INFINITE PARTICLE PHYSICS

Richard L. Ropiequet

Why You Should Read My Website [www.infiniteparticlephysics.com]

A Provocative Question

Is Physics near the “end of the line”, beyond which there is nothing to do, as various Nobel Laureates have asserted?  If this is so, why are the following prizes still unclaimed?

Unclaimed Prizes in Physics

• For discovering the space structure of gravity.
• For discovering the space structure of charge.
• For discovering the space structure of magnetism.
• For discovering the space structures of photons, leptons, mesons, baryons and nuclides.
• For discovering the space structure of strong-force fields, and the reason for their limited range.
• For discovering the mechanics by which particles interact with fields to incur accelerations.
• For discovering the mechanisms of particle spins.
• For discovering the mechanics of particle momentum.
• For discovering the reason why mass-energy is conserved.
• For discovering the origin and structure of matter-waves.
• For discovering the interior structure of black holes and the space structure of dark matter.
• For discovering why photons and particles exhibit wave-particle duality.
• For devising a simple scheme for calculating hadron mass-energies & bond mass-deficits.
• For discovering the geometrical aspects of nucleon bonding in nuclei.
• For discovering the nuclide structural configurations leading to various decay modalities.
• For discovering the mechanics of electron capture by nuclei.
• For showing how the whole of physics can be explained with just two fundamental particles.
• For showing how to visualize and thereby to explain quantum mysteries.

A Modest Answer

Physics is not at the “end of the line”.  Physicists have simply refused to consider the possibility that particles may be infinite structures!  All the above insights become evident when one accepts that phenomena are actually infinitely extending point-centered oscillatory distortion patterns in a bipolar particulate space lattice.  Here are some things that the study of my website will permit you to do:

1)   Learn New Concepts & Techniques in Particle Physics

• Visualize the concepts of mass, energy, and charge, and understand why mass-energy and charge are conserved 
• Visualize the process by which energy transmogrifies into particles, e.g., understand how energy produced by annihilations creates a slow-drifting spherical ECE packing-density oscillation, which fractures the space lattice to create a defect cluster, and then immediately splits into two oppositely-directed ellipsoidal oscillations.  In the process of splitting, each oscillator grabs half of the defect cluster, and sequesters it at its center by a feedback process, this combination being IPP’s concept of a particle (or antiparticle).
• Visualize in 3-D the structure of any lepton or hadron particle listed in the LBL Review of Particle Properties, e.g., perceive how muons differ from electrons, or how muon neutrinos differ from electron neutrinos, or how the long mean-life form of the neutral kaon differs from the short, or how the structure of a thermal electron differs from that of a relativistic electron, or why there is associated production of kaons in creating hyperons.
• Visualize in 3-D the processes by which hadrons decay into lower mass hadrons, or into leptons and/or energy.
• Calculate accurately the mass of any hadron particle (often matching experimental values within ± 0.01%).

2)   Learn New Concepts & Techniques in Nuclear Physics

• Visualize the structural differences between protons and neutrons, and thereby understand why a neutron is heavier than a proton
• Visualize the geometrical properties of the strong force, and thereby understand how nucleons self-organize into characteristic structures that are unique for each mix of x-protons & y-neutrons, and how strong-force bonds are distributed amongst the nucleons comprising a nuclide cluster, and how to calculate the mass-deficits of individual strong-force bonds in nuclides.
• Visualize nuclear destabilizing agents and their mechanics, and thereby understand why nuclei decay
• Visualize the nuclear structural anomalies that lead to various decay modalities, like beta + & beta − decays, electron capture, or alpha, neutron, proton, & gamma emissions, or fission, and thereby understand the rationale behind stable and unstable nuclear isotopes

3)   Learn New Concepts & Techniques in Quantum Mechanics

• Visualize the mechanics of wave-particle-duality, matter-waves, photons, polarization, spin, & magnetism.
• Visualize the mechanics of indeterminacy, electron tunneling, superconductivity, superfluidity, relativistic mass increases, & the reason for annihilation avoidance of orbiting electrons.

4)   Learn New Concepts & Techniques in Astrophysics

• Visualize gravitational fields as gradients in the integrated packing density of ECEs, and the effects of gravity as alterations in the ellipticity of a particle’s packing-density oscillation as it moves through radial variations in these gradients.
•    Perceive how redshift and microwave background radiation can be produced in a non-expanding universe through photon ionization of void-pairs and their subsequent recombinations, which evolves black-body radiation.
• Visualize black holes as local change of the crystalline form of the space lattice from distorted simple cubic to body-centered cubic.
• Visualize dark matter as the gravitational effects of the grain-boundaries of polycrystalline space.
• Get a clearer picture of stellar processes like supernovae, etc., by being able to visualize the space structures of protons, neutrons, electrons, and neutrinos, and by being able to visualize the processes by which they convert into each other.

6)   Keep Your Abstraction  Ladder On Solid Ground!

One of the very useful contributions of General Semantics is the concept of the abstraction ladder, a tool for clarity of thinking.  This intellectual tool helps you avoid being bamboozled by vague generalizations, by stepping backwards through the process of generalization until you arrived at something concrete and verifiable.  By this down-stepping process, you can ascertain whether or not the proposal being advocated has any grounding in reality.  So, one keeps his thoughts cogent by constantly climbing down abstraction ladders!

The problem that physicists have with ladder descending is, of course, that physics depends on the ability to integrate verifiable facts into generalizations, and generalizations into laws.  This requires climbing up the abstraction ladder, a process fraught with intellectual hazards, unless one makes certain that the ladder always rests on solid ground!  Infinite Particle Physics gives you the tools to do this, since all its concepts, no matter how complex, can be traced back, ultimately, to interactions between point-centered infinite-extending dynamic distortion patterns in the bipolar lattice of polycrystalline space.