While ben m and Schneibster are probably correct in their critique of Witt's work, I'd be more comfortable with their views if I didn't detect such a high level of anger in what they write.
Are my responses angry? I didn't mean them to be, but I'm definitely annoyed. I would point out that Mr. Witt did not come forward saying "Please let's share this idea, which I think is neat", he came forward saying "Physicists are closed-minded and utterly ignorant of the huge philosophical problems with their theories, which are so obviously flawed I shan't trouble to learn how they work." This is remarkably similar to the attitude brought by creationists ("Darwinists are stupid, amoral, and value their careers above all"), warming denialists ("Climate scientists are idiots; I can disprove their theory in a few minutes' thought"), and so on. It's tiresome.
terrywitt said:
I remember quarks being treated as point-like in the Standard Model, but frankly I don’t remember whether quarks are hyperdimensional strings in string theory, or whether they are points connected by hyperdimensional strings. The reason I don’t remember such things is because I have a wealth of compelling evidence that neither quarks or strings are accurate representations of physical entities
Name one example of a successful, paradigm-changing scientist who wasn't a
practiced expert on the
old paradigm. Copernicus? Newton? Harvey? Kepler? Einstein? Maxwell? Watson & Crick? Boltzmann? Mendeleev? Planck? Feynman? Gell-Mann? Hubble? Lyell? Agassiz? Darwin? Deliberately ignoring your predecessors might be a good strategy in entrepreneurship. It is emphatically not in science.
My point is that theories that are manufactured to fit empirical data, with little to no underlying natural philosophy, are dead ends.
Terry, this statement is so badly flawed that I can't even think of why you believe it---except that you need to believe it to justify your work. Theories built on "natural philosophy" were complete and utter dead ends for over 2000 years. Ptolemy's geocentrism, Hippocrate's humours, Aristotle's physics, Hahnemann's law of similars, the dozens of pre-Newton dabblers who guessed at whether cannonballs moved in straight lines or arcs, the biologists who guessed whether the Vital Force resided in the heart, spleen, or brain. History is littered with forgotten, entirely useless theories based in "natural philosophy"; everything we think of today as a "successful theory" was pieced together laboriously to account for and describe data; even Einstein's work was basically a frame-transformation of Maxwell's.
Null Physics has remarkable explanatory power, but cannot currently match the descriptive power of the Standard Model or General Relativity. It has, however, enormous descriptive power for a physical theory that only requires a single constant, and it can even tell us why this constant exists and why it has the value it does.
By "descriptive power", you seem to mean "I can describe any phenomenon using my theory". Dan Visser can do the same with his "Complex Cosmos"; the creationists at Common Sense Science have a weekly newsletter elaborating more "descriptions", and Carezani's Autodynamics has "described" muons, pions, nuclei, accelerators, and the Pioneer Anomaly. (Heck, my still-developing Tau Bootes Leprechauns theory does pretty well in the description department.) Sorry, Terry, but descriptions are surprisingly easy. I know you've worked hard on yours, but there are thousands upon thousands of ways to "describe" data. You have found one of them. Good for you.
The hard part is deciding whether your description is the right one or the wrong one, and for that we'll get right back to the detailed numerical tests.
The Standard Model can approximate the results of the universe’s underlying geometry using concepts like quarks and 20 or so arbitrary constants, but it will never tell us much about it. Another phenomenon? Let’s add another particle.
Um? The Standard Model was built at a time when the known mesons could all be built from four quarks. Kaon "oscillations", however, had been observed, and the quark model forbids such oscillations unless there are six quarks instead of four. So, the
original electroweak unification theory was written for a six-quark theory. We discovered a family of heavy mesons in the early 1980s, which fit into the fifth-quark slot that awaited them (only the mass had been unknown), and the top quark in the mid-90s (whose mass had been predicted from LEP data), which fit into the sixth-quark slot that awaited it. How many new particle did we "add", then, in response to the dozen B-mesons, the hundred-odd B meson decays, the B0 oscillations, the K0 oscillations, the top quark mass peak, the LEP data, and so on, that we've discovered since 1975?
What's up with Null Physics? You don't have any idea what the particle masses are; you're
guessing that you can describe them with no free parameters. You have no idea what their decays are; ditto. You have no idea what atomic physics, collider physics, cavity QED, etc., results are; you have no idea whether your theory will describe them. Your theory doesn't yet describe the world with fewer parameters than the Standard Model. You just
hope that it will. You
guess that it will.
Then you say that an electron is
compressed to that size by the proton’s intense fields.
We know what happens when you expose an electron to the proton's intense fields. This is called a "hydrogen atom". We see no evidence, in atoms or in scattering experiments, of any stronger force than the E&M one, and the E&M one does not hold the proton to the electron any stronger than 13.7 eV.
When the theory reaches the stage where it is possible to simulate high-speed proton collisions with this geometry, I’m confident that it will exhibit evidence of “quarks”,
You're confident that the theory will describe data because you're confident that the theory is correct. You're confident that the theory will be correct because you're confident it will describe data.
In Null Physics, evidence suggests that neutrinos are the bound state of photons much in the way that bound electrons are bound into neutrons.
This pretty much speaks for itself. Terry, since you have shown yourself so adept at adding spins together, please demonstrate how you plan to combine two spin-1 photons to make a spin-1/2 neutrino. Then explain why, despite the existence (if you are right) a strong photon-photon attractive force, photons
do not interact at all at cross sections down to 10^39 cm^2?
Speaking of spin, all of your posts on the neutron suggest that you're unaware of the left-handed nature of weak interactions. You ought to look this up.
End of criticism, beginning of advice
I hope you'll accept some constructive criticism.
- You need to learn more mainstream physics. Go to your local university bookstore and find the high-energy physics textbooks that a first-year graduate student would use: probably Perkins, or Griffiths, or Halzen & Martin. Read them and do the problems.
- You need to work on theory-experiment comparisons. Why are you wasting time calculating "average nuclear densities"? What experimental quantity were you hoping to compare this to? You need to think, and think hard, about what you can calculate that has been measured, unambiguously and accurately. Don't tell me the 3He "nucleon separation", tell me the charge radius. Don't tell me the "average nuclear density", tell me the Bethe-Weizsacker coefficients, the magic numbers, the decay modes and lifetimes, the low-energy excitations. Don't tell me the "density of a neutron star", which nobody knows: tell me the spindown rate, maximum spin, and the maximum glitch size. Don't tell me the density inside of a black hole; tell me the orbit frequency of the inner edge of the accretion disk.
- Compare your theory to the old models. If you can show, mathematically, that "My theory reduces to QED when X is true, and differs from QED when X is false", this saves you the trouble of solving all of the QED situations by hand. In the end, your theory must reduce to (as appropriate) Newtonian gravity, Maxwell's Equations, General Relativity, Schrodinger's Equation, QED, the Fermi theory of beta decay, Yukawa theory, QCD, and the Standard Model. If it does not reduce appropriately to all of these, it is wrong. Quit complaining about "I'm not ready to do the full Standard Model" and get to work on Maxwell's Equations, or Newton's, or something.
- You need to re-prioritize. Pick some sort of precision physics, a lot of which is done at low energies, and pound on it until you can make a prediction. If you can predict the electron magnetic moment with any accuracy at all, this is worth 100 times as much as a whole book full of cosmology speculations.
- Don't take it personally. If the theory is wrong, it's Nature's fault, not yours. The only thing can be your fault, not Nature's, is your reaction.
Good luck; it's a hard road you've chosen.