WAVES

<= /span>

WAVES

Waves deal= with the transfer of energy through space. Space is compactly filled with Eterons existing in a weak dipole sta= te. While Eterons are not the smallest structure in space, for us, at present, = they represent the smallest unit for our following discussion. From the viewpoin= t of the privileged observer, the diameter of Eterons is the basic length unit in space. Variation of that diameter causes will cause a torsion in space.

Take an Et= eron and press it against another in a specific direction. This is the basis on which we will= take our first real look at waves. The Eteron that is getting compressed as per = the previous chapter will be compressed from it’s resting diameter. This = is providing the Eteron doing the pressing is in a more compressed state. The first Eteron will decompress g= iving up its energy to the next Eteron and in this way passes energy on. The act of decompressing of one Et= eron provides the next Eteron with the energy to compress.

Let us the= n take an Eteron and press it against another in a specific direction. This is the basis on which we will= take our first real look at waves. The Eteron that is getting compressed as per = the previous chapter and will be compressed from it’s resting diameter. T= his is providing the Eteron doing the pressing is in a more compressed state. The first Eteron will decompress g= iving up its energy to the next Eteron and in this way passes energy on. The act of decompression of one Et= eron provides the next Eteron with the energy to compress.

This of co= urse doesn’t occur in an instant. In fact each stage has a set time period for the compression/decompression action. As mentioned previously the Eteron has an internal clock and only one action can occur at any one time for our compression-element (the Eteron).<= span style=3D'mso-spacerun:yes'> Given this, the action of transfer= ring energy from one Eteron to another will occur across a number of intervals b= ased on individual Eteron clock periods. Each Eteron has its own ‘personal’ internal clock. If an= adjacent Eteron presses against the next Eteron during an interval smaller than t, although its diameter reduces during this sub time element, when the pressu= re ceases – and remember this is within one tick – the Eteron retu= rns to its initial diameter, returning energy initially supplied to it to the o= ther side. Staying with this Eteron, if the maintenance-pressure on the Eteron <= i>becomes smaller, that Eteron does not expand before the interval ‘t’ – it has to wait until the full interval passes before changing. At this point it changes its perso= nal diameter and the next Eteron will sense this and only at this point It will then response in the next interval of ‘t’. (*)

(*) Not= e that ‘t’ is composed of far smaller time-units; these smaller time-u= nits are the smallest interval possible (at the moment). Eteron’s clock ha= s an internal “balance-wheel”; there is a constant amount of cycles = to complete one “t” interval. Some particles trigger that balance-wheel; each particle that crosses the Eteron adds one “tick”. Such a particle I call a “cronon”. Cronons = flow through Eterons; volume of Eteron determines amount of ticks to complete a “t” interval. A bigger Eteron intercepts more cronons, so “t” is a shorter interval. Small Eterons are in higher energy-s= tate (increased mass), so they intercept less cronons and it takes more time to complete one “t”. That is why time stretches if mass increases. This is the basis = of relativistic time-variation. (Something that will be touched on in chapter TIME.)<= /span>

If that pr= essure returns back to it’s original value without passing a full interval ‘t’, the next Eteron will not sense a change and accordingly wi= ll not be compelled to change.

There is an issue to the concept of ‘t’ here. There are in effect two values of ‘t’. The first is= the Eteron’s ‘personal’ ‘t’. This is the time taken simply to decompress without considering the effect on the next Eteron. The Eteron’s personal ‘t’ has to complete with a verifiable difference in compression/decompression before the next Eteron senses a change. Previously ‘t’ had been referred to as the time for both a decompression/compression however it rea= lly takes two intervals of an Eteron’s personal ‘t’ to effect= a transfer. The first interval = to decompress and the second for the next Eteron to sense this change in press= ure of the Eteron next to it and respond.

In reality= the personal ‘t’ of an Eteron represents part of the total time for= a transfer. A total transfer of energy from one Eteron to another takes the s= um of both “t”. The formula for the speed of light was given befor= e as d/t – however it is more precisely d/(t₁ + t₂) where each ‘t’ here is each Eteron’s personal ‘t’. Previously I had referred to ‘t’ as the who= le interval of change. Understanding now that there is no transfer = with a half interval. From here on I will refer to ‘t’ as the interv= al for decompression and then compression of the two adjacent Eterons together. The time ‘t’ represents from here on what is really a double ‘personal’ interval or the time interval for the total transfer of energy between two Eterons.

