National Aeronautics and Space Administration Jet Propulsion Laboratory California Institute of Technology

Similar documents
2010 International Ocean Vector Winds Meeting Barcelona, Spain, May A NASA Perspective: Present Status and Moving Forward

The Global Imager (GLI)

I SARA 08/10/13. Pre-Decisional Information -- For Planning and Discussion Purposes Only

Development of Microsatellite to Detect Illegal Fishing MS-SAT

DYNAMIC IONOSPHERE CUBESAT EXPERIMENT

HEMERA Constellation of passive SAR-based micro-satellites for a Master/Slave configuration

SMAP Overview. Ron Weaver Slides li0ed from Barry Weiss and Jennifer Cruz at JPL Barry Weiss. Jet Propulsion Laboratory

Design and Performance Simulation of a Ku-Band Rotating Fan-Beam Scatterometer

Deep Space Communication The further you go, the harder it gets. D. Kanipe, Sept. 2013

NanoSwarm: CubeSats Enabling a Discovery Class Mission Jordi Puig-Suari Tyvak Nano-Satellite Systems

Small Satellites: The Execution and Launch of a GPS Radio Occultation Instrument in a 6U Nanosatellite

Sea surface temperature observation through clouds by the Advanced Microwave Scanning Radiometer 2

A CubeSat-Based Optical Communication Network for Low Earth Orbit

8th Int l Precip. Working Group & 5th Int l Workshop on Space-based Snow Measurement, Bologna, Italia

SAR Interferometry Capabilities of Canada's planned SAR Satellite Constellation

Appendix A: Inner Heliospheric Sentinels Analyses and Key Tradeoff Studies

Figure 1. Proposed Mission Operations Functions. Key Performance Parameters Success criteria of an amateur communicator on board of Moon-exploration

Miguel A. Aguirre. Introduction to Space. Systems. Design and Synthesis. ) Springer

Satellite Testing. Prepared by. A.Kaviyarasu Assistant Professor Department of Aerospace Engineering Madras Institute Of Technology Chromepet, Chennai

Passive Microwave Sensors LIDAR Remote Sensing Laser Altimetry. 28 April 2003

Sub-Mesoscale Imaging of the Ionosphere with SMAP

Outernet: Development of a 1U Platform to Enable Low Cost Global Data Provision

Industry Day of the Copernicus Sentinel-5 and Jason-CS Projects

2012 International Ocean Vector Wind ST Meeting Utrecht, Netherlands, May 2012

David M. Klumpar Keith W. Mashburn Space Science and Engineering Laboratory Montana State University

The Evolution of Nano-Satellite Proximity Operations In-Space Inspection Workshop 2017

New Small Satellite Capabilities for Microwave Atmospheric Remote Sensing: The Earth Observing Nanosatellite- Microwave (EON-MW)

Soil moisture retrieval using ALOS PALSAR

2013 RockSat-C Preliminary Design Review

Microwave Sensors Subgroup (MSSG) Report

SATELLITE SUBSYSTEMS. Networks and Communication Department. Dr. Marwah Ahmed

CubeSat Proximity Operations Demonstration (CPOD) Vehicle Avionics and Design

Microsatellite Constellation for Earth Observation in the Thermal Infrared Region

Tropnet: The First Large Small-Satellite Mission

TELEMETRY, TRACKING, COMMAND AND MONITORING SYSTEM IN GEOSTATIONARY SATELLITE

Microwave Remote Sensing (1)

SNIPE mission for Space Weather Research. CubeSat Developers Workshop 2017 Jaejin Lee (KASI)

1. Detect and locate potentially illegal fishing ship using satellite image, AIS data, and external sources.

Chapter 3 Solution to Problems

UKube-1 Platform Design. Craig Clark

AstroBus S, the high performance and competitive Small Satellites platform for Earth Observation

National Aeronautics and Space Administration. Landsat Update. Jeff Masek, NASA GSFC Jim Irons, NASA GSFC. April 3, 2012 LCLUC Meeting.

Mission requirements and satellite overview

detected by Himawari-8 then the location will be uplinked to approaching Cubesats as an urgent location for medium resolution imaging.

