Articles and Publication Physics Theoretical physics CONNECTION OF NEWTONIAN CONSTANT OF GRAVITATION G AND PLANCK CONSTANT h
CONNECTION OF
NEWTONIAN CONSTANT OF GRAVITATION G AND PLANCK CONSTANT h
© Ph.D.
Nikolay Kosinov
E-mail: kosinov@unitron.com.ua
ABSTRACT
The aim of our research is to define a tie of
electrodynamics and gravitation and to define a tie of Newtonian constant of
gravitation G and electromagnetic constants. Has been discovered a global
tie between Newtonian constant of gravitation G and major fundamental
physical constants and has been got mathematical equation for calculation of
constant G. Has been found out that Newtonian constant of gravitation G
includes in oneself Planck constant h. A tie between constants which
has been opened by us allows to get all the fundamental physical constants by
mathematical calculation on base of special group of constants. As an initial
constants for getting Newtonian constant of gravitation G we used
only 4 fundamental physical constants: speed of light in vacuum, Planck constant,
Rydberg constant, fine-structure constant. We discovered a group of independent
primary constants, which allowed to get not only the constant G, but also
the other fundamental physical constants with exactness 9 –10 digits by
mathematical calculation. Results, which have been got, open the new
possibilities in research of problems of microgravity, indicate on single nature
of electromagnetism and gravitation and on possibility of management by
gravitation with help of electromagnetic technologies.
INTERCOMMUNICATION OF FUNDAMENTAL
PHYSICAL CONSTANTS
Each physical theory uses definite fundamental
physical constants. Possibilities of a theory are conditioned by constants which
are laid in a base of the theory. The most important modern physical theories
operate by constants G, h, c in their different combinations. So,
for example, Newton’s theory of gravity is G-theory. The general theory
of relativity (GRT) is a classic (G, c)-theory. The relativity quantum
theory of field is a quantum (h, c)- theory [1]. Each
of these theories operates by one or two dimensional constants. Discovering of
Planck length, Planck mass and Planck time gave hope on possibility of creation
of the new quantum theory on base of three constants. However, attempts to
create a unified theory of electromagnetic field, particles and gravitation on
base of three dimensional constants - (G, h, c)-theory, did not give
expected results. There is no such a theory yet [1]. They hope that
constants G, h, c is the base for future theory.
A lot of things indicates on that three
dimensional constants must be enough for creation of unified theory. In the same
time several hundreds constants are using in modern physics [2]. Why
do their amount so great? If to consider them as a true fundamental constants
then their amount are obviously very big. Only a few constants must be
fundamental, but neither tens and certainly nor hundreds of constants. Not
without purpose only from three basic units - metre, kilogram and second can be
got all the derivative units which have mechanical nature.
So a big contradiction between a necessary amount
of fundamental physical constants and their real abundance exists. Up to now its
vaguely which three constants must put together a base of future theory this
task is very difficult. Causes of this difficulty consist in obscure essence of
many fundamental constants and in obscure sources of their
origin. Therefore its important to find out whether constants G, h, c that
necessary and sufficient combination of constants which able to become a base of
quantum gravitation theory. In spite of big efforts of scientists, minimum
constant basis, which sufficient for description of properties of fields and
particles, has not found up to now.
The reason is that that majority of famous
fundamental physical constants do not independent. But they are component
constants. In this work are shown constants, from which has been got majority of
fundamental physical constants, and how they connect between themselves.
L.de Broglie named Planck constant –
mysterious constant. Although 100-year celebration of Planck constant h
and of quantum theory has passed a curtain of mystery has not taken from this
major fundamental constant and her physical essence opened not fully. P.Dirac
was the first who noticed that a constant h is a component constant. He
began to use another constant h , which did not contain the coefficients 2π
[3]. Its important to find out, whether
other fundamental physical constants and Newtonian constant of gravitation G pretend
to the status of primary and independent constants or not. Our researches opened
perfectly unexpected universal interdependency and deep interconnection between
all fundamental physical constants. We have discovered a group of independent
constants. This group lies in base of
all fundamental physical constants. Fundamental physical constants functionally
dependent to three dimensional constants and two dimensionless constants:
fundamental quantum hu
(hu=7.69558071(63) •10-37
J s), fundamental length lu
(lu=2.817940285(31) •10-15
m), fundamental time tu
(tu= 0.939963701(11)
•10-23 s), fine-structure constant
α (α =
7.297352533(27) •10-3), number
π
(π =3.141592653589).
Functional dependencies for some basic constants
are shown beneath. So, for example, Newtonian constant of gravitation G has
following functional dependence: G=f
(hu, lu, tu,
α, π ). Constants from group hu,
lu, tu, α,
π determine values of other fundamental
physical constants: Planck mass mpl=f (hu,
lu, tu, α,
π ), Planck length lpl=f
(lu, α, π ),
Planck time tpl=f (tu,
α, π ), elementary charge e=f
(hu, lu, tu), elementary mass me=f
(hu, lu, tu), Planck constant h=f(hu,
α, π ), speed of light in vacuum c=f(lu,
tu), Rydberg constant R∞ =f
(lu, α, π ),
proton-electron masses ratio mp/me=f(α,
π ).
