CEOS EO HANDBOOK – MISSION SUMMARY
- WIND
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Full Name
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WIND Solar-Terrestrial Mission
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Status
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Operational (extended)
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Mission Agencies
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NASA
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Launch Date
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01 Nov 1994
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Mission Links
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mission site
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EOL Date
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Jan 2030
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EO Portal Info
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NORAD Catalog #
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International Designator
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Orbit Type
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Earth-Sun L-1
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Orbit Period
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Orbit Sense
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Orbit Inclination
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0 deg
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Orbit Altitude
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Orbit Longitude
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Orbit LST
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Repeat Cycle
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Objectives and Applications
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WIND is a NASA/GSFC solar-terrestrial mission within the US GGS (Global Geospace Science) initiative and also part of the ISTP (International Solar-Terrestrial Physics) program. The objective is to study sources, acceleration mechanisms and propagation processes of energetic particles and the solar wind. Investigation of solar wind mass momentum and energy) with input first from the day-side double lunar swingby orbit, and later from a small halo orbit at L1. WIND, together with GEOTAIL (ISAS, J
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Mission Measurements
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Mission Instruments
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OpenSearch Datasets
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Selected IDN OpenSearch Results (search all 8 ) 3-D Plasma and Energetic Particle Investigation on WIND  Energetic Particles: Acceleration, Composition and Transport (EPACT) Investigation on WIND  Gamma Ray Burst Detector (KONUS) on WIND  Magnetic Field Investigation (MFI) on WIND  Radio and Plasma Wave Investigation (WAVES) on WIND  Solar Wind Experiment (SWE) on WIND  The SWICS/MASS/STICS (SMS) Instrument Package on WIND  Transient Gamma-Ray Spectrometer (TGRS) on WIND 
Selected FedEO OpenSearch Results (view all 27 results: browser , table ) ESA Soil Moisture Climate Change Initiative (Soil_Moisture_cci): COMBINED product, Version 06.1  ESA Soil Moisture Climate Change Initiative (Soil_Moisture_cci): Experimental Break-Adjusted COMBINE...  CLIMATE APPLICATIONS: Water cycle, energy cycle, carbon cycle, numerical Weather prediction, climato...  CLIMATE APPLICATIONS: Water cycle, energy cycle, carbon cycle, numerical Weather prediction, climato...  JAXA Satellite Monitoring for Environmental Study (JASMES) Sea Ice Concentration (SIC). CLIMATE APPL...  CLIMATE APPLICATIONS: Water cycle, energy cycle, carbon cycle, numerical Weather prediction, climato...  JAXA Satellite Monitoring for Environmental Study (JASMES) Sea Ice Concentration (SIC). CLIMATE APPL...  ESA CCI SM v2.2. CLIMATE APPLICATIONS: Water cycle, energy cycle, carbon cycle, numerical Weather pr...  CLIMATE APPLICATIONS: Water cycle, energy cycle, carbon cycle, numerical Weather prediction, climato...  CLIMATE APPLICATIONS: Water cycle, energy cycle, carbon cycle, numerical Weather prediction, climato... 
Want to explore more? Read about FedEO by ESA or click here to search FedEO or CMR OpenSearch by NASA 
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