COREPHYSICS

• Teelon structure
• Teelon primary interactions
• Teelon secondary interactions
• Teelon mechanisms
• Gravitymass differential mechanism
  
• Speed-Spin equation
• Speed-Spin conservation
• The teelonfield
  

• Conservation Laws
• Gravitational Inverse Square Law
• Gravity Law
• Gravitypull Law
• Inverse Square Law
• Mass Law
• Masspush Law
• Relativity Law

• A teelon is an extrapolation from the properties of the teel. It demonstrates the fundamentals of structure. The structure of the teelon is echoed in the structures of the objects of taxas two to five (photides to stellides), notwithstanding their increasing complexity.

• Each teelon nucleus consists of two teels. Each teel has the primary interactions gravity and mass. The primary interactions of a teelon's teels extrapolate to the primary interactions of the teelon.

• The primary interactions gravity and mass beget the secondary interactions speed-energy and spin-energy.

• Speed-energy is a consequence of gravity. The mutual gravitypull of any pair of objects accelerates their convergence and decelerates their divergence. The rate of their convergence or divergence is the speed of each object relative to a benchmark.

• Spin-energy is a consequence of mass. All objects are rotating about their axis. An object may be stationary relative to some benchmarks but it will always be rotating relative to others. The measure of rotation is the object's spin. The spin of an object alters when it collides with another object as the two objects mutually masspush each other.

• The energy of a teelon is the sum of its speed and spin relative to a benchmark. It is extrinsic and intrinsic. The extrinsic and intrinsic energies of a teelon are absolute, extant, and potential.

• Mechanism:   an arrangement of parts that interact in a preordained manner to deliver an expected result or product.

• The speed and spin of a teelon are equated by the speed-spin equation mechanism.

• During collisions speed can transmute to spin and spin can transmute to speed. Such transmutations are always subject to the speed-spin conservation mechanism.

• A teelon is a nucleus of two identical and adjacent teels interacting with each other via their mutual gravitypull and masspush. As such, teelons are distinct objects. However, their distinctness is not absolute because every teel is simultaneously adjacent to twelve or more teels. Thus, every teel is simultaneously one half of at least twelve teelons. Further, since no two teels have exactly the same twelve-plus pairings, every teelon is a component of the teelonfield - a three dimensional network of teel adjacency that pervades the Universe.

• The teelonfield not static. The gravitypull and masspush of its teels, combined with the Universe's large volume, endows the teels with speed and spin. Consequently they are in constant and often extremely energetic brownianmotion: speeding, spinning, colliding, accelerating and decelerating. In such a field, teelon lifespans are short as they flash into existence and back out of it.

• Scattered through the teelonfield are the objects of taxas two to five (photides to stellides). The gravitymass of these objects overcomes the brownianmotion of nearby teels and forms them into gasbonded and/or liquidbonded teelstream systems. Within these systems teelons can endure for significant periods - albeit still as small components in the great teelonfield.

• Law:   a statement concerning phenomenal equivalences, orders, sequences, relationships, etc, for which no ambiguities, deviations, exceptions, etc, are currently known.

• The following laws apply to teelons and directly or by extrapolation to all objects in taxas two to five.
  

• Teelons:   hypothetical multicore objects embodying the secondary interactions.

• Structure:   an arrangement of parts that holds for a measurable time.
• Teelon structurals:   nucleus, gravitysheath, points, dimensions.

• Primary interaction:   either of two interactions from which secondary interactions evolve.
• Teelon primary interactions:   gravity and mass.

• Secondary interaction:   an interaction evolving from a primary interaction.
• Teelon secondary interactions:   speed, spin.

• Mechanism:   an arrangement of parts that interact in a preordained manner to deliver an expected result or product.
• Teelon mechanism:   gravitymass differential mechanism.

• Law:   a statement concerning phenomenal equivalences, orders, sequences, relationships, etc, for which no ambiguities, deviations, exceptions, etc, are currently known.

• Teelons
• Context

• Teelon
• Nucleus
• Gravitysheath

• Gravity
• Mass

• Acceleration/deceleration
• Orbits
• Energy ratios
• Gravitypull ratios
• Kinesis
• Mass ratios

• Energy Law
• Gravity Law
• Gravitypull Law
• Inverse Square Law
• Mass Law
• Masspush Law
• Relativity Law
• Speed-Spin Equation Law
• Speed-Spin Transmutation Law

• A teelon is a nucleus inside a gravitysheath.

