Umm, not sure about this, but I'll have a go:
One of the intuitive difficulties in comparing the strengths of Gravity with the other three forces is that with the three electro-magnetic, electro-Weak force and strong force, the field lines along which those forces act can get bent, whereas with gravity it is not thought that gets bent. (Physicists help me out here, please.) So whilst I can hold a paperclip off the ground easily if it is attached to a magnet, I have to get the magnet really close to the paperclip to get it to leap off the ground onto the magnet.
Basically at short distances gravitational effects are much weaker than the other forces, until you get to the exceptionally high density objects like neutron stars. At enormous distances (galactic or observable universe scale) gravity dominates, but electro-magnetism can orient particles. See, for example:
https://apod.nasa.gov/apod/ap200617.html
"Explanation: What role do magnetic fields play in interstellar physics? Analyses of observations by ESA's Planck satellite of emission by small magnetically-aligned dust grains reveal previously unknown magnetic field structures in our Milky Way Galaxy -- as shown by the curvy lines in the featured full-sky image. The dark red shows the plane of the Milky Way, where the concentration of dust is the highest. The huge arches above the plane are likely remnants of past explosive events from our Galaxy's core, conceptually similar to magnetic loop-like structures seen in our Sun's atmosphere. The curvy streamlines align with interstellar filaments of neutral hydrogen gas and provide tantalizing evidence that magnetic fields may supplement gravity in not only in shaping the interstellar medium, but in forming stars. How magnetism affected our Galaxy's evolution will likely remain a topic of research for years to come."