DocumentCode :
3283477
Title :
The MicroMAS and MiRaTA CubeSat atmospheric profiling missions
Author :
Blackwell, William J.
Author_Institution :
MIT Lincoln Lab., Lexington, MA, USA
fYear :
2015
fDate :
17-22 May 2015
Firstpage :
1
Lastpage :
3
Abstract :
Nanosatellite missions flying microwave radiometers for high-resolution microwave sounding are quickly proliferating, as microwave instrumentation is particularly well suited for implementation on a very small satellite, as the sensor requirements for power, pointing, and spatial resolution (aperture size) can be accommodated by a nanosatellite platform. Recent advances in low-power millimeterwave low-noise amplifier technologies have been a significant enabler of these systems. The first mission, the Microsized Microwave Atmospheric Satellite (MicroMAS), will demonstrate temperature sounding in nine channels near 118 GHz. MicroMAS is currently onboard the International Space Station awaiting deployment for a 100-day mission. The Microwave Radiometer Technology Acceleration (MiRaTA) cubesat will demonstrate multi-band atmospheric sounding and co-located GPS radio occultation. MiRaTA will launch in early 2016, and will fly a tri-band sounder (60, 183, and 206 GHz) and a GPS radio occultation (GPS-RO) sensor. Both MicroMAS and MiRaTA are 3U CubeSats (aggregates of 10×10×10 cm cubes). We present recent work to develop and demonstrate nanosatellite technologies for earth atmospheric remote sensing using microwave radiometry and describe approaches for transitioning these new technologies into new research constellation missions to provide unprecedented measurement capabilities.
Keywords :
Global Positioning System; aerospace instrumentation; artificial satellites; atmospheric techniques; low noise amplifiers; microwave detectors; millimetre wave amplifiers; millimetre wave detectors; radiometry; remote sensing; 3U CubeSats; GPS-RO sensor; International Space Station; MiRaTA CubeSat atmospheric profiling missions; MicroMAS; co-located GPS radio occultation; earth atmospheric remote sensing; frequency 183 GHz; frequency 206 GHz; frequency 60 GHz; high-resolution microwave sounding; low-power millimeterwave low-noise amplifier technology; microsized microwave atmospheric satellite; microwave instrumentation; microwave radiometer technology acceleration; multiband atmospheric sounding; nanosatellite missions flying microwave radiometers; sensor requirements; spatial resolution; temperature sounding; time 100 day; tri-band sounder; Atmospheric measurements; Clouds; Global Positioning System; Moisture measurement; Radiometry; Space stations; MiRaTA; MicroMAS; Microwave; calibration; clouds; constellation; cubesat; forecasting; hurricane; moisture; profiling; radiometer; sounding; temperature; water vapor;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Microwave Symposium (IMS), 2015 IEEE MTT-S International
Conference_Location :
Phoenix, AZ
Type :
conf
DOI :
10.1109/MWSYM.2015.7166742
Filename :
7166742
Link To Document :
بازگشت