• A teelon nucleus is two teels.
  • Teel:   A nucleus inside a gravitysheath.
  • Gravitysheath:   The region inside which the gravitypull of the nucleus is stronger than that of any other object.
    • The two teel gravitysheaths abut.
• A teelon nucleus has a gravitycentre, a masscentre, and a surface.
  • Gravitycentre:   The point on a straight line between the teels where their gravitypulls are equal and opposite.
  • Masscentre:   The point around which the teels orbit.
    • Closed orbits:   The teelon endures.
    • Open orbits:   The teelon does not endure.
  • Surface :   The combined non-abutting surfaces of the teel gravitysheaths.
• A teelon nucleus has dimensions.
  •  Depth. Height. Volume. Width.

• A teelon gravitysheath surrounds the nucleus.
  • Gravitysheath:   The region around the nucleus within which the gravitypull of the nucleus is stronger than that of any other object.
• A teelon gravitysheath has extent, a gravitysheath interface, and form.
  • Extent:   From the surface of the teelon nucleus to the teelon gravitysheath interface.
  • Gravitysheath interface:   Where the gravitysheath abuts the gravitysheaths of adjacent objects.
  • Form:   Reflects the proximity of adjacent objects and the disposition and energy of the teels in the nucleus.
• A teelon gravitysheath has dimensions.
  • Depth. Height. Volume. Width.

• Teelon gravity is extrinsic and intrinsic.
  • Extrinsic gravity:   The ability of a teelon nucleus to attract another object.
  • Intrinsic gravity:   The ability of the teels in a teelon nucleus to attract each other.
• Teelon gravitypull is the magnitude of the gravity of a teelon nucleus.
  • Extrinsic gravitypull:   The strength of its gravitypull on another object.
    • Extrinsic gravitypull:   Decreases with increasing distance from a nucleus surface per the Inverse Square Law.
  • Intrinsic gravitypull:   The sum of the strengths of the gravitypulls of a teelon's teels on its masscentre.
    • Intrinsic gravitypull:   Decreases with increasing teel distance from the teelon masscentre per the Inverse Square Law.

• Teelon mass is the ability to repel other objects on nucleus to nucleus contact.
• Teelon masspush is the magnitude of teelon mass.
  • Masspush:   The strength of a teelon's resistance to deformation and/or penetration.

• Accelerations and decelerations derive from the mutual gravitypulls of objects.
  • Acceleration:   A progressive speed increase.
  • Deceleration:   A progressive speed decrease.

• Teelon acceleration is extrinsic and intrinsic.
  • Extrinsic acceleration:   A teelon accelerates as it converges on another object.
  • Intrinsic acceleration:   Teelon teels accelerate as they converge on the teelon masscentre.
    • Intrinsic acceleration can result in acceleration of teelon extrinsic spin.
• Teelon deceleration is extrinsic and intrinsic.
  • Extrinsic deceleration:   A teelon decelerates as it diverges from another object.
  • Intrinsic deceleration:   Teelon teels decelerate as they diverge from the teelon masscentre.
    • Intrinsic deceleration can result in deceleration of teelon extrinsic spin.

• Caveat: The extrinsic and intrinsic speed and spin of a teelon can alter during collision with another object. The alteration derives from mass and is not progressive.

• Orbits derive from the mutual gravitypulls of objects.
  • Orbit:   The track of an object around a masscentre.
  • Closed orbit:   Wholly within the masscentre gravitysheath.
  • Teel escapevelocities greater than teel vergencevelocities.
  • Open orbit:   Crosses the masscentre gravitysheath interface.
  • Teel vergencevelocities greater than teel escapevelocities.

• Teelon closed orbits are extrinsic and intrinsic.
  • Extrinsic closed orbit:   Around a teelon's masscentre with another object, wholly within the masscentre's gravitysheath.
  • Intrinsic closed orbit:   A teel's orbit around the teelon masscentre, wholly within the teelon gravitysheath.
• Teelon open orbits are extrinsic and intrinsic.
  • Extrinsic open orbit:   Around a teelon's masscentre with another object, crossing the masscentre's gravitysheath interface.
  • Intrinsic open orbit:   A teel's orbit around the teelon masscentre, crosses the teelon gravitysheath interface.

• Energy ratios change due to the mutual gravitypulls of objects.
• Energy ratios relate an object's extant energy to its potential energy.
  • Extant energy:   An object's realised energy.
  • Potential energy:   An object's unrealised energy.
  • Absolute energy:   The sum of an object's extant energy and potential energy.

