COREPHYSICS

• Ferricnuclide element stratums stratify by isotopenumber.
• Isotopenumber stratification is lowest outward as conditions permit.
• Star lithispheres are below star primaspheres.
• Stripped neutrons downdraw from the primasphere.
• Stripped primalnuclides downdraw from the primasphere.
• Drawdown is by (1) star intrinsic gravitypull.
• Drawdown is within (2) teelstreams.
• Lithisphere nuclides are partly / wholly cationised.
• Cationisation results from engorgement by the lithisphere substrate.
• Lithisphere substrate is dense and energetic.
  

• Fusion happens in stars.
• Lithicnuclide fusion is strongforcing stripped objects to cationised nuclides.
• Fusion results from nucleus to nucleus collision.
• Fusion results in (1) isotopenumber increase.
• Fusion results in (2) gravitymassvelocity increase.
• Fusion results in (3) understability increase.
• Fusion results in (4) attunement loss.
• Attunement is restored via gravitymass differential mechanism.
• Attunement is to a higher isotopenumber.
• Attunement requires fundamide ejection and emissiondecay.
• Attunement may require betadecay and/or nucleondecay.
• Attunement regained is as a stableable or understable isotope.

• Fusions result in absorption of additional gravitymass.
• Successive fusions result in successive increases in gravitymass.
• Each gravitymass increase is between neutron and helium gravitymass.
• Gravitymass increase results in attunement loss.
• Attunement is regained by ejecting gravitymass.
• Lithicnuclide attunements require ejecting more gravitymass than is absorbed.
• Successive fusions require successively less gravitymass ejection to regain attunement.
• Fusions of lithium isotopes require the greatest gravitymass ejections.
• Fusions of manganese isotopes require the least ejections.
• Ferricnuclide attunements require less ejection of gravitymass than is absorbed.

• A taxon =
• In the taxa Nuclides =
• cf: Core Physics Taxonomic Table.

• Nuclidic nucleus =
• Numbers of nucleon nuclei inside a teelocean.
• Bound by strongforce =
• As primalnuclides and nucleons.
• Teelosphere = 
• A stratum of gasbonded teels.

• Elements are typified by the number of protons in the nucleus =
• From Iron (26 protons) to Oganesson (118 protons).
• Elements are either uranic or transuranic =
• Uranic elements occur naturally on Earth.
• From Iron (26 protons) to (Uranium) 92 protons.
• Transuranic elements do not occur naturally on Earth =
• From Neptunium (93 protons) to Oganesson (118 protons) =
• These elements have been synthesised on Earth =
• Elements with more than 118 protons may or may not be synthesised in future.

• Isotopes are typified by the number of neutrons in the nucleus =
• Rule of thumb: as the mass of ferricnuclide isotopes increase, the number of neutrons increasingly exceeds the number of protons.
• Neutroncores form at the centre of the nucleus from the excess neutrons.

• Stable isotopes have the same energyvelocity and massvelocity =
• Thus =
• Stable isotopes do not decay =
• Elements between Iron (26 protons) and Lead (82 protons) have at least one stable isotope.
• Elements between Bismuth (83 protons) and Oganesson (118 protons) have only understable isotopes.
• Understable isotopes have more energyvelocity than massvelocity =
• Thus =
• Understable isotopes decay.

• Decay is the change of an understable isotope to another isotope and/or element by the ejection of energymass =
• The decay type undergone depends on the isotope type =
• Common decay types are =

• Alphadecay =
• Ejecting a helium =
• Thus: changing element type.

• Betadecay =
• Morphing a nucleon =
• Thus: changing isotope and/or element type.

• Nucleondecay =
• Ejecting one or more nucleons.
• Thus: changing isotope and element type.

• Fissiondecay =
• Splitting the nucleus =
• Thus: ejecting neutrons.
• Thus: becoming two or more lesser element types.
• There are two types of fissiondecay =
• Spontaneous fissiondecay =
• When the nucleus splits unpredictably with no apparent cause.
• Induced fissiondecay =
• When the nucleus splits after neutron absorption from an adjacent spontaneous fissiondecay.
• for no apparent
• cf: chainreaction.

