The transport of electrically charged quasiparticles plays a pivotal role in modern technology. In contrast, the transport of magnetic charges has barely been explored experimentally, mainly because magnetic charges are generally considered to be, at most, convenient macroscopic parameters rather than sharply defined quasiparticles. However, recent propositions of emergent magnetic monopoles in spin ice materials has led directly to significant experimental observations supporting the existence of monopoles, however this relies on the microscopic interpretation of spin ice. We have recently focused on the possibility of measuring magnetic charge directly using muon spin rotation in Dy2Ti2O7, leading directly to an experimental value of magnetic charge. We propose to apply our method to determine the basic properties of magnetic charge transport in spin ice.