BEYOND
A THEORY OF EVERTYTHING
After the experimental validation that the general
theory of relativity in 1919, Einstein spent the rest of his life trying to develop
a unified field theory that he hoped would link the forces of gravity, electricity
and magnetism in one mathematically consistent paradigm. He was not successful,
perhaps partly because the so-called weak and strong subatomic forces had not
yet been discovered; but, even though Einstein didn’t succeed, his efforts
inspired the search for what physicists began to refer to as the “theory of
everything”. It was thought that such a theory would reveal all of the mathematical
relationships between matter, energy, space and time. The idea that such a
theory was possible fit into the philosophy of physicalism, a philosophy of
science based on the belief that literally everything could be explained in
terms of combinations and permutations of the four fundamental physical forms:
matter, energy, space and time.
The dream of a theory of everything (TOE) is not new.
In a sense, it expresses the goal of all science. The Greek philosopher Democritus
(c.a. 460 – 370 BC), for example, thought that a complete understanding atoms,
the building blocks of the universe, would lead to understanding everything.
Pierre-Simon Marquis de Laplace expressed it this way:
An
intellect which at a certain moment would know all forces that set nature in
motion, and all positions of all items of which nature is composed, if this
intellect were also vast enough to submit these data to analysis, it would
embrace in a single formula the movements of the greatest bodies of the
universe and those of the tiniest atom; for such an intellect nothing would be
uncertain and the future just like the past would be present before its eyes.
— Essai philosophique sur les probabilités,
Introduction, 1814
Stephen
Hawking, in a high-profile lecture in 1980, predicted that the coveted TOE would
probably be found by the year 2000. Eight or ten years later, in an early
popular book, he repeated the prediction more positively. but it still didn’t
happen, but he kept thinking and writing about a final theory of everything in
a series of books until he passed away in March 2018. In the 1980 lecture, he mistakenly
stated that Kurt Gӧdel’s Incompleteness Theorem proved that a TOE based on
physical axioms is possible. Later, he realized that Gӧdel’s theorem proved
almost the exact opposite. It suggested that while a TOE might be possible,
such a theory could not be derived from a finite set of physical axioms. This
was not the first time Stephen Hawking had to revise statements he made about
the mathematical description of a TOE. In the late 1960s, exploring solutions
of Einstein’s field equations, he famously concluded that the big-bang universe
began in a space-time singularity, a dimensionless point. But he had to reverse his position later, and in his book A Brief
History of Time, 1988, P. 50, he stated that "…there was in fact no
singularity at the beginning of the universe."
Stephen
Hawking is not the first scientist to be wrong about something. In fact, I
think you might be hard pressed to find a scientist who was or is never wrong, -
even Einstein. Einstein called his decision regarding the cosmological constant
in his relativity field equations his greatest blunder. His blunder was not
that there was a cosmological constant. Understandably, he set the constant at
the value necessary to have a stationary universe, which was the consensus
among astronomers and cosmologists at the time (1917). The blunder he referred
to was that he didn’t realize that the universe could be expanding, contracting
or stationary, depending on the value of the constant.
It is not
my intention to be unnecessarily critical of Professors Hawking and Einstein. Clearly,
they were both geniuses, with reported IQs of 155 (Hawking) and 160 (Einstein),
My point is that they were, after all, only human. They made mistakes. The
level of fame attained by both men sometimes causes people to think of them as
infallible. They were not. My second point is that science must move beyond the
physicalist idea of a theory of everything.
The TOE
envisioned by physicalists is a serious misdirection of scientific efforts
toward a shiny object that does not exist. As Max Planck stated unequivocally: “there
is no matter as such”. With the discovery of gimmel, the third form of the
substance of reality, a form that has no mass or energy, we know that a large
portion of the universe is not physical in the sense of consisting of physical
matter and energy as measured in the Large Hadron Collider. We have shown with
TDVP that most of what is being called dark matter and dark energy, is not
matter or energy at all. It is the form of reality we are calling gimmel, and
it likely has a direct relationship to what has traditionally been called
spirit or consciousness.
A real description of reality must
include all of reality, including consciousness, not just the physical tip of
the iceberg.
The
purpose of this post is to re-introduce the post below: DESCRIBING THE TRUE
NATURE OF REALITY, which I’ve just updated. Please read on.
ERC 09/12/18
Download the valid 220-1001 VCE Practice Test - CompTIA A+ Certification Exam: Core 1 practice test questions in VCE file format to pass your certification exam effortlessly.
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