GeneSat-1 Quick Look Mission Report

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Transcription:

GeneSat-1 Bruce Yost Mission Manager (650)691-0676 <byost@mail.arc.nasa.gov>

GeneSat-1 Project Team GeneSat-1Project M J. Hines Payload Segment C. Friedericks Space Segment C. Freidericks MIssion Managemen Defouw Engineering Ground Segment C. Kitts Santa Clara Univ. Technology System NCSBT L&M Electronics Satellite System Sverdrup, ASRC Engin L&M Electronics Launch Vehicle Integr Mission Operations Ce Santa Clara Univ. Biological Systems Sverdrup Lockheed-Martin PPOD CalPoly SLO Launch Servi Ground Station Santa Clara Univ. SRI USAF/SDTW Orbital Scien ARC Engineering

GeneSat-1 Project Goals Demonstrate utility of small, inexpensive spacecraft in support of NASA Exploration objectives Enable the capability to rapidly mature technologies to TRL 6-8 System/subsystem model or prototype demonstration in a relevant environment - (TRL 6) Pave the way forward for future autonomous, inexpensive missions, including lunar applications

GeneSat-1 Mission Overview Total Mass (satellite + P-POD) 7.1 kg (4.1+ 3 kg) Satellite Power (peak) 4-5 W Satellite Volume 3 Cubes (14 x 4 x 4 ) with beacon Science Data Downlink ~200 kb/day, ISM band (2.4 GHz) Fluidic card Well w/ E. coli (100 µl) Optical density LED E/PO Beacon/Data Downlink Flight hardware Delivery Amateur band (~437 MHz) 11/13/2006 Mission Duration 21 days (spacecraft design life) (Experiment Duration ~ 100 hours) Orbit Altitude 460 km Intensity-tofrequency detector Fluorescent excitation LED Orbit Inclination Launch Vehicle 40.5 Minotaur I (TacSat-2 Primary)

Integration Flow PPOD WFF Bldg. F7 WFF Bay W65 Minotaur I Upper Stage GeneSat-1 + GSE GeneSat-1 loaded at ARC (+ backup) Hand carry GeneSat(s), PPOD(s), & GSE to WFF Functional check (including radios) Fit check with PPOD and brackets Mount to LV ARC Launch WFF Pad 0B

Launch Summary Launch December 16, 2006 Wallops Flight Facility Minotaur 1 LV USAF TacSat-2 primary payload Orbit insertion at 40.5 inclination, 460 km circular Successful PPOD deployment Acquired beacon on first pass over western US (CalPoly) First beacon data packets acquired by HAM operator in Iowa

Engineering Results Satellite Bus Performance Temperatures were within nominal pre-flight models and predictions Power was adequate to execute all experiment protocols and satellite functions Flight software performed as designed - no resets observed Communications were adequate to allow for positive control of the spacecraft and experiment data downlink Passive attitude control system performed as designed PPOD deployer performed as designed Payload Systems Performance Environmental control performed as designed allowing incubation of bacteria specimens Fluidics systems performed as designed All sensors performed as designed (temperature, RH, radiation, optical detectors)

Engineering Results

Biology Results Flight data Flight data Bacteria growth (detected by optical density) occurred as expected Expression of GFP tag (detected by fluorescence detectors) occurred as expected Flight data are comparable with ground control data

Ground Segment Status Ground station performed as designed Minor issues resolved during mission Spacecraft still under control Mission Dashboard for all to see HAM radio contest completed

Operations Summary Pre-Launch Launch Deployment Stabilization Experiment Operations Education Mission Spacecraft Disposal PPOD fit check and deploy test at VAFB GeneSat-1 bio-loaded at ARC GeneSat-1 integrated into PPOD at Wallops ~ L-30d Experiment armed PPOD + GeneSat-1 integrated onto LV Encapsulation, stacking, and roll-out to Pad 0B GeneSat-1 off GeneSat-1 ejection (following Minotaur CCAM) Power switch enabled; GeneSat-1 activated Locate (via beacon, NORAD) Establish 2-way communications with GeneSat-1 Evaluate GeneSat-1 parameters (temps, power, µg) Activate experiment Downlink and validate data Up to 6 months post-launch (ongoing) Reentry within 1 year Complete

Mission Success Criteria Criteria Status Comment Satellite Autonomy Automatic activation of satellite upon deployment, keep alive temperatures and experiment activation. Accommodation of Advanced Sensors Experiment Autonomy and Exploitation of Cellular or Microscopic Organisms All technologies (sensors, satellite) ready for flight by 2006. System ready for launch and mission operations by Fall 2006. Fluorescent detection of GFP proteins Satellite mass <10kg Demonstrate secondary payload flight accommodations Demonstrate sufficient power margin to operate experiment and satellite systems Perform multi-redundant experiment for increased viability Satellite accommodates sensor suite specified and operates all successfully. Also includes determination of radiation environment, and satellite rotation rates and microgravity environment. Biological systems detect growth upon experiment activation. Qualification and testing complete for all systems. Launch and delployment/operations began on December 16, 2006. Optics successfully detected and recorded fluorescent signal from biological specimens. GeneSat-1 flyaway mass = 4.6 kg plus 2.25 kg for the PPOD (6.9 kg total) GeneSat-1 was accommodated as a secondary payload on the Minotaur 1 launch vehicle. Power margins remained positive throughout the entire phase 1 mission. Experiment data generated and downlinked. Data were successfully returned form 8 independently sensed biological wells plus 2 calibration wells.

Mission Summary Flight segment performed as designed Ground segment performed as designed Launch segment performed as planned GeneSat-1 Team performance was exemplary Interaction with launch vehicle teams was efficient and enjoyable Able to fully integrate the University team members and amateur radio community Valuable relationships formed with USAF, NASA/WFF and other key contractors (Orbital, NEA) This process is readily repeatable Mission Lessons Learned activity underway Thanks to: AFRL The Air Force Research Laboratory Wallops Flight Facility