Some Questions of the Special Relativity

Part 3.

Back to part 1: Three types of velocities. Rapidity parameter y and rapidity r.

Back to part 2: Interval. Four-dimensional velocities. Types of acceleration. Four-accelerations. Relativistic rocket.


Different forms of space-time transformations

Here are the most popular transformations:

(1)
x' = (x - vt) / sqr(1 - v2/c2);
t' = (t - vx/c2) / sqr(1 - v2/c2).

Using sqr(1 + b2/c2) = 1/sqr(1 - v2/c2) = g, and b = vg, we'll have:

(2)
x' = xg - bt;
t' = tg - bx/c2.

Using g = chy and b/c = shy, we'll have:

(3)
x' = x chy - ct shy ;
ct' = ct chy - x shy.

(4)
x' = x ch(r/c) - ct sh(r/c) ;
ct' = ct ch(r/c) - x sh(r/c).

Using cos iy = ch y and sin iy = i sh y, we'll have:

(5)
x' = x cos iy + ict sin iy ;
ict' = ict cos iy - x sin iy.

Compare these transformations (turn in the complex space-time) with usual turn in Euclidean space:

x' = x cos j + y sin j ;
y' = y cos j - x sin j.

On the bottom figure one can see the turn in the complex space-time. The main difference of pseudo-Euclidean turn from the Euclidean turn is the fact that the pseudo-Euclidean axes move towards each other.

Fig 2. Pseudo-Euclidean circumference. This circumference is torn in four points. In fact here we have two pseudo circumferences, described by equations x2+(ict)2=1; x2+(ict)2=-1. The interval from the center of the figure to any point of the right or left hyperbole is equal to 1. The interval from the center of the figure to any point of the upper or bottom hyperbole is equal to i. The interval from the center of the figure to any point of asymptotes, painted in red, is zero. Rapidity parameter y is numerically equal to the length of the arc of a pseudo circumference, painted in dark-grean. The length of right arc has the imaginary value iy. The length of upper arc has the real value y. The value y is also equal to the doubled surface of the figure painted in gray color. The figure is build for the velocity v=0,6c. Yellow lines show the world strip of the one-meter moving rod. The slope of the lines corresponds to constant time in the moving system.

Using the formula tgf = thy, we can write one more form of one and the same space-time transformations:

(6)
x' = (x - ct tgf) / sqr(1-tg2f);
ct' = (ct - x tgf) / sqr(1-tg2f).

Quantable velocity.

Special Relativity is not the quantum theory. In this work (Space Genetics) there was supposed that the velocity of elementary particle cannot have continuous spectrum of values. Velocity can change by small portions. Nonzero rest mass particle cannot have no zero velocity, no velocity of light. Macroscopic object can have zero velocity, because it consists of the variety of particles. Let it has two particles. If one particle moves with minimal possible velocity in one direction, and if another particle moves with the same velocity in the opposite direction, then this two-particle object has the zero velocity. This two-particle object we also could name the elementary particle. But in order to avoid contradictions, let's believe, that it is a composite object. Moreover, in this work it was supposed that the elementary particle is composite itself. It leaves by flashing. Two or three defect links of the space-time lattice move by quasi-closed circumferences with c-velocity and collide one another. At the times of their collisions the particle is materialized. In the period between collisions the particle does not exist. Massless elementary particles (photon, graviton, and may be neutrino) move with velocity c, and are defect links themselves. That is way it is better to name them no elementary particles, but the defect links of the space-time lattice, or shortly, - links.

In 2007 I had made the program of moving electron. Look it in order to better understand the bottom text.

After I have read the book "Four-dimensional world of Minkovskij" (the autor Sazanov A.A.) and I had ask myself:

1. Can something material move along pseudo-circumference?

2. How many pseudo-circumferences are made by these four hyperboles?

Now I can answer.

1. Yes. This rotation corresponds just to the model of elementary particle, and named it then the quasi closed circumference. But then I imagined it as euclidean one, and now I see it is pseudo-euclidean.

2. For hyperboles give two pseudo-circumferences. The first with the radius, equal to r, is composed from left and right hyperboles. Its relativistic length is equal to 2pri. The second, made from bottom and top hyperboles, has radius ir and relativistic length 2pr.

Let in a point x=0 there is a transparent positive elementary charge. Let electron move along the straight line between points x1 = -R; x2 = R. Electron constantly changes its velocity and as a result, it constantly changes the reference frames. Axes turn and draw same curves. Numerical modeling had shown, that in order the image of electron draw the ideal pseudo-circumferences, it must to start its dropping on positive charge from R=rcl, there rcl is the classic radius of an electron.

Let's make more precise terminology. Let along the axis moves the electron itself.  Let electron's images or links move along hyperboles. Further we'll see that moving links draw circumferences around the point x=0 and ict=0. Pay attention: ict=0 constantly. 

Velocity of electron changes from zero to velocity of light. But what is the velocity of links? At the period of one full rotation they run over the whole Universe. Absurd? No. They move not only in space, but in space-time. We must take into account the relativistic length. Every small part of hyperbole must be divided by coefficient

g = chy = 1 / (1- (v/c)2)1/2.

