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COREPHYSICS




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CORE PHYSICS LINKS


PREAMBLE

TAXONOMIC TABLE

GLOSSARY


* * * * *

Taxa 1
FUNDAMIDES

Taxon 1.1
Teels

Taxon 1.2
Teelons


Taxa 2
PHOTIDES

Taxon 2.1
Neutrinos

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)



 









































   





























































































































































































































































































































































Taxa 3


MORPHIDES


Multicore objects manufactured in toruses from numbers of photides.



Revised:   11 Janurary 2025




MORPHIDE LINKS

CURRENT PHYSICS PARADIGM
COREPHYSICS
COMPARISONS

work in progress


CURRENT PHYSICS PARADIGM
  • The models and favoured methods of research, interpretation, and verification currently believed to provide the most likely description of the Universe's objects and interactions.
STANDARD MODEL OF ELEMENTARY PARTICLES

The fundamental theory in physics that describes the electromagnetic, weak, and strong nuclear interactions that govern the behaviour of the elementary quarks and leptons.
  • ELECTRONS
    • are negatively charged leptons.
    • have no substructure.
    • have a small mass relative to nucleons.
    • orbit atomic nucleuses.
    • participate in chemical bonding.
    • interact via the electromagnetic force.
    • are involved in both electricity and magnetism.
  • QUARKS
    • are fractionally charged particles.
    • are of six types (flavours) having masses comparable to or greater than the electron.
    • interact via the strong force.
    • are never found in isolation.
    • are found in groups of three as protons or neutrons.
QUANTUM CHROMODYNAMICS (QCD)

A component of the Standard Model of Particle Physics that describes the strong force interactions between quarks using gluons as force carriers. A key feature is confinement which prevents quarks from existing freely and leads them to combine into nucleons.
  • PROTONS
    • are positively charged composite particles.
    • are found in the nucleus of atoms.
    • have a nucleus consisting of two upquarks and one downquark.
    • have quarks held together by the strong nuclear force. 
    • are stable.
    • together with neutrons make up nearly all the mass in ordinary matter.
    • contributes positive charge to the electromagnetic force.
  • NEUTRONS
    • are neutrally charged composite particles.
    • are found in the nucleuses of atoms.
    • have a nucleus consisting of one upquark and two downquarks.
    • have quarks held together by the strong nuclear force.
    • are stable inside atomic nucleuses.
    • are unstable when free.
    • when free neutrons decay to protons, electrons, and antineutrinos.
    • when free have a half-life of 10 minutes approx.
    • together with protons make up nearly all the mass in ordinary matter.

COREPHYSICS
MORPHIDES     (taxa 3)
  • have nucleuses that contain numbers of quarks.

QUARKS
    • electroid nucleuses contain two quarks.
    • nucleon nucleuses contain three quarks.

ELECTROIDS     (taxon 3.1)

ELECTRONS     (taxonome 3.1.1)
  • have a northpole aligned with the axiquark northpole.
  • have an equator and a southpole.
  • have an axial teelosphere teelstream system.
  • have a teelosphere that encourages electron alignment with any surrounding teelstream.

PRECTRONS     (taxonome 3.1.2)

NUCLEONS     (taxon 3.2)

PROTONS     (taxonome 3.2.1)
    • each quark is a teelcore inside a teelocean.
    • the axiquark teeloceans are axial teelstream systems.
    • the centriquark teelocean is a centrifugal teelstream system.
    • the quarks are strongforced (constrained equilibrium) to each other.
    • the axiquark axes are aligned with the proton axis.
    • the centriquark axis is right angled to the proton axis.
    • the northern sector of the centriquark equator abuts the axiquark southpoles.
    • the three quarks are a torus.
  • have a northpole aligned with the axiquark northpoles.
  • have an equator and a southpole.
  • have an axial teelosphere teelstream system.
  • have a teelosphere that encourages alignment.
  • have a prectrosphere as conditions dictate.
  • having a prectrosphere discourages alignment.
  • having a prectrosphere increases proton masspush.

NEUTRONS     (taxonome 3.2.2)
  • have a northpole aligned with the axiquark northpole.
  • have an equator and a southpole.
  • have a centrifugal teelosphere teelstream system.
  • have a teelosphere that discourages alignment.



