Mathematical model of the Space
2. Electric, magnetic and force field P-0
During pulsations P-0
density M+ and M- on distance R=1 (hereinafter in similar
expressions 1 - there is a unit of measurements, in this case lengths which
theoretically aspires to zero, and in practical calculations depends on
necessary accuracy of calculation) from the centre of pulsations changes under
law
Р+ = Рmax cos ωt1
Р- = -Рmax cos ωt1
(1)
On distance R from
centre P-0 density M+ and M- changes under law
P±R =
±1/R·Р max cosω (t1 - R/C)
(2)
Or
P±R = ±1/R·Р max cosωtR
(3)
Here
tR - local time of a point for distance R from the centre.
Density of weights in
space on radius R for time t1 = 0
P±R =
±1/R·Р max cosωR/C
(4)
On fig. 1 distribution
of density of weights in cross section P-0 for t1 = 0 is represented.
Spherical volumes of
M+ and M- move towards each other with
speeds of wave displacement. Their peak spherical surfaces, density of weight of
the appropriate mark in which aspires to infinity, move with speed of a wave as
two systems of converging and missing waves. At imposing peak surfaces of an
opposite mark the density of Vacuum becomes equal to a zero level, and speed of
displacement M+ and M- in counter movement has speed of a
wave.
Fig.
1
The gradient of an
electric charge characterizes quantity and a mark of the weight contained in
individual volume. The gradient of a positive charge has peak value on distance
R
q+RA =
1/R·q+max = 1/R·P+max
(5)
And
negative charge
q-RA =
1/R·q-max =
1/R·P-max
(6)
Electric such charges
create an electric field of gravitation. Intensity of an electric field of the
gravitation, caused by displacement of weight of the appropriate mark, is equal
to size of a gradient of an electric charge
Е egRA
= 1/R·Рmax
(7)
Intensity of an
electric field on radius R at the moment t1 = 0
Е egR
= 1/R·Е egmax cosωR/C
(8)
During pulsations
intensity of an electric field of gravitation changes under the
law
Е egR
= 1/R·Е egmax cosωtR
(9)
The electric field
creates force which operates on the charged weight and creates acceleration of
its moving.
The weight of unit of
volume of Vacuum is proportional to its density.
mR = PR =
1/R·Рmax
cosωtR
(10)
The force working on
this weight is proportional to intensity of an electric field of
gravitation.
fR = Е
egR = 1/R·Рmax
cosωtR
(11)
Acceleration of
movement of weight thus will be a constant.
aR = fR / mR = 1
(12)
At distribution of
harmonious fluctuations to a homogeneous environment the parity(ratio) is
carried out
РmaxA = vmax
Р0
/
C
Where
vmax - the maximal speed of movement of pulsing
weight.
As Р0 = РmaxA ,
vmax = C
(13)
Hence,
during pulsations the weight, moving with constant acceleration, changes speed
from zero up to C in time Т/4. Here Т - the period of pulsations. Thus
acceleration will be
am = 4C / T
(14)
Amplitude of a displacement
RA = amT2 / 32 = CT/8
(15)
Velocity
of a displacement
vm = amt = 4Ct / T
(16)
Energy P-0 exists as
kinetic at the moment of time tR = T/4 and as potential at the moment
tR = 0. A gradient of energy in point R
ER = mR
C2 / 2 = 1/2R·C2 Рmax cosωtR
(17)
ERA = 1/2R·Рmax
C2
(18)
Moving M+
and M- have characteristics of a magnetic field.
Intensity of a magnetic field of gravitation - is a gradient of quantity of
movement of a charge in the given point of space.
Intensity of an
electric field of gravitation and intensity of a magnetic field of the
gravitation, existing in P-0, are connected between itself
ratio
Е egR
= 1/R·Е egmax cosωtR
(19)
H gR = - d Е egR / d t = 1/R·Е
egmax
ω sinωtR
(20)
Intensity of a
magnetic field is vector size, as characterizes not only size, but also a
direction of moving of a charge.
Intensity of an
electric field of gravitation P-0 is identical to a gradient of the force
working on weight, and causing its moving.
Е egR
= fR
(21)
The force working on
area SR of a site of sphere of radius R, is
equal
F = fR SR
At action of force on
the distance of moving equal R, work is made
W = FR
(22)
It is obvious, that
work is made at moving weight from area with density Р10 in area with
density Р20. From here follows, that full energy of the charge
concentrated in volume V from here follows, is equal to quantity of this
charge.
EV = FR = fSR = Рav SR = Рav V
(23)
Where
Рav, -
average value of a denseness of a charge in volume V.
If the M+
and M- make fluctuations around of a zero level of
density Р0, and the minimal value of density thus is equal to
absolute zero Рmin=0 zero levels of density of M+ and can
be expressed M- generally as
Р0+ = 2Р0 - Р0- (24)
And the
energy of charges will be
EV+ = (2Р0 - Р0-)V (25)
EV+ = Р0- V
Full energy of volume
V
EV =
EV+ + EV- =
2Р0V
(26)
And
difference in magnitude of energy М+ and М-
ΔEV+ = EV+ -
EV- =
2(Р0 -
Р0-)V
(27)
From (26) follows,
that at any ratio Р0+и Р0- arising
during pulsations PUn, energy P-0, existing in its volume, does not
change. Thus P-0 absorbs weight which density raises, and gives weight which
density is reduced. At the same time, symmetric increase or decrease of density
of M+ and the M-, caused by imposing of
pulsations PUn№, changes internal energy P-0.
Thus, the pulsation of
size of charges of M+ and M- in volume P-0
is shown as cooperating electric, magnetic and force fields of gravitation, as
by one of forms of existence of a matter. The force field characterizes a
statics of Vacuum, the magnetic field characterizes movement of Vacuum, and the
electric field is a link between them and characterizes a potentiality of
dynamics of Vacuum.
Resulting value of intensity electric and magnetic
gravitational fields equally a vector difference of intensity these fields
created in M+ and M-. If to accept for a
positive direction of a vector of intensity of M+, we shall
receive
E eg =
E eg+ - E eg-
Н g = Н g+- Н g- (28)
Forwards
back
The Maximum
Knowledges (Rus)
Mathematical model
of the Space (Eng)
The Shop