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🧠 logic

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Truth Table Contingency
1. **State the problem:** Construct the truth table for the compound statement $ (p \to q) \lor (\neg p \land \neg q) $ and determine if it is a tautology, contradiction, or contin
Tautology Implication
1. **State the problem:** We need to determine if the logical statement $$(p \wedge q) \to p$$ is a tautology. 2. **Recall definitions:**
Proposition Words
1. **State the problem:** We have two propositions: - $p$: I complete my homework.
Logical Equivalence
1. **State the problem:** We want to find the logical equivalence of the expression $$(p \Rightarrow q) \wedge (\neg p \vee q)$$. 2. **Recall the implication equivalence:** The imp
Logical Equivalence
1. The problem asks to find the logical equivalence of the expression $ (p \Rightarrow q) \wedge (\neg p \vee q) $.\n\n2. Recall that the implication $ p \Rightarrow q $ is logical
Logical Equivalence
1. **State the problem:** We want to find the logical equivalence of the expression $$(p \Rightarrow q) \wedge (\neg p \vee q).$$ 2. **Recall the implication equivalence:** The imp
Tautology Proof
1. **State the problem:** Show that the logical expression $R \to \sim[(\sim R \wedge X) \lor \sim(R \lor X)]$ is a tautology. 2. **Rewrite the expression:** The expression is an i
Proposition Expressions
1. **State the problem:** We are given propositions: - $p$: I bought a lottery ticket this week.
Negation Proposition
1. The problem asks to express the proposition \(\neg p\) in English. 2. Given \(p\): "I bought a lottery ticket this week."
Propositions Truth Values
1. **State the problem:** We need to identify which sentences are propositions and determine their truth values. 2. **Definition:** A proposition is a declarative sentence that is
Propositions Truth Values
1. **State the problem:** We need to determine which sentences are propositions and find the truth values of those that are propositions. 2. **Definition:** A proposition is a decl
Exclusive Disjunction
1. The problem asks to express the exclusive disjunction $p@q$ using only negation ($\sim$), conjunction ($\wedge$), and inclusive disjunction ($\vee$). 2. By definition, $p@q$ mea
Truth Table Or
1. **State the problem:** Construct a truth table for the compound proposition $ (p \lor q) \lor r $. 2. **List all possible truth values for $p$, $q$, and $r$: Since each variable
Truth Table Or
1. **State the problem:** Construct a truth table for the compound proposition $ (p \lor q) \lor r $. 2. **List all possible truth values for $p$, $q$, and $r$: Since each variable
Truth Table Or
1. **State the problem:** Construct a truth table for the compound proposition $ (p \lor q) \lor r $. 2. **List all possible truth values for $p$, $q$, and $r$: Since each can be t
Truth Tables Xor
1. **Problem Statement:** Construct truth tables for the compound propositions: a) $p \oplus p$
Biconditional Truth
1. The problem asks us to determine the truth value of each biconditional statement. A biconditional "if and only if" statement $p \iff q$ is true if both $p$ and $q$ have the same
Boolean Expression
1. The problem asks for the Boolean expression representing "4 greater than 5." 2. In mathematical terms, this is written as $4 > 5$.
Deductive Argument
1. The problem asks to identify the term for an argument that goes from the general to the particular. 2. In logic and reasoning, an argument that starts with a general statement o
Logical Expressions
1. The problem involves analyzing the logical expressions: 2. 1. \(\neg P \lor Q\) means either \(P\) is false or \(Q\) is true.
Inductive Deductive
1. The problem asks us to determine whether each conclusion is based on inductive or deductive reasoning. 2. Inductive reasoning involves making a generalization based on specific