Thus we will have relativistic length of element of upper or bottom hyperbole: dl = rcldy/chy. Taking the integral from 0 to infinity we'll have prcl/2. That is the relativistic length of one half of this hyperbole. The whole rotation of one link of electron takes two hyperboles and it covers the relativistic length l1 = 2prcl. The second link of electron moves on right and left hyperboles and covers the relativistic length l2 = 2pircl.

Let radius of rotation will be equal to 1, then we will can receive the angle Q = oIy dy / chy which can named the parameter of quantable velocity. And as a result we can introduce the quantable velocity vq itself, which can be received from equation vq/c = Q. The value vq has minimum vq_min=-pc/2 under Q =-p/2; and maximum vq_max=pc/2 under Q =-p/2.

It is not difficult to receive the following connections:

x = rclcosQ; ict=rclsinQ.

Seventh type of space-time transformations:

x' = (x - ct sinQ)/cosQ;
ct' = (ct -x sinQ)/cosQ.

Connections between different types of velocities:

vt/c = sinQ = sin(vq/c);
vt/c = tgQ = tg(vq/c);
g = 1/cosQ= 1/cos(vq/c);
vt/c = thy = th(vy/c);
vt/c = shy=sh(vy/c);
g = chy=ch(vy/c);
th(y/2) = tg(Q/2).
thy=tgf,
tg(p/4 + Q) = (tg(p/4 + f))1/2.

Look, it's beautifull:

dv/dt = g0dv/dt; - - - - - - - - - -
dvq/dt = g1dv/dt; dv/dt = g1dv/dt;
dvy/dt = g2dv/dt; dvq/dt = g2dv/dt;
dvt/dt = g3dv/dt; dvy/dt = g3dv/dt;
- - - - - - - - - - ; dvt/dt = g4dv/dt.

More in my Russian-language pages 10, 11.

Let's receive the minimal and maximal values using N, - the big quantum number of space-time lattice.

Qmin = Q1 = oIy1 dy / chy = (p/2) / N = p / 2N.

Q2 = oIy2 dy / chy = p / 2N + p / N = 3p / 2N.

Q3 = oIy3 dy / chy = p / 2N + 2p / N = 5p / 2N.

Qn = oIyn dy / chy = p / 2N + (n-1)p / N = (2n-1)p / 2N.

Qmax = (N -1)p / (2N) = p / 2 - p / 2N.

Using: tg(Q/2)= th(y/2)

yn = 2Arth(tg(Qn/2)) = ln((1+tg(Qn/2))/(1-tg(Qn/2))) = ln(tg(p/4 + Qn/2))

ymin = p / 2N,

ymax = ln(4N/p).

Using: v=c sinQ

vn = c sinQn= c sin((2n-1)p / 2N).

vmin = cp / 2N.

vmax /c = sinQmax = sin(p / 2 - p / 2N) = cos(p / 2N) =
= (1- (sin(p / 2N))2) 1/2 = (1- (p / 2N)2) 1/2 =
= 1 - p2 / 8N2.

Using: vt=c tgQ

vt,n = c tgQn = c tg((2n-1)p / 2N).

vt,min = c tg(p / 2N) = cp / 2N.

vt,max /c = shymax = sh(ln(4N/p)), Arsh(vt,max /c) = ln(4N/p),
ln(vt,max /c + ((vt,max /c)2 +1)1/2) = ln(4N/p)
vt,max/c = 2N/p.

Using: g = 1/cosQ = chy

gn = 1/cosQn = 1/cos((2n-1)p / N).

gmin = 1/cosQmin = 1/cos(p / 2N) = 1 / (1 - p2 / 8N2) = 1 + p2 / 8N2.

gmax = 1/cosQmax = 1/cos(p/2 - p / 2N) = 1/sin(p / 2N) = 2N/p.

 

If gmax = 2N/p, then:

rcl' = rcl / (2N/p),

rcl' = (e2 / (4pe0mc2)) / (2(ap / df)1/2/p),

rcl' = (hG / 8c3)1/2.

Classic radius of electron, moving with maximal possible velocity, is equal to Plank length with slightly different coefficient. Compare:

rPl = (hG / 2pc3)1/2.

 

Analogously we can receive the value for relativistic mass of an electron, moving with maximal possible velocity

mr = m0 2N/p.

mr = (a/p)(2hc / G)1/2.

Compare:

mPl = (hc / 2pG)1/2.

One more conclusion: For observer, moving with maximal possible velocity, the Universe will look contracted to graviton-photon boundary wave-length, l0p/2.

This observer will cross it by the boundary time

t = (l0p/2) / vq.max = (l0p/2) / vq.max = (l0p/2) / (cQmax) = l0/c = t0.

Back to part 1: Three types of velocities. Rapidity parameter y and rapidity r.

Back to part 2: Interval. Four-dimensional velocities. Types of acceleration. Four-accelerations. Relativistic rocket.


To index of Space Genetics.

Ivan Gorelik.

My Curriculum Vitae.


TopList


My VB-program SR2007.exe proves that the electron is not a point, but a string, embracing the whole Universe in a period, equal to electron's classic period.

Particles sew and stitch the space-time, constantly recharging electric and colour field, which are constituent subspaces of our whole macroscopic space-time.

Interested? Then go to the index of Space Genetics


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