The Mid-latitude Continental Convective Clouds Experiment ...

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The Mid-latitude Continental Convective Clouds Experiment (MC3E) M. Jensen 1 , W. Petersen 2 , N. Bharadwaj 3 , A. Del Genio 4 , S. Giangrande 1 , D. Hartsock 5 , A. Heymsfield 6 , G. Heymsfield 7 , A. Hou 7 , P. Kollias 8 , P. Lamb 5 , B. Orr 9 , S. Rutledge 10 , M. Schwaller 7 , D. Sisterson 9 , E. Zipser 11 1 BNL, 2 NASA MSFC, 3 PNNL, 4 NASA GISS, 5 U. Oklahoma, 6 NCAR, 7 NASA GSFC, 8 McGill U., 9 ANL, 10 CSU, 11 U. of Utah MC3E April 22 June 6 ARM Southern Great Plains Central Facility Represents a collaborative effort between the DOE ASR Program and the NASA Global Precipitation Measurement (GPM) mission Overarching Science : A complete characterization of convective cloud systems in order to: 1) Advance the understanding of the different components of convective parameterization Focus: Convective initiation and up/downdraft coupling to precipitation and cloud microphysics. 2) Improve the fidelity of satellite estimates of precipitation over land. Focus: Observation and quantification of dominant column microphysical processes impacting satellite-based passive/active microwave retrievals AMPR (Passive) H+V polarizations Characteristics Frequencies 10.7, 19.35, 37.1, 85.5 GHz Resolution @ 20 km range 0.6 km (85.5 GHz), 1.5 km (37.1 GHz), 2.8 km (10.7-19.35 GHz) CoSMIR (Passive) H+V polarizations Frequencies 37, 89, 165.5, 183.3+/-1, 183.3+/-3, 183.3+/-8 GHz Resolution @ 20 km range 1.4 km footprint at nadir HIWRAP Ka-Ku band (Active) Frequency (inner/outer beam) 13.91/13.35 GHz, 35.56/33.72 GHz Transmit peak power 30 W (Ku), 10 W (Ka) 3 dB beamwidth 2.9º Ku, 1.2º Ka MDS (dBZ e , 60 m res., 3.3 ms chirp pulse, 10 km range) 0.0, -5.0 dBZ e CRS W-band (Active) Frequency 94.15 GHz (dual- polarized) Transmit peak power 1700 W 3 dB beamwidth 0.6º x 0.8º MDS (dBZ e , 0.5 ms pulse; 1 km range) -35 dBZ e NASA ER-2 Radiometer and Radars MC3E Airborne Instrumentation Instruments Measurement FSSP/King Cloud liquid water PMS or DMT (TBD: 2D-C/P, CIP/PIP etc.) Cloud and precipitation particle spectra SPEC Inc. HVPS Large hydrometeor spectra SPEC Inc. 2D-S Cloud particle spectra CDP and/or SID Cloud particle spectra CVI Total water content Rosemount icing probe Supercooled liquid water CN counter (10 nm cut), UHSAS (100 channels, 60 nm 1 micron) CN/CCN UND Citation Multi-frequency, Multi-scale Radar-based X-band radar network (X-SAPR) NASA S-Band Transportable Dual-Polarimetric Radar (NPOL) C-band (Dual Polarization) Scanning ARM Precipitation Radar (C- SAPR) NASA Ka/Ku band Deployable Dual-Polarimetric Doppler Scanning Radar (D3R) ARM Dual-Wavelength (Ka/W) Scanning Cloud Radar (Ka-SACR/W- SACR) NOAA-ESRL S-Band and 449 MHz Profiler Pair ARM 915 MHz Wind Profilers National Weather Service WSR-88Ds NOAA Profiler Network 404 MHz Wind Profilers Radiosonde Array Six launch sites Pratt, KS Chanutte, KS Vici, OK Morris, OK Purcell, OK Lamont, OK Launch Frequency 4-8x per day NASA Disdrometer Facility 16 Parsivel disdrometers 5 3 rd -generation 2D Video Disdrometers 20 Rain gauges Campaign Measurement Objectives DOE ASR 1) Determine Pre-convective environment, large-scale fording and feedbacks 2) Observations of convective initiation, 3) Quantify updraft / downdraft dynamics, 4) Diagnose Condensate transport / detrainment / entrainment 5) Characterize precipitation and cloud microphysics, 6) Assess influences on radiation NASA GPM 1) Coordinated airborne “satellite simulator” and in-situ platform a. High-altitude Ka/Ku-band radar + multi-frequency radiometer overflying in-situ ice microphysics aircraft 2) Unified 3-D Mapping of hydrometeor distribution/type a. Sub pixel-scale DSD and rain rate variability (0.5 5 km) 3) Data to support satellite simulator model testing (CRM/LSM/RT) a. Collection of high quality sounding-based forcing data sets b. Microphysical and kinematic validation datasets. c. Land surface states affecting variability in emission. Contacts Michael Jensen, [email protected] Walt Petersen, [email protected] MC3E “dream” scenario

Transcript of The Mid-latitude Continental Convective Clouds Experiment ...

