Gloria Manney

New Mexico Institute of Mining and Technology

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National Radio Astronomy Observatory

New Mexico Institute of Mining and Technology

Gloria Manney is a High Senior Professor at New Mexico Institute of Mining and Technology. Her research focuses on atmospheric science, atmospheric chemistry, and climate change, with particular emphasis on stratospheric dynamics and ozone recovery. Her latest work includes fingerprinting the recovery of Antarctic ozone (Nature, 2025) and analyzing trends in lower stratospheric Antarctic vortex ozone over the past two decades (2026). She also investigates mixing barrier strength using ACE-FTS data and the role of stratospheric state in upward wave flux prior to Sudden Stratospheric Warmings (Weather and Climate Dynamics, 2026). Manney has contributed to the Aura MLS Product Generation Software and Averaging Kernel files (Zenodo, 2026), supporting satellite-based atmospheric monitoring. Her research integrates observational datasets with chemistry-climate models to advance understanding of polar ozone dynamics and stratospheric processes.

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Gloria Manney

New Mexico Institute of Mining and Technology

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atmospheric science geophysical research planetary sciences earth science climate change atmospheric chemistry geophysics environmental science atmospheric research astronomy remote sensing atmospheric measurement technique geoscientific model development satellite meteorology instrumentation earth observation data spectroscopy aerosol science earth observation ace-fts measurements earth system science atmospheric chemistry experiment observational astronomy cryosphere numerical simulations atmospheric models ozone layer depletion atmospheric process lower atmosphere antarctic vortex upper troposphere atmospheric environment microwave technology space weather geophysical signal processing microwave remote sensing extreme weather climate modelling radiative transfer upper atmosphere aura satellite stratospheric abundances atmos measurements high arctic carbon monoxide arctic vortex eos mls aircraft cold region science geodesy lunar science infrared spectroscopy microwave measurement climate variability antarctic winter stratospheric water vapor upper tropospheric stratospheric chlorine lower mesosphere vibrational spectroscopy canadian studies satellite signal processing microwave spectroscopy high-frequency measurement meteorological forcing large-scale simulations computational models atmospheric sensing aeronautics benchmark studies arctic structure sea ice atmospheric interaction field observations molecular spectroscopy spatial uncertainty

Notable Scholarly Works

Notable Federal Grants

Collaborators

Aura Mls Averaging Kernel Files. Zenodo (CERN European Organization for Nuclear Research) (2026)

computational sciencesignal processingmeasurementscientific computingquantitative science studiesapplied mathematics

Aura Mls Product Generation Software (Mlspgs) for Level 1 and Level 2. Zenodo (CERN European Organization for Nuclear Research) (2026)

Supplementary Material to"Trends in Measured and Modeled Lower Stratospheric Antarctic Vortex Ozone Over the Past Two Decades". (2026)

The Role of the Stratospheric State in Upward Wave Flux Prior to Sudden Stratospheric Warmings: A Snapsi Analysis. Weather and Climate Dynamics (2026)

atmospheric researchearth sciencemeteorologyatmospheric sciencegeophysicsgeoscientific model developmentclimatic changeatmospheric measurement techniquespace weatherearth system scienceclimate dynamicsclimate modelsgeographyclimatologygeodynamicsplanetary sciencesgeophysical research

Trends in Measured and Modeled Lower Stratospheric Antarctic Vortex Ozone Over the Past Two Decades. (2026)

Using Ace-Fts to Assess Mixing Barrier Strength in Nudged Chemistry-Climate Models. (2026)

Autonomous Year‐Round Measurements of O 3, Co, Ch 4, and N 2 O in the High Arctic With the Atmospheric Emitted Radiance Interferometer. Journal of Geophysical Research Atmospheres (2025)

Factors Contributing to the Unusually Low Antarctic Springtime Ozone in 2020–2023. Journal of Geophysical Research Atmospheres (2025)

Fingerprinting the Recovery of Antarctic Ozone. Nature (2025)

Ozone Trends in the Upper Troposphere‐Lower Stratosphere Using Equivalent Latitude‐Potential Temperature Coordinates. Geophysical Research Letters (2025)