  We present observations of a small-scale Extreme-ultraviolet (EUV) wave that
was associated with a mini-filament eruption and a GOES B1.9 micro-fare in the
quiet Sun region. The initiation of the event was due to the photospheric
magnetic emergence and cancellation in the eruption source region, which first
caused the ejection of a small plasma ejecta, then the ejecta impacted on a
nearby mini-filament and thereby led to the filament's eruption and the
associated fare. During the filament eruption, an EUV wave at a speed of 182 {
317 km/s was formed ahead of an expanding coronal loop, which propagated faster
than the expanding loop and showed obvious deceleration and refection during
the propagation. In addition, the EUV wave further resulted in the transverse
oscillation of a remote filament whose period and damping time are 15 and 60
minutes, respectively. Based on the observational results, we propose that the
small-scale EUV wave should be a fast-mode magnetosonic wave that was driven by
the the expanding coronal loop. Moreover, with the application of filament
seismology, it is estimated that the radial magnetic field strength is about 7
Gauss. The observations also suggest that small-scale EUV waves associated with
miniature solar eruptions share similar driving mechanism and observational
characteristics with their large-scale counterparts.
