To determine if the given logical equivalence is true, we will simplify both sides of the equation.

The given equation is:
\[ \neg p \lor (p \land (q \lor (q \land p))) \equiv p \implies q \]

We'll simplify both sides step by step.

### Left Side: \(\neg p \lor (p \land (q \lor (q \land p)))\)

1. **Simplify the innermost expression \((q \land p)\):**
   \[ q \land p = p \land q \]  (since \(\land\) is commutative)

2. **Simplify the expression \((q \lor (p \land q))\):**
   Since \(p \land q\) implies \(q\) (because \(p \land q\) is true only if \(q\) is true),
   \[ q \lor (p \land q) = q \]

3. **Substitute this back into the main expression:**
   \[ \neg p \lor (p \land q) \]

4. **Distribute \(p\) in the expression \(p \land q\):**
   \[ p \land q \] 

So the left side simplifies to:
\[ \neg p \lor (p \land q) \]

### Right Side: \(p \implies q\)

1. **Rewrite the implication using logical equivalences:**
   \[ p \implies q = \neg p \lor q \]

### Comparison

Let's compare the simplified left side with the simplified right side:
\[ \neg p \lor (p \land q) \]
\[ \neg p \lor q \]

To check if \(\neg p \lor (p \land q) \equiv \neg p \lor q\), consider the truth table for both expressions:

| \(p\) | \(q\) | \(\neg p\) | \(p \land q\) | \(\neg p \lor (p \land q)\) | \(\neg p \lor q\) |
|:----:|:----:|:----------:|:-------------:|:---------------------------:|:----------------:|
| T    | T    | F          | T             | T                           | T                |
| T    | F    | F          | F             | F                           | F                |
| F    | T    | T          | F             | T                           | T                |
| F    | F    | T          | F             | T                           | T                |

From the truth table, we can see that the columns for \(\neg p \lor (p \land q)\) and \(\neg p \lor q\) are identical.

### Conclusion
\[ \neg p \lor (p \land (q \lor (q \land p))) \equiv p \implies q \]

This logical equivalence holds true.

Would you like more details or have any questions?

Here are 8 related questions to explore further:

1. How do you construct and interpret truth tables for logical expressions?
2. What are the logical equivalences used to simplify implications?
3. How do you prove logical equivalences using algebraic methods?
4. What are some common logical identities and their applications?
5. Can you show examples of simplifying logical expressions using truth tables?
6. How do you convert logical expressions into their canonical forms?
7. What is the significance of De Morgan's laws in logic simplification?
8. How do logical expressions relate to digital circuits in computer engineering?

**Tip:** When working with logical implications, rewriting the implication using logical equivalences (\(p \implies q \equiv \neg p \lor q\)) can often simplify the problem and make it easier to prove or disprove equivalences.

Explore the logical equivalence problem: p ∨ (p ∧ (q ∨ (q ∧ p))) ≡ p ⟹ q. Learn how to simplify and prove logical equivalences using truth tables and algebraic methods. This detailed explanation covers key concepts in logic, including logical equivalences and De Morgan's laws. Suitable for advanced high school students and beyond.

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