So the time taken for the decompression of the first Eteron followed by the correspondi= ng compression of the next Eteron represents notionally the period R= 16;t’. In the next time period ‘t&#= 8217; the second Eteron decompresses passing energy to the third which then compresses – a second notional ‘t’ completes and so on. In this way compression energy is propagated through Eterons.

Let = us attach the notion of a ‘stage’ to our compression-decompression process or time ‘t’. A stage here is the process of decompression and then compression of two successive Eterons. From a single Eteron point of view, two ‘personal’ intervals of an Eteron clock. In this way the decompression/comp= ression process advances at the speed of d/t where d is the diameter of the Eteron = and ‘t’ is the time taken for decompression/compression of two successive eterons.

<= span style=3D'mso-spacerun:yes'> It should = be said that the simplistic analysis of energy transfer from one Eteron to ano= ther is equivalent to the equalization of a ‘U’ tube of water. Enough energy is transferred to se= e both Eterons involved in the decompression/compression reach equal size for one ‘t’. So for a sin= gle energy transfer from one Eteron to another the first will decompress to rea= ch a diameter half way to the next Eteron’s diameter. The Eteron receiving= the energy will compress to meet the decompressing Eteron in the middle – both possessing equal diameters for both Eterons. This is explained in more detail b= elow.

In fact the initial analysis assumes that the total energy of an Eteron is imparted in = one direction. In fact energy is transferred only partially and transfers based totally on the concept of the ‘U’ tube mentioned just above. Under this circumstance we would have the first Eteron decompressing partially in the direction of the second such that the first and second Eterons would transfer enough energy to ‘match’ each other’s diameter. It is a reactionary process and wo= rks in the follow way.

Without worrying= at this stage where the initial pressure to applied comes from assume continuo= us pressure is applied to an Eteron. The process of this initial application is that the first Eteron tak= es the full force in the form of energy and compresses to a level commiserate = to the energy unleashed on it. I= n the second period this Eteron presses against the second Eteron providing the second Eteron with energy to compress but in this case the first Eteron will decompress to a level equal to the diameter of the second. In the third interval the third Et= eron is pressed and becomes compressed meeting the second Eteron’s diameter half way. The forth interval = again sees the third Eteron decompress back to a diameter equal to the fifth and = in the fifth interval the fifth Eteron decompresses to provide the sixth with again a lesser partial energy and so on.&n= bsp; This is called an Eteronic necklace and results from the act of continuous pressure by an Eteron on an initial single Eteron and then provi= ding subsequent provision of a maintenance force.

The proces= s of transfer of energy to the next Eteron is enough to make both Eterons have t= he same diameter at the end of the next time period ‘t’. This is intuitive and as mentioned earlier very like the water in a ‘U’ tube reaching an identical height. In fact the sum of the adjoining Eterons’ energies (E) will be:

E =3D1/(a³) + 1/(b³).

It= is easy to demonstrate that for a constant E the minimum value of a + b will be at = the point where a =3D b. (See Diagram 6.1)

DIAGRAM 6.1 = &nb= sp; DIAGRAM 6.2

The just compressed Eteron will seek to compress a third Eteron on the path of compression. Between the second Eteron and the third the same process will occur as it did between the first and second. At this instant, the second Eteron has an increased diameter with regard to the first and equal to the third. It effectively meets the diameter of the third half way between the first and forth. The next cycle is the third Eteron compressing a fourth an= d so on up to a point where the condition of the compressing force of the last Eteron is lower than the maintenance-force of the first Eteron that started= the process - see Diagram 6.2. Once this condition is reached, an array of Eter= ons with successively increasing diameters exists. This process repeats to a point wh= ere the low-energy-end of the array has an equal pressure to the next Eteron in= the Eteronic Medium. This process lengthens the array increasing the number of Eterons at the low energy end up to a determined number of Eterons. The amo= unt is inversely proportional to the energy state of the initial Eteron that contained all the energy. The maintenance-force is really the breaking forc= e of the surface-barrier. The high= er said force, the higher is the minimum energy-difference between two adjacent Eterons.

