NASA ATM Upgrades Present ATM laser system Laser 100 uJ/pulse 5000 Hz 4 nsec pulsewidth System 20 Hz scanner PMT detector Improved ATM laser system Laser.

Slides:

Advertisements

Similar presentations

© Copyright 2010, Optech Incorporated. All rights reserved. E&OE.

Advertisements

© Smart Fibres Ltd SmartScan FBG Interrogator Features and Benefits.

ESTO Advanced Component Technology 11/17/03 Laser Sounder for Remotely Measuring Atmospheric CO 2 Concentrations GSFC CO 2 Science and Sounder.

11-4 Volumes of Prisms and Cylinders. Exploring Volume The volume of a solid is the number of cubic units contained in its interior. Volume is measured.

1 Optical Relative Attitude Sensor for Short-Range Navigation NASA SBIR Contract Number NAS PI: Visidyne / C. Trowbridge.

Water vapor estimates using simultaneous S and Ka band radar measurements Scott Ellis, Jothiram Vivekanandan NCAR, Boulder CO, USA.

Vermont’s eEnergy Smart Grid Initiative Presentation to AEIQ.

Presented to: By: Date: Federal Aviation Administration Early Tests of Aircraft Tracking on NWRT PAR Working Group William Benner, Weather Processors Team.

OIB Long Range Planning Luthcke and Jezek. OIB Long Term Observation Goals OIB is meant to provide data to improve our understanding of the mass evolution.

Working Concepts for a very near detector Preliminary discussions involving SNL/LLNL, ANL, Saclay and Brazil Goals –Work towards a compact detector design.

IceCube 1400 m 2400 m AMANDA South Pole IceTop Skiway 80 Strings 4800 PMT Instrumented volume: 1 km3 (1 Gt) IceCube is designed to detect neutrinos of.

Phase Difference = Phase Difference = 0.05.

Navigation Systems for Lunar Landing Ian J. Gravseth Ball Aerospace and Technologies Corp. March 5 th, 2007 Ian J. Gravseth Ball Aerospace and Technologies.

LIDAR network F.Fierli, C. Flamant, F. Cairo. Scientific Task for SOP ● provide the aerosol content before convection episodes to improve the estimate.

UAH Ground-based Ozone Lidar - A New NDACC Lidar Station Member NDACC Lidar Working Group Meeting, NASA/JPL, Table Mountain, CA Nov. 4, 2013

Intelligent Vehicles and Systems Group The Pennsylvania State University 1/9 EDSGN 100 EDSGN 100 Autonomous System Navigation and Driver Augmentation Pramod.

G O D D A R D S P A C E F L I G H T C E N T E R Status of the HIWRAP and URAD Conical Scan Radars for Wind Measurements Gerald Heymsfield NASA/Goddard.

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.

X. Bosch-Lluis 1, H. Park 2, A. Camps 2, S.C. Reising 1, S. Sahoo 1, S. Padmanabhan 3, N. Rodriguez-Alvarez 2, I. Ramos-Perez 2, and E. Valencia 2 1. Microwave.

Objective Testing and Performance Measurement of Automotive Crash Warning Systems Presented by: Rick Norcross National Institute of Standards and Technology.

B. Gentry/GSFCSLWG 06/29/05 Scaling Ground-Based Molecular Direct Detection Doppler Lidar Measurements to Space Using Wind Profile Measurements from GLOW.

$100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300.

1 Kavaya – IIP-2004 LaRC Instrument Incubator Project Update by M. J. Kavaya, G. J. Koch, J. Yu, U. N. Singh, B. Trieu, F. Amzajerdian NASA Langley Research.

NASA Earth Science Technology Update Presented to Doppler Wind Lidar Working Group April 28, 2015 George J. Komar Associate Director/Program Manager Earth.

Radiometric and Geometric Calibration Workshop Camera calibration program in the United States: past, present, and future U.S. Department of the Interior.

Mike Newchurch 1, Shi Kuang 1, John Burris 2, Steve Johnson 3, Stephanie Long 1 1 University of Alabama in Huntsville, 2 NASA/Goddard Space Flight Center,

Enhancements in the Ground-Based Wind Measurement Capabilities near Huntsville, Alabama: Validation for Airborne & Space-Based Doppler Wind Lidars David.

$100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300 $400 $500 $100 $200 $300.

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.

Laser-Astrodynamics, Space Tests of Relativity, and Gravitational Wave Astronomy 3 rd International ASTROD Symposium – Beijing, China – July 2006 TIME.

GIFTS - The Precursor Geostationary Satellite Component of a Future Earth Observing System GIFTS - The Precursor Geostationary Satellite Component of a.

TODWL and other Navy airborne wind lidar plans including nocturnal flight plan in November G. D. Emmitt SWA Working Group meeting Snowmass, CO 18 July,

Developers Integration Lab (DIL) Nationwide Health Information Network Interoperability Presented By Mario Hyland, AEGIS.net, Inc. Federal Health Architect.

Integrating Airborne DWL and PBL Models in Real Time G.D. Emmitt, C. O’Handley, S. A. Wood and S. Greco Simpson Weather Associates WGSBLW Miami 2007.

RASTERTIN. What is LiDAR? LiDAR = Light Detection And Ranging Active form of remote sensing measuring distance to target surfaces using narrow beams of.

EOSDIS Status 10/16/2008 Dan Marinelli, Science Systems Development Office.

