Ball Aerospace & Technologies Corporation -

Slides:



Advertisements
Similar presentations
Calipso (LIDAR in space) Data during DODO Flight B237 over Ocean off Mauritanian Coast 22 nd August 2006.
Advertisements

LIDAR TECHNOLOGIES FOR EARTH OBSERVATION January 2008 Dr Kim Hampton Lidar Technologies Ltd.
ESTO Advanced Component Technology 11/17/03 Laser Sounder for Remotely Measuring Atmospheric CO 2 Concentrations GSFC CO 2 Science and Sounder.
Studying the Physical Properties of the Atmosphere using LIDAR technique Dinh Van Trung and Nguyen Thanh Binh, Nguyen Dai Hung, Dao Duy Thang, Bui Van.
Calibration for LHAASO_WFCTA Yong Zhang, LL Ma on behalf of the LHAASO collaboration 32 nd International Cosmic Ray Conference, Beijing 2011.
CALIPSO and LITE data for space-based DWL design and Data utility studies: Research plans G. D. Emmitt Simpson Weather Associates D. Winker and Y. Hu (LaRC)
Lecture 12 Content LIDAR 4/15/2017 GEM 3366.
Earth System Science Teachers of the Deaf Workshop, August 2004 S.O.A.R. High Earth Observing Satellites.
Mark Schoeberl NASA/GSFC
TRMM Tropical Rainfall Measurement (Mission). Why TRMM? n Tropical Rainfall Measuring Mission (TRMM) is a joint US-Japan study initiated in 1997 to study.
MR P.Durkee 5/20/2015 MR3522Winter 1999 MR Remote Sensing of the Atmosphere and Ocean - Winter 1999 Active Microwave Radar.
10 June 2004 NOAA CALIPSO Meeting Camp Springs, MD CALIPSO Overview Presented by Jim Yoe Status – D. Winker Potential Applications – D. Emmitt, C. Barnet,
NDACC Working Group on Water Vapor NDACC Working Group on Water Vapor Bern, July 5 -7, 2006 Raman Lidar activities at Rome - Tor Vergata F.Congeduti, F.Cardillo,
Atmospheric structure from lidar and radar Jens Bösenberg 1.Motivation 2.Layer structure 3.Water vapour profiling 4.Turbulence structure 5.Cloud profiling.
A FIRST look at the Far Infrared Dan Feldman Yuk Yung IR Meeting May 9, 2007.
Remote Sensing of Mesoscale Vortices in Hurricane Eyewalls Presented by: Chris Castellano Brian Cerruti Stephen Garbarino.
Spectroscopy of Stratospheric Molecular O3
Page 1 1 of 20, EGU General Assembly, Apr 21, 2009 Vijay Natraj (Caltech), Hartmut Bösch (University of Leicester), Rob Spurr (RT Solutions), Yuk Yung.
Navigation Systems for Lunar Landing Ian J. Gravseth Ball Aerospace and Technologies Corp. March 5 th, 2007 Ian J. Gravseth Ball Aerospace and Technologies.
Fundamentals of Satellite Remote Sensing NASA ARSET- AQ Introduction to Remote Sensing and Air Quality Applications Winter 2014 Webinar Series ARSET -
Geostationary Imaging Fourier Transform Spectrometer An Update of the GIFTS Program Geostationary Imaging Fourier Transform Spectrometer An Update of the.
CALIPSO Ocean Products: Progress Advisors: Mike Behrenfeld and Chuck McClain Ball Aerospace: Carl Weimer CNES: Jacques Pelon NASA LaRC: Yongxiang Hu, Sharon.
CALIPSO and LITE Data for Space-based DWL Design and Data Utility Studies: Research Plans: Part II Dave Emmitt, Simpson Weather Associates Dave Winker,
Direct Radiative Effect of aerosols over clouds and clear skies determined using CALIPSO and the A-Train Robert Wood with Duli Chand, Tad Anderson, Bob.
1 CALIPSO Status and Plans Dave Winker Winds Working Group, June 2009, Wintergreen, VA.
Remote Sensing Allie Marquardt Collow Met Analysis – December 3, 2012.
G O D D A R D S P A C E F L I G H T C E N T E R Goddard Lidar Observatory for Winds (GLOW) Wind Profiling from the Howard University Beltsville Research.
OC3522Summer 2001 OC Remote Sensing of the Atmosphere and Ocean - Summer 2001 Active Microwave Radar.
B. Gentry/GSFCSLWG 06/29/05 Scaling Ground-Based Molecular Direct Detection Doppler Lidar Measurements to Space Using Wind Profile Measurements from GLOW.
An In-depth Look at ICESat and GLAS By: Vishana Ramdeen.
SIRTA Site Instrumental de Recherche par Télédétection Atmosphérique Martial Haeffelin SIRTA Coordinator CLOUDNET Meeting, Paris May 2002.