UNIVERSAL SUPERCONSTANTS
We conducted researches of role of
constants hu, lu, tu,
α, π and their place among other
fundamental constants and explored possibilities of using them as the basic and
universal constants.
The analysis of relations obtained for
calculation of physical constants shows that many constants are interconnected.
The overwhelming number of constants can be expressed by means of the
fundamental metric of space – time lu, tu.
The research has shown that among universal physical constants, some of them are
invariant to the metric. It points out on their special status. It is those
constants, which are noneredacible in relation to metric features of space and
belongs to really fundamental constants. Such constants are: Planck constant h,
fundamental quantum hu, speed of light in vacuum c,
elementary charge e, fundamental length lu, fundamental
quantum of time tu, fine-structure constant α,
number π. With
the help of these fundamental constants invariant to the metric, all other
fundamental physical constants can be received.
Among dimensional constants, invariant to
the metric of space – time, elementary charge and speed of light in vacuum are
not independent and can be expressed though other constants. The elementary
charge is determined through a fundamental quantum and fundamental metric. Speed
of light in vacuum is a composite constant and is determined by the fundamental
metric. The Planck constant is also a composite constant. It contains
fundamental quantum hu, fine-structure constant α
and number 2π. Thus,
among fundamental constants invariant to variations of the metric, there are
absolutely independent fundamental constants. It allows defining for them a
special status. Let’s name them as universal physical superconstants. There
are five such superconstants: hu, lu, tu,
α, π.
With the help of this five unique
superconstants all laws and formulas of physics can be presented, and also all
other constants of physics both known and just obtained. Distinguishing of
special class "Universal superconstants " can be grounded by following
consideration. By us has been got a proof that these five constants are a
primary and absolutely independent constants. All of other fundamental physical
constants are composite . They have secondary status and can be got on base of
primary superconstants hu, lu, tu, α,
π. Five primary constants give unique
opportunity to get exact values of those fundamental physical constants, the
values of which in modern physics are famous only from experiments.
On our opinion, these five universal
superconstants will be able to substitute a big list of electromagnetic
constants in future, universal constants, atomic and nuclear constants and to
became a base of new physical theory of fields and elementary particles.
Existence of only five primary constants, lying in base of universal,
electromagnetic, atomic and nuclear constants, indicates on general unity of
mechanical, electrical and gravitational physical laws.
THE PROBLEM OF QUANTUM GRAVITATION
Development of physics lead to conclusion that a
gravitational field must submit to quantum laws. Appearance of the Planck mass,
the Planck length and the Planck time [4] has generated hope for creation of
such theory, which would operate with three constants: G, h, c. For
creation of relativity quantum gravitational theory constants h and c
were added to constant G. On scientists’ opinion such theory
would be quantum theory completely, which would describe a gravitation. However
a quantum gravitation theory was not created on base of (G, h, c)-basis.
We must find reasons why is it so.
What hides in the Planck length and why do the
Planck units and the units of quantum electrodynamics lead to natural units of
dimension – kilogram, metre, second? Such intercommunication is needed in
theoretical explanation.
We have found this theoretical explanation
and have got a new equations for the Planck units by using universal
superconstants hu, lu, tu,
α, π. Here are these equations:
mpl
= me (Do/
α)1/2
lpl
= lu (1/Do
α)1/2
tpl =
tu (1/Do
α) 1/2
Here Do – dimensionless
constant, which determines by constants α and
π . Its value equal 4,16650385(15) •1042.
These formulas show, that the Planck length and
Planck time directly connected with fundamental
length lu, and fundamental time tu
and that the Planck mass related with electron mass me.
These formulas show, that the Planck constants
are tied to fundamental constants of length, time and mass by very simple
equations. The accuracy of values of Planck constants calculated on the formulas
is much higher than it was known before.
MATHEMATICAL EQUATIONS FOR THE
GRAVITATIONAL CONSTANT G.
Its easy to get formulas for Newtonian
constant of gravitation G by using the new formulas for Planck units.
Here are 7 equivalent formulas for calculation of Newtonian constant of
gravitation G. These formulas were got by us on base of initial
superconstants hu, lu, tu,
α, π :
G =
c3 lu2
/ h α Do,
G =
lu2 b / meDo,
G =
Gu c2 /me2 Do,
G =
lu3 / tu2 me
Do,
G =
lu5 / tu3 hu
Do,
G =
h α4
/ 4π tu
me2 DoR∞,
G =
2π c3
lu2 / h
α Do,
where: Gu – constant
which value equal 2,56696941(21) •10-45 N s2; b – constant
which value equal 3,189404629(36) • 1031m/s2.
This major constant G did not have the
formula for its calculation and was determined experimentally. The numerical
value G was found in England by a physicist G.Cavendish in 1798 on
rotating weights by a measurement of a gravitation force between two spheres.
Then value G has been constantly updating. Now value G is
considered to be equal 6,673(10) •10-11 Nm2/kg2.
