  The impurity photonic drag effect (PDE), theory for semiconductive quantum
wire (QW) in a longitudinal (along the quantum wire axis) magnetic field B, has
been developed. The PDE is due to the photon longitudinal momentum transmission
to localized electrons, under optical transitions from D(-)-states to QW
hybrid-quantum states, if the QW is described by the parabolic confinement
potential. The analytical expression for the drag current (DC) density has been
obtained within the framework of zero-range potential model and in the
effective mass approximation. The drag current spectral dependence has been
investigated for various values of B and QW parameters, under electron
scattering on the dotty-impurities system. The drag current spectral dependence
is characterized by Zeeman doublet with a pronounced beak-type peak. This peak
is related to electron optical transitions from D(-)-states to the states with
the magnetic quantum number m=1. With an increase of the magnetic field B the
beak-type peak is shifted to short-wave spectrum region, and the peak height
considerably increases. We discuss the possibility of using of the
one-dimensional drag current effect, in a longitudinal magnetic field, to
develop a new type of laser radiation detectors.
