Chapter 12: Q13E (page 818)
Show that \({\bf{x\bar y + y\bar z + \bar xz = \bar xy + \bar yz + x\bar z}}\).
Short Answer
The given \(x\bar y + y\bar z + \bar xz = \bar xy + \bar yz + x\bar z\) is proved.
Chapter 12: Q13E (page 818)
Show that \({\bf{x\bar y + y\bar z + \bar xz = \bar xy + \bar yz + x\bar z}}\).
The given \(x\bar y + y\bar z + \bar xz = \bar xy + \bar yz + x\bar z\) is proved.
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Get started for freeShow that cells in a \({\bf{K}}\)-map for Boolean functions in five variables represent minterms that differ in exactly one literal if and only if they are adjacent or are in cells that become adjacent when the top and bottom rows and cells in the first and eighth columns, the first and fourth columns, the second and seventh columns, the third and sixth columns, and the fifth and eighth columns are considered adjacent.
Use a \({\bf{3 - }}\)cube \({{\bf{Q}}_{\bf{3}}}\) to represent each of the Boolean functions in Exercise \(5\) by displaying a black circle at each vertex that corresponds to a \({\bf{3 - }}\)tuple where this function has the value \({\bf{1}}\).
Construct a half adder using NAND gates.
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.
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