COREPHYSICS





CORE PHYSICS LINKS

PREAMBLE

TAXONOMIC TABLE

GLOSSARY

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Taxa 1

FUNDAMIDES

Taxon 1.1
Teels

Taxon 1.2
Teelons


Taxa 2
PHOTIDES

Taxon 2.1
Photinos

Taxon 2.2
Photons



Taxa 3
MORPHIDES

Taxon 3.1
Electroids

Taxon 3.2
Nucleons


Taxa 4
NUCLIDES

Taxon 4.1
Primalnuclides

Taxon 4.2
Lithicnuclides

Taxon 4.3
Ferricnuclides


Taxa 5
STELLIDES

Taxon 5.1
Protostellides

Taxon 5.2
Dwarfstellides

Taxon 5.3
Whitestellides

Taxon 5.4
Blackstellides

Taxon 5.5
Galastellide



* * * * *

PREVIOUS ITERATIONS

The Blue Book (1996)

Principia Cosmologica(2008)

Template(2014)


 









































   





























































































































































































































































































































































Taxon 2.1


PHOTINOS



Semistableable objects that semistabilise above and below the photonband.



Revised:   12 September 2024




Work in progress (due for change from neutrinos to photinos)

NEUTRINO
LINKS
NEUTRINOS
Nucleus
Teelosphere
Gravitysheath
NEUTRINO PRIMARY INTERACTIONS
      • qualitative and quantitative noun for sum of neutrino's gravitypull and masspush.
      • default measured at neutrino nucleus surface.
Gravitypull
extrinsic gravitypull
intrinsic gravitypull
Masspush
extrinsic masspush
      • decreases with decreasing neutrino nucleus teeldensity.
      • decreases when increasing neutrino nucleus volume not countered by increasing teel numbers.
intrinsic masspush
NEUTRINO SECONDARY INTERACTIONS
Speed
extrinsic speed
intrinsic speed
Spin
extrinsic spin
intrinsic spin
NEUTRINO STRUCTURE
Dimensions
      • Depth:   length of straight line from surface to surface passing through axis that is 90° to height and width.
      • Duration:   length of time between neutrino nucleus events.
      • Height:   length of straight line from surface to surface that is nucleus axis and 90° vertical to depth and width.
      • Volume:   three dimensional measure of region inside nucleus surface.
      • Width:   length of straight line from surface to surface passing through axis that is 90° to depth and height.
Mechanisms
gravitymass differential mechanism
gravitypull attunement
teelstream attunement
Points
gravitycentre
masscentre
pole
    • Northpole:  axis point on neutrino nucleus surface nominated to be north.
    • Southpole:  axis point on neutrino nucleus surface nominated to be south.
Stratum
teelcore
      • when average teel speeds are low enough for teels to lattice.
      • teelcore lattice is three dimensional arrangement of teels in rows and columns.
      • teels in a semistable lattice may speed and spin but cannot escape their position.
      • increases in teel speed increase volume of teelcore lattice and reduce its teeldensity.
      • absolute solidbond is all teels drawn to the limits of their masspush and unable to speed or spin.
      • Semistable:   gravityvelocity same as massvelocity.
      • Understable:   gravityvelocity more than massvelocity.
          • Caveat:  neutrino teelcores, teeloceans, and teelospheres may not be simultaneously overstable, semistable, or understable.
teelocean
      • Semistable:   gravityvelocity same as massvelocity.
      • Understable:  gravityvelocity more than massvelocity.
          • Caveat:  neutrino teeloceans, teelcores, and teelospheres may not be overstable, semistable, or understable simultaneously.
teelosphere
    • Semistable:   gravityvelocity same as massvelocity.
    • Understable:   gravityvelocity more than massvelocity.
        • Caveat:  neutrino teelospheres, teelcores, and teeloceans may not be overstable, semistable, or understable simultaneously.
NEUTRINO MANUFACTURE
Torus
torus structure (1)
torus structure (2)
          • teelstream at exhaust exit is an unexpanded linear nucleus (a teelocean) inside an expanding linear teelosphere:
            • after exit (1):   outer teelosphere dissipates.
            • after exit (2):   inner teelosphere and linear nucleus droplet into a "string" of neutrinos.
          • teelstream at exhaust exit is an unexpanded linear nucleus (a teelcore inside teelocean) inside an expanding linear teelosphere.
            • after exit (1):   outer teelosphere dissipates.
            • after exit (2):   inner teelosphere and linear nucleus droplet into a "string" of neutrinos.
emission
semistabilisation
            • semistabilisation below photonic masses is initially above lightspeed.
            • semistabilisation above photonic masses is initially below lightspeed.
NEUTRINO LAWS
  • Laws:  statements concerning phenomenal equivalences, orders, sequences, relationships, etc, for which no ambiguities, deviations, exceptions, etc, are currently known.
Energy Law
    • Energy is not created or destroyed.
Gravitational Inverse Square Law
    • The mutual gravitypull of a neutrino and another object is directly proportional to the product of their gravitymasses and inversely proportional to the square of their separation distance. The mutual gravitypull is always attractive and acts along the straight line between their masscentres.
Gravity Law
    • A neutrino moves toward the object gravitypulling it most strongly.
Gravitypull Law
    • Gravitypull is not created or destroyed.
Inverse Square Law
    • The gravitypull of a neutrino is inversely proportional to the square of the distance from the surface of its nucleus.
Mass Law
    •  A neutrino cannot occupy a place in space and time already occupied by another neutrino.
Masspush Law
    •  Masspush is not created or destroyed.
Relativity Law
    •  All measurements are relative to a benchmark.
Speed-Spin Equation Law
    •  One unit of speed equates to one unit of spin.
Speed-Spin Transmutation Law
    •  One unit of speed or spin can transmute to any ratio of speed or spin but the sum of that speed or spin is always one unit.
Weight Law
    •  A neutrino's gravitypull and masspush is equal and opposite at the surface of its nucleus modified by nucleus teeldensity.



