Homework Help is Here – Start Your Trial Now!
Engineering
Electrical Engineering
Question 1 If you only had 4:16 One Hot Decoder and an OR gate with the number of inputs of your choosing, fill in the blanks to explain how you would implement the function 3 X2X1 + X3 X20 with the hardware you were provided. There are 4 inputs for this function, 30 . I would choose an OR gate with [Select] 1. For input 3, I would connect it input [Select] 2. For input 22, I would connect it input [Select] 3. For input x1, I would connect it input [Select] 4. For input, I would connect it input [Select] 1. For output 0000 of the decoder, [Select] [ Select] I would connect it to the OR gate I would not use it 2. For output 0001 of the decoder, 3. For output 0010 of the decoder, [Select] 4. For output 0011 of the decoder, 5. For output 0100 of the decoder, [Select] 6. For output 0101 of the decoder, [Select] 7. For output 0110 of the decoder, [Select] 8. For output 0111 of the decoder, [Select] 9. For output 1000 of the decoder, [Select] 10. For output 1001 of the decoder, [Select] 11. For output 1010 of the decoder, [Select] 12. For output 1011 of the decoder, [Select] 13. For output 1100 of the decoder, [Select] [Select] 14. For output 1101 of the decoder, [Select] inputs. 15. For output 1110 of the decoder, [Select] 16. For output 1111 of the decoder, [Select] of the decoder. of the decoder. of the decoder. of the decoder.

Question 1 If you only had 4:16 One Hot Decoder and an OR gate with the number of inputs of your choosing, fill in the blanks to explain how you would implement the function 3 X2X1 + X3 X20 with the hardware you were provided. There are 4 inputs for this function, 30 . I would choose an OR gate with [Select] 1. For input 3, I would connect it input [Select] 2. For input 22, I would connect it input [Select] 3. For input x1, I would connect it input [Select] 4. For input, I would connect it input [Select] 1. For output 0000 of the decoder, [Select] [ Select] I would connect it to the OR gate I would not use it 2. For output 0001 of the decoder, 3. For output 0010 of the decoder, [Select] 4. For output 0011 of the decoder, 5. For output 0100 of the decoder, [Select] 6. For output 0101 of the decoder, [Select] 7. For output 0110 of the decoder, [Select] 8. For output 0111 of the decoder, [Select] 9. For output 1000 of the decoder, [Select] 10. For output 1001 of the decoder, [Select] 11. For output 1010 of the decoder, [Select] 12. For output 1011 of the decoder, [Select] 13. For output 1100 of the decoder, [Select] [Select] 14. For output 1101 of the decoder, [Select] inputs. 15. For output 1110 of the decoder, [Select] 16. For output 1111 of the decoder, [Select] of the decoder. of the decoder. of the decoder. of the decoder.

