06.10.2013 Aufrufe

The 'New Berlin' base: Nazis in the Antarctic - Project Camelot

The 'New Berlin' base: Nazis in the Antarctic - Project Camelot

The 'New Berlin' base: Nazis in the Antarctic - Project Camelot

MEHR ANZEIGEN
WENIGER ANZEIGEN

Erfolgreiche ePaper selbst erstellen

Machen Sie aus Ihren PDF Publikationen ein blätterbares Flipbook mit unserer einzigartigen Google optimierten e-Paper Software.

<strong>The</strong> Time-Delay:<br />

<strong>The</strong> Time-Delay is here of course as tall as <strong>in</strong> <strong>the</strong> o<strong>the</strong>r Cruise of E<strong>in</strong>ste<strong>in</strong>. Be-<br />

cause <strong>the</strong> 4-thread <strong>in</strong> <strong>the</strong> fourth room-direction is here as long as <strong>in</strong> <strong>the</strong> o<strong>the</strong>r<br />

E<strong>in</strong>ste<strong>in</strong>-Cruise. That is why time will past here as well √ 1 – ( V3 / C) 2 times slower<br />

than <strong>the</strong> “real time” (time of an not through <strong>the</strong> e<strong>the</strong>r mov<strong>in</strong>g object).<br />

<strong>The</strong> Room-Contraction:<br />

In this room-direction you will f<strong>in</strong>d no Room-Contraction. Because <strong>in</strong> this<br />

direction <strong>the</strong> e<strong>the</strong>r has <strong>in</strong> all room-directions normal thickness.<br />

<strong>The</strong> Velocity of light:<br />

In this E<strong>in</strong>ste<strong>in</strong>-Cruise now, <strong>the</strong> light <strong>in</strong> all room-directions has <strong>the</strong> same<br />

velocity. To <strong>the</strong> left side for example, it has <strong>the</strong> velocity:<br />

room /time = √(c 2 – v 3 2 ) / √(c 2 – v3 2 = 1 /1 = 1 or C<br />

And <strong>in</strong> <strong>the</strong> opposite direction <strong>the</strong> light has <strong>the</strong> velocity:<br />

room /time = √(c 2 – v 3 2 ) / √(c 2 – v3 2 = 1 /1 = 1 or C<br />

So <strong>in</strong> <strong>the</strong>se room-directions you as well will measure <strong>the</strong> velocity of light as C between two mirrors.<br />

Fur<strong>the</strong>r Room-directions (Ergänzung von mir):<br />

And <strong>in</strong> all fur<strong>the</strong>r room-directions you will get as well <strong>the</strong> same result for <strong>the</strong> velocity of light between two mirrors. All this<br />

you can see at <strong>the</strong> follow<strong>in</strong>g equations and pictures:<br />

_______ c<br />

√ c 2 – v3 2 P2<br />

va v3 α<br />

P1<br />

z • x<br />

vb ___ ___<br />

y with : vb = P1P3 and va = P1P2<br />

and with: α є (0, 90°)<br />

P3<br />

______________________<br />

<strong>The</strong>n is : cos(α) = X /(v3/C) x = cos(α) • (v3/C) va = y + z = √1–cos(α) 2 •(v3/C) 2 + s<strong>in</strong>(α)•(v3/C)<br />

s<strong>in</strong>(α) = Z /(v3/C) z = s<strong>in</strong>(α) • (v3/C)_____ √1 –(v3/C) 2 .<br />

x 2 + y 2 = c 2 y = √1 – cos(α) 2 •(v3/C) 2 vb = y - z = √1 – cos(α) 2 •(v3/C) 2 - s<strong>in</strong>(α)•(v3/C)<br />

√1 –(v3/C) 2<br />

________<br />

Addition: <strong>The</strong> factor √1 –(v3/C) 2 comes from <strong>the</strong> constant time-contraction <strong>in</strong> <strong>the</strong> with <strong>the</strong> velocity v3 mov<strong>in</strong>g<br />

object. <strong>The</strong> thickness p of <strong>the</strong> e<strong>the</strong>r <strong>in</strong> <strong>the</strong> watched mov<strong>in</strong>g-direction is <strong>the</strong>n:<br />

p = va + vb = 2 √1–cos(α) 2 •(v3/C) 2<br />

2 2 √1 –(v3/C) 2<br />

And <strong>the</strong> velocity of light <strong>in</strong> <strong>the</strong> direction of mov<strong>in</strong>g is <strong>the</strong>n between two mirrors:<br />

ttog. = S /va + S /vb = s (va + vb) = 2 s √1–cos(α) 2 •(v3/C) 2 (cause va • vb ≡ 1)<br />

2 2 va vb 2 √1 –(v3/C) 2<br />

That means that <strong>the</strong> light has between two mirrors for different angles α (different mov<strong>in</strong>g directions) always <strong>the</strong><br />

velocity v(α) ≈ c • √1 –(v3/C) 2 ____ . Because of <strong>the</strong> <strong>the</strong> field-thickness p = √1–cos(α) 2 •(v3/C) 2 <strong>in</strong> <strong>the</strong>se “α”-<br />

√1–cos(α) 2 •(v3/C) 2 √1 –(v3/C) 2<br />

directions light <strong>the</strong>n always only can move with <strong>the</strong> light-velocity C from one mirror to an o<strong>the</strong>r mirror and back<br />

<strong>in</strong> <strong>the</strong>se room-directions. Cause v(α) • p ≡ 1 for all angles α! So as you see, everywhere <strong>in</strong> <strong>the</strong> room one only can<br />

measure <strong>the</strong> velocity of light between two mirrors as C and as noth<strong>in</strong>g else. For this it does not matter, if you<br />

have a velocity V * <strong>in</strong> a 5. or 6. room-direction or not. That is why c is always equal to <strong>the</strong> velocity K <strong>in</strong> your own<br />

object-time.<br />

351

Hurra! Ihre Datei wurde hochgeladen und ist bereit für die Veröffentlichung.

Erfolgreich gespeichert!

Leider ist etwas schief gelaufen!