Adapted for the Internet from:

Why God Doesn't Exist
In Quantum, there are four forces;
In Physics, there are only two

    1.0    Carriers of force

    Quantum alleges that there are four forces in the Universe each of which travels on the back of a specific type
    of particle. The force of gravity rides on a horse called the graviton. Light hitchhikes on a mule known as a
    photon. The weak force stows-away on camels labeled Ws and Zs (The scholars ran out of words and resorted
    to the alphabet).  And the strong force hops around on the pouch of a kangaroo that responds to the name of
    gluon. Let's look at these animals and see if they have any merit in Science.


    2.0   The graviton

    Does the graviton really carry the adverb force on its back and deliver it to another particle or is this just a
    metaphor?

    Perhaps the official definition can clarify the matter for us:

    " the graviton is a hypothetical elementary particle that transmits the force of gravity
      in most quantum gravity theories"  [1]

    " A theoretical particle having no mass and no charge that mediates (carries) the
      gravitational force." [2]

    " Some kind of information mediator between two particles is needed... We call them
      force carriers or 'exchange particles'. "  [See Force carriers: definition, p. 2]  [3]

    So again, I was not mistaken. The mechanics are saying either that force is a particle or that a particle carries a
    force. This wasn’t, after all, a metaphor. If a metaphor, what do the mechanics really mean?

    The mathematicians will probably deny or reinterpret everything when the press starts asking questions at the
    end of the presentation. The Quantum graviton simply has no rational explanation because it is without a doubt
    the most disquieting of mechanisms. This unfathomable 'interaction' consists of a bullet shot outwards – we
    know not from where, how, or why – that somehow boomerangs the target inwards. The mechanics allege that
    tennis ball A pushes a graviton towards tennis ball B, but rather than chase B away as predicted by billiard ball
    physics, somehow pulls B towards A. (See gravity)


    3.0   The Photon

    Do particles of light carry forces and other mathematical junk?

    We start with a formal definition of the photon:

    " The photon is one of the elementary particles…According to the quantum
      electrodynamics of the Standard Model, photons have zero rest mass and
      zero electric charge, but they do carry energy, momentum and angular
      momentum." [4]

    " The basic unit ('quantum') of electromagnetic radiation (and therefore light)" [5]

    So again I was not mistaken. The mathematicians do actually believe that a particle known as a photon takes
    with it a bag full of EM force, momentum, energy, and who knows what else.

    Like the graviton, the photon is supernatural. But whereas the graviton is faithful and dependent like a dog, the
    QM photon is individualistic and adventurous like a cat. The photon is a bullet pushed outwards that does not
    believe it has a moral obligation to return to its master. It has a one-way ticket for no reason that the
    establishment can justify. This super-particle is so powerful that it somehow manages to bind the electron to
    the nucleus of an atom:

    " the electromagnetic force holds electrons in orbit about the nuclei in atoms"
      (p. 583) [6]

    How does a discrete particle bind another discrete particle? Please stick your Math book up your butt and
    explain or illustrate the physical process.


    a.   Massless/massive photon

    The photon suffers from irreconcilable dualities, specifically in regards to mass. Einstein proclaimed that
    energy is another form of mass. This is odd because the photon is alleged to be pure energy, yet it is also
    alleged to have no mass:  

    " the mass of the photon is zero" (p.106) [7]

    " Photons are always massless" (p. 585) [8]

    Newton’s law of universal gravitation (Fg = G * mass1 * mass2 / d2) predicts that an extrinsic body should
    have no effect on this mass-less particle, but then relativists allege that a black hole prevents photons from
    reaching your telescope by acting on their mass. Of course, in this instance, they dispense with Newtonian
    force. The mechanic changes hats, becomes a relativist, and claims that the mass-less photon rolls or slides
    along the warped path of the fabric of space-time. This allegation that leaves open the issue of how this
    hammock manages to physically contact the surface of something that has no surface.
The four forces of the Quantum Apocalypse
trampling over rationality and common sense

    The photon is also alleged to machine-gun the toughest electron balls from polished metal plates.