COMPARISONS

ELECTROID CREATION

Paradigm
  • most electrons were created shortly after the Big Bang.
  • some electrons are created by such as beta decay and pair production.
Corephysics
  • some electroids are created by such as betadecay and pair production.

ELECTRONS

Paradigm
  • are subatomic particles.
  • have a negative electric charge.
  • are found in all atoms.
  • orbit the nucleus of protons and neutrons.
  • generate electricity by their movement.
  • determine how atoms interact with each other.
  • play a crucial role in electricity, magnetism, and other physical phenomena.
Corephysics

ELECTRON SPIN

Paradigm
  • is the intrinsic angular momentum of electrons.
    • electrons do not literally spin but have a quantum mechanical "spin" that is either "up" or "down".
  • influences how electrons interact with magnetic fields and each other.
  • plays a key role in phenomena such as magnetism and the Pauli exclusion principle.
Corephysics

HYDROGEN

Paradigm
  • is the lightest and most abundant chemical element in the universe.
  • is a single proton (with or without accompanying electron(s)).
  • is referred to as a proton or a hydrogen according to need and convention.
  • is about 75% of the universe's elemental mass.
  • is primarily found in diatonic form as two bound protons.
Corephysics

NEUTRONS

Paradigm
  • are neutral subatomic particles.
  • are three quarks bound together by the strong nuclear force.
  • decay to protons when free.
  • endure when bound into atomic nucleuses.
Corephysics

NUCLEON CREATION

Paradigm
  • is by hadronisation as high-energy quarks combine via the strong force.
    • most of today's nucleons were created shortly after the Big Bang
    • created as the universe cooled enough for quark hadronisation.
    • smaller numbers continue to be created in stars, high-energy environments, and artificial collisions.
Corephysics

PAULI EXCLUSION PRINCIPLE

Paradigm
  • No two fermions can occupy the same quantum state simultaneously within a quantum system.
    • in an atom, no two electrons can have the same set of quantum numbers.
    • this arranges electrons in distinct energy levels and orbitals.
Corephysics
      • prectron masspush dictates the maximum number of prectrons in a prectrosphere.
      • proton/nuclide nucleus gravitymass also dictates the maximum number of prectrons in a prectrophere.
      • prectron masspush and nucleus gravitymass dictates the disposition of prectrons in a prectrosphere.
      • excess prectrons are ejected or subsumed.

PRECTRONS

Paradigm
  • as a distinct particle are not currently in the Paradigm.
  • are electrons which are not morphic objects.
Corephysics

PRECTROSPHERES

Paradigm
  • equate to electron clouds and electron shells.
  • are regions around an atomic nucleus where electrons are likely to be found
  • are organised by energy levels.
  • are further divided into subshells which define the spacial distribution of electrons.
  • are filled by electrons in order of increasing energy with the lowest energy level being closest to the nucleus.
  • determine an atom's chemical properties and bonding behaviour.
Corephysics
    • being able to reside depends on (1) a prectron not achieving escapevelocity and (2) there being no more than one prectron already resident.
    • primary strongforce is mutual gravitypull between a prectron and the proton nucleus countered by the mutual masspush between a prectron's teelosphere and the proton teelosphere.
    • secondary strongforce is the mutual gravitypull between two prectrons in a prectrosphere countered by the mutual masspush of the two prectron teelospheres.
  • with a single resident prectron, the proton is strongly repellent because the prectron teelosphere is chaotic.
  • with a single resident prectron, the axiality of the proton's outer teelosphere is neutralised because the prectron teelosphere is chaotic.
  • with two resident prectrons, the repellence and the neutralisation is reinforced.
    • resident prectrons move around the proton nucleus as conditions dictate.
      • a proton having no resident prectrons is a cation.
      • a proton having one resident prectron is an ion.
      • a proton having two resident prectrons is an anion.

