  The light vector mesons ($\rho$, $\omega$, and $\phi$) were produced in
deuterium, carbon, titanium, and iron targets in a search for possible
in-medium modifications to the properties of the $\rho$ meson at normal nuclear
densities and zero temperature. The vector mesons were detected with the CEBAF
Large Acceptance Spectrometer (CLAS) via their decays to $e^{+}e^{-}$. The rare
leptonic decay was chosen to reduce final-state interactions. A combinatorial
background was subtracted from the invariant mass spectra using a
well-established event-mixing technique. The $\rho$ meson mass spectrum was
extracted after the $\omega$ and $\phi$ signals were removed in a nearly
model-independent way. Comparisons were made between the $\rho$ mass spectra
from the heavy targets ($A > 2$) with the mass spectrum extracted from the
deuterium target. With respect to the $\rho$-meson mass, we obtain a small
shift compatible with zero. Also, we measure widths consistent with standard
nuclear many-body effects such as collisional broadening and Fermi motion.