    " A single photon of ultraviolet radiation... does have enough energy to knock
      loose an electron." (p. 91) [9]
    "
    Indeed, if a photon has structure and mass, the atomic cannon would not be able to fire an indefinite amount of
    these cannonballs indefinitely.

    " If the rest mass of the photon were non-zero, the theory of quantum electro-
      dynamics would be 'in trouble' primarily through loss of gauge invariance,
      which would make it non-renormalisable; also, charge conservation would
      no longer be absolutely guaranteed, as it is if photons have zero rest mass." [10]

    The electron is alleged to be an elementary or point particle, meaning that it has no size. Sane humans usually
    sense that something is wrong. So the idiot of Quantum has a duality handy. A photon is also a wave and a wave
    has size. Conclusion: a photon has and doesn't have size. Now what didn't you understand? The morons add
    insult to injury by telling you that such a duality is useful. No kidding?

    So what are we talking about? Obviously we have a true ghost. This alleged particle has no size or structure
    -- it is a 0-D point particle -- and no mass, yet this non-entity can knock an electron from its orbit.

    Of course, the trick consists in talking in riddles and parables and confusing the audience:

    " Photons are traditionally said to be massless.  This is a figure of speech..." [11]

    " the invariant mass of a photon must be zero, but its relativistic mass need
      not be." [12]

    The way to explain things in Quantum is to muddle the crucial and fundamental concepts so badly that people
    just stare and nod wondering why they are the only ones in the room that don't understand. The mathematicians
    call this science.

    Does a photon lose mass when it travels from air to water? How about when it is stopped altogether in its tracks
    attempting to sneak out of a black hole's event horizon? How does the non-entity called a black hole manage to
    influence a nonentity such as a photon?

    The mechanics answer by 'clarifying' once and for all the definition of mass. These events involve relativistic
    mass and not rest mass. Relativistic mass is a measure of resistance to being moved whereas rest mass is how
    much matter a substance has. The photon has neither.  Got it?

    The incredible photon is more versatile than God. It is a ripple of nothing – the only substance in the universe that
    undulates without requiring a medium. The photon has no length or mass and is timeless a photon is time itself.

    " a photon experiences no passage of (proper) time between emission and
      absorption." [13]

    The photon is exempt from laws that govern the behavior of these parameters, the only noun that has physical
    presence in space that does not exist. Perhaps the most astonishing property of a photon is that it always carries
    with it an ample supply of gravitons:

    " Since photons contribute to the stress-energy tensor, they exert a gravitational
      attraction on other objects, according to the theory of general relativity. Conversely,
      photons are themselves affected by gravity" [14]

    Of course, it was easier and more practical for the bright minds coming out of college to sit comfortably at their
    cubicles, cash in their exorbitant paychecks, transform the photon into a mathematical non-entity, and continue
    daydreaming with important stuff like reverse time travel, parallel universes, and 1D wormholes.


    b.   Virtual Photons

    Another trick the mechanics use to answer any and all questions consists in inventing magical, ad hoc particles.
    The most famous one is the  virtual photon. This is another particle that the mathematicians 'had' to discover in
    order for their equations to come out right. The virtual photon is a very convenient particle because it can appear
    and disappear at will at the command of a mechanic:

    " a particle that exists for a limited time and space" [15]

    Some mathematicians dismiss the virtual particle as a mathematical gimmick necessary only to explain a given
    phenomenon to laymen:

    " their objective existence as "particles" is questionable; however, the term is
      useful in informal, casual conversation, or in rendering concepts into layman's
      terms." [16]

    Others cannot explain their scientific conclusions to the scholarly experts and scientific journals unless they
    invoke these particles as having real existence:

    " Photons hitting photons…When virtual particles are taken into account, light
      beams can ‘bang’ onto each other. This result is in contrast to classical
      electrodynamics. Indeed, QED shows that the virtual electron-positron pairs
      allow photons to hit each other. And such pairs are found in any light beam" [17]

