Chapter 12: Q31E (page 843)
Find a minimal sum-of-products expansion, given the \(K{\bf{ - }}\)map shown with don't care conditions indicated with\(d\)’s.
Short Answer
The minimal sum-of-products expansion is \(xz + \bar x\bar z\).
Chapter 12: Q31E (page 843)
Find a minimal sum-of-products expansion, given the \(K{\bf{ - }}\)map shown with don't care conditions indicated with\(d\)’s.
The minimal sum-of-products expansion is \(xz + \bar x\bar z\).
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Get started for freeShow how the sum of two five-bit integers can be found using full and half adders.
Use the circuits from Exercises 10 and 11 to find the differenceof two four-bit integers, where the first integer is greater than the second integer.
Draw the \({\bf{3}}\)-cube \({{\bf{Q}}_{\bf{3}}}\) and label each vertex with the minterm in the Boolean variables \({\bf{x, y}}\), and \({\bf{z}}\) associated with the bit string represented by this vertex. For each literal in these variables indicate the \({\bf{2}}\)-cube \({{\bf{Q}}_{\bf{2}}}\) that is a subgraph of \({{\bf{Q}}_{\bf{3}}}\) and represents this literal.
Construct circuits from inverters, AND gates, and ORgates to produce these outputs.
\(\begin{array}{l}{\bf{a)}}\overline {\bf{x}} {\bf{ + y}}\\{\bf{b)}}\overline {{\bf{(x + y)}}} {\bf{x}}\\{\bf{c)xyz + }}\overline {\bf{x}} \overline {\bf{y}} \overline {\bf{z}} \\{\bf{d)}}\overline {{\bf{(}}\overline {\bf{x}} {\bf{ + z)(y + }}\overline {\bf{z}} {\bf{)}}} \end{array}\)
Use a \(K{\bf{ - }}\)map to find a minimal expansion as a Boolean sum of Boolean products of each of these functions of the Boolean variables \({\bf{x}}\) and \({\bf{y}}\).
\(\begin{array}{l}{\bf{a)\bar xy + \bar x\bar y}}\\{\bf{b)xy + x\bar y}}\\{\bf{c)xy + x\bar y + \bar xy + \bar x\bar y}}\end{array}\)
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