At= this point in the discussion I will apologize for intentionally misleading the reader in the interests of synthesizing specific important concepts. <= /o:p>

When the f= irst Eteron compresses the second one, the final diameter of both Eterons is not totally equal. A chain of Eterons does not exist in space by itself and wou= ld be always surrounded by neighbouring Eterons. At the very start of the propagation of energy neighbouring Eterons possess equal diameter to the ne= xt. However upon the Eteron Energy-interchange the diameters of successive Eter= ons results in a ‘small difference’. In fact the diameter of the se= cond Eteron is a little bigger than that of first – they are not exactly e= qual as was stated above. This difference is proportional to the absolute energy state. The difference in compression-forces is equal to the value of the barrier-force. In other words, when the difference in compression forces (due to the differe= nt diameters) is lower than the barrier-force, the interchange of energy stops= .

The final = result is a single dimensioned array or necklace of Eterons with constant increasi= ng radius reaching a maximum radius equal to those Eterons in a minimum energy state (the Eteronic medium) represented in Diagram 6.2. The total energy of= the whole necklace is the sum of the energies of all its Eterons in relation to= an adjacent equivalent set of Eterons in the Eteronic medium. Decreasing the diameter of the first Eteron, the radii of successive Eterons decrease proportionally.

A finite number of Eterons e= xist in the necklace – simply the number of Eterons relates to the successive jumps in radius from the smallest radius to the radius of Eterons in the surrounding Eteronic medium. As energy of an Eteron is given by 1/r^{3
(relating to the volume of the Eteron) and total amount of energy decreases
lineally along the necklace (relating to the linear propagation), total ene=
rgy
of the array or necklace must increase with the square of the necklace̵=
7;s
decreasing length.}

In fact gi= ven a specific level of energy only a corresponding number of Eterons can be involved. That is a necklace will always contain a specific number of Eterons for a specific level of total energy.<= /p>

It is for this r= eason that the energy of matter-waves is proportional to the inverse-square of th= eir length.

So necklace-creation is determined due to a given length for a given energy. I= f E is the energy, then:

= &nb= sp; = E =3D k/l²

Where l is the length of the neckla= ce and

k is the CONSTANT OF NECKLACE.

<= o:p>

This rule = is valid for pressure-waves in the Eteronic Medium.

This seems= like a good place to identify actual theoretical sizes of the units described up= to now. Consider the Eteron. What kind of size are we talking about? Although the Eteron= 217;s diameter changes according to energy identifying its size serves as a way f= or the reader to visualise the processes discussed in this book better. <= /o:p>

Now the si= ze of an Eteron (if I am not wrong) is 1x10^-9 to 1x10^-10Ä in the surrounding Eteronic medium.(*) Now given the Angstrom is 1x10^-7= mm, approximately 1.5x10^-14mm.

Given this= base size and using it to analyse a single hydrogen atom provides a distance of = near one billion eterons across. Most of this ‘space’ defining the volume that we call a hydrogen atom is just that – space. =

An electro= n (its Compton size) is near 50,000,000 Eterons across and this value is determined theoretically but using Eterons each at the compression of the surrounding Eteron medium - eterons of maximum size in space. However in reality Eterons within a particle are compressed and accordingly their number increases for that same distance across. The total number of eterons counted along an electron-diametric cord must, in reality be more.

Size of th= e most heavily compressed eterons could take an energy value of the fastest (heavi= est) protons. Such protons come from deep space as cosmic radiation. These proto= ns are flattened (I guess) up to a thickness of only one eteron. Flattening is proportional to energy. Protons have been observed with an internal energy increased by 10¹⁰. This provides eterons (at a minimal diameter)= in the order of 10^-15Ä or 1x10^-22mm. That means that the Eteron can ass= ume a diameter depending on the energy gained from 1x10^-9 to 1x10^=
-15 – a significant range. (1 to 1,000,000)

= Here is the size-list:

<= span style=3D'mso-spacerun:yes'> Hydrogen a= tom: 1.05 Ä =3D 1.05 x 10^–7 mm<= /span>

<= span style=3D'mso-spacerun:yes'> Electron (Compton-size): 0.024 Ä = =3D 2.4 x 10 ^–9 mm