PROTONS

Paradigm
  • are positively charged particles.
  • consist of three quarks bound together by the strong nuclear force.
  • endure when free.
  • endure when bound into atomic nucleuses.
  • determine element type by the number of protons in an atomic nucleus.
Corephysics

QUARKS

Paradigm
  • fundamental particles.
  • key building blocks of matter.
  • combine to form protons and neutrons.
  • are of six types defined principally by their mass/energy.
  • have fractional electric charges.
  • interact via the strong nuclear force.
  • are bound together by gluon exchange.
  • do not exist outside the nucleuses of hadronic particles.
Corephysics

QUARK CREATION

Paradigm
  • quarks
    • were created shortly after the Big Bang during the quark-gluon plasma phase.
    • continue to be produced in small numbers under appropriate conditions.
Corephysics
  • quarks

STABILITY

Paradigm
  • is when an object or system is maintaining its structure and/or equilibrium against external forces or disturbances.
Corephysics
    • Objects are overstable when their massvelocity exceeds their gravityvelocity.
    • Objects are understable when their massvelocity is exceeded by their gravityvelocity.

STRONG NUCLEAR FORCE

Paradigm
  • is the strongest of the four fundamental forces.
  • directly binds quarks together in baryon and meson nucleuses by gluon exchange.
  • indirectly binds protons and neutrons together in the nucleuses of elements as a residual effect of their quark-binding.
Corephysics
    • allowing neither object to escape their adjacency.
    • allowing no nucleus to nucleus contact.

TORUSES

Paradigm
  • are three-dimensional geometric shapes that resemble a doughnut.
  • are created by rotating a circle around an axis to form a surface with a hole in the centre.
  • are characterised by distinct inner and outer radii.
  • are commonly found in physics, engineering, and geometry - notably in the design of magnetic confinement systems.
Corephysics
    • tralphium axial components are two protons.
  • have a rapidly spinning centrifugal component to the south/rear of the axial components that equatorially ejects excess teels into the compressor.
    • tralphium centrifugal component is one neutron.





PHOTONS | TOPELECTROIDS




Copyright 2024 - Ed Winchester / Sian Winchester

























MORPHIDES LINKS

CURRENT PHYSICS PARADIGM
COREPHYSICS
SIGNIFICANT DIFFERENCES

CURRENT PHYSICS PARADIGM
  • Current Physics Paradigm:   the models and favoured methods of research, interpretation, and verification currently believed to provide the most likely description of the universe's objects and interactions.
  • Atomic Theory:   the models and principles describing the structure of atoms and the behaviour of electrons within them including ideas such as the Bohr model, the quantum Mechanical Model, the Pauli Exclusion Principle, and the concept of orbitals.
ELECTRONS
  • are elementary particles.
  • are subatomic particles.
  • have a negative charge of -1.
  • have a mass of 9.109 x 10^-31 kgs.
  • have spin and thus a magnetic moment.
  • are pointlike particles with no known internal structure.
  • are stable in isolation.
  • bind to atom nucleuses in orbitals or electron clouds.
  • are significant in maintaining electrical neutrality in atoms.
NEUTRONS
  • are not elementary particles.
  • are subatomic particles.
  • have a zero net charge.
  • have a mass of 1.675 x 10^-27 kgs (more massive than protons by a miniscule amount).
  • have three quarks in the nucleus.
    • quarks are held in place by strong force.
    • quarks are one up-quark and two down-quarks.
  • have spin and thus a magnetic moment.
  • are unstable in isolation transforming to protons.
  • bind to protons and other neutrons to form atoms.
  • transform to proton inside atoms in specific circumstances.
PROTONS
  • are not elementary particles.
  • are subatomic particles.
  • have a positive charge of +1.
  • have a mass of 1.673 x 10^ -27 kgs.
  • have three quarks in the nucleus.
    • quarks are held in place by strong force.
    • quarks are two up-quarks and one down-quark.
  • have spin and thus a magnetic moment.
  • are stable in isolation.
  • are not known to decay.
  • bind to neutrons and other protons to form atoms.
  • transform to neutrons in specific circumstances.


CORE
PHYSICS
ELECTROIDS (TAXON 3.1)
ELECTRONS (TAXONOME 3.1.1)PRECTRONS (TAXONOME 3.1.2)
    • strongforced centriquark pairs have no "position of least stress".
    • strongforced centriquark pairs tumble about each other. 
  • are manufactured in the toruses of understable protons and tralphiums.
  • manufacture is from engorged photides.
  • contain two engorged centriquarks.
  • have insufficient energy to escape from their proton and/or nuclide.
  • are strongforced to the teelosphere surface of their proton or nuclide.
  • usual number at proton surface is one but can be higher or lower.
  • usual number at nuclide surface equals the number of protons in the nuclide but can be higher or lower.
  • exceeding the usual number can result in excess prectrons being subsumed or ejected.
  • that are ejected transmute to stable electrons.
  • transmutation to electrons transmutes one centriquark to an axiquark.
  • transmutation to electrons decreases gravitymass.

