F E Y M A N   R E A L I T YY

By Henryk Szubinski

even with a basis of 20 personality dissorders of a

a.i

response to simulate human alterability in process of changes the=THE FORMAT TO USE A SURFACE AREA COMPRABLE TO THE UNIVERSE SURFACE AREA ON A PLANAR DESIGNATION AND THE PROJECTED THEOREM ONTO THAT SURFACE would by time dialations responses be the same as the theory projected on it……..the only real reference  that exists in relation to such surfaces is the velocity of printing rolls and their increasing value by recycling————->lim x = everything as the basis to reverse the process would = a scattering response to every designated point in the universe……a planet might = 1 x 10 to the 100 of a paper volume….the solar system = 1 x 10 to the 200…….the galaxy (milky way )=1 x 10 to the 300

….the universe 1 x 10 to the 400…the reversal would imply there could be

1 x 10 to the (100 +200+300+400) = 1 x 10 to the  1000..a basic millenioum run of the designative functions in the ineractions of similar concepts of a root = 1 x 10 to the 33…as a indefinite decimal..

 

 

 

high value process….the tonne designator for mass of a particle sweep effect in ptolemys theory as a quant radial expansion vector in rotation of a quant = attempts at total data projections of 1 x 10 to the 33 /3 =

1 x 10 to the 3 of a basis interactive similarity…..of data on connectives of solar systems…etc..

the velocity of a particle that mooves at 1 x 10 to the 3 or 1000 units -3 m.sec -2

to charge a photon vibration as the sweeping of force of the r.p.m rate responsives of the quant particiles in orbitals (much like electrons)..

PTOLEMY

amount of paper used in media print productions of newspapers=processing data on the displacement /resistor = very large amounts..

= format of about half that value of a sweep function is data to transferr the vibrating quant photon into a relations basis with the emmitor = a cold dark matter problem..

in tonns per disorder as the data on a.i memory..

 ActionAPE5LQanimXs30small.gif Quantum Lava Lamp image by ukedude32839

 

 

 

(amount of weight in the process of tripling )= to the same value of a radial vector that emmits a data sequence of mass that consequently alters into mass——————>the whole data base of the earth = the whole mass of the universe by the data being translated into protocol…droid work previous to a minimal decimal that motivates androids to alter specific characterisations…

value of the total indistinction of the process to which the general

=process of displacement on the turning of such rolls by the parameters of

process of each individual in projection of  a value of 1 x 10 to the 20 tonnes ,would not catch up to the Force of the displacement =inertia

 

as the data on similar prints of ; the data possibilities in the case of a forwarded actuality in process to use the whole value sectors of spectral analisis and the data on why a large value interactions on monitor interfaces are usable as ones own repport sector on the web…………..by the designations of a value in spectrality of a stars birth …galaxies from youth to old age———————–>most processsess on force are designated..

as the toughest sport in the universes=no alterable position..

What we now call gravity was not identified as a universal force until the work of Isaac Newton. Before Newton, the tendency for objects to fall towards the Earth was not understood to be related to the motions of celestial objects. Galileo was instrumental in describing the characteristics of falling objects by determining that the acceleration of every object in free-fall was constant and independent of the mass of the object. Today, this acceleration due to gravity towards the surface of the Earth is usually designated as \vec{g} and has a magnitude of about 9.81 meters per second squared (this measurement is taken from sea level and may vary depending on location), and points toward the center of the Earth.[27] This observation means that the force of gravity on an object at the Earth’s surface is directly proportional to the object’s mass. Thus an object that has a mass of m will experience a force:

\vec{F} = m\vec{g}

In free-fall, this force is unopposed and therefore the net force on the object is its weight. For objects not in free-fall, the force of gravity is opposed by the reactions of their supports. For example, a person standing on the ground experiences zero net force, since his weight is balanced by a normal force exerted by the ground.[3]

Newton’s contribution to gravitational theory was to unify the motions of heavenly bodies, which Aristotle had assumed were in a natural state of constant motion, with falling motion observed on the Earth. He proposed a law of gravity that could account for the celestial motions that had been described earlier using Kepler’s Laws of Planetary Motion.[28]

Newton came to realize that the effects of gravity might be observed in different ways at larger distances. In particular, Newton determined that the acceleration of the Moon around the Earth could be ascribed to the same force of gravity if the acceleration due to gravity decreased as an inverse square law. Further, Newton realized that the acceleration due to gravity is proportional to the mass of the attracting body.[28] Combining these ideas gives a formula that relates the mass (M_\oplus) and the radius (R_\oplus) of the Earth to the gravitational acceleration:

\vec{g}=-\frac{GM_\oplus}{{R_\oplus}^2} \hat{r}

where the vector direction is given by \hat{r}, the unit vector directed outward from the center of the Earth.[10]

In this equation, a dimensional constant G is used to describe the relative strength of gravity. This constant has come to be known as Newton’s Universal Gravitation Constant,[29] though its value was unknown in Newton’s lifetime. Not until 1798 was Henry Cavendish able to make the first measurement of G using a torsion balance; this was widely reported in the press as a measurement of the mass of the Earth since knowing the G could allow one to solve for the Earth’s mass given the above equation. Newton, however, realized that since all celestial bodies followed the same laws of motion, his law of gravity had to be universal. Succinctly stated, Newton’s Law of Gravitation states that the force on a spherical object of mass m1 due to the gravitational pull of mass m2 is

\vec{F}=-\frac{Gm_{1}m_{2}}{r^2} \hat{r}