Chapter 15: Problem 12
Find the values of the Boolean variables \(w, x, y, z\) that satisfy the following system of simultaneous (Boolean) equations. $$ x+\bar{x} y=0 \quad \bar{x} y=\bar{x} z \quad \bar{x} y+\bar{x} \bar{z}+z w=\bar{z} w $$
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Chapter 15: Problem 12
Find the values of the Boolean variables \(w, x, y, z\) that satisfy the following system of simultaneous (Boolean) equations. $$ x+\bar{x} y=0 \quad \bar{x} y=\bar{x} z \quad \bar{x} y+\bar{x} \bar{z}+z w=\bar{z} w $$
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Define the closed binary operation \(\odot\) (Exclusive Or) on \(F_{n}\) by \(f \oplus g=f \bar{g}+\bar{f} g\), where \(f, g: B^{n} \rightarrow B\). a) Determine \(f \oplus f, f \oplus \bar{f}, f \oplus 1\), and \(f \oplus 0\). b) Prove or disprove each of the following: i) \(f \oplus g=0 \Rightarrow f=g\) ii) \(f \oplus(g \oplus h)=(f \oplus g) \oplus h\) iii) \(f \oplus g=\bar{f} \oplus \bar{g}\) iv) \(f \oplus g h=(f \oplus g)(f \oplus h)\) v) \(f(g \oplus h)=f g \oplus f h\) vi) \((\overline{f \oplus g})=f \oplus g=f \oplus \bar{g}\) vii) \(f \oplus g=f \oplus h \Rightarrow g=h\)
Let \(a, b, c \in \mathscr{B}\), a Boolean algebra. Prove that \(a b+c=a(b+c)\) if and only if \(c \leq a\).
Let \(w, x\), and \(y\) be Boolean variables where the value of \(x\) is 1. For each of the following Boolean expressions, determine, if possible, the value of the expression. If you cannot determine the value of the expression, then find the number of assignments of values for \(w\) and \(y\) that will result in the value 1 for the expression. a) \(x+x y+w\) b) \(x y+w\) c) \(\bar{x} y+x w\) d) \(\bar{x} y+w\)
If \(I B\) is a Boolean algebra, partially ordered by \(\leq\), and \(x, y \in \mathscr{B}\), what is the dual of the statement " \(x \leq y " ?\)
Let \(g: B^{4} \rightarrow B\) be defined by \(g(w, x, y, z)=(w z+x y z)(x+\bar{x} \bar{y} z)\). a) Find the d.n.f. and c.n.f. for \(g\). b) Write \(g\) as a sum of minterms and as a product of maxterms (utilizing binary labels).
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