<= span style=3D'mso-spacerun:yes'> Proton: 0.= 000013 Ä =3D 1.3 x 10 ^–5&nb= sp; Ä =3D 1.3 x 10 ^–12 mm

<= span style=3D'mso-spacerun:yes'> Minimum si= ze of eteron (1/10¹⁰of proton):

<= span style=3D'mso-spacerun:yes'> 1.3 = x 10 ^–15Ä =3D 1.3 x 10 ^-22 mm

(*) I am not totally= sure about this value. It is based on the energy difference between both spectrum lines of the super-fine-spectrum of hydrogen (photon of 21 cm). Explanation c= an be understandable only after reading chapter on PARTICLES.

Taking this into account the Length of matter-waves can be calculated easily:

= = L=3Dh/(v.m) where

= &nb= sp; v is speed,

= &nb= sp; m is= mass (of a particle) and

= &nb= sp; h is Planck’s constant.

For electr= ons at low speeds (less than 1 km/sec) L is in order of visible-light-photons, abo= ut 1000 to 10,000 Ä. For bouncing electrons (in atoms) the average speed = is in order of thousands of km/sec and L it is about 3 to 30 Ä.

Consider a= gain a finished necklace with a stable support mechanism at one end. If this support mechanism at the high-energy-end (the smallest Eteron) ceases, then intuitively the smallest Eteron seeks to expand back in the opposite direction to the just formed necklace. It generates an identical necklace in the other direction, a mirr= or image of the first.

DIAGRAM 6.3

See Diagra= m 6.3. However the structure as a whole would have double the number of Eterons in= it. The process indicates that energy must be shared amongst all the Eterons in= the structure. There must be a new length value due to the variation of the energy-state of each Eteron (constant of necklace). The new body is a double (symmetric) necklace. The last energy transfer is in the opposite direction= to the formation of the first half and completes leaving a double necklace. For the creation of the second half, the first half must be releasing energy. So there is a determined energy-exchange direction and consequently a new phenomenon appears. The double necklace moves in the direction of the first half’s initial propagati= on.

The second half, at the lower energy end (the rear), begins to relea= se energy back towards the initially formed front half decompressing eterons a= nd pushing whole body in that direction. So, the whole body moves decompressing eterons at the rear and compressing them at the front – for each inte= rval t the entire double necklace shifts forward one Eteron. It is a body of constant shape that advances compressing eterons at the front and decompres= sing Eterons at the rear. The formation of the double necklace occurs only in the first cycle; after that, the body advances without changing its shape. The = next Eteron to be compressed at the front of the double necklace does not move a= head but becomes more and more compressed by ‘stages’ equal to ‘t’ finally reaching the minimum diameter (the centre of the necklace). Having reached this minimum size it begins to decompress step by step (one step equals ‘t’) finally reaching the size of eterons existence in the surrounding neutral space. In the chapter on TIME we shall= see some modifications to this concept to take into account variations to the v= alue of ‘t’. At the moment though assume that ‘t’ is a constant.

The initial Eteron that provided the compression energy will initially send a propagati= on in a specific direction – here its to the right - however when that Eteron’s maintenance force is released it releases energy in the same direction and over a number of ‘t’ periods eventually assumes a pre-maintenance energy state. This is the direction the double necklace then travels and it is very similar to= a ‘perturbation-zone’. It’s as if the Eterons influenced by the double necklace shake twice first in one direction and then the other finishing a single continuo= us movement. It is an energy disturbance that passes through Eterons, varying their energy-state and leaving them in the same place and with the same energy-state before the disturbance passed. Simply, it is a WAVE.

This neckl= ace has the following characteristics:

1. The level of energy of one Et= eron to the next is different by a constant factor. This factor is proportional = to the level of energy of the smallest Eteron by a constant.=

2. The amo= unt of Eterons of every necklace, from the smallest Eteron to the biggest, is proportional to the inverse of the energy of the smallest Eteron by a const= ant. (Constant of necklace)

3. The total energy of the whole necklace is proportional to the power of -2 of the necklace’s length<= span style=3D'mso-spacerun:yes'> (E=3Dk.l^&=
#8211;2).