    " The positrons are interpreted as arising from a two step process in which
      laser photons are backscattered to GeV energies by the electron beam
      followed by a collision between the high-energy photon and several laser
      photons to produce an electron-positron pair. These results are the first
      laboratory evidence for inelastic light-by-light scattering involving only real
      photons… A complete theory of reaction (3) does not exist at present so we
      performed a simulation based on a two-step model in which the beam electron
      emits a virtual photon according to the Weizsäcker-Williams approximation,
      and the virtual photon combines with laser photons to yield electron-positron
      pairs." [18]

    Why didn't the peer reviewers question this last explanation? How could they have allowed such supernatural
    and irrational nonsense to make its way to the public? Are virtual photons for real? Have they been proven? Or
    are they still just a handy ad hoc gimmick necessary to explain stuff to laymen?  The mathematicians get away
    with their contradictions because no one bothers to check. The idiots of Mathematics have invented and live with
    so many dualities that they don't know what to believe any more. They have an answer for everything because
    they created both the law and the loophole. The law is there to impress upon you that they understand. The
    loophole is created for when you challenge their logic.  The reason Feynman received the Nobel Prize in Quantum
    Magic is that he proposed that mathematicians should just create particles from nothing with a magic wand when
    it suits their arguments and when their equations don’t match observation. This ensures an endless supply of
    these ‘things’ which are really ‘nothings’ half the time:

    " Virtual particles are represented by wavy or broken lines and have no arrows." [19]

    Questions for mechanics:  

    a.      What is the shape of a virtual photon during the broken segments of the lines?

    b.      By what physical process does a virtual particle spontaneously lose and regain
    length, width, and height?

    When Burke and his team can answer these basic questions, maybe they can then proceed to proclaim that a
    virtual photon bangs a laser photon. Otherwise, they are 'explaining' a phenomenon they still don't understand.


    4.0   The alphabet forces

    The weak force is the name given to a particle responsible for the spontaneous expulsion of radiation during
    radioactive decay. It is mediated by particles the mechanics have dubbed the Ws and Zs. A radioactive compound
    such as uranium gives off alpha (protons and neutrons) and beta (electrons) particles with the aid of these ‘force-
    carriers’.  Therefore, the weak force is a particle that, like the photon, is exiled from an atom. A radioactive
    compound pushes these particles away from itself.

    So again, let’s begin with the official definition to ensure we don’t put vain words in the mechanics’ mouths:

    " The weak interaction (sometimes called the weak nuclear force) is one of the four
      fundamental interactions of nature. In the Standard Model of particle physics, it is
      due to the exchange of the heavy W and Z bosons."  [20]

    So let’s see what a boson is:

    " The W and Z bosons are carrier particles that mediate the weak nuclear force,
      much like the photon is the carrier particle for the electromagnetic force."  [21]

    " Gauge bosons are bosonic particles which act as carriers of the fundamental
      forces of Nature. More specifically, elementary particles whose interactions are
      described by gauge theory exert forces on each other by the exchange of gauge
      bosons, usually as virtual particles." [22]

    So again I was not mistaken. The mathematicians actually believe that there is a particle (perhaps shaped like
    a W) that carries a force. This particle unloads the force as soon as it greets another particle. The mere fact that
    the mechanics use the adverb 'weak' to qualify a noun (a particle) should make us suspect that something is
    wrong.

    If these definitions are correct, a pertinent question comes to mind: How do the Ws and Zs differ from the photon
    which is also an outward bound particle?

    The mechanics reply that the Ws and Zs are heavy and thus their effects are limited to short distances whereas
    photons may travel to the other side of the universe because they lack mass whenever a mathematician so
    wishes. Why is this so? What is it in their architecture that makes them so different?

