On the quantum origin of objects' motion and gravity effect

The origin of motion is a longstanding question in physics. While current models describe how particles, relativistic or not, move under forces and fields, the fundamental cause of motion remains elusive and might explain the challenge of linking quantum and macroscopic scales. What if, in reality, everything is motionless except one type of particle moving perpetually at the speed of light, carrying particles' information through space? Here we show that the particles A may transmit their existence information via photons to virtual particles $B$ in space, which would allow the exchange of existence characteristics between A and B. Thus, A are annihilated by their corresponding virtual antiparticles, and $B$ become real particles, potentially substituting A in new locations. This creates the appearance of A's motion in space. For clustered real particles, virtual particles closer to all this set have higher probability to receive the information photons, and may substitute these real particles. This enables us to infer the gravitational effect between objects, with this probability serving to define the curvature of spacetime, as described in general relativity. This theory suggests black holes are regions where this probability reaches 1 and offers insights into the nature of dark matter and energy.