NUCLEONS (TAXON 3.2)
PROTONS (TAXONOME 3.2.1)
    • neutrons emitted by tralphiums are understable.
    • neutrons emitted transmute to protons as conditions dictate.
    • neutrons transmute to protons by transmuting a second centriquark to an axiquark as conditions dictate.
  • transmutation to protons reduces gravitymass.
  • overengorgement transmutes protons to neutrons as conditions dictate.
  • transmutation to neutrons increases gravitymass.
NEUTRONS (TAXONOME 3.2.2)
    • proto-neutrons transmute one centriquark to an axiquark and become neutrons.
    • neutrons with sufficient energy are emitted by tralphiums into the stellide atmospheres.
    • neutrons with insufficient energy are subsumed to dissipate or become part of the tralphium nucleus.
    • neutrons are emitted to fall or rise within stellide atmospheres.
    • falling neutrons are increasingly engorged and cannot transmute to protons.
    • neutrons fallen sufficiently become stripped neutrons.
    • rising neutrons transmute to protons as conditions dictate.
  • become protons by transmuting a second centriquark to an axiquark.
  • transmutation to protons decreases gravitymass.


SIGNIFICANT DIFFERENCES

The same Morphide facts underpin both the Current Physics Paradigm and Corephysics. However, the factbase is incomplete allowing signicant differences between the two descriptions. The differences are compounded by the different methods used to compile and support the descriptions.
  • Paradigm     compiled and supported by devolved and devolving hypotheses and theories that are currently incompletely empirically confirmed.
  • Corephysics     compiled from extrapolations and hypotheses evolved from Taxa 2 and supported by their ability to evolve forward into the Taxa 4 factbase.
ELECTRICITY
  • Paradigm     A form of energy resulting from the existence of charged particles (electrons or protons), either statically as an accumulation of charge or dynamically as a current. It is characterised by the flow of electric charge through conductors.
ELECTRONS
  • Paradigm     Electrons are elementary particles and thus not composed of smaller constituents. Electron orbit the atomic nucleus in electron shells and place a crucial role in such as electricity, magnetism, and chemical bonding.
ELECTRON SPIN
  • Paradigm     Electron spin is a fundamental property of electrons. It is not related to the physical spinning of the electron like a classical object but is a quantum property associated with its intrinsic angular momentum. There are two possible spin states conventionally denoted by the quantum numbers +1/2 (up) and -1/2 (down).
  • Corephysics     The odd spin of an electron is a mechanical consequence of electron nucleuses being multicores of one axiquark and one centriquark. The quarks adopt their "position of least stress" which is with the axiquark axis aligned with the electron axis and the centriquark axis at right angles to it. Thus the quark teelstream systems flow from the centriquark equator into the axiquark southpole exiting from axiquark northpole to return at high level reentering the centriquark at its poles. The quark nucleuses spin contrarily, the axiquark around the electron axis and the centriquark at right angles to it. The electron teelosphere surrounds those of its quarks and is mostly axial.
HYDROGEN
  • Paradigm     Hydrogen is the lightest and most abundant element in the universe. It is a colourless, odourless, and highly flammable gas. A hydrogen atom consists of one proton in its nucleus with one electron orbiting the nucleus. Hydrogen is commonly found as molecular hydrogen (H2). It is also found in some environments as elemental hydrogen (H). Notable H environments are (1) outer space and (2) regions of high temperature and low pressure.
  • Corephysics     Proton and neutron are the two morphs of a nucleon (Taxa 3). Nuclides (Taxa 4) have a nucleus containing numbers of nucleons. The nucleus of the simplest nuclide (Deuterium-2) contains two nucleons: one proton and one neutron.
  • Molecular hydrogen is outside the scope of Corephysics because it is a molecule. Elemental hydrogen is within the scope of Corephysics but is not an element or a nuclide. It is a proton which is a cation, ion, or anion depending on how many electrons it has.
MAGNETISM
  • Paradigm     A fundamental force of nature characterised by the attraction or repulsion between objects with magnetic properties. Magnets have two poles.Like poles repel. Unlike poles attract.
PROTONS
  • Paradigm     Protons are subatomic particles composed of quarks bound together by the strong force. All protons were formed in the first few minutes after the Big Bang from the prevailing hot and dense quark-gluon plasma. Conditions suitable for forming more protons have not occured since that time. Proton decay has not been observed although some predict proton lifespans to be less than eternal.
QUARKS
  • Paradigm     Quarks are elementary particles and thus not composed of smaller constituents. Quarks come in six flavors and are never found in isolation due to color confinement. Quarks only exist in color-neutral particles.
STRONGFORCE
  • Paradigm     A fundamental force which acts within the atomic nucleus to bind protons and neutrons together. Gluons are exchanged between quarks to mediate the strong force interactions.
  • Corephysics     Nucleon nucleuses contain three quark nucleuses. Electroid nucleuses contain two quark nucleuses. Each quark nucleus has a teelocean (and perhaps a teelosphere) within the nucleon teelosphere. Quark teeloceans/teelospheres are bound by quark gravitymass into coherent and hefty teelstreams. Strongforce is the mutual gravitypull of the quarks countered by the mutual masspush of their teelstreams. NB: The strongforce mechanism put simply is attraction countered by repellence. In one form or another the mechanism is found in many parts of the Corephysics taxonomy.
TORUSES
  • Paradigm     That protons and tralphiums might have toruses is presently not part of the Current Physics Paradigm.









