 |
 |
[5] viXra:1106.0029 [pdf] replaced on 2013-04-19 11:27:51
Authors: Johan Noldus
Comments: 243 Pages.
This adventure started out as a paper, but soon it grew considerably in size
and there was no choice left anymore but to present it as a full blown book
written in a style which is intermediate between that of an original research
paper and that of a book. More precisely, I opted for a style which is somewhat
between the historical and axiomatic approach and this manuscript can
therefore be read from di erent perspectives depending upon the knowledge and
skills of the reader. Since quantum gravity is more than a technical problem,
the mandatory sections constitute the introduction as well as the technical and
axiomatic framework of sections seven till eleven. However, the reader who is
also interested in the philosophical aspects as well as a general overview of the
problem is advised to study sections two and three as well. The critical reader
who is not willing to take any statement for granted should include also sections
four till six, since these are somewhat of a transitional nature closing the gap
between the conservative initial point of view and the new theory developed
later on. Lecturing about this work made me aware that there is also a more
direct way to arrive in Rome and for that very reason, this introduction is also
split into two parts. The rst one takes the conservative point of view as it is
done by the very large majority of researchers which necessitates a careful and
precise way of phrasing the content; the second approach however is more bold
and direct but goes, in my humble opinion, much more economic to the heart
of the matter. I believe that the variety of presenting the same material in this
introduction will allow the reader to choose which way he prefers to follow.
Category: Quantum Gravity and String Theory
[4] viXra:1106.0028 [pdf] replaced on 2012-03-03 05:45:51
Authors: Johan Noldus
Comments: 14 Pages.
In quantum gravity, one looks for alternative structures to spacetime
physics than ordinary real manifolds. In this rst part, we propose an
alternative universal construction containing the latter as an equilibrium
state under the action of the universal diffeomorphism group. Our theory
contains many other previous proposals in the literature as special cases.
However, the crucial point we make is that those have to be appreciated
in the universal context developed here.
Category: Quantum Gravity and String Theory
[3] viXra:1106.0016 [pdf] submitted on 10 Jun 2011
Authors: Meir Amiram
Comments: 2 pages
In Article 1 I concluded that there is an elementary mass particle EMP, comprising a
GG which is no less and no more than a mechanism capable of receiving a particular
input from its environment and of returning a particular output to the environment,
within a particular time frame[1]. In the present article, I deduce that said time frame
is divisible into three non overlapping time intervals: T1 stands for the time interval
during which the particle receives the input; T2 stands for the time interval during
which the input is processed by the particle; and T3 stands for the time interval during
which an output is returned from the particle to the environment.
Category: Quantum Gravity and String Theory
[2] viXra:1106.0008 [pdf] submitted on 6 Jun 2011
Authors: Meir Amiram
Comments: 4 pages
This is the first in a series of short
articles disclosing MCS Physics. Here
I present the logic leading to conclude
that (i) there is an elementary mass
eM, which is the smallest mass in
existence (thus also the smallest
bundle of reciprocal mass - energy
conversion according to E=MC2),
from a plurality of which any greater
mass is composed; (ii) a fundamental
mass particle (hereinafter abbreviated
EMP for Elementary Mass Particle)
exists, which caries the elementary
mass eM; (iii) what we use to name
elementary particles are actually
composed constructions comprising
multitudes of EMP; and (iv) Each
EMP comprises a mechanism capable
of receiving a particular input from its
environment and of returning a
particular output to the environment,
within a particular time frame. The
mechanism results in both: acquiring
mass and generating gravity.
Category: Quantum Gravity and String Theory
[1] viXra:1106.0005 [pdf] submitted on 6 Jun 2011
Authors: Mark A. Newstead, Stephen C. Newstead
Comments: 5 pages
In previous papers we have proposed that the mass of an electromagnetic wave
is dependent upon its speed. This relationship is such that when the wave is
travelling at the speed of light it has no mass, but its mass monotonically
increases as the wave slows down (i.e. the wave has mass when it is passing
through a medium). In this paper we propose an experiment that would be able
to determine whether electromagnetic waves have mass when they are not
travelling at the speed of light. Also the experiment would be able to determine
whether the wave�s frequency affects the wave�s mass for a given speed.
Category: Quantum Gravity and String Theory
| Third-Party Links: |
|