Introductory Circuit Analysis (13th Edition)
Introductory Circuit Analysis (13th Edition)
13th Edition
ISBN:9780133923605
Author:Robert L. Boylestad
Publisher:Robert L. Boylestad
Chapter1: Introduction
Section: Chapter Questions
Problem 1P: Visit your local library (at school or home) and describe the extent to which it provides literature...
See similar textbooks
icon
Related questions
Question
### Question 1 If you only had 4:16 One Hot Decoder and an OR gate with the number of inputs of your choosing, fill in the blanks to explain how you would implement the function \( x_3 \overline{x_2} x_1 + \overline{x_3} x_2 x_0 \) with the hardware you were provided. There are 4 inputs for this function, \( x_3 \) to \( x_0 \). - I would choose an OR gate with \([ \text{Select} ]\) inputs. 1. For input \( x_3 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 2. For input \( x_2 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 3. For input \( x_1 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 4. For input \( x_0 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 1. For output 0000 of the decoder, \([ \text{Select} ]\) 2. For output 0001 of the decoder, \([ \text{Select} ]\) 3. For output 0010 of the decoder, \([ \text{Select} ]\) 4. For output 0011 of the decoder, \([ \text{Select} ]\) 5. For output 0100 of the decoder, \([ \text{Select} ]\) 6. For output 0101 of the decoder, \([ \text{Select} ]\) 7. For output 0110 of the decoder, \([ \text{Select} ]\) 8. For output 0111 of the decoder, \([ \text{Select} ]\) 9. For output 1000 of the decoder, \([ \text{Select} ]\) 10. For output 1001 of the decoder, \([ \text{Select} ]\) 11. For output 1010 of the decoder, \([ \text{Select} ]\) 12. For output 1011 of the decoder, \([ \text{Select}
Transcribed Image Text:### Question 1 If you only had 4:16 One Hot Decoder and an OR gate with the number of inputs of your choosing, fill in the blanks to explain how you would implement the function \( x_3 \overline{x_2} x_1 + \overline{x_3} x_2 x_0 \) with the hardware you were provided. There are 4 inputs for this function, \( x_3 \) to \( x_0 \). - I would choose an OR gate with \([ \text{Select} ]\) inputs. 1. For input \( x_3 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 2. For input \( x_2 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 3. For input \( x_1 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 4. For input \( x_0 \), I would connect it to input \([ \text{Select} ]\) of the decoder. 1. For output 0000 of the decoder, \([ \text{Select} ]\) 2. For output 0001 of the decoder, \([ \text{Select} ]\) 3. For output 0010 of the decoder, \([ \text{Select} ]\) 4. For output 0011 of the decoder, \([ \text{Select} ]\) 5. For output 0100 of the decoder, \([ \text{Select} ]\) 6. For output 0101 of the decoder, \([ \text{Select} ]\) 7. For output 0110 of the decoder, \([ \text{Select} ]\) 8. For output 0111 of the decoder, \([ \text{Select} ]\) 9. For output 1000 of the decoder, \([ \text{Select} ]\) 10. For output 1001 of the decoder, \([ \text{Select} ]\) 11. For output 1010 of the decoder, \([ \text{Select} ]\) 12. For output 1011 of the decoder, \([ \text{Select}
**Question 1** If you only had a 4:16 One Hot Decoder and an OR gate with the number of inputs of your choosing, fill in the blanks to explain how you would implement the function \(x_3 x_2 x_1 + x_3 x_2 x_0\) with the hardware you were provided. There are 4 inputs for this function, \(x_3\) to \(x_0\). - I would choose an OR gate with [Select] inputs. 1. For input \(x_3\), I would connect it to [Select] of the decoder. 2. For input \(x_2\), I would connect it to [Select] of the decoder. 3. For input \(x_1\), I would connect it to [Select] of the decoder. 4. For input \(x_0\), I would connect it to [Select] of the decoder. 1. For output 0000 of the decoder, [Select] 2. For output 0001 of the decoder, [Select] 3. For output 0010 of the decoder, [Select] 4. For output 0011 of the decoder, [Select] 5. For output 0100 of the decoder, [Select] 6. For output 0101 of the decoder, [Select] 7. For output 0110 of the decoder, [Select] 8. For output 0111 of the decoder, [Select] 9. For output 1000 of the decoder, [Select] 10. For output 1001 of the decoder, [Select] 11. For output 1010 of the decoder, [Select] 12. For output 1011 of the decoder, [Select] 13. For output 1100 of the decoder, [Select] 14. For output 1101 of the decoder, [Select] 15. For output 1110 of the decoder, [Select] 16. For output 1111 of the decoder, [Select] **Dropdown Explanation:** In the provided dropdown menu, you can select numbers to substitute into the blanks, potentially representing different lines or inputs from the decoder or OR gate inputs.
Transcribed Image Text:**Question 1** If you only had a 4:16 One Hot Decoder and an OR gate with the number of inputs of your choosing, fill in the blanks to explain how you would implement the function \(x_3 x_2 x_1 + x_3 x_2 x_0\) with the hardware you were provided. There are 4 inputs for this function, \(x_3\) to \(x_0\). - I would choose an OR gate with [Select] inputs. 1. For input \(x_3\), I would connect it to [Select] of the decoder. 2. For input \(x_2\), I would connect it to [Select] of the decoder. 3. For input \(x_1\), I would connect it to [Select] of the decoder. 4. For input \(x_0\), I would connect it to [Select] of the decoder. 1. For output 0000 of the decoder, [Select] 2. For output 0001 of the decoder, [Select] 3. For output 0010 of the decoder, [Select] 4. For output 0011 of the decoder, [Select] 5. For output 0100 of the decoder, [Select] 6. For output 0101 of the decoder, [Select] 7. For output 0110 of the decoder, [Select] 8. For output 0111 of the decoder, [Select] 9. For output 1000 of the decoder, [Select] 10. For output 1001 of the decoder, [Select] 11. For output 1010 of the decoder, [Select] 12. For output 1011 of the decoder, [Select] 13. For output 1100 of the decoder, [Select] 14. For output 1101 of the decoder, [Select] 15. For output 1110 of the decoder, [Select] 16. For output 1111 of the decoder, [Select] **Dropdown Explanation:** In the provided dropdown menu, you can select numbers to substitute into the blanks, potentially representing different lines or inputs from the decoder or OR gate inputs.
Expert Solution
trending now

Trending now

This is a popular solution!

steps

Step by step

Solved in 3 steps with 1 images

SEE SOLUTIONCheck out a sample Q&A here
Blurred answer
Knowledge Booster
Logic Gate and Its Application
Learn more about
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, electrical-engineering and related others by exploring similar questions and additional content below.
Similar questions
Recommended textbooks for you
Introductory Circuit Analysis (13th Edition)
Introductory Circuit Analysis (13th Edition)
Electrical Engineering
ISBN:
9780133923605
Author:
Robert L. Boylestad
Publisher:
PEARSON
Delmar's Standard Textbook Of Electricity
Delmar's Standard Textbook Of Electricity
Electrical Engineering
ISBN:
9781337900348
Author:
Stephen L. Herman
Publisher:
Cengage Learning
Programmable Logic Controllers
Programmable Logic Controllers
Electrical Engineering
ISBN:
9780073373843
Author:
Frank D. Petruzella
Publisher:
McGraw-Hill Education
Fundamentals of Electric Circuits
Fundamentals of Electric Circuits
Electrical Engineering
ISBN:
9780078028229
Author:
Charles K Alexander, Matthew Sadiku
Publisher:
McGraw-Hill Education
Electric Circuits. (11th Edition)
Electric Circuits. (11th Edition)
Electrical Engineering
ISBN:
9780134746968
Author:
James W. Nilsson, Susan Riedel
Publisher:
PEARSON
Engineering Electromagnetics
Engineering Electromagnetics
Electrical Engineering
ISBN:
9780078028151
Author:
Hayt, William H. (william Hart), Jr, BUCK, John A.
Publisher:
Mcgraw-hill Education,
SEE MORE TEXTBOOKS