X-lines are one of the most fundamental structures in magnetized plasmas, particularly in space, where they link global or even astronomical scale processes to those on the single particle orbit scale, thereby allowing those microscale processes to shape the universe (Ji et al., 2022). Dungey (1961) suggested that the interaction between Earth's magnetic dipole and the solar wind causes reconnection of magnetic field lines on both the day and nightsides of Earth's magnetosphere. The shape of these reconnecting field lines resembles the letter "X" and extends tens of Earth radii (R E = 6,371.2 km) in the dawn-dusk direction thus forming X-lines. An X-line divides space into four sectors. In one pair of opposing sectors, the magnetic field and plasma converge toward the center of the X while in the other pair, they are rapidly ejected from it. This reconnection process transforms energy stored in the magnetic field into particle kinetic and thermal energy, making it an efficient energy converter and particle accelerator (Ji et al., 2022). X-lines couple kinetic processes on proton and even electron gyroradius scales (≲0.01R E ) (Torbert et al., 2018) to space weather phenomena on global scales: such as solar flares, coronal mass ejections, and magnetospheric storms and substorms (∼10R E ) (Camporeale, 2019). This range of scales is so immense that its modeling has become one of the major challenges for nascent exascale computing (Ji et al., 2022).