Need this really short questions,c,d is the question, don't reject, question is enoght to answer (c)For the IEEE standard (1985) for double-precision (64-bit) arith-metic, find the smallest, positive number and the largest number representableby a system that follows this standard. Do not find their decimal values, butsimply represent the numbers in the following format:±(0.1d₁...dm) ge-exponent BiasBe mindful of the conditions for representing ±inf and ±0 in this IEEE stan-dard.(d)In the above IEEE standard, if the exponent bias were to bealtered to exponent Bias= 500, what would the smallest, positive number andthe largest number be? Write your answers in the same format as in part (c).Note that the conditions for representing +inf and ±0 are still maintained asbefore.

According to the question,(c) For the IEEE standard (1985) for double-precision (64-bit) arith-…

(c) For the IEEE standard (1985) for double-precision (64-bit) arith- metic, find the smallest, positive number and the largest number representable by a system that follows this standard. Do not find their decimal values, but simply represent the numbers in the following format: (0.1d₁...dm). Be-exponent Bias Be mindful of the conditions for representing +inf and ±0 in this IEEE stan- dard.

(c) For the IEEE standard (1985) for double-precision (64-bit) arith- metic, find the smallest, positive number and the largest number representable by a system that follows this standard. Do not find their decimal values, but simply represent the numbers in the following format: (0.1d₁...dm). Be-exponent Bias Be mindful of the conditions for representing +inf and ±0 in this IEEE stan- dard.

Electric Motor Control

10th Edition

ISBN:9781133702818

Author:Herman

Publisher:Herman

Chapter22: Sequence Control

Section: Chapter Questions

Problem 6SQ: Draw a symbol for a solid-state logic element AND.

See similar textbooks

Similar questions

Digital logic design Solve it with drawing and simulation lab I need them both to have the full solution. And thanks Design counter that counts from 00 to 59, using the IC 74LS90 ripple counter and use two 7 segment display to display the result count. You can also use 7447 binary to 7-segment Display Decoder.
Convert the 8-bit compressed code 00111010 to 12 bits PCM linear code.
IV) Convert Decimal to Hexadecimal (a) 974510 (b) 2976.5410 V) Convert from Binary to Hexadecimal (a) 10010110101012 (b) 111011101.010101012 VI) Convert from Hexadecimal to Binary (a) 7CAB516 (b) AF2.12B16
Design counter that counts from 00 to 59, using the IC 74LS90 ripple counter and use two 7 segment display to display the result count. You can also use 7447 binary to 7-segment Display Decoder. i need the diagram of it
What parity bit, P, should be added to the following data if the parity is EVEN? If the parity is ODD? a. 1111100 b. 1010110 c. 0001101
Write an 8051 C program to get a byte of data form P0. If it is less than 100, send it to P1 otherwise send it to P2.
A 10-bit ADC with Viet - 3.1 V has a step size equal to mV (you have to write 2 digits after the decimal point.. not.) for Vin=28% the output is equal to NB to obtain the digital result you have to use the value of the step size filled in the first part of the question
Logic effort and parasitic delay
- The proportional distribution of A, B, C, D signals is given in the table as a percentage. It “logic 1” when the signals are accepted as active, “logic 0” when they are accepted as passive. takes. - When the proportional sum of active signals is over 50%, its output is "logic1", When we accept "logic 0" when it is below 50%, the output in the table Find the values. - Create an X function based on the logic values you find. Simplify the created X function. - Design the simplified function with NAND and NOR gates. - Set up the circuits you designed with NAND and NOR gates and observe the outputs. Show the output values by drawing a table, applying all possibilities to the input values.
- The proportional distribution of A, B, C, D signals is given in the table as a percentage. It “logic 1” when the signals are accepted as active, “logic 0” when they are accepted as passive. takes. - When the proportional sum of active signals is over 50%, its output is "logic1", When we accept "logic 0" when it is below 50%, the output in the table Find the values. - Create an X function based on the logic values you find. Simplify the created X function. - Design the simplified function with NAND and NOR gates.
Derive the circuits for a three-bit parity generator and a four-bit parity checker using an odd-parity bit.
Q1/The binary number ( 1011011011011.1110111001101)= ( ) in octal number *