Hurricane Airborne Observation and Emerging Technologies

AOML's Hurricane Observation & Emerging Technologies Program

Observing Hurricanes Using Airborne and Experimental Technologies

Quiénes somos

Objetivos

Our objective is to obtain observations in and around tropical cyclones to improve our understanding of their structure and intensity change, especially in regions that have historically been difficult to observe.  We also seek to test emerging technologies to improve the quality of such observations.

Activities

Observations of tropical cyclones are integral to understanding changes to their track, intensity, and structure, and to improving the model systems used to make forecasts of their impacts.

Researchers at AOML develop and deploy an array of instruments and emerging technologies to measure conditions in and around tropical cyclones, work on quality control and transmission of the data to operational centers for data assimilation into models, validate new and remote observational platforms including satellites, and develop and verify optimal sampling strategies for forecast improvement.

The data from these instruments are vital to enhance forecasters’ understanding of tropical cyclone dynamics and physics behavior and their representation in numerical models and to improve hurricane prediction models, leading to better preparedness and response strategies.

The annual Hurricane Field Program has a variety of experiments to research the tropical cyclone lifecycle, from genesis to decay, as well as ocean observations and satellite validation, all in support of NOAA’s Advancing the Prediction of Hurricanes Experiment (APHEX). APHEX broadens the goals of the 2005-2020 Intensity Forecasting EXperiment by incorporating current, 5-year Hurricane Forecast Improvement Program (HFIP) priorities around better forecasting and communicating for all hazards (wind, rain, surge, and tornadoes).

In partnership with NOAA’s Environmental Modeling Center; National Hurricane Center; Aircraft Operations Center; National Environmental Satellite, Data, and Information Service; and AOML’s Physical Oceanography Division, the goal of APHEX is to improve understanding and prediction of hurricane track, intensity, three-dimensional structure, and hazards by collecting observations that will aid in the improvement of current operational hurricane models, such as the Hurricane Analysis and Forecast System (HAFS) model, and the development of the next-generation operational model and data assimilation systems.

AOML seeks to test new observing systems and concepts of operations to improve the scientific understanding and prediction of tropical cyclones (TCs). NOAA’s Emerging Technologies TC Team investigates, tests, and implements new and promising technologies that sample atmospheric and oceanic environments that are either too dangerous or too difficult for direct human observation.

Airborne Observation Team

⨕  George (Trey) Alvey III, Ph.D ⨕

⨕ Neal Dorst ⨕

⨕  Jason Dunion, Ph.D. ⨕

⨕ Heather Holbach, Ph.D.⨕

⨕  Paul Reasor, Ph.D. ⨕

⨕  Jun Zhang, Ph.D. ⨕

⨕  John Gamache, Ph.D. ⨕

Voluntario

Emerging Technology Team

⨕  Guo Lin, Ph.D ⨕

⨕  Jun Zhang, Ph.D. ⨕

⨕  Xuejin Zhang, Ph.D. ⨕

⨕  Annette Hollingshead ⨕

Noticias principales

AOML scientists prepare for an active 2025 hurricane season

The 2025 Atlantic hurricane season started on June 1 and runs through November 30. NOAA predicts a 30% chance of a near-normal season, a 60% chance of an above-normal season, and a 10% chance of a below-normal season in the Atlantic basin this year: NOAA’s Atlantic Oceanographic and Meteorological Laboratory (AOML) will work with partners […]

A satellite image of a hurricane approaching the east coast of the United States from the Atlantic Ocean.
A view from inside the cockpit of a NOAA WP-3D Orion hurricane hunter aircraft flying through a storm. A group of 4 aviators and hurricane scientists sit in the cockpit navigating the plane looking out at the view of the sky.
Jason Dunion, Ph.D., stands over a P-3 Orion Hurricane Hunter research station in conversation with a fellow meteorologist analyzing data. Both researchers are sporting royal blue Hurricane Hunter flight suits while looking at data on computers and other intstruments.
View from navigator's station aboard a NOAA hurricane hunter plane in the eye of Hurricane Milton. Taken approximately 10 a.m. on October 9, 2024. Lieutenant Commander Andrew Utama, NOAA Corps. (Image credit: NOAA plane in the eye of Milton. 10/9/24.)
Photograph film reels appear as diagonal strips from left to right across the image. Each photo within the reel features an instrument used for oceanography or hurricane research including CTDs, buoys, dropsondes, ocean gliders, drifters, saildrones, Argo flots, XBTs, and more. Snow clusters are fall overtop the images. An opaque white box with a black shadow is central with

Our Hurricane Field Program

Each year AOML scientists participate in the Hurricane Field Program (HFP) monitoring instruments aboard the NOAA aircraft. These scientists are both onboard the aircraft and participating remotely from the ground.  Tasks include quality controlling dropsonde data before it is sent out to the network, processing Tail Doppler Radar to produce wind fields of the hurricane’s inner core, and providing real-time scientific input for the execution of flight patterns, target selection, etc..

