Could you give me a good reference, please, of Kaluza's work? Did he work with complex numbers?
In regards to superstring theory I was wondering if with it, not only predictions of the so-called normal science are preserved but even most importantly all those equations such as the SWE, the equations of the Lorentz transformation group, the equations of the normal planets behaving as an ellipse, the deviation of Mercury in regard to the normal equation, and finally can it document the pendulum formula? Or does it not have to do anymore with these classical matters, but just with the chemistry of nuclear interactions?
And yes, this generalization of space dimension including time is something I really would not buy, as it seems to me it is derived from a point of view in which duality is not rationalized, as when was written:
"...if the ds belonging to the element DX1...DX4 is positive, we follow Minkowski in calling it time-like; if it is negative, we call it space-like..."
or
"Thus, according to the general theory of relativity, gravitation occupies an exceptional position in regard to other forces, particularly the electromagnetic forces, since the ten functions representing the gravitational field at the same time define the metrical properties of the space measured." A.Einstein
For "seeing" all these matters properly, should we not have kind of meta-system that even can tend a bridge to life?
Regards
EP
Antonio Lao said:
Isn't this what Kaluza did in 1919? And I think superstring theory carried this to 10D and 11D.
I really would like to make dimension layering a conceptual base on 3D. So that 4D is really a higher layer 1D (4 - 3 = 1), 5D is 2nd layer 2D (5 - 3 = 2), 6D is 2nd layer 3D (6 - 3 = 3), ..., 10D is 4th layer 1D ( 10 - 3 - 3 - 3 = 1), 11D is 4th layer 2D (11 - 3 - 3 - 3 = 2).