GOES-10 microphysical retrievals in marine warm clouds: Multi-instrument validation and daytime cycle over the southeast Pacific
The daytime evolution of warm cloud microphysical properties over the southeast Pacific during October–November 2008 is investigated with optical/infrared retrievals from the Tenth Geostationary Operational Environmental Satellite (GOES‐10) imager. GOES‐10 retrievals, produced at NASA Langley Resear...
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Published in | Journal of Geophysical Research: Atmospheres Vol. 117; no. D19 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
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Washington, DC
Blackwell Publishing Ltd
16.10.2012
American Geophysical Union |
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Abstract | The daytime evolution of warm cloud microphysical properties over the southeast Pacific during October–November 2008 is investigated with optical/infrared retrievals from the Tenth Geostationary Operational Environmental Satellite (GOES‐10) imager. GOES‐10 retrievals, produced at NASA Langley Research Center, are validated against in situ aircraft observations and with independent satellite observations. Comparisons with in situ observations reveal high linear correlations (r) for cloud effective radius (re) and optical thickness (τ) (r = 0.89 and 0.69 respectively); nevertheless, a GOES‐10 positive mean re bias of 2.3 μm is apparent, and consistent with other previously reported satellite biases. Smaller biases are found for liquid water path (LWP) and an adiabatic‐based cloud droplet number concentration (Nd), both variables derived by combining re and τ.In addition, GOES‐10 observations are well correlated with their Moderate Resolution Imaging Spectroradiometer (MODIS) counterparts, but with smaller biases and root‐mean‐square errors for the Aqua satellite passes, arguably associated with a better calibrated MODIS‐Aqua instrument relative to MODIS‐Terra. Furthermore, the excellent agreement between GOES‐10 LWP and microwave‐based satellite retrievals, especially at high solar zenith angles (>60°), provide further evidence of the utility of using GOES‐10 retrievals to represent the daytime cloud cycle. In terms of the daytime cycle, GOES‐10 observations show an afternoon minimum in LWP and an increase thereafter, consistent with satellite microwave climatologies. Theτ cycle explains most of the LWP variance with both variables in phase, minima near noon along the coast, and a 13:30–14:00 local solar time (LST) minimum offshore. In contrast, re is not exactly in phase with LWP and τ, having a minimum approximately at 12:30 LST throughout the domain. A unique feature is a striking re maximum along the coast at 16:15 LST, concomitant with a faster τ recovery. An explanation for a coastal reafternoon maximum is lacking although this is consistent with an enhancement of the updraft velocity reported in previous modeling studies. Finally, the GOES‐derived Nd (Nd ∝ τ1/2 re−5/2) shows a complex daytime cycle with maxima at 7:15 and 13:15 LST. While the first maximum is driven by large τ, the second one is mainly explained by a minimum in re.