MORPHIDE LINKS

CURRENT PHYSICS PARADIGM
  • Morphidic Atomic Theory particles
    • Electrons
    • Neutrons
    • Protons
COREPHYSICS
  • Morphides (Taxa 3)
    • Electroids (Taxon 3.1)
      • Electrons (Taxonome 3.1.1)
      • Prectrons (Taxonome 3.1.2)
    • Nucleons (Taxon 3.2)
      • Neutrons (Taxonome 3.2.1)
      • Protons (Taxonome 3.2.2)
RECONCILIATION

CURRENT PHYSICS PARADIGM
  • Current Physics Paradigm:   the models and favoured methods of research, interpretation, and verification currently believed to provide the most likely description of the universe's objects and interactions.
  • Atomic Theory:   the models and principles describing the structure of atoms and the behaviour of electrons within them including ideas such as the Bohr model, the quantum Mechanical Model, the Pauli Exclusion Principle, and the concept of orbitals.

MORPHIDIC ATOMIC THEORY PARTICLES:
  • Electrons, Neutrons, Protons.

ELECTRONS:
  • are subatomic elementary particles.
  • have a negative charge of -1.
  • have a mass of 9.109 x 10^-31 kgs.
  • have spin and thus a magnetic moment.
  • are pointlike particles with no known internal structure.
  • are stable in isolation.
  • bind to atom nucleuses in orbitals or electron clouds.
  • are significant in maintaining electrical neutrality in atoms.
NEUTRONS:
  • are subatomic particles.
  • are not elementary.
  • have a zero net charge.
  • have a mass of 1.67 x 10^-27 kgs
  • (more massive than protons by a miniscule amount).
  • have three quarks in the nucleus.
    • quarks are held in place by strong force.
    • quarks are one up-quark and two down-quarks.
  • have spin and thus a magnetic moment.
  • are unstable in isolation transforming to protons.
  • bind to protons and other neutrons to form atoms.
  • transform to proton inside atoms in specific circumstances.
PROTONS:
  • are subatomic particles.
  • are not elementary.
  • have a positive charge of +1.
  • have a mass of 1.67 x 10^ -27 kgs.
  • have three quarks in the nucleus.
    • quarks are held in place by strong force.
    • quarks are two up-quarks and one down-quark.
  • have spin and thus a magnetic moment.
  • are stable in isolation.are not known to decay.
  • transform to neutrons in specific circumstances.
  • bind to neutrons and other protons to form atoms.



COREPHYSICS
  • Corephysics:   the central, essential part of the branch of science concerned with the properties and interactions of space, time, matter, and energy.
  • Morphide:   a multicore object manufactured in toruses from numbers of photides.
  • Morphides:
    • are a nucleus, teelosphere, and gravitysheath.
    • transmute between being stable and understable as conditions dictate.
    • change structure when transmuting.
    • are electroids or nucleons.

