Gizachew Diga Milki | International Journal of Nanomaterials and Nanostructures | Vol 11, Issue 2 | ISSN: 2455-5584
Abstract
Carbon bears several important nanostructures including carbon quantum dots, Carbon nanotube,
fullerene, and Graphene. These nanomaterials are sensitive and wide area of research in
nanotechnology era and nanomedicine. The possibility of sensing, simulating, and performing
quantum computation at nanoscale makes carbon nanostructures quit suitable in quantum
teleportation, space probe studies, and artificial breathing. This research is focused on the impact
of such carbon based structure and quantum size effect on the quantum gravity waves. Thus, in
order to describe the phenomenon of quantum gravity and gravity wave, these carbon based
nanostructure are taken as the best space model. The properties characterizing the carbon
nanostructures as special materials in space probe studies is investigated. Particularly their
crystal structures, morphology, and shape enable performing both classical and quantum
mechanical calculations. CNTs, graphene, and fullerene are an idealized model of computing in
Cartesian coordinate, cylindrical coordinates, and spherical coordinate’s respectively. Hence,
basic properties ascribing the phenomenon of quantum gravity is visualized from the Einstein’s
General theory of relativity. The fact that Carbon nanotube and Graphene are used in light
weighted materials as well as 2D and 3D view, enables space observations and explorations
more efficient. The intimacy between the origin of carbon nanotube, fullerene, and supernova are
explored. In this research, the principal role of carbon nanostructures is studied for space
applications particularly, in VONA construction as a way of living in space. Moreover, the
principal role of carbon nanostructures and quantum confinement effect in quantum gravity is
discussed. Then the impact of quantum size and confinement effect in the development of
quantum gravity theory is seen.
Keywords: Carbon nanotube, fullerene, Graphene, nanotechnology, supernova, quantum gravity
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