  In the efforts of searching for dark matter, gravitational wave
interferometers have been recently proposed as a promising probe. These highly
sensitive instruments are potentially be able to detect the interactions of
dark matter with the detectors. In this work, we explored the possibilities of
discovering topological dark matter with LIGO detectors. We analyzed domain
walls consisting of axion-like dark matter passing through Earth, leaving
traces in multiple detectors simultaneously. Considering dark matter
interactions with the light in the interferometer and with the beamsplitter, we
performed the first analysis of the topological dark matter with the
gravitational-wave strain data. We examined whether astrophysically unexpected
triggers could be explained by domain wall passages. We found that all of the
binary black hole mergers we analyzed favored the binary black hole merger
hypothesis rather than the domain wall hypothesis, with the closest being
GW190521. Moreover we found that some of topological dark matter signals can be
caught by binary black hole searches. Finally, we found that glitches in the
data can inevitably limit the dark matter searches for certain parameters.
These results are expected to guide the future searches and analyses.