As a consequence, if in the Eteronic medium a denser zone is generated it thus s= eeks to expand as a wave. The transmission-speed of this wave is at the speed of light because the transfer of energy from one Eteron to the next takes a ti= me of ‘t’ and during ‘t’ the wave moves one Eteron diameter. It is this diameter that determines transmission-speed and is at a maximum when encountering Eterons in very low minimum energy state (they si= mply have larger diameters – they are bigger – far out into intergalactic space). Consequently if Eterons of a medium are encountered t= hat have previously been compressed (already distorted space) then the speed is lower (the diameters of the Eteron’s are smaller for each successive ‘t’).

Really, ‘t’ is not constant. It depends on the energy state of the Eter= on. It is a direct function of an Eteron’s internal energy:

= &nb= sp; t =3D E.k

wher= e ‘t&#= 8217; is the interval,

= &nb= sp; E is the internal energy of the Eteron and

= &nb= sp; k is a constant.

This= will be dealt with in more detail in the chapter on TIME. Previously it stated t= hat ‘t’ was a static unit but again I have to apologize for this as= it complicated discussion at the time. The value of ‘t’ is proportional to the inverse of the volume of the Eteron. For Eterons that m= ake up the normal conducting medium (those that would be at a maximum diameter)= it is practically constant. However if a wave were to pass through a structure, this value increases, as the case where a structure happens to be near to a= star or travelling at high speed. In both cases Eterons are more compressed and = as a result ‘t’ is longer.

Space torsion-density around a star means an average diminishing of eteron’s diameter. “Average” means the sum of compressed eterons of the conducting medium and the compressed eterons of the same gravitons flowing through that medium. Eterons = of half (average) diameter means an 8 times denser space. Stretching of time is multiplied by 8 due to density only. That sole phenomenon diminishes speed = of light by 8 times. Value of “d” is half, so speed of light diminishes 16 times. Then speed-diminishing is v=3Dk/d^{2 <=
/span>} where v is speed, d is torsion-dens= ity and k is a constant. When Einstein measured the bending of light near to the Sun he found a double angle regarding the value due to gravity. His hypothe= sis was that gravity pulls photons, bending half value of the trajectory, and s= pace torsion adds the remaining half. That is to say, bending is double regarding that caused by gravity. He thought that it is a sum of values. It is not so. Instead of a function like a=3Dg+d (angle =3D gra= vity + density) it is a=3Dd² . As the observed angle “a” is very small, increasing g and d in both functions, it see= ms to be 2g. It is because the derivative function of both gives very similar values for small increments.

The ‘increasing’ of ‘t’ can be observed only by another time-system (a neighbouring system). Space distortion is due to the combined effect of a denser medium and the passing of photons through gravitons. For= a photon, a graviton is only a denser medium. It is as if a photon was refrac= ted and an angle shifting of the photon passing near a star is doubled.

Inside the body of a wave, g= oing from the end of the necklace to the middle, the ‘t’ interval of each Eteron becomes successively longer. This introduces phase differences. Along the array, Eterons of the ends experience ‘life’ faster t= han those of the middle. So, the compression wave must wait in the smaller Eter= ons. The average time for the passing of a compression wave through a point in s= pace will simulate less compressed Eterons with regard to time of the external medium. In the case of waves whose length is similar to visible-light-spect= rum, this difference is very small. But (as will be seen in chapter on PARTICLES= ) in the core of a particle there exists Eterons in a very compressed state and = time becomes, for lack of a better term, expanded. However, time-expansion is proportional to the internal energy of the body as a whole.

The difference of phase (a longer ‘t’) introduces a distortion in t= he array generating longitudinal ‘shuddering’ and irregularities of synchronization. Shaking waves exist at many frequency-values. At a given moment and at a given place a sum of phase-maximums throws out an Eteron. <= o:p>

The emitted energy from particles is proportional to the internal energy of both the wa= ve and the particle. In turn, the ‘thrown’ Eteron expands generati= ng a new much longer necklace – one that has much less energy – and = later a wave. This phenomenon happens within waves and particles. It is a = kind of spontaneous emission. The energy emitted by this way is proportional to = the energy of the emitter-body, all but a very small part.

In D= iagram 6.3 a simplified necklace is presented. Eterons a, g, h and i are in a minimum en= ergy state; b and f are the ends of the necklace and d is the smallest Eteron.

