient width needs to be equal to the sum of the widths of the divisor and the dividend, else there will be an overflow True: The width of the quotient has to be 32 bits no matter the size of the divisor or dividend O True: The width of the quotient register is always going to be smaller than the dividend or divisor, since we are dividing. So the quotient register always needs to be smaller in width

Multiple Choice Statement: In the Integer division block, the width of the quotient register cannot be the same size as that of the divisor or the dividend. Select the best answer that correctly gives the reason if the above statement is true or false O False: The quotient registers needs to be the same size as that of the dividend, as this number could be equal to the dividend False: The quotient width needs to be equal to the sum of the widths of the divisor and the dividend, else there will be an overflow True: The width of the quotient has to be 32 bits no matter the size of the divisor or dividend O True: The width of the quotient register is always going to be smaller than the dividend or divisor, since we are dividing. So the quotient register always needs to be smaller in width

Systems Architecture

7th Edition

ISBN:9781305080195

Author:Stephen D. Burd

Publisher:Stephen D. Burd

Chapter2: Introduction To Systems Architecture

Section: Chapter Questions

Problem 4VE: A problem-solving procedure that requires executing one or more comparison and branch instructions...

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Part 2: Status Flags There are more registers inside of the CPU that we don't have direct access to. One of these is the EFLAGS register. This register holds the values of the flags used in the CPU's operation. Flags are just single bit values that represent the state of the processor - usually 1 means a setting is on or true, and 0 means it is off or false. If a flag has the value 1, we say the flag is set. If it has the value 0, we say it is clear. "Setting" a flag means setting it's value to 1, and "clearing" a flag means setting its value to 0. The status flags are flags that show the outcomes of certain operations. These can be used to check the state of the computations and react accordingly. For example, the carry flag is set if the result of an unsigned addition is too large to fit into the same space as the numbers used during the addition. Look at the following addition operation: 11111111 + 00000001 = 100000000 Note that the result of the addition is 9 bits long, even…
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So can any letter with a number such as x4, and x5 also be considered as temporary registers like a4 and a5?
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True or False, Intel processors handles instructions one at a time. True False
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