Modelling the formation of atmospheric vortices on planet earth using a supersymmetric operator [Elektronisk resurs]

• Macrophysical phenomena, such as turbulence, vorticity are normally modelled using fluid-mechanical differential equations and geodesics systems. Other methods may also be of importance to the meteorology community, such as quantum physical operators. In this study we use a novel Hamiltonian and study the vortex formation in the atmosphere of planet Earth under the effects of the gravity density stratification and the electromagnetic field of the planet. The results propose that vorticity in the atmosphere (high and low pressure systems) is driven in major part by the interplay between the earths magnetic field and gravity density. The results show that the quantized behaviour of atmospheric vortices lies in their dominant occurrence on the northern and southern hemispheres. The use of quantum mechanical operators in modelling planetary vorticity reveals also that these vortices arise from the core of the planet and manifest in a most pronounced manner on the surface of the earth where gravity density is experiencing an abrupt phase change. Further research is made on combining this model with earths atmospheric parameters, such as ocean temperatures and circulation, terrestrial oscillation and the sun's magnetic field. The results are important for future developments of climate and weather prediction models. 

Ämnesord

Natural Sciences  (hsv)

Mathematics  (hsv)

Mathematical Analysis  (hsv)

Naturvetenskap  (hsv)

Matematik  (hsv)

Matematisk analys  (hsv)

Physical Sciences  (hsv)

Other Physics Topics  (hsv)

Fysik  (hsv)

Annan fysik  (hsv)

Subatomic Physics  (hsv)

Subatomär fysik  (hsv)

Physics with spec. in Atomic, Molecular and Condensed Matter Physics  (uu)

Fysik med inriktning mot atom- molekyl- och kondenserande materiens fysik  (uu)

Genre

government publication  (marcgt)

Indexterm och SAB-rubrik

Hamiltonian

operator

vorticity

planet

earth

gravity

magnetism