A well-consolidated composite of ZA-27 alloy reinforced with short glass fi
ber at volume fractions of 2, 7, 12, and 17% was prepared by liquid infiltr
ation techniques and its elastic properties were determined by destructive
testing. The results showed that the modulus of elasticity and ultimate ten
sile strength of the composite gradually increased with increasing volume f
raction of the fiber, although the ductility decreased with an increase in
volume fraction of the fibers. In addition, the data obtained from Young's
modulus measurements were compared with theoretical results predicted by th
e shear-lag model, Nielson-Chen model, and computational model. The experim
ental results were shown to be in better agreement with those of the latter
two models. The ultimate tensile strength test results were also compared
with theoretical results predicted by the shear-lag and Miwa models. The Mi
wa model agreed favorably with the experimental results.