  The limiting behavior of the eigenvalues of the Toeplitz matrices
$T_{n}[\sigma]=(\hat{\sigma}(i-j))$, where $0\leq i,j \leq n$, as $n \to
\infty$, is investigated in the case of complex valued functions $\sigma$
defined on the unit circle $\mathbb{T}$ and having exactly one point of
discontinuity. It is found that if $\sigma(z)=(-z)^{\beta}\tau(z)$, $\beta$ not
an integer and $\tau$ satisfying certain smoothness conditions, then $\det
T_{n}[\sigma]=\mathbf{G}[\tau]^{n+1}n^{-\beta^{2}}E[\tau,\beta](1+o(1))$ as $n
\to \infty$, where $\mathbf{G}[\tau]$ denotes the geometric mean of $\tau$ and
$E$ is a constant independent of $n$. A value for $E$ is found in terms of the
Fourier coefficients of $\tau$ and an analytic function of $\beta$. These
results were known previously in the case that $\Re \beta$, the real part of
$\beta$, was sufficiently small. A corollary of this result is a determination
of the limiting set and limiting distributions for the eigenvalues of
$T_{n}[\sigma]$.
