1887

Abstract

Summary

A metadata approach is described that enhances the ability to characterise and model siliciclastic deep-marine hydrocarbon reservoirs. This is achieved through a relational database approach - the Deep-Marine Architectural Knowledge Store (DMAKS) — which entails a consistent method of data entry, ensuring data from ancient, modern and sub-surface investigations are stored to a common standard. The DMAKS stores information relating to the depositional systems’ setting and environmental controls, the architectural geometry and facies characteristics, along with hierarchical and spatial relationships. This deep-marine data repository thus enables quantitative meta-data analysis. The expansive range of data and parameters contained within the database improves the quality of predictive models, while the ability to produce statistical outputs enables deep-marine analogues to be more objectively selected.

An initial investigation into a single case-study — the Golo system — helps to demonstrate the DMAKS research capabilities. Here, an original lobe-type architectural model is tested against a larger data-pool. The DMAKS quantitatively verifies the existence of distinct parent lobe-types (small, single-story versus larger, composite lobes associated with leveed-channels) through the analysis of geometrical, hierarchical and spatial relationships. It also provides new insights, as the hierarchical status of a lobe is seen to influence its resultant geometry.

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/content/papers/10.3997/2214-4609.201700606
2017-06-12
2024-04-24
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References

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