#81 ·
Sam Martinez9 said:I find this passage from Capri regarding the electron much easier to wrap my head around than the whole Schrödinger's cat dilemma:
*These subatomic building blocks are highly abstract entities possessing a dual nature. Depending on our perspective, they manifest as particles at times and waves at others; light exhibits this same duality, appearing as either electromagnetic waves or discrete particles.
This dual nature of both matter and light is quite bizarre. At first glance, it seems impossible to accept that something can simultaneously be a particle—an entity confined to an incredibly tiny space—and a wave, which spreads out over a vast area. Yet, that was precisely what physicists were forced to confront. The situation felt hopelessly paradoxical until it was realized that the terms "particle" and "wave" are classical concepts that aren't quite suited for describing atomic phenomena. An electron isn't strictly a particle or a wave; rather, under certain circumstances, it behaves like one or the other. While acting as a particle, it can develop its wave-like characteristics at the expense of its particle-like traits, and vice versa, undergoing a constant transformation between the two. This implies that neither the electron nor any other atomic *body* possesses any intrinsic properties that exist independently of its environment.
It would be more accurate to describe the electron as a wave-particle/particle-wave hybrid—something entirely distinct.
In field theory, an electron is merely an embodiment of that field within space; it lacks any internal structure.
The issue with these definitions is that modern physics is increasingly invoking the principle of non-locality—essentially suggesting that spacetime isn't a fundamental dimension, but rather something that emerges from a more foundational level of reality.
Current theories are leaning toward holography—the idea that all information is contained on an event horizon (or, to put it more simply, within the photon sphere surrounding an object).
A prime example of this is a black hole and its event horizon.
Another possibility is that gravity—and by extension, the entirety of spacetime—is a statistical quantity, much like temperature.
Temperature arises from local, random movements—the vibrations of molecules and other particles; it is an average value, dependent on entropy, which measures the disorder of a system.
Spacetime might similarly emerge from field fluctuations.
It is entirely possible that both analogies hold merit. 😁