  We give an asymptotic lower bound on the number of field extensions generated
by algebraic points on superelliptic curves over $\mathbb{Q}$ with fixed degree
$n$, discriminant bounded by $X$, and Galois closure $S_n$. For $C$ a fixed
curve given by an affine equation $y^m=f(x)$ where $m\geq 2$ and $\text{deg
}f(x) = d \geq m$, we find that for all degrees $n$ divisible by $\gcd(m,d)$
and sufficiently large, the number of such fields is asymptotically bounded
below by $X^{c_n}$, where $c_n \to 1/m^2$ as $n \to \infty$. This bound is
determined explicitly by parameterizing $x$ and $y$ by rational functions,
counting specializations, and accounting for multiplicity. We then give
geometric heuristics suggesting that for $n$ not divisible by $\gcd (m, d)$,
degree $n$ points may be less abundant than those for which $n$ is divisible by
$\gcd (m, d )$. Namely, we discuss the obvious geometric sources from which we
expect to find points on $C$ and discuss the relationship between these sources
and our parametrization. When one a priori has a point on $C$ of degree not
divisible by $\gcd(m,d)$, we argue that a similar counting argument applies. As
a proof of concept we show in the case that $C$ has a rational point that our
methods can be extended to bound the number of fields generated by a degree $n$
point of $C$, regardless of divisibility of $n$ by $\gcd (m ,d)$.