Space-Qualified Hardware for the CALIPSO Lidar
B.-M. Sinnhuber, Remote Sensing I, University of Bremen, Summer 2007 Remote Sensing I Active Remote Sensing Summer 2007 Björn-Martin Sinnhuber Room NW1.
B. Gentry/GSFCGTWS 2/26/01 Doppler Wind Lidar Measurement Principles Bruce Gentry NASA / Goddard Space Flight Center based on a presentation made to the.
GIFTS - The Precursor Geostationary Satellite Component of a Future Earth Observing System GIFTS - The Precursor Geostationary Satellite Component of a.
1 CALIPSO: Validation activities and requirements Dave Winker NASA LaRC GALION, WMO Geneva, September 2010.
Performance Testing of a Risk Reduction Space Winds Lidar Laser Transmitter Floyd Hovis, Fibertek, Inc. Jinxue Wang, Raytheon Space and Airborne Systems.
Status of CFLOS study using CALIPSO data G. D. Emmitt, D. Winker and S. Greco WG SBLW Destin, FL January 27-30, 2009.
Ocean subsurface studies from space-based lidar measurements Xiaomei Lu, 1 Yongxiang Hu, 2 1 Science Systems and Applications, Inc. (SSAI), Hampton, Virginia.
As components of the GOES-R ABI Air Quality products, a multi-channel algorithm similar to MODIS/VIIRS for NOAA’s next generation geostationary satellite.
HOLOGRAPHIC SCANNING LIDAR TELESCOPES Geary K. Schwemmer Laboratory For Atmospheres NASA Goddard Space Flight Center
Geoscience Laser Altimeter System Aerosol and Cloud Observations by the GLAS Polar Orbiting Lidar Instrument NASA - Goddard Space Flight Center Launched.
Environmental Remote Sensing GEOG 2021 Lecture 8 Observing platforms & systems and revision.
Science of the Aqua Mission By: Michael Banta ESS 5 th class Ms. Jakubowyc December 7, 2006.
Evaluation of T511(1°) clouds Simpson Weather Associates 7 June 2007 NCEP OSSE meeting.
Earth Observing Satellites Update John Murray, NASA Langley Research Center NASA Aviation Weather Satellites Last Year NASA’s AURA satellite, the chemistry.
Satellites Storm “Since the early 1960s, virtually all areas of the atmospheric sciences have been revolutionized by the development and application of.
Development status of the CALIPSO lidar
GWOLF and VALIDAR Comparisons M. Kavaya & G. Koch NASA/LaRC D. Emmitt & S. Wood SWA Lidar Working Group Meeting Sedona, AZ January 2004.
GSFC/Spinhirne 03/13/2002 Multispectral and Stereo Infrared Cloud Observations by COVIR (Compact Visible and Infrared Imaging Radiometer) J. Spinhirne,
1 Recent advances in CALIPSO cloud retrievals: Progress over the last 7 years Looking ahead to the next 30 ISCCP at 30: City College of New York, 23 April.
CFLOS opportunities update with CALIPSO and impact on simulating GWOS and ADM in OSSEs G. D. Emmitt and S. Greco Simpson Weather Associates D. Winker NASA/LaRC.
SCM x330 Ocean Discovery through Technology Area F GE.
U NIVERSITY OF J OENSUU F ACULTY OF F ORESTRY Introduction to Lidar and Airborne Laser Scanning Petteri Packalén Kärkihankkeen ”Multi-scale Geospatial.
NOAA, May 2014 Coordination Group for Meteorological Satellites - CGMS NOAA Activities toward Transitioning Mature R&D Missions to an Operational Status.
UEE Seminar Series Lidar Sensing of Tropospheric Aerosols and Clouds
Lidar winds from GEO: The Photons to Winds Conversion Efficiency
Extinction measurements
RENISH THOMAS (GPM) Global-Precipitation- Mapper
Lidar winds from GEO: The Photons to Winds Conversion Efficiency
Clouds, shear and the simulation of hybrid wind lidar
NASA Aqua.
Huailin Chen, Bruce Gentry, Tulu Bacha, Belay Demoz, Demetrius Venable
Cloud Property Retrievals over the Arctic from the NASA A-Train Satellites Aqua, CloudSat and CALIPSO Douglas Spangenberg1, Patrick Minnis2, Michele L.
AIRS (Atmospheric Infrared Sounder) Instrument Characteristics
GAJENDRA KUMAR EC 3rd YR. ROLL NO
Validation of airborne 1
Mark Schoeberl NASA/GSFC
GLAS Cloud Statistics and Their Implications for a Hybrid Mission
BalloonWinds-GroundWinds Project Summary
Presentation transcript:

Ball Aerospace & Technologies Corporation - cweimer@ball.com CALIPSO Status Carl Weimer - Ball Aerospace & Technologies Corp. Mike Cisewski, Yongxiang Hu, Bill Hunt, Chip Trepte, Dave Winker – NASA LaRC Floyd Hovis - Fibertek Corp. Ball Aerospace & Technologies Corporation - cweimer@ball.com

CALIPSO –Introduction CALIPSO Satellite Proteus Spacecraft from (CNES/Alcatel) Payload (NASA/CNES/Ball Aerospace) CALIPSO Payload Instruments Wide Field Camera – Cloud Camera matched to MODIS (645 nm, 125 m pixel) Infrared Imaging Radiometer – Three band Thermal Images (8.65, 10.6, 12.05 µm) CALIOP – Rayleigh-Mie Lidar (laser radar) for clouds and aerosols CALIOP Two Wavelengths (532 nm and 1064 nm) Polarization sensitive at 532 nm (Photomultiplier Detectors aligned Parallel and Perpendicular to laser linear polarization) – Polarization Accuracy ~0.5% Polarization insensitive at 1064 nm (single Avalanche Photodiode detector) Sensitive to single photons at 532 nm, less sensitive at 1064 nm Dynamic range 8 million Vertical Resolution 30 m fixed by Analog-to-Converter clock (increases in steps to 300 m in stratosphere) Data collected for altitudes -2 km to +40 km Laser Footprint on ground 70 m, geolocated to better than 60m Laser pulse emitted at 20 Hz repetition (330 m spacing between laser pulses) Ball Aerospace & Technologies Corporation - cweimer@ball.com

CALIPSO Satellite & Payload Lidar Receiver Telescope Star Tracker Assembly Wide Field Camera Imaging Infrared Radiometer Integrated Lidar Transmitter Ball Aerospace & Technologies Corporation - cweimer@ball.com

Lidar Core – Transmitter and Receiver Etalon Filter Adjustable Boresight Mechanism APD PMTs Laser Radiator Optical Bench Laser Optics Modules - Fibertek Telescope – 1 meter Beryllium Beam Expander Optics ILT (Integrated Lidar Transmitter) ILR (Integrated Lidar Receiver) Ball Aerospace & Technologies Corporation - cweimer@ball.com

CALIPSO Laser Status Always the First Questioned Asked Completed One Billion Laser Shots On-Orbit Feb 3! Only have operated one laser, second laser held in reserve. Ball Aerospace & Technologies Corporation - cweimer@ball.com

Ball Aerospace & Technologies Corporation - cweimer@ball.com CALIPSO Summary Satellite and Payload are healthy, data trends are all acceptable to meet full mission requirements Mission complete in May 2009, Mission extension will be applied for in January 2009 “Single String” Satellite and many new technologies as part of this “Pathfinder” mission requires careful risk management throughout program life. Level 2 Science Data now being released (see http://www-calipso.larc.nasa.gov/products/) Includes extinction for the first time See Dave Winker’s Working Group presentation from Feb 2007 for examples of aerosol and cloud science data. Validation and Calibration work is ongoing New Data Products and capabilities are being developed Now providing an Expedited Data set for Science Campaigns Working to decrease data latency to support weather and air quality users. New Products include ocean subsurface and altimetry demonstrations (Yong Hu) Ball Aerospace & Technologies Corporation - cweimer@ball.com

One New Application of CALIPSO - Ocean Windspeed The Cox-Munk Equation relates ocean wind speed to surface reflectivity Was applied previously to LITE space-based lidar data by Menzies, Tratt, and Hunt Yong has submitted a paper showing global comparison of passive microwave system AMSR-E on Aqua to CALIPSO measured Ocean Windspeed Preliminary results show agreement is better than 1.3 m/s rms using single laser shots Trades – Microwave systems give superior all-weather performance CALIPSO measures over much smaller footprint (70 m vs. 20 km) CALIPSO is calibrated using reflectivity from upper atmosphere Working towards using ocean surface as an independent lidar calibration and also as independent check on column aerosol extinction. Ball Aerospace & Technologies Corporation - cweimer@ball.com

AMSR-E Winds vs CALIPSO Winds Ball Aerospace & Technologies Corporation - cweimer@ball.com

Global Comparison Between CALIPSO and AMSR-E (AQUA) Wind speeds Residual Windspeed Error for CALIPSO arises from aerosol loss. Possible instrument effects being studied. Ball Aerospace & Technologies Corporation - cweimer@ball.com