In this work, we employed non-equilibrium Green's function to investigate the
electron transport properties in the nanowire with the presence of scatterings.
The scattering mechanism is modelled by using the concept of B\"uttiker probe.
The effect of electron scattering is analyzed under three conditions: absence
of external field; with a bias voltage; and with a finite temperature
difference. It is found weak and strong scatterings strength affect the
electron transport in different ways. In the case of weak scattering strength,
electron trapping increase the electron density, hereafter boost the
conductance significantly. Although the increment in conductance would reduce
the Seebeck coefficient slightly, the power factor still increases. In the case
of strong scattering strength, electron diffraction causes the redistribution
of electrons, accumulation of electron at the ends of the wire blocks current
flow; hence the conductance is reduced significantly. Although the Seebeck
coefficient increases slightly, the power factor still decreases. The power
factor is enhanced by 6%-18%, at the optimum scattering strength