Among all universal physical constants the accuracy in definition of G is
the lowest. For example, value of constant Rydberg R∞ has
been defined with unprecedented exactness and has 14 digits while value of
constant G has only 4 digits [2]. Now, after 200 years passed
since the first measurement of a constant G was made, appears the
possibility to calculate its exact value. Using the formulas and to compare
experimental outcomes to theoretical estimation. As accuracy in definition of
constants of an electromagnetism is high enough, using our formulas, where the
constants of an electromagnetism include, we receive calculated value of a
gravitational constant. The numerical value for a gravitational constant gives
magnitude of 6,67286742(94) • 10-11 m3 kg-1 s-2,
which is few orders more precise than experimental value.
So, tie of Newtonian constant of gravitation G
with Planck constant h ,speed of light in vacuum c, elementary
mass me, fundamental metrics of space-time lu,
tu. It is not necessary to add to the constant G constants
h and c. Constant G contains these constants.
VALUE OF FUNDAMENTAL
PHYSICAL CONSTANTS, GOT BY COMPUTATION.
Using of (hu, lu,
tu, α, π )-
basis permitted to get all the
fundamental physical constants by calculation. Some of fundamental constants,
which got by calculation, more exact then their experimental values. For example:
1. Calculation value of the Newtonian constant of
gravitation G has 9 digits:
G =
6,67286742(94) • 10-11 m3 kg-1 s-2.
CODATA recommended value of the Newtonian
constant of gravitation G (1998) has only 4 digits:
G =
6,673(10) •10-11 m3 kg-1 s-2.
2. Calculation value of the electron mass me
equal:
me =
9,10938186(85) •10-31 kg.
CODATA recommended value of the electron mass
(1998) equal:
me =
9,10938188(72) •10-31 kg.
3. Calculation value of the Planck length lpl
equal:
lpl
= 1,616081388(51) •10-35 m.
CODATA recommended value of the Planck length
(1998) equal:
lpl
= 1,6160(12) •10-35 m.
4. Calculation value of the Planck mass mpl
equal:
mpl
= 2,17666772(25) •10-8 kg.
CODATA recommended value of the Planck mass
(1998) equal:
mpl
= 2,1767(16) •10-8 kg.
5. Calculation value of the Planck time tpl
equal:
tpl
= 5,39066726(17) •10-44 s.
6. Calculation value of the deuteron-electron
mass ratio md/me equal:
md/me
= 3670.47802(55).
7. Calculation value of the Hartree energy : Eh=
4,35974381(44) •10-18 J.
CODATA recommended value of the Hartree energy
(1998) equal: Eh= 4,35974381(34) •10-18 J.
8. Calculation value of the Bohr magneton: μB
= 9,27400899(45) •10-24 JT-1.
CODATA recommended value of the Bohr
magneton (1998): μB
= 9,27400899(37) •10-24 JT-1.
9. Calculation value of the magnetic flux
quantum: Φo=
2,067833636(91) •10-15 Wb.
CODATA recommended value of the magnetic
flux quantum: Φo
= 2,067833636(81) •10-15 Wb.
10. Calculation value of the Hubble parameter:
H= 1,749531663(89) •10-18 s-1.
11. Calculation value of the temperature in
atomic nucleus: Tu= 5,929889(21) •109 K.
Values of constants G, mpl,
lpl, tpl , got by computation, instead of 4
-5 digits have 9 - 10 digits.
Additional information obout constants you can
find on web-sites:
http://www.sciteclibrary.ru
www.photcoef.com/236.html
www.jsup.or.jp/shiryo/PDF/0900z53.pdf
http://www.rusnauka.narod.ru
http://www.n-t.org/tp/ng/nfk.htm
INFERENCES
1.Analytical expressions for calculation of
gravitational constant of Newton using fundamental constants of an
electromagnetism and Planck constant are obtained for the first time. The
obtained numerical value of a gravitational constant by accuracy exceeds on few
orders accuracy of known experimental value.
2.The correlation of fundamental physical
constants is revealed and the analytical expressions for calculation of those
physical constants are found, whose values were known only from experiment and
did not have the formulas for their calculation.
3.The theoretical substantiation of correlation
of Planck constants of length, mass and time with natural units of
dimensionality (kg, metre, second) and fundamental constants is given.
4.The existence of five absolute independent
fundamental constants is revealed with the special status of fundamental
superconstants. These five fundamental superconstants are enough to describe all
laws of physics and to express with their help all other fundamental physical
constants.
5. Have been got the new formulas for Planck
masses, Planck length and Planck time.
REFERENCES
- Manin Y. Mathematics and physics. M. , "Knowledge",
1979.
- Peter J. Mohr and Barry N.Taylor. CODATA
Recommended Values of the Fundamental Physical Constants: 1998.
WWW.Physics.nist.gov/constants; Reviews of Modern Physics, Vol. 72, No. 2,
2000.
- Dirac P. Ways of physics. M., 1983.
- Planck M. Selected works. Ì., Science, 1975.
Publishing date: November 13, 2001
Source: SciTecLibrary.ru
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