<= span style=3D'mso-spacerun:yes'> Up to now attention has been focused on a single and double necklace. In actuality energy transfer also = occurs laterally as well as longitudinally. Compressed Eterons also seek to expand laterally such that necklaces also breed laterally sharing energy and form a body like a photon. Such a w= ave is a spherical body. Its energy is given by the inverse-square of its lengt= h.

DIAGRAM 6.4

Diagram 6.4 represents a sheaf of necklaces that opens ahead like a nosegay. Black spots represent compressed Eterons and empty circles represent Eterons of the conducting medium.

The neckla= ce along the moving-axis receives maximum pressure. Adjacent lateral necklaces (going laterally away from the axis) exhibit gradually less energy and seek= to be longer but cannot because the body moves with a governing speed of light. For these necklaces to be longer implies a propagation higher than the spee= d of light therefore lateral necklaces have a gradually diminishing constant. In other words, the natural Eteron speed limit results in a shortening of these lateral necklaces causing the structure to be a spherical shape.

The total = energy of the whole body is always proportional to the energy of the central neckl= ace. So, its energy is proportional to the inverse-square of its length. The squ= are of one cycle-time by its energy is equal to the constant of Planck. This behaviour is in accordance with that of matter-waves.

The descri= bed wave moves at the speed of light and it exists as an ‘individual body’ in space. It requires a name – I have named it the GRAVIT= ON. A graviton is a sheaf of double necklaces that advances compressing Eteron along its path.

Consider t= he word “sweeping”. = Here sweeping is used to mean, “Transiently modifying each of the individu= al Eteron structures” as the wave passes through. Geometrically, imagine a (circular) surface moving perpendicular to its plane and as such generating a cylinder. That flat circular surface is a cut through the centre of a photon and perpendicular to its actual travel w= hile the cylinder is the volume where eterons have been transiently affected.

The gravit= on ‘sweeps’ through Eterons but n= ever carries them – it never owns Eterons rather it passes through them changing their energy state for the duration of passing. After compressing = and decompressing Eterons, it leaves each Eteron in its previous place. Each Et= eron left at the rear suffers only one effect: it is pushed in the opposite sens= e to the movement of the wave. When the wave is sweeping in a specific direction, the barrier-effect of the Eterons causes an attraction and a net counter-pushing effect. That = is why a flow of gravitons causes the compression of the conducting medium in the opposed direction, diminishing Eteronic diameter, shortening objects (of co= urse also made up of Eterons) and expansion of time. A star (a planet) emits gravitons and space around it suffers a space distortion.

It is poss= ible to say that the counter-pushing effect is proportional to the energy of the graviton by the internal energy of the crossed body. So, the force is given= by the graviton’s energy multiplied by the mass of the body. But gravity interactions are more complex. Gravity and inertia are twins. To understand gravity we first have to understand inertia.

Supposing = that particles are made up of very compressed Eterons and are spherical when stationary and flattened like a pancake (with the flattened side perpendicu= lar to the direction of movement) when moving. (Details of these particular structures will be detailed in the chapter on PARTICLES later). Unlike phot= on and graviton structures, particles must move Eterons out of the way in some way= or other. Now Eteron sweeping implies compression-forces. The simplified proce= ss is that compressed Eteron waves are generated in front of the particle. Only the first half of the necklaces as described above are generated and along = the same direction of the movement. There is also a partial creation as a ‘nosegay’ is creat= ed. It is the particle that is creating a half necklace here and does so out fr= om the front of the particle. During this first half graviton creation the particle moves at the speed of light effectively at the same rate as the compression occurs at the front. When the construction of the first half of= the graviton is completed by the propagation of energy from the front of the particle to the Eterons in front of it, it must have moved a distance equal= to the total of all the individual compression distance reductions of all the effected Eterons in the necklaces in front of the particle. This compression ahead builds necklaces. Necklaces are made up of compressed eterons. The pressure forces eterons into the particle and to move within it. In fact as= the compression of the front half wave occurs so does the swallowing of Eterons throughout the front half of the particle.= It is this “internal current of eterons” that causes the particle to move through the Eteronic Medium. The Eteron swallowing is proportional to the compression-state of eterons at the external necklace’s vertex (that is, the particle’s surface). Both phenomena (necklace-building = and swallowing) are simultaneous.

