Scott
Funkhouser of the Military College of South Carolina has proposed
that the gigantic number 10122 (ten followed by 121
zeroes) has some special significance in our universe. He says that
the ratio of the mass of the universe to the mass of the smallest
possible quantum of mass is about 6 X 10121 (which rounds
up to be 10122). He also says that the number of ways the
particles of the observable universe could be arranged is 2.5 X
10122. He lists three other important cosmic numbers
which are very close to 10122. His thesis received a
write-up in the respected science journal Nature.
Funkhouser
is following in the footsteps of physicists Paul Dirac and Arthur
Eddington, who also detected cosmic large number coincidences. But
the coincidences they studied involved a much smaller large number:
the number 1040 (ten followed by 39 zeroes). One such
coincidence is that the simple equation ct/r (where c is the speed of
light, t is the age of the universe, and r is what is called the
classical electron radius) gives you a number of about 1040 ,
which is also about the ratio between the strongest of the four
fundamental forces of nature and the weakest of those four forces
(the ratio between the strong nuclear force and gravitation).
I
am not sure whether there is anything to these large-number
coincidences,
but I am sure of one thing: the number that nature really favors is
not some huge number like 10122 or 1040. The
number that nature really favors is a small number.
The
number is: three.
We
see the number three in many important, fundamental places on the
subatomic level and on the cosmic level. Below is a visual that
illustrates the point:
Let's
look at some of these many ways in which nature favors the number 3
in a deep and fundamental way.
First
of all, there are three main types of stable particles:
the proton, the neutron, and the electron. These are the three
building blocks of atoms. All solid matter consists of atoms
built entirely from these three particles.
.
Scientists
say that each proton and each neutron is built from smaller particles
called quarks. How many quarks are there in a proton? Exactly three.
How many quarks are there in a neutron? Exactly three.
Scientists
also say that are three “generations” of quarks. The
generations are shown in the three purple columns of the table
below. The second and third generations (consisting of the top,
bottom, strange, and charm quarks) quickly decay into the first
generation consisting of the up quark and the down quark (the two
types of quarks found in protons and neutrons).
The Standard Model of Physics (click to expand)
http://en.wikipedia.org/wiki/Standard_Model
http://en.wikipedia.org/wiki/Standard_Model
There
are also three “generations” of leptons, shown as green
columns in the above table. The
tau and muon generations are very short-lived, leaving the electron
as the only stable lepton with significant mass (the neutrinos have
virtually no mass).
We
also have three types of massive bosons as part of the standard model
of physics: the Higgs boson, the W boson, and the Z boson. There are
also three types of neutrinos.
On
the subatomic level there are three types of charges: positive
charges like protons have, negative charges like electrons have,
and neutral charges like neutrons have.
Subatomic
particles also have an important property called spin. The leptons
and quarks all have a lowest spin of ½. The four gauge bosons have a
lowest spin of 1. The Higgs boson has a spin of 0. This means there
are three different minimum values of spin that particles can
have.
As
shown in the chart, there are three main properties associated
with subatomic particles: mass, charge, and spin. Except
for the “ghostly” neutrino particles and the energy particles
called photons and gluons, each type of particle has a unique
combination of mass, charge, and spin.
There
are three fundamental subatomic forces: the strong nuclear
force that holds an atomic nucleus together, the electromagnetic
force that keeps electrons in the atom, and the weak nuclear force
that sometimes causes an atomic nucleus to eject a particle. The
other fundamental force, gravity, has no effect on the subatomic
level.
Physicists say that there are three types of "color charge" involved in the strong nuclear force: what are called red charges, blue charges, and green charges.
Physicists say that there are three types of "color charge" involved in the strong nuclear force: what are called red charges, blue charges, and green charges.
Looking
at the visible world, there are three dimensions of space:
height, width, and depth. There are three main types of
matter: gaseous, liquid, and solid. There are three main
types of massive objects: planets, stars, and galaxies.
There
are also three main types of galaxies: spiral galaxies,
irregular galaxies, and elliptical galaxies. Almost all types of
galaxies are one of these three types (with other types such
as ring galaxies being very rare).
Besides
the three laws of motion, there are also three types of
natural laws: the laws of physics, the laws of chemistry, and the
laws of biology.
As
if this wasn't abundant proof enough that nature seems to like the number
three, we have the unexplained fact that the ratio between the electric charge of
the electron and the electric charge of the down quark (one of the
two types of quarks that make up the proton) is precisely 3.0
(three).
So
clearly nature seems to favor the number three. Someone
disputing this thesis might point out the ratio between the proton
mass and the electron mass would have been the perfect place to have
put the number three – but the ratio between the proton mass and
the electron mass is not three, but 1836.
In
response to such an objection I will point out that the number 1836
has in its digits exactly three multiples of the number three:
18, 3, and 6. In fact, when we look at this ratio to seven decimal
places, we find that it has six consecutive multiples of the number
three, as shown below.
I rest my case. Nature loves the number three.
Postscript: Here is additional evidence that nature loves the number three: an article entitled Physicists Prove Surprising Rule of Threes.
For a web page with lots of visuals that delves into cases of the number three in nature and society, see this very interesting page: www.threesology.org.
I know this post is 5 years old but if you are still out there.... 1836 = 1+8+3+6 = 18 = 9 = 3
ReplyDelete1836.1526724 = 45 = 9 = 3
1836 divided by 3 = 612 = (6+12=18=9=3) or (6+1+2 =9=3)
That is just nuts...
We're still out here 😂
DeleteThe creative process depends on the number 3!
ReplyDelete1. Thoughts – feelings – actions = behavior
2. Legislative – judicial – executive = government
3. Knowledge – responsibility – control = leadership
4. Stability during load – mobility during function – distribution of load = joint function
5. Past – present – future = your experience of time
6. Protons – electrons – neutrons = matter
7. Cell growth – cell differentiation – morphogenesis = developmental biology
8. Radiation phase – matter phase – dark energy phase = evolution of the universe
9. Safety – satisfaction – connection = happiness
10. Internal dialogue – mental focus – physiology = mental states of being
the list is endless
You've got an interesting (succinct) orientation with a reference to the creative process. Thanks for your contribution! I simply love all the variations of "threes" ideas at Mark's site and fully appreciate their author's perspectives!
DeleteA three legged chair with different sizes of legs is more stable than a four legged chair with different sizes of legs. GPS only needs 3 points to find a location. In construction, a triangle shape section is stronger than any other shape. Christianity believes God as the Trinity ( Father, Son and Holy Spirit). Our music is built on the Triad: 3 notes making-up a fundamental musical chord.
ReplyDeleteIf the digits of a number add up to a number that is divisible by there the number is divisible.
ReplyDelete9, 12=3, 72=9, 999=27, 1002=3
Good job, l think even gov't has 3 organs
ReplyDeleteThree elements to early Universe: https://msutoday.msu.edu/news/2014/in-the-beginning-there-were-three-elements (hydrogen, helium, lithium).
ReplyDelete