Bohmian Mechanics and NPQG II

This is the second blog post in a series about de Broglie-Bohm theory. See Bohmian Mechanics and NPQG I for the first post in the series.

Intelligent Life is Close to Understanding Nature

NPQG models nature as two Planck scale particle types, the electrino and positrino, energy carried by those particles, and flat 3D Euclidean space. From that simple gameboard and ample resource pool, add Maxwell’s equations and everything emerges. NPQG Inc. is focused upon building the narrative around this proposed implementation of nature.

From the point of view of personified electrinos and positrinos looking outward through scales of structure at science, they would say that in some experimental areas science is getting close to nature’s bedrock, for example the standard model of quantum mechanics is based on simple composite shells and payloads made from electrinos and positrinos. There are many other experimental results and theories which can be tested against NPQG.

Quantum computing may accidentally discover nature’s structure (e.g., NPQG) due to Moore’s law or equivalent in technology advancement. Quantum computing is currently leveraging the predictable patterns of gravity (energy) waves between particle pairs. I’ve inquired about the technology scale for quantum computing. Until I learn more, I will guesstimate that quantum computing technology may be at the forest level rather than the trees, leaves, and twigs at this point. Still, there is hope that those involved in quantum computing will have insight based on the increasing patterns that become evident.

What is the Best Model of Nature?

Bohmian mechanics inherits and makes explicit the nonlocality implicit in the notion, common to just about all formulations and interpretations of quantum theory, of a wave function on the configuration space of a many-particle system. It accounts for all of the phenomena governed by nonrelativistic quantum mechanics, from spectral lines and scattering theory to superconductivity, the quantum Hall effect and quantum computing. In particular, the usual measurement postulates of quantum theory, including collapse of the wave function and probabilities given by the absolute square of probability amplitudes, emerge from an analysis of the two equations of motion: Schrödinger’s equation and the guiding equation. No invocation of a special, and somewhat obscure, status for observation is required.

Bohmian mechanics is closer to the truth of nature than quantum mechanics, yet both are lacking a full understanding of nature. It strikes me that what quantum mechanics era physicists call a quanta, can equally be viewed as a shadow, artifact, or field effect of classical particles. If nature, including spacetime, is classical, then of course there would be symmetric quantized field effects emerging from the fundamental particles.

NPQG models nature as two Planck scale particle types, the electrino and positrino, energy carried by those particles, and flat 3D space. From that simple gameboard and ample resource pool, add Maxwell’s equations and everything emerges.

i mean everything

A big difference between Quantum and Bohmian mechanics is how spacetime is implemented. Quantum mechanics does not recognize Einstein’s spacetime. Bohmian mechanics is closer to the truth as it recognizes more characteristics of spacetime with patterned field waves. NPQG then closes the gap with a physical implementation based upon electrinos and positrinos, energy carried by those particles, and flat 3D Euclidean space.

NPQG implements Einstein’s curvy spacetime physically with a low apparent energy sea of interacting Noether cores which form an æther that permeates the universe. The spacetime æther is the conduit for gravitational energy waves as a lossless medium of exchange between kinetic and electromagnetic potential energy. Every particle is involved in an exchange of kinetic and electromagnetic potential energy as a function of all other particles waves that arrive at that moment. These waves are spherical and spread losslessly.

The Noether cores at the heart of all assemblies, particularly those in spacetime aether, are the fundamental media of the Universe. They are the computational substrate. They are the accounting mechanism and medium of exchange for many transactions, as well as being a participant in many reactions. Keep in mind that what we call mass is a proxy for the apparent energy exhibited by an assembly. My best guess is that as the electrinos and positrinos in the shell follow their wave equation, they interact with all other point charges with (1/r^2) neighbourliness. At true scale, 1/(r^2) tapers quickly. It boils down to an enormous system that trades between kinetic and electromagnetic energy.

J Mark Morris : San Diego : California

p.s. In case anyone gets worried about cellular automata, determinism, and free will : consider that the substrate in NPQG is dominated by potential waves riding through a sea of point charges These waves are sweeping by all the time and without a doubt there are some reaction outcomes that will vary depending on random input waves that were out of causal contact. These tipping point reactions are opportunities that may be leveraged by higher level computational and decisioning technology. Potential technologies include random number generation and random choice decision makers.

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