Spaceborne 3D Imaging Lidar John J. Degnan Geoscience Technology Office, Code Code 900 Instrument and Mission Initiative Review March 13, 2002.

LaRC Wind Observations with the VALIDAR Doppler Lidar Grady J. Koch 1, Jeffrey Y. Beyon 2, Bruce W. Barnes 1, and Michael J. Kavaya 1 1 NASA Langley Research.

IHOP Operations Plan, Chapter 7: Other Special Ground-Based Instrumentation Operation Frédéric Fabry et al. General overview Instrument deployment and.

Performance Testing of a Risk Reduction Space Winds Lidar Laser Transmitter Floyd Hovis, Fibertek, Inc. Jinxue Wang, Raytheon Space and Airborne Systems.

Kavaya - 1 Components of the Space-Based Lidar Winds Roadmap Michael Kavaya, Farzin Amzajerdian, Grady Koch, Jirong Yu, Upendra Singh NASA/LaRC Working.

Mapping the Moon: Simulating LOLA in the Classroom Introduction to LIDAR Mapping with LOLA. National Aeronautics and Space Administration

20 Sept nd GALION WS WMO, Geneva 1 Optimisation of Instruments Arnoud Apituley Volker Freudenthaler Adolfo Comeron.

NASA ESTO ATIP Laser Sounder for Remotely Measuring Atmospheric CO 2 Concentrations 12/12/01 NASA Goddard - Laser Remote Sensing Branch 1 James B. Abshire,

Decision Scenarios Data, information knowledge. Laser Scans Data: point cloud from scanner Information: triangle mesh Knowledge: analysis, modeling

© 2008 Noblis, Inc. Planning for DWL Airborne Demonstration - Discussion Ken Miller Lidar Working Group Monterey CA February 7, 2008.

Airborne/ground-based sensor intercomparison: SRL/LASE Paolo Di Girolamo, Domenico Sabatino, David Whiteman, Belay Demoz, Edward Browell, Richard Ferrare.

PRR Impact Analysis Update Steve Wallace Program Management Office October Board Meeting.

E-Education Institute Lidar Technology and Applications Proposal for an elective course to be offered by the Dutton e-Education Institute MGIS Capstone.

CO 2 an important driver for climate change. Currently only approximately half of the CO 2 produced by man can be accounted for in the atmosphere and oceans,

Ball Aerospace & Technologies Corporation -

GWOLF and VALIDAR Comparisons M. Kavaya & G. Koch NASA/LaRC D. Emmitt & S. Wood SWA Lidar Working Group Meeting Sedona, AZ January 2004.

Beam Studies December 2014 Runs: 7821, 7822, and 7860 December 29, 2014.

U NIVERSITY OF J OENSUU F ACULTY OF F ORESTRY Introduction to Lidar and Airborne Laser Scanning Petteri Packalén Kärkihankkeen ”Multi-scale Geospatial.

NON-PROPRIETARY DATA NASA SBIR/STTR Technologies Proposal No. S – EO Scanned Micro-LADAR PI: Dr. Scott Davis Vescent Photonics - Denver, CO Technical.

8.1 Multiplying and Dividing Rational Expressions

RENISH THOMAS (GPM) Global-Precipitation- Mapper

ABLATIVE LASER/MASS SPECTROMETRY FOR DEPTH-PROFILING AND SURFACE STUDIES – AN OVERVIEW Presenter: Avin Pillay, The Petroleum Institute, Abu Dhabi, UAE.

Huailin Chen, Bruce Gentry, Tulu Bacha, Belay Demoz, Demetrius Venable

Planning Factors for Point Density

(1888 PressRelease) Data Control Technitic – Close To HD Video LiDAR Offering

Proposers: 1Alasdair Mac Arthur, 2 L. Vescovo 3E

Lockheed Martin Challenge

Validation of airborne 1

Scanners – Robots – Measurement Plans Synergy in Motion

8.7 Gated Integration instrument description

New Sampling Perspectives for TODWL

Path to BEER upgrades STAP meeting – Phase 2.

Presentation transcript:

NASA ATM Upgrades Present ATM laser system Laser 100 uJ/pulse 5000 Hz 4 nsec pulsewidth System 20 Hz scanner PMT detector Improved ATM laser system Laser 500 uJ/pulse to 50,000 Hz 2 nsec pulsewidth System 50 Hz scanner Enhanced detector/telescope System improvements: Denser sampling/ Sub meter sampling across swan width Wider scan capability from altitude (attitude limited) Improved target waveform resolution (narrower pulsewidth)

NASA ATM Upgrades Impact on Program- no impact The ATM program maintains two independent Lidar systems. Improvements can be developed on one system and phased to the second ATM system when validated Cost Laser $150 to 200K Scanning System $25 K Detector System $30 K Schedule Phased through 2009

NASA ATM MICROLIDAR Proposed development of a small lidar suitable for small aircraft/UAV deployment. Initial development would be a profiling lidar due to limits on UAV attitude determination Automated autonomous operation solid state data system Low power requirement Approximately 1 cubic foot instrument volume

NASA ATM MicroLidar Cost Laser $50K Detector System $30 K Data System $20 K Attitude System depends on UAV GPS System depends on UAV Schedule developed 2009 operational 2010 Impact on Program- no impact The ATM MicroLidar can undergo development and testing on current ATM deployments in UAV integration could begin in 2010.