The Blue Sky, Blue Water

The sky is blue looking up, but when flying by airplane looking down it's not. However, even though the density of air is less on top than at the bottom and is moving more slowly than the air closer to the earth, the molecular structure is the same, though its molecules cannot be directly ontop-of one another because of the curvature of the atmosphere, which slants them, creates an eclipse of the atomic nucleus of the electron orbitals of both the bottom and the top layers of molecules which causes a light blue color. The light blue color is of air is caused when the atoms of one row eclipse the space between the the rows of stoms on the bottom of it.

The same can be said of w ater on the earth. The curvature of the earth causes the molecular layers of water molecules on the top rows to eclipse those on the bottom rows, a this is only one factor which creates a darker blue than the color of the sky. We can see a blue ocean from a plane or from a cliff, or even from the sea-side, however not when put in a glass and removed from the curvature of the earth, nor when examined up close when the amount of curvature of the earth becomes negligible from our perspective thereby angles by which we see the water.

Red Sky

The colour of the atmosphere doesn't vary with the wavelength of light from the sun, but the angle of the sun changes the the gravitational pull on the atmosphere which varies the angle of the on-the-top-of-each-other layers molecules, and therefore the shape of the atmosphere as well as the heat of it.

Because the colour red of the atmosphere is flushed by darkness making it seem darker (though this is only the case because less light is shined onto it) than the when its color is light blue, the color blue still means more of an angle of the rows of on-the-top-of-each-other molecules respectively than the color red, meaning a contraction of the angle of the on-the-top-of-each-other air molecules is caused when sun pulls them away by its gravity, and this is what makes the different lighter color, though it seems darker because it's toward nighttime when there's no yellow/white sun light shining between the air molecules.



Clarity is Uniformity of the ontop-of-each-other-layers and the sideby-side-layers, and Shininess is Density

When there is clarity of a substance there is no atomic nuclei eclipsing the space between the the molecular layers of the on-top-of-each-other rows of atoms. All the rows are uniform, or at least close too, and so are the side by side rows.

Crystals, Diamonds, Glass, Ice, Cellophane Plastic Wrap, Air

ice, glass, water as metal

Water is shinier than glass because the side-by-side atoms and on-the-top-of-each other atoms are closer together than glass but are continually pushed apart by electron light from the surrounding air, because water is, basically, a metal and attracts electron light all the time from the surrounding oxygen, or else it turns to ice, whereas glass doesn't and is more neutrally spaced and has so has more density of the on-the-top-of-each-other-atoms​ most of the time because it doesn't have electron light going over it

The on-the-top-of-each-other molecules of glass are usually denser than water because water has electron energy flowing over its orbitals, which pushes it apart, but glass keeps the density it formed when grains of sand, which were originally parts of rocks, formed from cooled magma. The rocks' density of the on-the-top-of-each-other atoms never really changes that much from the density of their original formation even when melted and then cooled.

Even when sand is melted to make glass, the natural density which the rocks that sand broke off of never changes and is still with the glass when it cools, though the molecular layers of glass are almost completely uniformly spaced and see through and have had all their impurities melted away by the molting of the sand.

Ice is clear but not as clear as crystals or water and will melt to water which is more clear. The addition of electrons to make it more clear as well as water's ability to conduct electricity means that it's uniform but negativly charged. Negativity means less clarity and so
clarity means something close to neutrality or the uniformity of positively charged rows of side-by-side atoms and on-the-top-of-each-other atoms.

Plastic cellophane wrap is clear and shiny but not the on-the-top-of-each-other molecules are not dense because they are easily ripped apart, however they are denser than water.

Difference between Colors, Angles, Length of Angles, Darkness of Colors

If all colors not shininess are the refraction of the atomic nuclei of the on-the-top-or-bottom-of-each-o​­­ther-rows of molecules which eclipse the electron orbitals above or below them, then the difference between colors is the angle and amount of the electron's refractive ability eclipsed by the atomic nuclei above or below a row of side-by-side-atoms and the length below or above the row of side-by-side-atoms the atomic nuclei of the angle that causes the color is.

The Darkness of Colors

When more of a molecular layer is eclipsed by an atomic nuclei from a bottom or top row of atoms, the darker the color will be, as well as closer. However, this is only true for positive charged atoms because when they are negative, all that is added to the material is more shininess.

The Color Black

Therefore the color black is the most eclipsed of all the positive colors and the lighter are least eclipsed.

The Color White

Usually the color white is the uniformity of slightly negatively charged, or slightly positively charged molecules such as frost, ice, or clouds.

Burning Water, Black Ash, White Ash

Water goes from less shiny to more white when burned and turned to a vapor. The remnants of most burned things is black because the pre-existing non-uniformity of the side-by-side and on-the-top-of-each-other-molec​­­ules of the material burned is exacerbated by the release of light particles from the electron orbitals unevenly by the addition to fire to the material at specific points; and particularly the elementary particles on the outermost orbitals, and so the material condenses and that which is left allows little light, .

The White ash is the in between process of the black ash becoming a gaseous vapor, and concomitantly, more positively charged.


On-Top-Of-One-A nother Angles and Colors and Molecular Densities

When atoms are ontop of one another they have no light particles of an atomic orbit holding them fast to the atoms above or below them.


Rejuvenation of Interstitial Light on Atomic Orbitals

If the light of an atomic orbital which is positively charged slows down it will absorb the velocity of the elementary forms of intermediate speed onto it and will slowly re-gain momentum. Likewise the electron orbitals of atoms will absorb the slowness of the elementary forms onto them.

