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Semantic Scholar · Article (Research Anthology on Reliability and Safety in Aviation Systems, Spacecraft, and Air Transport)
Decision Making in Complex Environments
Attribution
This is the abstract and citation. Full text lives at Semantic Scholar — we link out rather than host. All credit to the authors and Research Anthology on Reliability and Safety in Aviation Systems, Spacecraft, and Air Transport.
Abstract
Verbatim from Semantic Scholar. Not paraphrased, not summarized.
Bayesian probability theory, signal detection theory, and operational decision theory are combined to understand how one can operate effectively in complex environments, which requires uncommon skill sets for performance optimization. The analytics of uncertainty in the form of Bayesian theorem applied to a moving object is presented, followed by how operational decision making is applicable to all complex environments. Large-scale dynamic systems have erratic behavior, so there is a need to effectively manage risk. Risk management needs to be addressed from the standpoint of convergent technology applications and performance modeling. The example of an airplane during takeoff shows how a risk continuum needs to be developed. An unambiguous demarcation line for low, moderate, and high risk is made and the decision analytical structure for all operational decisions is developed. Three mission-critical decisions are discussed to optimize performance: to continue or abandon the mission, the approach go-around maneuver, and the takeoff go/no-go decision.
Author
- Kevin M. Smith
Keywords
- Computer Science
- Engineering
Citation: Kevin M. Smith (2017). Decision Making in Complex Environments. Research Anthology on Reliability and Safety in Aviation Systems, Spacecraft, and Air Transport. Semantic Scholar ID f8d9ea239af0208e3fb78c8188bf2b265db1dd43. https://doi.org/10.4018/IJASOT.2017070101 ↗