Key Points
GOES retrievals are consistent with in situ and other satellite observations
Optical thickness shows a diurnal and semidiurnal cycle
Effective radius shows a minimum near noon |
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AbstractList | The daytime evolution of warm cloud microphysical properties over the southeast Pacific during October–November 2008 is investigated with optical/infrared retrievals from the Tenth Geostationary Operational Environmental Satellite (GOES‐10) imager. GOES‐10 retrievals, produced at NASA Langley Research Center, are validated against in situ aircraft observations and with independent satellite observations. Comparisons with in situ observations reveal high linear correlations (r) for cloud effective radius (re) and optical thickness (τ) (r = 0.89 and 0.69 respectively); nevertheless, a GOES‐10 positive mean re bias of 2.3 μm is apparent, and consistent with other previously reported satellite biases. Smaller biases are found for liquid water path (LWP) and an adiabatic‐based cloud droplet number concentration (Nd), both variables derived by combining re and τ.In addition, GOES‐10 observations are well correlated with their Moderate Resolution Imaging Spectroradiometer (MODIS) counterparts, but with smaller biases and root‐mean‐square errors for the Aqua satellite passes, arguably associated with a better calibrated MODIS‐Aqua instrument relative to MODIS‐Terra. Furthermore, the excellent agreement between GOES‐10 LWP and microwave‐based satellite retrievals, especially at high solar zenith angles (>60°), provide further evidence of the utility of using GOES‐10 retrievals to represent the daytime cloud cycle. In terms of the daytime cycle, GOES‐10 observations show an afternoon minimum in LWP and an increase thereafter, consistent with satellite microwave climatologies. Theτ cycle explains most of the LWP variance with both variables in phase, minima near noon along the coast, and a 13:30–14:00 local solar time (LST) minimum offshore. In contrast, re is not exactly in phase with LWP and τ, having a minimum approximately at 12:30 LST throughout the domain. A unique feature is a striking re maximum along the coast at 16:15 LST, concomitant with a faster τ recovery. An explanation for a coastal reafternoon maximum is lacking although this is consistent with an enhancement of the updraft velocity reported in previous modeling studies. Finally, the GOES‐derived Nd (Nd ∝ τ1/2 re−5/2) shows a complex daytime cycle with maxima at 7:15 and 13:15 LST. While the first maximum is driven by large τ, the second one is mainly explained by a minimum in re.
Key Points
GOES retrievals are consistent with in situ and other satellite observations
Optical thickness shows a diurnal and semidiurnal cycle
Effective radius shows a minimum near noon The daytime evolution of warm cloud microphysical properties over the southeast Pacific during October–November 2008 is investigated with optical/infrared retrievals from the Tenth Geostationary Operational Environmental Satellite (GOES‐10) imager. GOES‐10 retrievals, produced at NASA Langley Research Center, are validated against in situ aircraft observations and with independent satellite observations. Comparisons with in situ observations reveal high linear correlations (r) for cloud effective radius (r e ) and optical thickness ( τ ) (r = 0.89 and 0.69 respectively); nevertheless, a GOES‐10 positive mean r e bias of 2.3 μ m is apparent, and consistent with other previously reported satellite biases. Smaller biases are found for liquid water path (LWP) and an adiabatic‐based cloud droplet number concentration (N d ), both variables derived by combining r e and τ. In addition, GOES‐10 observations are well correlated with their Moderate Resolution Imaging Spectroradiometer (MODIS) counterparts, but with smaller biases and root‐mean‐square errors for the Aqua satellite passes, arguably associated with a better calibrated MODIS‐Aqua instrument relative to MODIS‐Terra. Furthermore, the excellent agreement between GOES‐10 LWP and microwave‐based satellite retrievals, especially at high solar zenith angles (>60°), provide further evidence of the utility of using GOES‐10 retrievals to represent the daytime cloud cycle. In terms of the daytime cycle, GOES‐10 observations show an afternoon minimum in LWP and an increase thereafter, consistent with satellite microwave climatologies. The τ cycle explains most of the LWP variance with both variables in phase, minima near noon along the coast, and a 13:30–14:00 local solar time (LST) minimum offshore. In contrast, r e is not exactly in phase with LWP and τ , having a minimum approximately at 12:30 LST throughout the domain. A unique feature is a striking r e maximum along the coast at 16:15 LST, concomitant with a faster τ recovery. An explanation for a coastal r e afternoon maximum is lacking although this is consistent