• Helium nuclei are two neutrons and two protons =
• Helium nuclei are strongly bound and maintain their form =
  
• Ferricnuclides have more neutrons than protons =
• Ferricnuclides have a neutroncore.

• Neutroncore neutrons =
• Are stripped =
• May or may not retain a teelosphere.
• May or may not be liquidbonded together.
• May or may not be solidbonded together.
• Are engorged =
• Inside the ferricnuclide teelocean teelstream system.
• Stable ferricnuclides =
• Neutrons are attuned to the teelstream system.
• Understable ferricnuclides =
• Neutrons are not attuned to the teelstream system.

• Stars =

• Progressively increase peakmass as they accrete =
• Increasing peakmass increases the mass of the nuclides that can be manufactured =
• Dwarfstars =
• Fuse primalnuclides and lithicnuclides.
• Whitestars =
• Fuse primalnuclides, lithicnuclides, and white ferricnuclides.
• Blackstars =
• Fuse primalnuclides, lithicnuclides, white ferricnuclides, and black ferricnuclides.
  
• Stratify ferricnuclides by mass =
• With most massive nuclide stratum at star masscentre.
• With successively less massive stratums out toward star surface.
• With all nuclide stratums inside stratums of nucleons.
• Are coursed by teelstream systems =
• Transporting excess energymass to star surface.

• Manufacture =

• Fusion of increasingly massive ferricnuclide isotopes =
• May or may not be by the fusion of two or more nuclides.
• May or may not be by the fusion of nuclides with stripped neutrons and/or stripped heliums.
• Assumption =
• Fusion of increasingly massive ferricnuclide isotopes is by the fusion of nuclides with stripped neutrons and/or stripped heliums.
• Ferricnuclide fusions =
• Typically result in nuclides with more energymass than the sum of the energymass of the fusing objects =
• Rules of thumb =
• The more massive the fused ferricnuclide, the greater the disparity between the before and after energymass.
• Ferricnuclide elements up to Lead (82 protons) =
• Have stable and understable isotopes.
• Ferricnuclide elements beyond Lead (83 protons and up) =
• Have only understable isotopes.
• Ferricnuclide elements up to Protactinium (91 protons) =
• Are white ferricnuclides (cf: whiteferric isotopes).
• Have isotopes capable of alphadecay and/or betadecay.
  
• Ferricnuclide elements beyond Protactinium (92 protons) =
• Are black ferricnuclides (cf: blackferric isotopes).
• Have isotopes capable of fissiondecay (cf: induced fissiondecay, spontaneous fissiondecay)

• Fusion mechanicals =

• Increasing stellar peakmass increases stellar intrinsic gravitypull =
• Increasing intrinsic gravitypull increases nuclide packing densities =
• Increasing packing density draws nuclide gravitysheath interfaces inside nuclide teelospheres =
• Thus =
• Stripping teels from the teelospheres.
• Reducing teelosphere volumes.
• Reducing extent of teelosphere masspush.
• Reducing nuclide energyvelocity relative to massvelocity.
• Reducing nuclide understability.
• Making nuclides more prone to absorbing stripped neutrons and stripped heliums.

• Stars fuse neutrons, deuteriums, and heliums to isotopes to create more massive isotopes. 
• The least massive isotopes are at star surface.
• The most massive isotopes are at star centre.

• Contracts the ferric core.
• Raises its packing density of the ferric core.
• Accelerates the ferric core's contraction rate.
• Accelerates the rate at which isotopes fuse and/or accrete.

• The increased mass increases mutual gravitypull of ferric isotope pairs.
• The increase in mutual gravitypull converges ferric isotope nuclei.
• The ferric core contracts.
• The rate of ferric core contraction is is tied to star peakmass.
• The higher the star peakmass, the more rapid the ferric core contraction.

• Contracting the ferric core accelerates the teelosphere teels.
• The acceleration is due to transmutation of potential speed to speed.
• Thus: accelerating teels in a reducing volume.
• Commensurate numbers of teels are expelled from the ferric core.
• The higher the star peakmass, the more massive the contracting ferric core.
• The more massive the contracting ferric core, the greater the mass and energy of the expelled teels.