  Motivated by recent experimental measurements on the Fermi surface(FS)
destruction in underdoped high-$T_{c}$ cuprates, we examine its effect on the
transport properties based on the Boltzmann equation approach. The effect is
modeled by simply taking the density of states for electrons in the gapped
regions to be zero. Within the nearly antiferromagnetic Fermi liquid model, we
calculate the temperature dependences of the dc resistivity, the inverse Hall
angle and the Hall coefficient. It is shown that the effect of the FS
destruction on transport properties is sensitive to the existance and the range
of the flat band near $(0,\pm\pi)$ in the dispersion of electrons, and the
anistropy of the relaxation rate along the Fermi surface. We find that the
experimental data are better described by the cold spot model, i.e., the
transports are determined mainly by the contribution of the electrons near the
Brillouin-zone diagonals.
