A connected simple graph $G$ has $14$ vertices and $88$ edges. Prove $G$ is Hamiltonian, but not Eulerian.

A connected simple graph $$G$$ has $$14$$ vertices and $$88$$ edges. Prove $$G$$ is Hamiltonian, but not Eulerian.

I almost feel like you have to prove these two parts separately. I understand that to be Hamiltonian a vertex tour (a path in which all vertices are touched once) is possible on the graph, and that to be Eulerian an edge tour(a path in which all edges are touched once). Although I am not sure how to construct this in the form a proof. I also know that you can test to see if a graph is Hamiltonian if each vertex has a degree $$\ge$$ $$\frac{1}{2}p$$ where $$p$$ is the number of vertices in the simple graph.

The Hamiltonian part is immediate if you use Ore's Theorem. Let $$u$$ and $$v$$ be two distinct vertices of $$G$$. If $$\deg(u)+\deg(v)\leq 13$$, then $$G-\{u,v\}$$ has at least $$88-13=75$$ edges, but it has $$12$$ vertices and $$\binom{12}{2}=66<75\,,$$ contradicting the assumption that $$G$$ is simple. Thus, $$\deg(u)+\deg(v)\geq 14$$ for any pair of distinct vertices $$u$$ and $$v$$ in $$G$$.
Hint for the Eulerian part. Prove that $$G$$ has at least $$8$$ vertices of degree $$13$$.