Page 1: The Mid-latitude Continental Convective Clouds Experiment ...

The Mid-latitude Continental Convective Clouds Experiment (MC3E)M. Jensen1, W. Petersen2, N. Bharadwaj3, A. Del Genio4, S. Giangrande1, D. Hartsock5, A. Heymsfield6, G. Heymsfield7, A. Hou7, P. Kollias8, P. Lamb5, B. Orr9,

S. Rutledge10, M. Schwaller7, D. Sisterson9, E. Zipser11

1BNL, 2NASA MSFC, 3PNNL, 4NASA GISS, 5U. Oklahoma, 6NCAR, 7NASA GSFC, 8 McGill U., 9 ANL,10 CSU, 11U. of Utah

MC3E April 22 – June 6 ARM Southern Great Plains Central Facility

Represents a collaborative effort between the DOE ASR Program and the NASA Global Precipitation Measurement (GPM) mission

Overarching Science:A complete characterization of convective cloud systems in order to:

1) Advance the understanding of the different components of convective parameterization• Focus: Convective initiation and up/downdraft coupling to

precipitation and cloud microphysics.

2) Improve the fidelity of satellite estimates of precipitation over land.

• Focus: Observation and quantification of dominant column microphysical processes impacting satellite-based passive/active microwave retrievals

AMPR (Passive) H+V

polarizations

Characteristics

Frequencies 10.7, 19.35, 37.1, 85.5

GHz

Resolution @ 20 km

range

0.6 km (85.5 GHz), 1.5

km (37.1 GHz), 2.8 km

(10.7-19.35 GHz)

CoSMIR (Passive) H+V

polarizations

Frequencies 37, 89, 165.5, 183.3+/-1,

183.3+/-3, 183.3+/-8 GHz

Resolution @ 20 km

range

1.4 km footprint at nadir

HIWRAP Ka-Ku band

(Active)

Frequency (inner/outer

beam)

13.91/13.35 GHz,

35.56/33.72 GHz

Transmit peak power 30 W (Ku), 10 W (Ka)

3 dB beamwidth 2.9º Ku, 1.2º Ka

MDS (dBZe, 60 m res.,

3.3 ms chirp pulse, 10

km range)

0.0, -5.0 dBZe

CRS W-band (Active)

Frequency 94.15 GHz (dual-

polarized)

Transmit peak power 1700 W

3 dB beamwidth 0.6º x 0.8º

MDS (dBZe, 0.5 ms

pulse; 1 km range)

-35 dBZe

NASA ER-2 Radiometer and Radars

MC3E Airborne Instrumentation

Instruments Measurement

FSSP/King Cloud liquid water

PMS or DMT (TBD:

2D-C/P, CIP/PIP

etc.)

Cloud and

precipitation particle

spectra

SPEC Inc. HVPS Large hydrometeor

spectra

SPEC Inc. 2D-S Cloud particle spectra

CDP and/or SID Cloud particle spectra

CVI Total water content

Rosemount icing

probe

Supercooled liquid

water

CN counter (10 nm

cut), UHSAS (100

channels, 60 nm – 1

micron)

CN/CCN

UND Citation

Multi-frequency, Multi-scale Radar-based• X-band radar network (X-SAPR)

• NASA S-Band Transportable Dual-Polarimetric Radar (NPOL)• C-band (Dual Polarization) Scanning ARM Precipitation Radar (C-SAPR)• NASA Ka/Ku band Deployable Dual-Polarimetric Doppler Scanning Radar (D3R)• ARM Dual-Wavelength (Ka/W) Scanning Cloud Radar (Ka-SACR/W-SACR)•NOAA-ESRL S-Band and 449 MHz Profiler Pair• ARM 915 MHz Wind Profilers• National Weather Service WSR-88Ds• NOAA Profiler Network 404 MHz Wind Profilers

Radiosonde Array• Six launch sites

• Pratt, KS• Chanutte, KS• Vici, OK• Morris, OK• Purcell, OK•Lamont, OK

• Launch Frequency 4-8x per day

NASA Disdrometer Facility• 16 Parsivel disdrometers• 5 3rd-generation 2D Video Disdrometers• 20 Rain gauges

Campaign Measurement Objectives DOE ASR1) Determine Pre-convective environment, large-scale fording and

feedbacks2) Observations of convective initiation, 3) Quantify updraft / downdraft dynamics, 4) Diagnose Condensate transport / detrainment / entrainment 5) Characterize precipitation and cloud microphysics, 6) Assess influences on radiation

NASA GPM1) Coordinated airborne “satellite simulator” and in-situ platform

a. High-altitude Ka/Ku-band radar + multi-frequency radiometer overflying in-situ ice microphysics aircraft

2) Unified 3-D Mapping of hydrometeor distribution/typea. Sub pixel-scale DSD and rain rate variability (0.5 – 5 km)

3) Data to support satellite simulator model testing (CRM/LSM/RT) a. Collection of high quality sounding-based forcing data sets b. Microphysical and kinematic validation datasets. c. Land surface states affecting variability in emission.

ContactsMichael Jensen, [email protected]

Walt Petersen, [email protected]

MC3E “dream” scenario