ELECTROIDS (TAXON 3.1):
  • Electroid:     a multicore object with a two quark nucleus.
    • quarks are engorged photides.
  • Electroids:
    • are manufactured in the toruses of understable protons and tralphiums.
    • have two strongforced quarks in the nucleus.
    • transmute between being electrons or prectrons as conditions dictate.

ELECTRONS (TAXONOME 3.1.1):
  • Electron:   an electroid morph with a one axiquark and one centriquark nucleus.
  • Electrons:
    • are stable or stableable.
    • endure when isolated.
    • have axial teelospheres.
    • transmute from isolated prectrons.
    • transmute to prectrons when overengorged.
PRECTRONS (TAXONOME 3.1.2):
  • Prectron:   an electroid morph with a two centriquark nucleus.
  • Prectrons:
    • are understable.
    • endure when bound to proton or nuclide nucleuses.
    • are engorged when bound to proton or nuclide nucleuses.
    • do not endure when isolated.
    • transmute to electrons when isolated.
    • have centrifugal or chaotic teelospheres.

NUCLEONS (TAXON 3.2):
  • Nucleon:   a multicore object with a three quark nucleus.
    • quarks are engorged photides.
  • Nucleons:
    • are manufactured in the toruses of understable tralphiums.
    • have three strongforced quarks in the nucleus.
    • transmute between being neutrons and protons as conditions dictate.

NEUTRONS (TAXONOME 3.2.1):


  • Neutron:   a nucleon morph with a one axiquark and two centriquark nucleus:
    • quarks are engorged photides.
  • Neutrons:


    • are understable.
    • endure when bound into a nuclide nucleus.
    • are engorged when bound into a nuclide nucleus.
    • are attuned to nuclide teelstream system when bound into a nuclide nucleus.
    • are attuned by gravitymass differential mechanism.
    • attune primarily by equatorial ejection.
    • do not endure when isolated.
    • transmute to protons when isolated.
    • transmute to protons inside nuclide nucleuses as conditions dictate.
    • transmute from protons inside nuclide nucleuses as conditions dictate.
    • have centrifugal teelospheres.


PROTONS (TAXONOME 3.2.2):


  • Proton:   a nucleon morph with a two axiquark and one centriquark nucleus.
    • quarks are engorged photides.
  • Protons:
    • are stable or stableable.
    • are engorged when bound into a nuclide nucleus.
    • are attuned to nuclide teelstream system when bound into a nuclide nucleus.
    • are attuned by gravitymass differential mechanism.
    • attune primarily by emission from torus.
    • transmute to neutrons when overengorged.
    • transmute from neutrons when isolated.
    • transmute to neutrons inside nuclide nucleuses as conditions dictate.
    • transmute from neutrons inside nuclide nucleuses as conditions dictate.
    • have axial teelospheres.




















DRAFT


TAXA 3 - MORPHIDES
TAXON 3.1 - ELECTROIDS
TAXONOME 3.1.1 - ELECTRONS
TAXONOME 3.1.2 - PRECTRONS
  • Prectrons are understable electroids.
  • Prectron nucleuses contain two centriquarks.
  • Prectron teelospheres are chaotic.
  • Prectrons when not engorged transmute to electrons.
TAXON 3.2 - NUCLEONS
  • Nucleons are manufactured in the toruses of understable tralphiums.
  • Nucleon nucleuses contain three strongforced quarks.
  • Nucleons are protons or neutrons.
TAXONOME 3.2.1 - PROTONS
  • Protons are stable or stableable nucleons.
  • Proton nucleuses contain two axiquarks and one centriquark.
  • Protons teelospheres are axial.
  • Protons when overengorged transmute to neutrons.
TAXONOME 3.2.2 - NEUTRONS
  • Neutrons are understable nucleons.
  • Neutron nucleuses contain one axiquark and two centriquarks.
  • Neutron teelospheres are centrifugal.
  • Neutrons when not engorged transmute to protons.
COMMENTARIES

Electroids and nuclides (along with tritite) are the only morphic objects on the Core Physics Taxonomic Table. Morphic objects change back and forth between two distinct forms as conditions dictate.

* * * * *

Mesons, like electroids, have two quarks in the nucleus. They are not electroids, however, because they are not morphic. All those currently known are understable and either decay to other mesons or dissipate. Thus nor are they "core".