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On the Internal Processes Modulating Tropical Cyclone Intensity: Turbulent Stresses and Submesoscale Dynamics

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posted on 2024-10-21, 15:46 authored by Chibueze Nnamdi Oguejiofor
Forecasting rapid intensity changes in hurricane intensity continues to evade current weather forecasting models, largely due to the multiscale dynamics of hurricanes. Typically, dynamical processes with scales below that of the forecasting model are parameterized. Thus, a clear understanding of the physics of these processes (from submesoscale to turbulent scale) is paramount to hurricane intensity forecast improvement. This dissertation presents some progress in the characterization of turbulent eddies, their influence on hurricane mean intensity and the kinematics of their evolution as they relate to extreme Reynolds stress occurrence in the hurricane boundary layer. In addition, a framework for the representation of multiscale sea surface temperature (SST) anomalies, constrained by realistic satellite observations in rapidly intensifying storms, is presented. The results from this dissertation is expected to guide the improvement of turbulence parameterization schemes as well as the prediction of hurricane rapid intensification in current operational weather forecasting models.

History

Date Created

2024-10-18

Date Modified

2024-10-21

Defense Date

2024-09-23

CIP Code

  • 14.0801

Research Director(s)

David Richter

Committee Members

Paola Crippa Joannes Westerink George Bryan

Degree

  • Doctor of Philosophy

Degree Level

  • Doctoral Dissertation

Language

  • English

Library Record

006629788

OCLC Number

1462899530

Publisher

University of Notre Dame

Additional Groups

  • Civil and Environmental Engineering and Earth Sciences

Program Name

  • Civil and Environmental Engineering and Earth Sciences

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