The irreversibility of the arrow of time in Space

The irreversibility of the arrow of time in Space

Abstract: In accordance with the law of conservation of momentum,

it is shown that the photon at when propagated in outer space, it

loses its energy to radiation gravitational waves. With the complete

loss of its energy, the photon disappears into the cosmic space. The

loss of electromagnetic energy per linear meter is shown.

Keywords: arrow of time, the property of a photon to emit gravity, A

property of the physical vacuum.

The irreversibility of the arrow of time in Space

Author: Yanbikov Vildan Shavkyatovich. Volgograd.

vildyanyanbikov@yandex.ru

Abstract: In accordance with the law of conservation of momentum,

it is shown that the photon at when propagated in outer space, it

loses its energy to radiation gravitational waves. With the complete

loss of its energy, the photon disappears into the cosmic space. The

loss of electromagnetic energy per linear meter is shown.

Keywords: arrow of time, the property of a photon to emit gravity, A

property of the physical vacuum.

I. Introduction

In the special theory of relativity, it is assumed that a photon

does not lose its energy when it propagates in outer space. On the

basis of this assumption, the theory of the expansion of outer space

was constructed. Propagating in outer space, the photon interacts

with the matter of the physical vacuum (transmits to it a part of its

momentum). The particles of the physical vacuum begin to make

damped oscillations near the center of their equilibrium along the

path of the photon. During these is how electromagnetic energy is

converted into gravitational energy. At the end of its trajectory, the

photon disappears from outer space.

II. The basic part

Experimentally, the deflection of the rays towards the Sun

was detected. The photon received an impulse directed to the

center of the Sun. From the law of conservation of momentum. The

sun received the same impulse in the direction of the photon's

trajectory. The sun received the same impulse in the direction of the

photon's trajectory. It has a strong effect on the Sun. Consider the

mechanism of photon emission of gravitational waves. During the

propagation of the photon in the physical vacuum. It should be

assumed that the photon interacts with the matter of the physical

vacuum. Assume that the photon shifts the particles of the physical

vacuum from the equilibrium position along the path of the photon

(Fig. 1). Particles of the physical vacuum begin to make damped

oscillatory movements along the photon trajectory. When a photon

interacts with a physical vacuum substance. Part of the photon pulse

is transmitted to the particles of the physical vacuum. When the

particles of the physical vacuum vibrate. Gravitational waves are

emitted in a perpendicular direction to the photon trajectory (Fig. 1).

The photon loses its energy until it completely disappears. To prove

that gravitational energy is radiated from the photon's trajectory. In

the form of high-frequency gravitational waves. You can set up an

experiment (Fig. 2). For rice.2 shows a cylindrical glass flask installed

so that the line A B is directed vertically upwards. Volume V is filled

with water in which the smallest particles of an opaque substance are

suspended. Through channel A B that is not filled with water. A

powerful light beam is emitted from a laser radiation source. After

some time, the particles of the opaque substance will gather along

the AB channel. This means that the photon has the property of

attracting matter to its trajectory. A photon can be taken as an

oscillating system (clock). With a changing oscillation period. The

period of oscillation of these watches is increasing. Until the source

of vibrations (hours) completely disappears. Hence the conclusion

that the arrow of time on the scale of Space is always directed only in

one direction. And it can't have a reverse direction. For Fig.1. shows

a diagram (plots) of the propagation of gravitational energy from the

photon trajectory. Calculate the average energy emitted by a photon

from the linear meter of the photon trajectory for green (λ = 555nm).

The average energy emitted by a photon from a linear meter

is determined from the formula ε = hν/1025 D j= 3.6/1044 D j. Where

1025 is the horizon of visibility of the Universe. For Fig.1. shows the

notation: OZ – photon trajectory; H-direction of propagation of

gravitational waves.

III. The conclusions

“The” reddening " of a photon as it propagates through outer

space casts doubt on the Big Bang theory.

В

Fig. 2.

Fig.1.