As shown in the figure, $$\overline{BD}=\overline{DE}=\overline{AE}\\\overline{EH}=\overline{HF}=\overline{FI}=\overline{IG}=\overline{GC}$$
Where $\overline{EH}$ is the bisector of $\angle AEC$.
What is the ratio of $\angle B$ and $\angle C$ ($\frac{\angle B}{\angle C}$) in degrees?

I put all the statements on the figure, but it doesn't seem to give me much useful information.
I also tried to assume a specific angle (for example, $\angle B$) to be some unknown angle $x$, but even with a lot of isosceles triangles given, there are still a lot of unknown anges.
Let $\angle B = x$ and $\angle C = y$.
We have $\angle DEB = x$, and thus $\angle EDA = 2x$. $\angle DAE$ is $2x$ as well.
On the right we have $\angle GIC = y$. Hence $\angle IGF = 2y$, and so is $\angle IFG$.
Now $\angle FIH = 180^\circ - \angle FIG - \angle GIC = 180^\circ - (180^\circ - 2y - 2y) - y = 3y = \angle FHI$.
Similarly, $\angle HFE = \angle HEF = \angle HEA = 4y$.
Considering the angles at $E$, we have:
$$180^\circ = \angle BED + \angle DEA + \angle AEH + \angle HEF = x + (180^\circ - 4x)+4y+4y$$
Therefore $3x = 8y \leadsto \dfrac {\angle B}{\angle C} = \dfrac 83$.