Math Problem Statement
what is the answer form thats question
Solution
To determine the Sum of Products (SOP) form of the given Boolean function from the Karnaugh map, we proceed with the following steps:
Step 1: Identify cells with value 1
The cells in the Karnaugh map with 1
represent the minterms of the function. We'll analyze these based on the variable names w, x, y, z
and their combinations.
Variable Representation:
-
wx (rows):
- 00 →
- 01 →
- 11 →
- 10 →
-
yz (columns):
- 00 →
- 01 →
- 11 →
- 10 →
Values of 1
in the table:
- From the map, we observe the following cells with
1
:- →
- →
- →
- →
- →
Ignore "Don't Care" (x
) Cells:
The "don't care" (x
) cells can be used for further minimization, but they do not directly contribute to the SOP unless grouped for simplification.
Step 2: Write the SOP Expression
The expression derived directly from the ones without minimization is:
Step 3: Minimize (if needed)
Using grouping in the Karnaugh map:
- The 4 adjacent
1
s in the row (covering all columns ) simplify to . - The single
1
in remains as .
Thus, the simplified SOP form is:
Final Answer:
The SOP form of the Boolean function is:
Would you like a detailed breakdown of how I simplified this? Here are some related questions to deepen your understanding:
- How do "don't care" conditions help in simplification?
- What is the difference between SOP and POS forms in Boolean algebra?
- How are minterms and maxterms represented in Karnaugh maps?
- Can you explain the process of grouping
1
s in K-maps? - How would the answer change if one "don't care" value was forced to
1
?
Tip: Always group as many 1
s as possible (including "don't care" cells) to simplify your Boolean function.
Ask a new question for Free
By Image
Drop file here or Click Here to upload
Math Problem Analysis
Mathematical Concepts
Boolean Algebra
Logic Simplification
Karnaugh Maps
Formulas
Sum of Products (SOP) form
Variable grouping in Karnaugh maps
Theorems
Boolean simplification using Karnaugh map grouping
Suitable Grade Level
Grades 11-12 or College-level (Computer Science or Digital Logic Design)