Gravity of Stars Stronger than Light

If the gravity of the sun is strong enough to hold the earth on orbit, then that gravity is stronger than sun-light pushing against the earth.

The earth is tugged by the gravity of the planets surrounding it and our solar system's gravity is held even-keeled by the collective gravity of the stars of the Milky Way. Those Milky way stars are affected by the gravity of the next nearest galaxy Andromeda, and then the next galaxy Callisto.

Otherwise the gravity of the sun would pull every puney planet like Earth or Mercury onto it.


Shape of Atomic Orbitals Varies Slightly based Upon Pressure of the Surrounding Elementary Forms

The elementary forms of electron light traveling onto an atomic sphere will vibrate based upon the vibrations of the elec tron light of other atoms, as well as any interstitial light that hits upon them. These vibrations cause the overall shape of the electron orbital to vary slightly based upon the intertia of particular vibrations.

Oxidation of Electronlight Particles by Metal

The electron light of an atomic orbital of air can be transmitted to a metal and retain the features of the overall shape it had on the atoms of the element of oxygen.

Oxidation of Electron-Heat by Positive Molecules, by Less Positive Molecules but Still Positive All the Same - Heat Conduction/Oxidation

Electron energy will flow from one molecule which is positive to another that's less positive, but still positive all the same. This is how heat is conducted


Light that Can be Seen and Not Seen

Light, or interstitial light - as this text refers to it as - travels by waves but cannot be seen if those waves consist of particles that are not contiguous; and follow each other by a uniformity of varying speeds - sequential speeds

Radio Wave Frequencies

Different radio wave frequencies are made by shining light or electricity at different amounts on a transmitter of a certain molecular form - usually crystal - and size

Shape of the Earths Gravitational Field

The earth's gravitational field will be wider at the middle than the top and so there is a gravitational field on the earth that reflects the size of the radius of the latitudinal circle of the different parts of it.

Expansion of the Earth Occurs Mainly at the Equator and is Caused by the Accumulation of Interstitial Darkness at its Core. The Earth's Continents Are Pushed Toward the Poles

The history of the earth is such that a star formed and then cooled, yet was tempered by the energy of the sun and took on interstitial darkness and the inability to rejuvenate the light on its electron orbitals; eventually forming the different elements. Because of the earth's shape it spews
forth its energy close to the equator and therefore the earth expands to a greater degree there, forming new land and pushing the continents toward the poles.


Humans Lose Muscle Mass the Closer to the Poles they go Rather than at the Equator

Because there is more gravity and sun light at the equator the humans upon it will gradually increase in muscle mass over their bodies and form differently depending upon where they are.

More Women Born at Poles than Men

Because all fetuses appear to begin as females, the weaker the carrier of the fetuses the more women would be born if pregnancy at the poles were unhindered.

Explanation of the Formula for Spherical and Shape Formation, the Equivalents of Both by the Standards of Contemporary Scientific Notation as well as a Brief Exegesis of Spherical Ontology for the Reader 's Pleasure

The reader may have questioned the necessity for two of the variables of the s = o/n / n/o formula and may think the simplest expression of the formula s = o/n. The logic of this position is that if there are two actions, equal and opposite and onto each other, then 1/1 / 1/1 is equal to 1 and therefore, 1/1 = 1. However this summation of the formula is not useful for geometry because no form is completely spherical. Forms can approach sphericality more or less than other forms, however they cannot be completely spherical, and this is so for two glaring reasons: 1) elementary forms are not spherical, and do not combine to form spheres having smooth edges because if they did elementary forms would not be, logically, the most elementary forms and therefore negate the process of geometry, 2) If the logic of geometry says that elementary forms have different and distinct speeds and trajectories from each other over two instants of time, then there can be no equal and opposite reactions, only those which are close to.

As for the scientific equation for spherical formation it can be put to the reader, as s = F/-F / -F/F, using Newton's law of force, F=ma. However, to explain the idea of spherical and shape formation entirely by using contemporary scientific notation, Newton's law of force must be varied or have trajectory added to it. If force equals a form multiplied by acceleration, and the acceleration of each form is distinct and so is trajectory so that no elementary form travels by a straight line, then the acceptable variables and variants to Newton's law of force is F=ma^t or F=mat and the equation by the standards of contemporary physics becomes ma^t/-ma^t / -ma^t/ma^t or mat/-mat / -mat/mat. T = (f1-f2)+f3 because the trajectory of an elementary form at its simplest is equal to the negation of two elementary forms against each other with the force of a third elementary form added. Logically, if elementary forms are onto other elementary forms, then the force of three forms are consistently acting upon each elementary form.

However, to put the formula to the reader by the standards of contemporary physics oversteps the bounds of geometry, and is therefore an ancillary concern of geometry and falls to the reader's own exegesis to continue such a pursuit.

As for the particular case of the human hand, nowhere can nature replicate a form approaching sphericality as by the force applied by the human hand. Let the reader perform an exegesis of the simplest example of the formation of a rubberball. Rubber from trees cannot form rubber balls if no extant force from a human hand is applied to it. The ratios of the elementary forms of the rubber onto the trees and air and water vapor, with all the elementary spherical forms of the atoms of each element matched up and subtracted - as has been explained - are far too distant from sphericality unless the force of the human hand is applied.