Fortis of dissonant repulsion

Matter vibrating in discord is mutually repelled

Volume

Volume is the measure of the perceived amount of space a particular
structure takes up.
Volume is relative as an object may be said to have perceived volume
without actually constituting stationary matter in each compartment of its
space.
The measure of volume is always changing as the real and perceived
volume of matter and space changes.
Size is equal to the volume of space taken up by a certain number of
benchmark objects, according to their configuration.

Aggregate motion

Matter of like spin create greater forms of matter.
Groups of like particles in closer form modify their motion to be in relative
harmony with other particles. This may be defined as aggregate motion.
The harmonic pitch of vibration of the form is a multiple of the pitch of
vibration of smaller objects within its form.
So long as the bonds retaining form are greater than the fortis of
separation, aggregate motion will adjust and retain unison within the form

Multi-model motion system

No perfect vacuum exists whereby less than three (3) objects are
interacting.
All particles at all levels of matter are influenced in their motion by the
unique proximity of similar and different matter.
All complex models of the effects of particle motion can be defined by three
(3) or more object models.

Density

Density is the number of particles (Mass) in a given volume.
Densis is the number of particles (Mass), their structure and state in a given
volume.
Densis is a superior concept to density as densis enables a greater scope
of description of the core attributes of matter than density.
Particles with the same Mass, but with superior structure tend towards a
smaller given volume and therefore densis.
Particles with the same Mass, but with inferior structure tend towards a
greater given volume and therefore lower densis.
Densis is a measure of kinesis in that the greater the density, the lower the
kinetic.energis and the higher the harmonic.energis and structural.energis.

Kinetic transf er

All kinesis (motion) is transferable from one (1) type to another.
All kinetic transfer is relative to the states of kinesis (harmonic, structural
and velocity) of the objects at the time and position.
All kinetic transfer is resistive to change is dissonant, balanced to change is
harmonic and dynamic to change is dynamic.
The conversion of motion from kinetic.energis to harmonic.energis
(frequency/spin) in an isolated system never increases unless external
intervention occurs.
The rate of transfer of kinetic.energis from one (1) object to another is
directly proportional to the size of the applying mass and inversely
proportional to the reacting mass of the other object.
In a simple two (2) object model, the relative kinetic result is always
balanced as equal and opposite action and reaction.

Kinetic-Mass Paradox

The smaller an object is to a benchmark object (e.g. proton), the greater its
overall accumulative kinesis. The smallest of objects (unita) have a
accumulative kinesis approaching infinity.
The larger an object is to a benchmark object (e.g. proton), the greater its
overall accumulative kinesis. The largest of objects (sub universes) have an
accumulative kinesis approaching infinity.
This is called the kinetic-mass paradox.

Kinetic-Energis Mass Limit

The maximum potential rate of kinetic.energis of an object (e.g. proton) is
limited to the maximum rate of kinetic.energis (velocity) of its relative
benchmark object (e.g. photon).

Kinetic result

A relative kinetic.result will always be a relative balance of all energis
(motion).
The degree to which one (1) or more objects affect the kinetic energis of
other objects is always relative and is determined by the degree of

common characteristics, the structure of each object set and their initial
harmonic state.
Relativity of kinetic.result is such that an input of less kinetic.energis of a
particular type of particle will produce a different result to a different type
or mix of particles.
A resistant relative kinetic.result is where the total output of kinetic.energis
is less than total input.
A balanced relative kinetic.result is where the total output of kinetic.energis
balances the total input of kinetic.energis
A dynamic relative kinetic.result is where the total output of kinetic.energis
is greater than the total input of kinetic.energis

Kinetic harmonic ratio

The closer objects come in terms of distance, the greater their harmonic
kinesis and the slower their velocity.
The more distant objects separate, the lower their harmonic kinesis and the
greater their individual velocity.
All objects in the universe behave in this same way when interacting with
other objects. This is called the Kinetic - Harmonic Ratio.

Unique harmonic ratio

The harmonic motion of an object may be defined as its unique harmonic
ratio constructed from the harmonic motion of all its components. This may
be expressed as a wave model.
The harmonic motion (spin / vibration) of all objects of similar structure are
the same.
The harmonic ratio between different types of matter sharing similar
characteristics may be defined in ratios, or harmonics.

Harmonic-volume boundary

The smaller the volume of an object to its benchmark object (eg proton),
the greater its harmonic kinesis. The smallest of objects (unita) have a
harmonic kinesis approaching infinity and infinitely small volume.
The larger the volume of an object to its benchmark object (eg proton), the
greater its overall harmonic kinesis. The largest of objects (sub universes)
have a harmonic kinesis approaching infinity and infinitely large volume.
This is called the harmonic-volume paradox.

Article 13 - The Universe

The Universe

The Universe is defined as the sum set of all objects of existence as defined as
one (1) thing. The Universe is then defined into sub - Universes, with each being
defined by the nature and level of objects of its collection.