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Particle Physics

Maliki Javier Martinez

Published Jun 16, 2026• 0 citations
Publisher

Abstract

Particle paths are skewed by a sea of gravitational waves. I snuck in lambda into this because I remembered reading about that theory a long time ago. And I enjoy pilot wave theory as well, I dont like quantum spookiness like Einstein. The physics is more straightforward in my head. The partial derivative of x with respect to y is the tradeoff between predictability of an object's path and size of an object. And I built some aspects of particle motion/interaction around it. I dont want to say more for fun.

DOI
10.5281/zenodo.20709978

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Particle paths are skewed by a sea of gravitational waves. I snuck in lambda into this because I remembered reading about that theory a long time ago. And I enjoy pilot wave theory as well, I dont like quantum spookiness like Einstein. The physics is more straightforward in my head. The partial derivative of x with respect to y is the tradeoff between predictability of an object's path and size of an object. And I built some aspects of particle motion/interaction around it. I dont want to say more for fun.
Particle paths are skewed by a sea of gravitational waves. I snuck in lambda into this because I remembered reading about that theory a long time ago. And I enjoy pilot wave theory as well, I dont like quantum spookiness like Einstein. The physics is more straightforward in my head. The partial derivative of x with respect to y is the tradeoff between predictability of an object's path and size of an object. And I built some aspects of particle motion/interaction around it. I dont want to say more for fun.
Its getting very difficult to explain things without math..I just realized particles lock into a fixed position with bits every global tick and it makes the uncertainty principle solvable. And i decided that quantum probabilities could be distance from a bit in the bit lattice or from an eigenvalue and its frequency. I said that to myself a couple days ago and then asked chatgpt to do that chain rule the way it defined it just now. I saw lighting in the sky a few nights ago. I imagined that its zig zagging is because of the allowed paths through a bit lattice. Like cardinak directions, but with more directions. And the lighting is a bundle proportional to it's field strength..thats off the top of my head as well. Ill leave it as a prediction. Oh yeah..I was trying to model mass in my head and i saw bits can sit in between particles that are entangled to an object. I smiled at the partial derivative of Epsilon with respect to N and "spectral/informational geometry". I think I really need to let go of this now..im not thinking about it. I want to sleep and study more calculus..
After reading John Bush’s article “The new wave of pilot-wave theory” (Physics Today, August 2015, page 47), I want to remind readers of the limitations of the analogy. The oil-drop experiments provide a tangible partial analogue of the pilot-wave picture, but one that is restricted to single-particle phenomena. Such experiments cannot reproduce the types of phenomena that depend on entanglement; only in the case of a single particle does the wavefunction have the same mathematical form—a scalar function over space—as the waves in the oil.Once two particles are involved, the fact that the wavefunction is defined over the configuration space of the system rather than over physical space becomes crucial, and the partial analogy to the oil drops fails. In other words, the analogy does not extend to what most people consider the most interesting aspects of quantum mechanics.© 2016 American Institute of Physics.
Special relativity, general relativity, and de Broglie-Bohm (pilot wave) theory are explanations of fundamental aspects of nature. For the most part, special and general relativity concern observations at large scale, whereas pilot wave theory addresses atomic processes. A feature that is unique to relativity is time dilation, the slowing of time with; a) relative movement in an inertial reference frame, and b) the effect of a gravitational field. At present, time dilation remains a difficult notion to intuitively understand, although it can be derived from general principles and characterized by straightforward mathematics. Canonical pilot wave theory is less well known than relativity and does not address time dilation; however, the theory can be conceptually expanded to cover additional phenomena. Described here is an expanded pilot wave model proposing time dilation does not occur in nature, but rather the slowing of clocks or other objects is due to a mechanical change in atomic efficiency. In other words, atoms, structures composed of atoms, and emergent properties of objects operate more slowly with motion or gravity due to a functional decrease in the effect of pilot waves, but time always elapses at a constant rate for all observers. Idealized pilot wave and standing wave models are used to explain a mechanism for the invariant speed of light and apparent slowing of time due to motion or gravity.