• Teelon energy ratio changes are extrinsic and intrinsic.
  • Extrinsic energy:   Progressively changes from potential energy to extant energy as the teelon converges on another object.
  • Extrinsic energy:   Progressively changes from extant energy to potential energy as the teelon diverges from another object.
    • Extrinsic absolute energy:   The teelon and the other object are touching nucleus to nucleus.
  • Intrinsic energy:   Progressively changes from potential energy to extant energy as the teelon teels converge on the teelon masscentre.
  • Intrinsic energy:   Progressively changes from extant energy to potential energy as the teelon teels diverge from the teelon masscentre.
    • Intrinsic absolute energy:   The teelon teels are touching nucleus to nucleus.

• Caveat:   Changes in teelon extrinsic and intrinsic energy ratios take place simultaneously and are different aspects of the same interaction.
• Caveat:   Energy at the surface of a teelon nucleus is the sum of the energy of its teels relative to the volume of the nucleus and modified by the disposition of the teels in the nucleus.

• Gravitypull ratios change due to the mutual gravitypulls of objects.
• Gravitypull ratios relate an object's extant gravitypull to its potential gravitypull.
  • Extant gravitypull:   An object's realised gravitypull on another object.
  • Potential gravitypull:   An object's unrealised gravitypull on another object.
  • Absolute gravitypull:   The sum of an object's extant gravitypull and potential gravitypull.

• Teelon gravitypull ratio changes are extrinsic and intrinsic.
  • Extrinsic gravitypull:   Progressively changes from potential gravitypull to extant gravitypull as the teelon converges on another object.
  • Extrinsic gravitypull:   Progressively changes from extant gravitypull to potential gravitypull as the teelon diverges from another object.
    • Extrinsic absolute gravitypull:   The teelon and the other object are touching nucleus to nucleus.
  • Intrinsic gravitypull:   Progressively changes from potential gravitypull to extant gravitypull as the teelon teels converge on the teelon masscentre.
  • Intrinsic:   Progressively changes from extant gravitypull to potential gravitypull as the teelon teels diverge from the teelon masscentre.
    • Intrinsic absolute gravitypull:   The teelon teels are touching nucleus to nucleus.

• Caveat:   Changes in teelon extrinsic and intrinsic gravitypull ratios take place simultaneously and are different aspects of the same interaction.
• Caveat:   Gravitypull at the surface of a teelon nucleus is the sum of the gravitypull of its teels, relative to the volume of the nucleus and modified by the disposition of the teels in the nucleus.

• Kinesis derives from the mutual gravitypulls and mutual masspushes of objects.
  • Kinesis magnitude:   energy.
  • Energy:   The sum of an object's speed and spin.
  • Speed:   Linear movement derived from gravitypulls.
  • Spin:   Rotational movement derived from masspushes.
  • Speed and spin are equated per Speed-Spin Equation Law.

• Teelon speed is extrinsic and intrinsic.
  • Extrinsic speed:   Speed relative to another object.
  • Intrinsic speed:   The sum of the speeds of a teelon's teels relative to the teelon masscentre.

• Teelon spin is extrinsic and intrinsic.
  • Extrinsic spin:   Spin relative to another object.
  • Intrinsic spin:   The sum of the spins of a teelon's teels relative to the teelon masscentre.

• Caveat:   Teelon energy can be transferred to and from other objects during collisions.
• Caveat:   Extrinsic spin and intrinsic speed alter commensurately during teelon contractions and expansions.

• Masspush ratios change due to the mutual gravitypulls and mutual masspushes of teels.
• Masspush ratios relate a teelcomposite's extant masspush to its potential masspush.
  • Extant masspush:   A teelcomposite's realised masspush.
  • Potential masspush:   A teelcomposite's unrealised masspush.
  • Absolute masspush:   The sum of a teelcomposite's extant masspush and potential masspush.

• Teelon masspush ratio changes are intrinsic.
  • Intrinsic masspush:   Progressively changes from potential masspush to extant masspush as the teelon teels converge on the teelon masscentre. 
  • Intrinsic masspush:   Progressively changes from extant masspush to potential masspush as the teelon teels diverge from the teelon masscentre.
  • Intrinsic absolute masspush:   The teelon teels are touching nucleus to nucleus.

• Caveat:   Masspush (1) at the surface of a teelon nucleus is the masspush of its teels, relative to the volume of the nucleus and modified by the disposition of the teels in the nucleus.
• Caveat:   Masspush (2) at the surface of a teelon nucleus is the sum of the volumes of its teels, relative to the volume of the nucleus and modified by the disposition of the teels in the nucleus.
• Caveat:   Unlike gravitypull, masspush is not radiative. Consequently there is no extrinsic masspush.