Chapter 12: Q15SE (page 844)
Is it always true that \((x \odot y) \odot z{\bf{ = }}x \odot (y \odot z)\)\(?\)
Short Answer
The given equation is \((x \odot y) \odot z{\bf{ = }}x \odot (y \odot z)\) always true.
Chapter 12: Q15SE (page 844)
Is it always true that \((x \odot y) \odot z{\bf{ = }}x \odot (y \odot z)\)\(?\)
The given equation is \((x \odot y) \odot z{\bf{ = }}x \odot (y \odot z)\) always true.
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\(\begin{array}{l}{\bf{a)}}\overline {\bf{x}} \\{\bf{b)x + y}}\\{\bf{c)xy}}\\{\bf{d)x}} \oplus {\bf{y}}\end{array}\)
Show that if \({\bf{F, G}}\), and \({\bf{H}}\) are Boolean functions of degree \({\bf{n}}\), then \({\bf{F + G}} \le {\bf{H}}\) if and only if \({\bf{F}} \le {\bf{H}}\) and \({\bf{G}} \le {\bf{H}}\).
\(a)\)Explain how \(K{\bf{ - }}\)maps can be used to simplify sum-of-products expansions in three Boolean variables.
\(b)\)Use a \(K{\bf{ - }}\)map to simplify the sum-of-products expansion \({\bf{xyz + x\bar yz + x\bar y\bar z + \bar xyz + \bar x\bar y\bar z}}\).
Find the depth of
a)The circuit constructed in Example 2 for majority voting among three people.
b)The circuit constructed in Example 3 for a light controlled by two switches.
c)The half adder shown in Figure 8.
d)The full adder shown in Figure 9.
Explain how \({\bf{K}}\)-maps can be used to simplify product-of-sums expansions in three variables. (Hint: Mark with a\(0\) all the max-terms in an expansion and combine blocks of maxterms.)
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