    So let’s get this straight. A force is defined as a push or a pull. Both the weak and the electromagnetic are
    conceptually forces of push. However, in order to distinguish these ‘forces,’ the mathematicians invoke distance-
    traveled and mass, two parameters that have nothing to do with the definition of force. The mathematicians are
    pegging the differences between these two push forces on mathematical criteria and not on the ‘physical’ and
    qualitative definition of force. If I understood the weak force correctly, the mechanism works something like this.
    A group of particles (uranium) expel another group of particles (the protons and electrons) via another group of
    particles (the Ws and Zs).

    Makes sense?

    Now we just have to find a name for the hypothetical particle that pushes the Zs out in the first place      (Fig. 1).
No Bill!
I'm not flipping you off!
I'm pointing to a zero-dimensional,
zero-mass, quantum photon
sliding along warped space.
Don't you see it?

By the way. I was really lucky
today. The emperor just gave me
his old robe. Do you like it? He
told me that his tailors finally
finished making a
new one for
him.

    5.0   The macho forces

    You may wonder at this point what the strong force is?

    Yes you guessed. It is a particle that pulls like a basketball pulls you:

    " The strong force is the fundamental force mediated by gluons" [23]

    Ok…So what is a gluon?

    " In particle physics, gluons are vector gauge bosons that mediate strong color
      charge interactions of quarks in quantum chromodynamics (QCD). Unlike the
      neutral photon of quantum electrodynamics (QED), gluons themselves
      participate in strong interactions. The gluon has the ability to do this as it itself
      carries the color charge and so interacts with itself."  [24]

    The gluon, as its name suggests, is yet another of those discrete bosons, but for unexplained reasons acts as
    the glue that holds the nucleus of the atom together. The gluon is a particle that the mathematicians found
    necessary to justify why the nucleus of an atom doesn’t spontaneously explode. You have to give them a little
    credit, though. Despite their clumsy ways, the mathematicians eventually figured out that their particle theory
    ‘predicted’ that two positive protons should repel each other. [Uh Duh!] So then, why doesn't the atomic nucleus
    explode? Ergo, there must be yet another secret culprit lurking in the shadows that overcomes their mutual
    repulsive forces and maintains the integrity of the nucleus. This mathematical particle is dubbed the strong
    'interaction' because it takes a lot of GeV (energy) to hatch an atomic egg. Mother Nature, in her infinite wisdom,
    apparently made Ws and Zs to tear atoms apart and gluons to hold them together.

    The problem is that a proton is compelled to woo his girlfriend by pitching gluon pies at her face. QM visualizes
    pull as an angry dog attacking a crowd that pelts it with rocks. What makes one proton throw gluons at another
    without itself being pulled by the sticky bubble gum is beyond anyone's guess. Perhaps, the shove that an
    emitting proton imparts to its gluon overcomes the repelling defenses of its rival. Who knows? How one proton
    produces a continuous stream of gluons, on the other hand, has a straight forward, logical answer. The proton
    creates an incessant stream of gluons from nothing.

    So if you really want to get rational, you will reach the same conclusion as I have. The best way to think of a
    gluon is as an ad hoc particle that spontaneously appears from the void to make a mathematician's equations
    come out right.

    To summarize, the mathematicians use a double standard to push their surrealistic theories. On the one hand,
    they define pull as a particle. On the other, they explain that pull is an ‘interaction’ mediated by a particle.
    The particle merely exchanges or transfers pull, which again means that we are conceptually treating pull as a
    stand-alone physical object. Otherwise, what was it that the particle ‘transferred’? It is this irrational duality a
    semantic problem – that keeps Quantum alive. Mathematicians should simply keep their mouths shut and show
    us a film of pull. What will the movie show? Will the go-between be an abstract concept or a particle? If a particle,
    what does it deliver upon contact? Another particle? Is this what we need more powerful accelerators for?

    Fig. 1   QM’s never ending push
According to QM, the atom kicks a Beta
particle (electron) out of the nucleus by
throwing a particle called the Z at it. The Z
is the name given to the ‘carrier’ of a
mystical force called weak.

The question I have is: What is the name
of the particle that the atom needs to
shoot at the Z in order to get it to move in
the first place?

