Chapter 12: Q4E (page 827)
In Exercises 1–5 find the output of the given circuit.
Short Answer
The output of the circuit is\(\overline {{\bf{xyz}}} {\bf{(x + y + z)}}\).
Chapter 12: Q4E (page 827)
In Exercises 1–5 find the output of the given circuit.
The output of the circuit is\(\overline {{\bf{xyz}}} {\bf{(x + y + z)}}\).
All the tools & learning materials you need for study success - in one app.
Get started for free\({\bf{a)}}\)Draw a \(K{\bf{ - }}\)map for a function in three variables. Put a \(1\) in the cell that represents \(\bar xy\bar z\).
\({\bf{b)}}\)Which minterms are represented by cells adjacent to this cell\(?\)
How many different Boolean functions \({\bf{F(x,y,z)}}\) are there such that \({\bf{F(\bar x,y,z) = F(x,\bar y,z) = F(x,y,\bar z)}}\) for all values of the Boolean variables \({\bf{x,y}}\), and \({\bf{z}}\)\({\bf{?}}\)
Show that you obtain De Morgan's laws for propositions (in Table \(6\) in Section \(1.3\)) when you transform De Morgan's laws for Boolean algebra in Table \(6\) into logical equivalences.
For each of these equalities either prove it is an identity or find a set of values of the variables for which it does not hold.
\(\begin{array}{l}a)x|(y\mid z){\bf{ = }}(x\mid y)|z\\b)x \downarrow (y \downarrow z){\bf{ = }}(x \downarrow y) \downarrow (x \downarrow z)\\c)x \downarrow (y\mid z){\bf{ = }}(x \downarrow y)\mid (x \downarrow z)\end{array}\)
Define the Boolean operator \( \odot \) as follows: \(1 \odot 1{\bf{ = }}1,1 \odot 0{\bf{ = }}0,0 \odot 1{\bf{ = }}0\), and \(0 \odot 0{\bf{ = }}1\).
What do you think about this solution?
We value your feedback to improve our textbook solutions.