The Creation of a High Equivalent Potential Temperature Reservoir in Tropical Storm Humberto (2001) and Its Possible Role in Storm Deepening

Thirty global positioning system dropwindsondes (GPS sondes) were used to identify and examine the creation of a reservoir of high equivalent potential temperature (θ e ) in the nascent eye of Tropical Storm Humberto (2001). The θ e did not increase in the high surface wind portion of the storm as i...

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Veröffentlicht in:Monthly weather review 2012-02, Vol.140 (2), p.492-505
Hauptverfasser: DOLLING, Klaus P, BARNES, Gary M
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description Thirty global positioning system dropwindsondes (GPS sondes) were used to identify and examine the creation of a reservoir of high equivalent potential temperature (θ e ) in the nascent eye of Tropical Storm Humberto (2001). The θ e did not increase in the high surface wind portion of the storm as it does in mature hurricanes; instead air spiraled into the light-wind center of the developing storm where it was trapped by subsidence under a mesoscale convectively generated vortex (MCV). An energy budget revealed that the inflow column took 7 h to reach the storm center during which a combined average surface enthalpy flux of ~230 W m −2 was diagnosed via the bulk aerodynamic equations. This estimate is close to the 250 W m −2 required for balance based on the energy acquired by the column. The high θ e in the lowest kilometer, overlain by a near dry-adiabatic layer under the anvil base, resulted in convective available potential energy (CAPE) exceeding 2500 m 2 s −2 . This conditionally unstable air later served as fuel for the convection within the nascent eyewall. The authors speculate that CAPE of such a large magnitude could accelerate the updraft and stretch the vorticity field, essentially turning garden-variety cumulonimbi into the vortical hot towers argued by several researchers to play a role in tropical cyclone formation and intensification.
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The θ e did not increase in the high surface wind portion of the storm as it does in mature hurricanes; instead air spiraled into the light-wind center of the developing storm where it was trapped by subsidence under a mesoscale convectively generated vortex (MCV). An energy budget revealed that the inflow column took 7 h to reach the storm center during which a combined average surface enthalpy flux of ~230 W m −2 was diagnosed via the bulk aerodynamic equations. This estimate is close to the 250 W m −2 required for balance based on the energy acquired by the column. The high θ e in the lowest kilometer, overlain by a near dry-adiabatic layer under the anvil base, resulted in convective available potential energy (CAPE) exceeding 2500 m 2 s −2 . This conditionally unstable air later served as fuel for the convection within the nascent eyewall. The authors speculate that CAPE of such a large magnitude could accelerate the updraft and stretch the vorticity field, essentially turning garden-variety cumulonimbi into the vortical hot towers argued by several researchers to play a role in tropical cyclone formation and intensification.</abstract><cop>Boston, MA</cop><pub>American Meteorological Society</pub><doi>10.1175/mwr-d-11-00068.1</doi><tpages>14</tpages><oa>free_for_read</oa></addata></record>
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source American Meteorological Society; EZB-FREE-00999 freely available EZB journals; Alma/SFX Local Collection
subjects Adiabatic
Aerodynamics
Aircraft
Anvils
Control algorithms
Convection
Convective available potential energy
Cyclones
Earth, ocean, space
Energy budget
Enthalpy
Equivalence
Equivalent potential temperature
Exact sciences and technology
External geophysics
Global Positioning System
Global positioning systems
GPS
Hurricanes
Inflow
Light
Mathematical analysis
Mesoscale vortexes
Meteorology
Positioning systems
Potential energy
Potential temperature
Quality control
Radiosondes
Reservoirs
Satellites
Software
Storms
Surface wind
Tropical cyclone formation
Tropical cyclones
Tropical depressions
Tropical storms
Updraft
Vorticity
Wind
title The Creation of a High Equivalent Potential Temperature Reservoir in Tropical Storm Humberto (2001) and Its Possible Role in Storm Deepening
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