Heuristic algorithms for design of integrated monitoring of geologic carbon storage sites

•Uses multi-objective optimization and Pareto optimality to monitor geologic carbon storage sites.•Incorporates user-supplied weighting criteria to prioritize detection of the most critical leakage scenarios.•Uses lightweight, efficient software design to run on a typical laptop or workstation. Desi...

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Veröffentlicht in:International journal of greenhouse gas control 2024-06, Vol.135, p.104157, Article 104157
Hauptverfasser: Hanna, Alexander C., Whiting, Jonathan, Huang, Brian, Appriou, Delphine, Yang, Xianjin, Camargo, Julia de Toledo, Baek, Seunghwan, Bacon, Diana, Yonkofski, Catherine
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Sprache:eng
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Zusammenfassung:•Uses multi-objective optimization and Pareto optimality to monitor geologic carbon storage sites.•Incorporates user-supplied weighting criteria to prioritize detection of the most critical leakage scenarios.•Uses lightweight, efficient software design to run on a typical laptop or workstation. Designs for Risk Evaluation and Management (DREAM) is a tool developed under the National Risk Assessment Partnership (NRAP) to enhance geologic carbon storage safety and efficiency. Using potential leakage scenarios generated externally by the users preferred history-matching approach, DREAM constructs ideal combinations of sensor locations in the right place at the right time to detect as many leaks as possible, detect them as early as possible, and minimize cost. This user-friendly tool, developed in Java, features a window-based GUI for input and a 3D visualization tool for viewing the domain space and optimized monitoring plans. DREAM's latest version accommodates real-world usage by allowing for joint optimization of wellbore point sensor placements and surface geophysics survey geometries, and by using more efficient multi-objective optimization algorithms. In an example shown here, these two improvements combined allow us to support containment assurance and go from detecting 80–90 % of the potential CO2 leakage to +99.7 %, a step-change improvement that can make the deciding difference in whether a site is suitable for geologic carbon storage. Though developed for geologic carbon storage, this tool would be equally applicable in many surface or offshore environmental monitoring projects.
ISSN:1750-5836
1878-0148
DOI:10.1016/j.ijggc.2024.104157