Determining Mission Effects of Equipment Failures

@inproceedings{Morris2014DeterminingME,
  title={Determining Mission Effects of Equipment Failures},
  author={Paul Henry Morris and Minh Binh Do and Robert S. McCann and Liljana Spirkovska and Mark Schwabacher and Jeremy D. Frank and Vijaykumar Baskaran},
  year={2014}
}
NASA plans call for long duration deep space missions with human crews. Because of lighttime delay and other considerations, increased autonomy is needed. Crews on next-generation missions will likely be small, perhaps with as few as four members. A small crew is not likely to possess the full range of expertise needed to deal with unexpected failures and anomalies. Applied artificial intelligence technologies have developed decision support tools with the potential to fill the gap, but these… 

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References

SHOWING 1-10 OF 15 REFERENCES
Integrating Planning, Execution and Diagnosis to Enable Autonomous Mission Operations
NASA’s Advanced Exploration Systems Autonomous Mission Operations (AMO) project conducted an empirical investigation of the impact of time delay on today’s mission operations, and of the effect of
Evolving from Planning and Scheduling to Real-Time Operations Support: Design Challenges
TLDR
Key features that have been built for SPIFe are current time indicators integrated into the interface and timeline, as well as other plan attributes that enable execution of scheduled activities.
Mixed-Initiative Planning in Space Mission Operations
TLDR
The mixed-initiative aspects of the MAPGEN system are discussed, focusing on the task, control, and awareness issues.
State-Based Scheduling via Active Resource Solving
TLDR
An extension of the active solver to handle resource problems is reported on, allowing a unification of the passive and active strategies.
General Purpose Data-Driven System Monitoring for Space Operations
TLDR
The maturation of IMS via projects where it has been deployed, or is currently being integrated to aid in fault detection will be described, and how IMS can be used to complement a suite of other ISHM tools, providing initial fault detection support for diagnosis and recovery.
General Purpose Data-Driven Monitoring for Space Operations
TLDR
The TacSat-3 Vehicle System Management project is a software experiment to integrate fault and anomaly detection algorithms and diagnosis tools with executive and adaptive planning functions contained in the flight software on-board the Air Force Research Laboratory Tacsat-3 satellite, and will demonstrate the feasibility and effectiveness of integrated system health management technologies.
Temporal Constraint Networks
A System for Fault Management, Including Fault Consequence.
  • 43rd International Conference on Environmental Systems (ICES). Reston, Virginia: American Institute of Aeronautics and Astronautics,
  • 2013
Putting ISHM Capabilities to Work: Development of an Advanced Caution
  • Planning Applications Workshop (SPARK),
  • 2013
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