http://library.rstheory.org/video/dbl-1978

The Non-existent Universe:

from:

http://library.rstheory.org/books/uom/29.html



Now we are going to examine the structure of fantasy that has been erected by 
those who have taken advantage of this

license to give free rein to the imagination under the banner of science, so 
that we can see just how far the universe of

modern astronomy has diverged from the universe of physical reality.



In the imaginary universe: The fundamental constituents of the universe are 
elementary units of matter.

In the real universe: There are no elementary units of matter.



In the imaginary universe: The elementary units of matter are quarks.

In the real universe: There are no quarks.



In the imaginary universe: The atom is constructed of particles that are made 
up of quarks.

In the real universe: The atom is an integral unit that has no “parts.”



In the imaginary universe: The atom has a “nuclear” structure in which a 
positively charged nucleus containing most of the

mass is surrounded by negatively charged electrons.

In the real universe: The atom is a single integral unit, not a collection of 
parts. The experimental “nucleus” is actually the

atom itself, and contains all of the mass.



In the imaginary universe: Atomic behavior is governed by a set of laws 
differing in significant respects from the laws

governing the behavior of macroscopic matter.

In the real universe: The same physical laws are applicable everywhere.



In the imaginary universe: At the atomic level the universe is illogical and 
incomprehensible.

In the real universe: Phenomena at the atomic level have the same character as 
those at the macroscopic level.

The physicists’ atom is not a real physical entity:



In the imaginary universe: The light elements are the fuel for the energy 
generation in the stars.

In the real universe: The heavy elements are the stellar fuel.



In the imaginary universe: The hot, massive stars are young. The stars of the 
globular clusters are old.

In the real universe: The hot, massive stars are the oldest stars of their 
respective generations. The stars of the globular

clusters are relatively young.



In the imaginary universe: “The crushing force of gravity” acting against the 
interior atoms of the star, after the elimination

of the gas pressure, collapses their structure.

In the real universe: (a) Elimination of the gas pressure, if it occurred, 
would not increase the force acting on the central

atoms. (b) The structure of the atom does not collapse under pressure.



In the imaginary universe: the collapse of the atomic structure converts the 
matter of the star into a strange hypothetical

state called “degenerate matter.”

In the real universe: There is no degenerate matter.



In the imaginary universe: The speed of light is an absolute. limit on the 
speed of material objects.

In the real universe: The speed of light is the limiting speed in one of the 
three scalar dimensions in which motion can take

place.



In the imaginary universe: The white dwarf is an aggregate of degenerate matter 
produced by the collapse of a star of small

or moderate size.

In the real universe: The white dwarf is one of the products of a supernova 
explosion. It is composed of ordinary matter that

has been accelerated to speeds in excess of that of light, and is therefore 
expanding outward in time (equivalent to inward in

space).



In the imaginary universe: the ordinary white dwarf eventually cools and

becomes a black dwarf: a dead star.


In the real universe: The white dwarfs lose energy to the environment. In

the case of those produced by Type I or relatively small Type II

supernovae, this energy loss eventually reverses the process that is

responsible for the small size and high density of the white dwarfs, and

expands them back into main sequence stars. There are no dead stars.

.



In the imaginary universe: Gravitation is a distortion of space-time and 
therefore acts within the atoms as well as between

them.

In the real universe: Gravitation is a motion of the individual units (atoms 
and sub-atomic particles) and therefore acts only

between the units.



In the imaginary universe: Stars that exceed a certain mass limit terminate 
their existence with explosive events that leave

residues denser than the white dwarfs.

In the real universe: Every star eventually reaches either a mass limit or an 
age limit, and explodes, producing a white

dwarf, or its inverse equivalent, or both.



In the imaginary universe: The high density products of explosions of stars in 
the intermediate size range are neutron stars.

They are observed as pulsars.

In the real universe: The pulsars are fast-moving white dwarfs. There are no 
neutron stars.



In the imaginary universe: The terminal events in the lives of the largest 
stars produce compact objects whose density is

above the critical level. These are black holes.

In the real universe: There are no limits on the size of white dwarfs, other 
than those that apply to all stars. There are no

black holes.



In the imaginary universe: There is no limit to the process of contraction by 
self-gravitation. It therefore continues until the

entire star has shrunk to a mere point: a singularity.

In the real universe: There are no singularities.



In the imaginary universe: The existing physical universe originated in a 
gigantic explosion: the Big Bang.

In the real universe: There was no Big Bang. The information now available does 
not indicate how the universe originated,

or whether it had an origin.

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