with an enhancement of the updraft velocity reported in previous modeling studies. Finally, the GOES‐derived N d ( N d ∝ τ 1/2 r e −5/2 ) shows a complex daytime cycle with maxima at 7:15 and 13:15 LST. While the first maximum is driven by large τ , the second one is mainly explained by a minimum in r e . Key Points GOES retrievals are consistent with in situ and other satellite observations Optical thickness shows a diurnal and semidiurnal cycle Effective radius shows a minimum near noon The daytime evolution of warm cloud microphysical properties over the southeast Pacific during OctoberNovember 2008 is investigated with optical/infrared retrievals from the Tenth Geostationary Operational Environmental Satellite (GOES-10) imager. GOES-10 retrievals, produced at NASA Langley Research Center, are validated against in situ aircraft observations and with independent satellite observations. Comparisons with in situ observations reveal high linear correlations (r) for cloud effective radius (re) and optical thickness () (r = 0.89 and 0.69 respectively); nevertheless, a GOES-10 positive mean re bias of 2.3 m is apparent, and consistent with other previously reported satellite biases. Smaller biases are found for liquid water path (LWP) and an adiabatic-based cloud droplet number concentration (Nd), both variables derived by combining re and . In addition, GOES-10 observations are well correlated with their Moderate Resolution Imaging Spectroradiometer (MODIS) counterparts, but with smaller biases and root-mean-square errors for the Aqua satellite passes, arguably associated with a better calibrated MODIS-Aqua instrument relative to MODIS-Terra. Furthermore, the excellent agreement between GOES-10 LWP and microwave-based satellite retrievals, especially at high solar zenith angles (>60°), provide further evidence of the utility of using GOES-10 retrievals to represent the daytime cloud cycle. In terms of the daytime cycle, GOES-10 observations show an afternoon minimum in LWP and an increase thereafter, consistent with satellite microwave climatologies. The cycle explains most of the LWP variance with both variables in phase, minima near noon along the coast, and a 13:3014:00 local solar time (LST) minimum offshore. In contrast, re is not exactly in phase with LWP and , having a minimum approximately at 12:30 LST throughout the domain. A unique feature is a striking re maximum along the coast at 16:15 LST, concomitant with a faster recovery. An explanation for a coastal re afternoon maximum is lacking although this is consistent with an enhancement of the updraft velocity reported in previous modeling studies. Finally, the GOES-derived Nd (Nd 1/2 re5/2) shows a complex daytime cycle with maxima at 7:15 and 13:15 LST. While the first maximum is driven by large , the second one is mainly explained by a minimum in re. |
Author | Painemal, David Minnis, Patrick Ayers, J. Kirk O'Neill, Larry |
Author_xml | – sequence: 1 givenname: David surname: Painemal fullname: Painemal, David email: david.painemal@nasa.gov, david.painemal@nasa.gov organization: NASA Langley Research Center, Hampton, Virginia, USA – sequence: 2 givenname: Patrick surname: Minnis fullname: Minnis, Patrick organization: NASA Langley Research Center, Hampton, Virginia, USA – sequence: 3 givenname: J. Kirk surname: Ayers fullname: Ayers, J. Kirk organization: Sciences System and Applications Inc., Hampton, Virginia, USA – sequence: 4 givenname: Larry surname: O'Neill fullname: O'Neill, Larry organization: College of Earth, Ocean, and Atmospheric Sciences, Oregon State University, Corvallis, Oregon, USA |
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Keywords | microwaves Climatology Solar zenithal distance Bias cycles Warm cloud Variance Mean square error instruments Optical thickness Water cloud Validation GOES satellites droplets NASA Satellite observation concentration in situ offshore Liquid water path Effective radius correlation Aircraft observation Aqua satellite Comparative study |
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Snippet | The daytime evolution of warm cloud microphysical properties over the southeast Pacific during October–November 2008 is investigated with optical/infrared... The daytime evolution of warm cloud microphysical properties over the southeast Pacific during OctoberNovember 2008 is investigated with optical/infrared... |
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SubjectTerms | Atmospheric boundary layer Atmospheric sciences Climate science cloud daytime cycle Clouds Earth sciences Earth, ocean, space Exact sciences and technology Geophysics GOES-10 Radiation Remote sensing satellite validation southeast Pacific stratocumulus |
Title | GOES-10 microphysical retrievals in marine warm clouds: Multi-instrument validation and daytime cycle over the southeast Pacific |
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