Home | Contact us |
The
Supersymmetry
18th
March 2014
The string theory envisions a super-symmetry which correlates the force and matter in nature. The force is represented by bosons, whereas the matter is represented by fermions. Every particle observed in nature should have a super-partner, which LHC is supposed to prove at high energy scales (~TeV). So far we have not succeeded in doing so.
The world we exist in, has basic symmetries
such as translational symmetry, rotation
symmetry, and the symmetry with respect to the
inertial frames. If we could add the
super-symmetry to these symmetries, we should
be able to combine space-time with matter and
our description will be complete.
However it also means measurements in Planck's
domain, which implies the limits of our
capabilities. In other words if we can
think of the description in terms of discrete
measurement space, then the Planck's domain
will represent the minimum quantum of
discreteness. Thus measurements in this
region will require maximum capacity of the
observer i.e. they will not be easy to perform
with our current state of know-how.
Next. we provide the description with respect to the defined-origin which has an implicit symmetry we called Virtual Twin Symmetry or VTS. The quantum nature of the space is quite evident. The description of the nature as observer Obsj perceives it, is not assumed to be absolute but instead limited by the maximum of the observer's (Obsj's), capacity. The true character of Nature remains indeterminate at best for any observer, and hence VTS is a requirement for any description an observer can provide within his or her limited capacity.
![]() ![]() Information
on www.ijspace.org is licensed under a Creative
Commons Attribution 4.0 International License.
|
Previous Blogs: The cat in box The initial state and symmetries Incompleteness I Discrete measurement space The frog in well |