Publication | Open Access
The Future of Sensitivity Analysis: An essential discipline for systems modeling and policy support
546
Citations
303
References
2020
Year
EngineeringMachine LearningPolicy SupportSoftware EngineeringUncertainty FormalismUncertainty ModelingData ScienceUncertainty QuantificationRisk ManagementManagementSystems EngineeringSensitivity AnalysisManaging VariabilityDecision MakingDecision TheoryPredictive AnalyticsDesignComputer ScienceSoftware DesignEssential DisciplineSafety EngineeringUncertainty ManagementDecision ScienceModel AnalysisData Modeling
Sensitivity analysis is emerging as a core component of mathematical modeling, yet its full potential for advancing mechanistic and data‑driven models and supporting decision making remains untapped. This perspective paper revisits the current state of sensitivity analysis and outlines research challenges and future directions for its theoretical development and real‑world application. The authors identify six priority areas—standardization, unlocking potential, reducing computational cost, integrating with machine learning, linking to uncertainty quantification, and enhancing decision‑support use—to guide future research. They conclude that sensitivity analysis must underpin a broad range of scientific and societal activities to realize its benefits.
Sensitivity analysis (SA) is en route to becoming an integral part of mathematical modeling. The tremendous potential benefits of SA are, however, yet to be fully realized, both for advancing mechanistic and data-driven modeling of human and natural systems, and in support of decision making. In this perspective paper, a multidisciplinary group of researchers and practitioners revisit the current status of SA, and outline research challenges in regard to both theoretical frameworks and their applications to solve real-world problems. Six areas are discussed that warrant further attention, including (1) structuring and standardizing SA as a discipline, (2) realizing the untapped potential of SA for systems modeling, (3) addressing the computational burden of SA, (4) progressing SA in the context of machine learning, (5) clarifying the relationship and role of SA to uncertainty quantification, and (6) evolving the use of SA in support of decision making. An outlook for the future of SA is provided that underlines how SA must underpin a wide variety of activities to better serve science and society.
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