Monitorizando el UAS del Coyote en vuelo desde la estación de pilotaje en el P3. Crédito de la imagen: NOAA

Recent Research

Publicaciones

Rojas, B.S., A.C. Didlake Jr., and J.A. Zhang. Asymmetries during eyewall replacement cycles of Hurricane Ivan (2004). Monthly Weather Review, 152(8):1741-1761, https://doi.org/10.1175/MWR-D-23-0129.1 2024 FY2024

Shimada, U., P.D. Reasor, R.F. Rogers, M.S. Fischer, F.D. Marks, J.A. Zawislak, And J.A Zhang. Shear-relative asymmetric kinematic characteristics of intensifying hurricanes as observed by airborne Doppler radar Monthly Weather Review, 152(2):491-512, https://doi.org/10.1175/MWR-D-22-0340.1 2024 FY2024

Rogers, R.F., and J.A. Zhang. Airborne Doppler radar observations of tropical cyclone boundary layer kinematic structure and evolution during landfall. Geophysical Research Letters, 50(23):e2023GL105548, https://doi.org/10.1029/2023GL105548 2023 FY2024

Zhang, C., G.R. Foltz, A.M. Chiodi, C.W. Mordy, C.R. Edwards, C. Meinig, D. Zhang, E. Mazza, E.D. Cokelet, E.F. Burger, F. Bringas, G.J. Goni, H.G. Hristova, H.-S. Kim, J.A. Trinanes, J.A. Zhang, K.E. Bailey, K.M. O’Brien, M. Morales-Caez, N. Lawrence-Slavas, R. Jenkins, S.S. Chen, and X. Chen. Hurricane observations by uncrewed systems. Bulletin of the American Meteorological Society, 104(10):E1893-E1917, https://doi.org/10.1175/BAMS-D-21-0327.1 2023 FY2024

Barron, N.R., A.C. Didlake, and P.D. Reasor. Statistical analysis of convective updrafts in tropical cyclone rainbands observed by airborne Doppler radar. Journal of Geophysical Research-Atmospheres, 127(6):e2021JD035718, https://doi.org/10.1029/2021JD035718 2022 FY2022

Fischer, M.S., P.D. Reasor, R.F. Rogers, and J.F. Gamache. An analysis of tropical cyclone vortex and convective characteristics in relation to storm intensity using a novel airborne Doppler radar database. Monthly Weather Review, 150(9):2255-2278, https://doi.org/10.1175/MWR-D-21-0223.1 2022 FY2022

Rendimiento de un esquema mejorado de PBL basado en la TKE y el flujo de masa de difusividad inducida (EDMF) en las previsiones de huracanes de 2021 del Sistema de Análisis y Previsión de Huracanes. Imagen de un artículo científico.

Chen, X., Hazelton, A., Marks, F. D., Alaka Jr, G. J., & Zhang, C. (2023). Performance of an Improved TKE-Based Eddy-Diffusivity Mass-Flux (EDMF) PBL Scheme in 2021 Hurricane Forecasts from the Hurricane Analysis and Forecast System. Weather and Forecasting, 38(2), 321-336.

Resumen: El desarrollo continuo y la evaluación de las parametrizaciones de la capa límite planetaria (PBL) en condiciones de huracán son cruciales para mejorar las predicciones de los ciclones tropicales (TC). Un esquema de PBL basado en la energía cinética de la turbulencia (TKE) y en el flujo de masa por difusividad de remolino (EDMF-TKE), implementado en el Sistema de Análisis y Predicción de Huracanes (HAFS) de la NOAA, ha sido recientemente mejorado en condiciones de huracán utilizando simulaciones de grandes remolinos. Este estudio evalúa el rendimiento de las previsiones HAFS TC con el original (experimento HAFA) y EDMF-TKE modificado (experimento HAFY) basado en una gran muestra de casos durante la temporada de huracanes del Atlántico Norte de 2021....

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Nuestros Socios

Over the past several decades, we have collaborated closely with the Environmental Modeling Center, Aircraft Opertions Center, and the National Hurricane Center to develop and improve airborne observations in tropical cyclones during our annual Hurricane Field Program.

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Logotipo de CIMAS Un pez y una ola delante de una nube
Logotipo de la NOAA
Logotipo del Servicio Meteorológico Nacional. Un rayo blanco divide en dos una nube azul sobre una nube blanca con un campo azul claro detrás y las palabras "National Weather Service" rodeando en rojo.