We present an experiment on YBa2Cu3O7-x thin films using spatially resolved
heavy ion irradiation. Structures consisting of a periodic array of strong
and weak pinning channels were created with the help of metal masks. The c
hannels formed an angle of +/-45 degrees with respect to the symmetry axis
of the photolithographically patterned structures. Investigations of the an
isotropic transport properties of these structures were performed. We found
striking resemblance to guided vortex motion as it was observed in YBa2Cu3
O7-x Single crystals containing an array of unidirected twin boundaries. Th
e use of two additional test bridges allowed us to determine in parallel th
e resistivities of the irradiated and unirradiated parts as well as the res
pective current-voltage characteristics. These measurements provided the in
put parameters for a numerical simulation of the potential distribution of
the Hall patterning. In contrast to the unidirected twin boundaries in our
experiment both strong and weak pinning regions are spatially extended. The
interfaces between unirradiated and irradiated regions therefore form a Bo
se-glass contact. The experimentally observed magnetic field dependence of
the transverse voltage vanishes faster than expected from the numerical sim
ulation and we interpret this as a hydrodynamic interaction between a Bose-
glass phase and a vortex liquid.