    6.0    Of how the idiots of Mathematical Physics observe, see, and prove particles to induce
    the peer review boards to grant them Nobel Prizes

    The photon is alleged to be a point particle, meaning that it has no shape. We have empty space surrounding
    absolutely nothing. The photon is alleged to have no rest mass. If it ever manages to stand still, it would have
    no weight. Indeed,  weight is a tension rather than a force, meaning that it is a static parameter. We needn't even
    ponder the situation where a photon stands still. From a strictly conceptual point of view, a photon has no weight
    at any location it occupies in its itinerary through space. The Quantum photon is a very convenient entity to a
    mathematician because it is a non-entity: no shape, no mass, no weight, no nothing! Just speed! That's pure
    Mathematics: all motion and no substance!

    The photon is not the only particle without shape or weight. The graviton, and the gluon are also said to be
    100% motion.  Another famous particle, the  virtual particle certainly has no shape or weight during those brief
    moments when it flickers off in order to make the calculations come out right. And the scholars are still debating
    whether the Higgs Boson, the alleged particle of mass, has mass. (A particle of a concept? What's next in
    Quantum? Particles of love? Particles of justice? Particles of running?)

    You wonder then how it is that our bright particle mathematicians claim in their scientific writings that they have
    observed, seen and proved the existence of these massless point particles. How did the scholar manage to
    convince his peers to grant him a Nobel Medal for his ground-breaking discovery? How do the ghost-busters
    at SLAC, CERN, and KEK routinely detect these ethereal spirits in their accelerators?

    Simple! Through a play with words. By not following the scientific method. By proving assumptions.

    In Particle Mathematics, the words observe, see, and proof are euphemisms. The idiot of Mathematics says
    'see,' and you think that he is talking about seeing the particle with his eyes. You imagine him staring at the
    particle in a photograph or staring at a sculpture of one at the seminar. This is not the case. In fact, if this were
    true, the mathematician could tell you, not what a gluon looks like, but what a comparatively gigantic atom
    looks like. Is an electron a bead that orbits a nucleus as Bohr proposed? Is it an undulating ribbon that stretches
    around the nucleus as de Broglie hypothesized? Or is it a cloud that envelopes the nucleus as Born suggested
    and which interfaces with other clouds? If the idiots at SLAC and CERN and at Harvard and Cambridge cannot
    tell you what the simplest atom looks like, obviously they haven't 'seen' one! And if the idiots at MIT and Oxford
    and KEK haven't 'seen' an atom, they sure as hell can't tell you what a gluon or a graviton or a photon looks like!
    Not a single mathematician in the world has ever 'seen' a single particle of the Standard Model! Any particle!

    So how is it that the mathematicians 'know' that they are dealing with particles?

    The mathematicians always and without exception 'observe' and 'prove' the existence of particles indirectly:

    " When an alpha particle or beta particle interacts with the mixture, it ionises it. The
      resulting ions act as condensation nuclei, around which a mist will form (because
      the mixture is on the point of condensation). The high energies of alpha and beta
      particles mean that a trail is left, due to many ions being produced along the path
      of the charged particle. These tracks have distinctive shapes (for example, an
      alpha particle's track is broad and straight, while an electron's is thinner and
      shows more evidence of deflection). When a vertical magnetic field is applied,
      positively and negatively charged particles will curve in opposite directions." [25]

    " Charged particles create an ionization track, around which the liquid vaporizes,
      forming microscopic bubbles. Bubble density around a track is proportional to
      a particle's energy loss. Bubbles grow in size as the chamber expands, until
      they are large enough to be seen or photographed. Several cameras are mounted
      around it, allowing a tridimensional image of an event to be captured." [26]

    " A wire chamber is a chamber with many parallel wires, arranged as a grid and put
      on high voltage, with the metal casing being on ground potential. As in the Geiger
      counter, a particle leaves a trace of ions and electrons, which drift toward the case
      or the nearest wire, respectively. By marking off the wires which had a pulse of
      current, one can see the particle's path." [27]

    [See the path? Can you see the path I just left while walking from the bathroom after
     puking?]

