Step 1: Determine the truth values of $p$ and $q$ for which $p \leftrightarrow (q \rightarrow p)$ is false.
A biconditional statement $A \leftrightarrow B$ is false if and only if $A$ and $B$ have different truth values (one is true and the other is false).
So, $p \leftrightarrow (q \rightarrow p)$ is false implies either:
Case 1: $p$ is True and $(q \rightarrow p)$ is False.
Case 2: $p$ is False and $(q \rightarrow p)$ is True.
Let's analyze Case 1: $p=T$ and $(q \rightarrow p)=F$.
For $(q \rightarrow p)$ to be False, $q$ must be True and $p$ must be False. This contradicts $p=T$. So Case 1 is not possible.
Let's analyze Case 2: $p=F$ and $(q \rightarrow p)=T$.
For $(q \rightarrow p)$ to be True, if $p=F$, then $q$ must be False. (If $q=T$, then $q \rightarrow p$ would be $T \rightarrow F = F$, which contradicts $(q \rightarrow p)=T$).
Therefore, the only possibility is $p=F$ and $q=F$.
Step 2: Evaluate each option with $p=F$ and $q=F$.
Option A: $p$
If $p=F$, then $p$ is false.
Option B: $p \rightarrow (p \vee \sim q)$
Substitute $p=F$ and $q=F$:
\[ F \rightarrow (F \vee \sim F) \]
Since $\sim F = T$:
\[ F \rightarrow (F \vee T) \]
Since $F \vee T = T$:
\[ F \rightarrow T \]
This statement is True.
Option C: $p \wedge (\sim p \wedge q)$
Substitute $p=F$ and $q=F$:
\[ F \wedge (\sim F \wedge F) \]
Since $\sim F = T$:
\[ F \wedge (T \wedge F) \]
Since $T \wedge F = F$:
\[ F \wedge F \]
This statement is False.
Option D: $(p \vee \sim q) \rightarrow p$
Substitute $p=F$ and $q=F$:
\[ (F \vee \sim F) \rightarrow F \]
Since $\sim F = T$:
\[ (F \vee T) \rightarrow F \]
Since $F \vee T = T$:
\[ T \rightarrow F \]
This statement is False.
Step 3: Identify the true statement/statement pattern.
From the evaluation, only Option B is true when $p=F$ and $q=F$.