Overheat Instability in an Ascending Moist Air Flow as a Mechanism of Hurricane Formation
Andrei Nechayev, Alexander Solovyev

TL;DR
This paper proposes a universal instability mechanism in ascending moist air flows that explains hurricane formation through a reorganization of dissipative structures influenced by temperature and wind velocity changes.
Contribution
It introduces a theoretical model linking instability in moist air flows to hurricane formation, emphasizing the role of dissipative structure reorganization driven by temperature and wind velocity.
Findings
The instability mechanism can lead to hurricane eye formation.
Observational data supports the theoretical model.
Reorganization of dissipative structures is key to storm intensification.
Abstract
The universal instability mechanism in an ascending moist air flow is theoretically proposed and analyzed. Its origin comes to the conflict between two processes: the increasing of pressure forcing applied to the boundary layer and the decelerating of the updraft flow due to air heating. It is shown that the intensification of tropical storm with the redistribution of wind velocities, pressure and temperature can result from the reorganization of the dissipative structure which key parameters are the moist air lifting velocity and the temperature of surrounding atmosphere. This reorganization can lead to formation of hurricane eye and inner ring of convection. A transition of the dissipative structure in a new state can occur when the temperature lapse rate in a zone of air lifting reaches certain critical value. The accordance of observational data with the proposed theoretical…
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Taxonomy
TopicsTropical and Extratropical Cyclones Research · Meteorological Phenomena and Simulations · Climate variability and models
