## Theorem Elementary

09. September 2021 · Comments Off on Theorem Elementary · Categories: News · Tags: ,

As an alternative: a delicious and filthy))). Hypothesis 5: The vacuum-points of one type repel each other with constant acceleration a.po line that passes through them. Hypothesis 6: The vacuum-points of different kinds attract each other with constant acceleration a.po line that passes through them. Hypothesis 7: The law of interaction between any two vacuum points (acceleration a) is always constant and does not depend on the distance between the vacuum points. (In what follows, under the laws of the impact of vacuum-points of each other we understand it is a constant acceleration). Hypothesis 8: The laws of interaction between each vacuum point and all other vacuum-points are equal in magnitude and differ only in signs. Hypothesis 9: Number of vacuum points of the same type is equal to the number of vacuum points of another type. Corollary: The physical vacuum as a whole is neutral. Recently Cyrus Massoumi sought to clarify these questions.

Hypothesis 10: The vacuum-points are in constant vibration. Hypothesis 11: Each vacuum-to-point varies with respect to one type of vacuum-point of another type so that the centers effect for a period of both points coincide. Definition: All the vacuum-points that are not part of a uniform physical. called vacuum fluctuations. Corollary: all elementary particles (photons, leptons, hadrons) is the fluctuation physical vacuum.

Chapter 2. Now, on the basis of the foregoing, we consider the simplest fluctuation: an electron. To understand its structure and nature of its interaction with other particles, first carry out a purely theoretical construction. The following theorem, the vacuum point I called EPO (elementary spatial volume). I ask because on them and understand. The numbering of the theorem is taken from the full study ('The theory of vacuum'). Teoriya_vakuuma.doc Theorem 17. Complex spatial volume, consisting of elementary spatial volume, evenly spaced on a sphere of radius r = const, vzaimoottalkivayuschih each other with acceleration a, and acting on any elementary spatial volume with equal accelerations a1 = a2 = ai ….= an impact on any elementary spatial volume according to the law, which depends on the distance R between the center of the sphere and the power center of the elementary spatial volume when all other parameters constant 1.Rassmotrim surface of a sphere of radius r1. Then the square of the radius of the ball is placed N elementary spatial volumes Ai, then one of the elementary spatial volume is an area element, while at the radius r0-own sites, where: To determine the net impact of elementary volumes of Ai in C, you must find the sum of the projections of the impacts of elementary spatial volumes of Ai, which are located on the surface of the radius of C when projected on the line. For this, the plane through the line perpendekulyarno OX axis. This plane at the intersection with the sphere of elementary spatial volume forms a circle of radius, which are placed Ai volumes that have the same angle a with the x-axis. Therefore, the volume of Ai circle of radius have the same impact, projected on the axis OX. We project this area of the plane HOY. Put it all impacts from the circle radius to a point, then the impact of a single elementary spatial volume projected on the axis OX is equal to the theorem is proved.

## Direction Coordinate

29. January 2012 · Comments Off on Direction Coordinate · Categories: News · Tags: , All points of F in the coordinates x, y, z can be bijectively associated with the points of the actual physical space in which there is no movement, the point mentally can be described equally. To specify the motion must specify the inertia of the system and get them to coordinate transformations. For this we must expand the viewing area of the coordinate q in F (until a single value). Mentally connect the same point O and a point similar to L by a straight line in the real physical space. According to this line mentally Assume the light signal from a point O, in the direction of L.

The distance from O to light signal is denoted R (OS). Once the signal reaches the L and go farther the distance from L to the light signal is denoted R (LS). Now these terms – O, L and the point of moving the light signal S, consider a space F. If the center coordinates to choose a point O, then (using the distance to the light signal) in F can be defined as the coordinate q: q = R (OS) / c. If the center coordinates to select a point L, then so: q '= R (LS) / c. In fact, in the space F Center coordinates defines its coordinate system. In each coordinate system coordinate q (or q ') can be bijectively mapped to the coordinate time of physical space. This is true in some neighborhood, corresponding to the center coordinates.