Step 1: Apply the Distributive Law.
The distributive law in Boolean algebra states that \( A \land (B \lor C) = (A \land B) \lor (A \land C) \). Applying this to the given expression \( x' \land (x \lor y) \), we treat \( x' \) as \( A \), \( x \) as \( B \), and \( y \) as \( C \):
$$x' \land (x \lor y) = (x' \land x) \lor (x' \land y)$$
Step 2: Apply the Complement Law.
The complement law states that \( x' \land x = 0 \). Substituting this into the result from Step 1:
$$(x' \land x) \lor (x' \land y) = 0 \lor (x' \land y)$$
Step 3: Apply the Identity Law.
The identity law states that \( 0 \lor A = A \). Applying this to the result from Step 2, where \( A \) is \( (x' \land y) \):
$$0 \lor (x' \land y) = x' \land y$$
Thus, the simplified value of \( x' \land (x \lor y) \) is \( x' \land y \).