Capillary bridges form when a liquid is stretched between two solid surfaces. These bridges play an important role in many systems, such as water saturation in soil, inkjet printing, and the feeding of shorebirds but their motion is still not well understood. Capillary bridges containing particles are particularly complex and because of their impact on material properties such as hydrate viscosity, they are an important area of study. Our lab studies capillary bridge motion using experiments and simulations. In particular, we are studying the movement of the contact line between a liquid and a spherical solid in order to better understand the fundamental physics behind contact line motion. This has implications not just for capillary bridges but for many industrial processes where surface tension plays a dominant role.