    " a particle detector, also known as a radiation detector, is a device used to detect,
      track, and/or identify high-energy particles, such as produced by nuclear decay,
      cosmic radiation, or reactions in a particle accelerator...The term "counter" is
      often used instead of detector, when the detector counts the particles but does
      not resolve its energy or ionization." [28] "a counter is a device which stores
      (and sometimes displays) the number of times a particular event or process has
      occurred [29]

    [The idiots don't count particles. The idiots count events (which they mistake for particles).]

    The infamous particle of Mathematical Physics is an assumption. The mathematician assumes that the invisible
    phenomenon he is staring at is mediated by a tiny, discrete, dynamic entity. He imagines this corpuscle perhaps
    as a tiny ball, but actually doesn't dwell too much on architectural aspects. A mathematical physicist has been
    brainwashed to believe that this type of question belongs squarely in Philosophy, which he takes pains to
    distinguish from what he calls 'science.' A mathematician models everything with point particles. Even his waves
    are made of particles! The point particle allows the idiot to explain his theory without being distracted by
    architecture, yet later he claims with absolute confidence that the thing he was talking about for the past two
    hours was indeed a particle.

    Hence, we have a circular argument. The point particle is used as a hypothetical model which is later confirmed
    by the theory the mathematician just explained for else his theory would be false. And since it is not false
    because he can 'predict' the results of the next experiment -- meaning that he explains the next trial with the
    same damned particle -- then it's settled. The particle 'theory' -- meaning hypothesis -- has been confirmed.
    Now his peers grant him a Nobel Prize in Quantum and he has the authority to trash you at the Internet forum.

    The reason the mathematicians have chosen the particle is that in their infertile minds, this was the simplest
    entity with which they could model their equations. Ergo, the assumption became a proof. Now it is no longer
    speculative that the Universe is made of particles. Now the Universe 'is' made of particles, for else all of
    Quantum Mechanics as well as General Relativity dies overnight.

    There is a single way that a mathematician can 'prove' to you that he has observed, seen, or proved the
    existence of a particle. He has to draw a picture of his beloved quark or of his dear photon. I don't care about
    mass or speed or energy! I want to see a picture or a drawing or a statue of ONE particle standing absolutely
    still! This is not capriciousness or whimsicality. It is a requirement of the scientific method!

    So take a good look at this picture and read the caption the morons at the Brookhaven accelerator put under it.
    They attempt to convince the public that you are staring at a still image at the exact moment of collision of two
    particles:

    " Thousands of particles explode from the collision point of two relativistic...
      gold ions... Electrically charged particles are discernible by the curves they
      trace in the detector's magnetic field." [30]

    I am staring at a bunch of trajectories??? How long was this motion picture? A picosecond? The two atoms are
    shone at the exact moment they collide. The debris is depicted escaping from ground zero. We have a movie
    superimposed on a photograph. Are the tracks we see a collage of locations?

    Thousands of particles? From only two gold atoms?

    Hmmm... let me see? A gold atom has 79 protons, 79 electrons, and about 200 neutrons. If each proton and
    neutron is made of 3 quarks, which is the tiniest component the idiots of Mathematics claim to detect. We have
    exactly a total of 1832 possible detectable particles in the entire system before our eyes. If we consider that the
    picture is 2-D and that in 3-D we would probably have close to a million particles -- judging strictly by the
    photograph --  the statement of the mathematical morons is patently absurd! The lamebrains of Mathematics
    should make it a point in their lives to take Arithmetic 101 at least once! The stupid, idiotic, morons of
    Mathematics have no shame! Misleading the public like that! A picture of an explosion my foot!

    In fact, I was completely fooled! I thought I was staring at a snap-shot of a bunch of  fibers  extending from a
    center! How could an explosion of particles be so radially symmetric anyways? If you want to see what an
    explosion of something made of parts really looks like, here you have a pretty close example.

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