PHOTIDES | TOP | PHOTONS



© 2024 - Ed Winchester / Sian Winchester








































SUPERSEDED MATTER


QUARKS     Empirical confirmation: partial.     Composite objects. A simple nucleus inside a teelosphere inside a gravitysheath. The nucleus is a teelcore inside a teelocean. Two morphs: axiquarks and centriquarks. Both morphs are understable and only endure when strongforced and engorged.
  • Axiquarks     Axiquark teelospheres have axially structured teelstream systems. Axiquarks endure when in the nuclei of electroids or nucleons. Free axiquarks transmute to centriquarks. Electroid axiquarks are less massive than nucleon axiquarks. Electroid axiquarks are manufactured in the stabilisation turbines of understable protons. The origin of nucleon axiquarks is unknown.
  • Centriquarks     Centriquark teelospheres have centrifugally structured teelstream systems. Centriquarks endure when in the nuclei of electroids or nucleons. Free centriquarks transmute to photons. Electroid centriquarks are less massive than nucleon centriquarks. Electroid centriquarks are manufactured in the stabilisation turbines of understable protons. The origin of nucleon centriquarks is unknown.

AXIQUARKS

MORPHIDES     A taxa of three taxons:  quarks, electroids, and nucleons:  each of which transmutes between two differently structured morphs.
QUARKS     A morphide taxon with two morphs:  axiquarks and centriquarks.

AXIQUARKS     Empirical confirmation: partial.

AXIQUARK STRUCTURE     A simple nucleus inside a teelosphere inside a gravitysheath. The nucleus is a teelcore inside a teelocean. The teelosphere is axial.

AXIQUARK TYPES     Free axiquarks. Electroid axiquarks. Nucleon axiquarks. Nucleon axiquarks are structurally the same as electroid axiquarks but more massive.

AXIQUARK BEHAVIOUR     Free axiquarks are understable and stabilise as photons. Electroid axiquarks are understable but endure because they are bound into electroids and engorged. Nucleon axiquarks are understable but endure because they are bound into nucleons and engorged.

AXIQUARK ORIGINS      The origin of electroid axiquarks is manufacture in the stabilisation turbines of understable protons. The origin of nucleon axiquarks is unknown.



CENTRIQUARKS


CENTRIQUARK STRUCTURE     A simple nucleus inside a teelosphere inside a gravitysheath. The nucleus is a teelcore inside a teelocean. The teelosphere is centrifugal.

CENTRIQUARK TYPES     Free centriquarks. Electroid centriquarks. Nucleon centriquarks. Nucleon centriquarks are structurally the same as electroid centriquarks but more massive.

CENTRIQUARK BEHAVIOUR     Free centriquarks are understable and stabilise as photons. Electroid centriquarks are understable but endure because they are bound into electroids and engorged. Nucleon centriquarks are understable but endure because they are bound into nucleons and engorged.

CENTRIQUARK ORIGINS     The origin of electroid centriquarks is manufacture in the stabilisation turbines of understable protons. The origin of nucleon centriquarks is unknown.