Aquarius/SAC-D Mission Mission Simulators - Gary Lagerloef 6 th Science Meeting; Seattle, WA, USA July 2010

NanoRacks Customer Payloads on Orbital-ATK-9

Microwave Sensors Subgroup (MSSG) Report

EARTH OBSERVATION WITH SMALL SATELLITES

NASA ELaNa IV Launch

B ==================================== C

Reaching for the Stars

OVERVIEW OF THE ALOS SATELLITE SYSTEM

CubeSat Integration into the Space Situational Awareness Architecture

Primary POC: Prof. Hyochoong Bang Organization: Korea Advanced Institute of Science and Technology KAIST POC

The Nemo Bus: A Third Generation Nanosatellite Bus for Earth Monitoring and Observation

NOAA Satellite and Information Service National Environmental Satellite, Data, and Information Service (NESDIS)

Chapter 2 Satellite Configuration Design

Tracking of - IKAROS -

Aquarius Project, Spacecraft, Instrument and Data Processing Status

TerraSAR-X & TanDEM-X

MERLIN Mission Status

Iridium NEXT SensorPODs: Global Access For Your Scientific Payloads

A 1m Resolution Camera For Small Satellites

Satellite Sub-systems

Near Earth Asteroid (NEA) Scout CubeSat Mission

Operational Satellite Missions

PAYLOAD DESIGN FOR A MICROSATELLITE II. Aukai Kent Department of Mechanical Engineering University of Hawai i at Mānoa Honolulu, HI ABSTRACT

GeneSat-1 Quick Look Mission Report

THE RESEARCH AND DEVELOPMENT OF THE USM NANOSATELLITE FOR REMOTE SENSING MISSION

Proximity Operations Nano-Satellite Flight Demonstration (PONSFD) Overview

Advanced Radiometer for Sea Surface Temperature Observations

Development Status of Compact X-band Synthetic Aperture Radar Compatible with a100kg-class SAR Satellite and Its Future Plan.

Riza Muhida. Presented at he 22nd Session of the Asia Pacific Regional Space Agency Forum (APRSAF 22), Bali, Indonesia, December 1 4, 2015

Kazuhiro TANAKA GCOM project team/jaxa April, 2016

Baumanets student micro-satellite

Power modeling and budgeting design and validation with in-orbit data of two commercial LEO satellites

RECONNAISSANCE PAYLOADS FOR RESPONSIVE SPACE

Greenhouse Gas Monitoring for Industrial and Environmental Improvement Presenter: Jordan Backs

SIMBA Sun Earth Imbalance mission. Tjorven Delabie, KU Leuven

Satellite Technology for Future Applications

Radiometric performance of Second Generation Global Imager (SGLI) using integrating sphere

SSC99-VI th AIAA/USU Conference on Small Satellites. Dr. Stephen Horan

A Scalable Deployable High Gain Reflectarray Antenna - DaHGR

Interferometric Cartwheel 1

University. Federal University of Santa Catarina (UFSC) Florianópolis/SC - Brazil. Brazil. Embedded Systems Group (UFSC)

A Failure Analysis of the ExoCube CubSat. 13 th Annual Cubesat Workshop San Luis Obispo, CA Wednesday, April 20 th, 2016

New Methods for Architecture Selection and Conceptual Design:

Rome, Changing of the Requirements and Astrofein s Business Models for Cubesat Deployer

CIRiS: Compact Infrared Radiometer in Space August, 2017

NASA Spectrum Management Update: WRC-11 Issues and Objectives and Domestic Concerns

CNES PRIORITIES IN POLAR AND CRYOSPHERE RESEARCH

NON-PHOTOGRAPHIC SYSTEMS: Multispectral Scanners Medium and coarse resolution sensor comparisons: Landsat, SPOT, AVHRR and MODIS

SPACE. (Some space topics are also listed under Mechatronic topics)

Japanese concept of microwave-type SSPS

In the summer of 2002, Sub-Orbital Technologies developed a low-altitude

(SDR) Based Communication Downlinks for CubeSats

AMSAT Fox Satellite Program

AVSS Project. ENAE483 Fall 2012

L-BAND ICE-PENETRATING RADAR ON BOARD A SMALL SATELLITE

Platform Independent Launch Vehicle Avionics

Transcription:

QuikSCAT Mission Status QuikSCAT Follow-on Mission 2

QuikSCAT instrument and spacecraft are healthy, but aging June 19, 2009 will be the 10 year launch anniversary We ve had two significant anomalies during the last year Weak cell in the battery required some special operations during eclipse season last winter An anomaly with the star tracker CCD (probably single event upset) caused a fault protection reset of the flight computer Otherwise QuikSCAT mission operations are relatively uneventful Senior Review 2009 We will propose 4 more years of operations 3

Attitude control system Star tracker CCDs may be showing minor age effects GPS receiver operates on 6 channels Backup receiver appears to have failed Ground tracking backup plan is ready, but expect some science data degradation if plan is implemented Command and telemetry system Operating on the backup science data transmitter since July 2006 If backup transmitter fails, science data can t be downlinked Electrical power system Spare battery cell has been connected to overcome weak cell Scatterometer Instrument Continues to operate on the primary string Antenna bearings are showing their age 4

5

6

NOAA operational objectives drove the design high resolution, all wind, all weather capabilities Temporal resolution was addressed by an optional tandem system Instrument concept evolved from earlier studies that had been funded by NASA Specific issues that were identified at the Instrument Concept Peer Review held in May 2007 helped us set priorities for the study Key feasibility questions were resolved Instrument configuration (mechanical and electrical) Performance analysis and simulations Cost JPL s technical concept, plans, schedule and cost were thoroughly reviewed before submitting the study report Table top peer reviews Formal Technical, Management and Cost (TMC) review including NOAA representatives Study concluded that the concept is mature and ready to proceed into phase A immediately 7

Spin Platform Thermal Radiator RF Feeds Secondary Reflector Support Electronics and antenna scan at 20 rpm Secondary reflectors simplify deployment by eliminating waveguide deployments Antenna deploys to 3.5 m by 5 m with back-toback mesh reflectors Spin Extension Spin Mechanism Electronics Boxes Deployment Hinge Instrument: Ku-band SAR scatterometer C-band scatterometer X-band radiometer Effective aperture is 3.5m in diameter 800 km altitude, sun-synchronous orbit Performance Capabilities: 1800 km swath Accuracy for 3-80 m/s winds: RMS Speed: 2 m/s or 10% RMS Direction: 20 Spatial Resolution: Ku-band 5 km C-band 10 km Coastal mask: < 5 km Coverage: 90% of global oceans every 24 hours Latency: Delivered to operational users within 3 hours of measurement 85% of the time 8

GCOM-W2 is the third launch of JAXA s Global Climate Observation Mission program DFS is less capable than XOVWM but a significant improvement over QuikSCAT GCOM-W2 will also carry an AMSR2 instrument Intended to launch January 2016 DFS instrument delivery is required by May 2014 This mission is shaping up to be an affordable alternative for NOAA Through international cooperation between JAXA, NOAA and JPL a viable mission approach has evolved There have been two meetings; JPL and JAXA have agreed on the key spacecraft resources (mass, power, data rate, etc.) DFS has been baselined as a second mission sensor for the GCOM-W2 9

Spacecraft resource availability drives the DFS concept JAXA concluded that the XOVWM instrument could not be accommodated Mass limitation (275 kg allocation) Plenty of power Is available (640 W allocation) Volume is limited by launch vehicle fairing and by the field of view requirements for spacecraft sensors and communications antennas Maximum reflector dimension that fits the available volume is 2.1m Significant improvements relative to SeaWinds on QuikSCAT are achieved 10

2 C-band and 2 Ku-band channels 1800 km Swath 2.1 m antenna fits within allowable volume 4 channel RF rotary joint Only the antenna and feeds rotate Minimizes angular momentum that must be compensated 220 W TWTA transmitters capitalizes on the available DC power Performance advantages include resolution, all-weather and high winds capabilities 11

QuikSCAT has exceeded all expectations, but is becoming more vulnerable as time passes Nonetheless, we believe 4 more years of operations are possible and will propose that in in the 2009 Senior Review A NOAA/JAXA partnership on GCOM-W2 is the most promising opportunity to fly a QuikSCAT Operational Follow-on mission NOAA and JAXA are working on a letter of intent to describe the planned partnership Enables both agencies to work toward approval of the necessary budgets An instrument Mission Concept Review is being planned for next September or October A portion of the funding to support this effort is already in place and NOAA plans to provide the rest later this year JPL will support JAXA s Mission Definition Review for GCOM- W2 next December 12