On= ce this half creation of a graviton has finished, the particle stops dead: all its kinetic energy has been used to create this first half graviton. One thing = has occurred though. It has swall= owed a number of Eterons and this makes the particles mass greater than if it were= at rest. The result is that it is unstable. The second half graviton begins to form but at the back of the particle and in the opposite direction to the direction of movement. The second half then = determines the moving direction of the wave: crossing the particle directly opposite to its direction of movement. At the same time the extra mass acquired is thro= wn out as it expels compressed eterons. So, a moving particle finishes generat= ing a half graviton that then crosses back through the particle as the necklace= s in the half graviton move back in the forward direction. As the core of both bodies, half graviton moving at the speed of light and particle coincide exactly, the graviton returns all its energy to the particle, fading away a= nd returning kinetic energy back to the Eterons of the particle. They intern use that energy to cre= ate the next front half graviton.

DIAGRAM 6.5

Observe Di= agram 6.5. The black ellipse of the centre represents the moving particle. It is an ellipse. The flattening as referred to earlier is due to the movement. The little arrow (right side) indicates the direction of movement. The black spots are Eterons making up = the and as a consequence graviton and electroid exchange energy. Remembering th= at both are inertia-mechanisms of electrons. So, the electron is like an interphase between waves. Empty circles are Eterons of surrounding medium. = The represented wave is a just formed graviton with a ‘stopped’ particle within. Now instead of ‘graviton’ in this special case= we would say a “matter-wave”. Moreover, I am calling this new conc= ept an INTRON. (The ‘wave of inertia’). It is a graviton that lives only one cycle. It is created by the moving particle and totally absorbed because both it and the particle’s cores coincide. It exists to effec= t a maximum exchange of energy between both.

This of co= urse indicates other outcomes. Wha= t if a stationary particle is encountered by a graviton?

The intera= ction is the same, but without the core-coincidence. The energy exchange is proportional to the inverse-square of the distance between each structure’s cores. The stationary particle gets an intron that has energy corresponding to the graviton’s level of sweeping of the particle. The number of gravitons sweeping a= nd adding energy to the particle increases its intron to a theoretical level associated with the number of encounters of gravitons. Imagine a ball falling. It picks up speed because it encou= nters gravitons emitted from the planet. It reaches a standard speed because of the air and the resistance provided by the level of compression of those Eterons in the air molecules.=

If= the graviton provides acceleration to a particle, at the same time it will loose some of its own energy moving away with increased length – less energy means less compression and therefore a longer graviton overall. If instead = it brakes the particle, it moves away as a shorter wave, having removed energy from the particle and added it to itself.

If the par= ticle is crossed by a graviton in the same moving direction in such a situation t= hat the particle is not braked, it is because something does not allow the part= icle to be braked. Then the graviton is pushed and removes energy from the parti= cle. (A climbing particle.)

If the par= ticle is crossed by a graviton moving in exactly the opposite direction to its direction of movement and the particle is not accelerated it is because something else does not allow the particle to accelerate. Then the graviton= is ‘braked’ and the particle removes energy from the graviton. (A falling particle.) As the graviton cannot be braked (it always moves at the speed of light) it lengthens.

If we see = it from the viewpoint of Doppler-effect, the conclusion is the same. A wave emitted in the moving direction removes energy from the emitter. A wave emi= tted backwards provides energy to the emitter.

All this w= ill be seen in KINETIC ENERGY.

A graviton= is made up of compressed Eterons without strong dipoles. As we have seen in the previous chapters, a photon is made up of Eterons of equal size but with dipoles. I apologize again because this is not exactly true. Dipoles of a p= olar sheaf can be created inside Eterons regardless of the compression-state. Somehow compression waves and dipole waves live independently; a graviton c= an cross a PSF (polar sheaf field) or an electron (made up of polar sheaves) without any drama but applying a force on them. Besides, a photon can travel through mediums of variable densities by only varying its speed. A photon interacts only with polarized bodies (polar sheaves, electrons, protons, et= c.). Photons and gravitons ignore each other. But if a graviton (or an intron) applies a force on (for example) an electron, the speed variation of that electron generates an electroid variation between both kind of waves.<= /o:p>

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