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eth-summaries/semester4/fmfp/parts/06_exercises/02_fm/00_imp.tex
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\subsubsection{IMP Proofs}
\begin{examdetails}
Typically, the exam contains some operational semantics tasks,
rarely proofs of properties of IMP.
\end{examdetails}
The property proofs can be acheived either using a direct proof of the implication, or using an induction proof.
The latter of which is more common and we typically define $P$ in such a way that we bind everything apart from variables, natural numbers and constant values
using quantifiers, then prove $\forall n \in \N . P(n)$, if we have a free natural numbers.
Before the definition of $P$ we typically state ``Let $<$variables, constants$>$ be arbitrary'', as with any induction proof.