Method for calculating porosity in tight sandstone reservoir thin sections based on ICSO intelligent algorithm

Tao Liu , Zongbao Liu , Kejia Zhang , Feng Tian , Yan Zhang , Ruixue Zhang , Cuiyun Xu , Fang Liu , Xiaowen Liu , Haoran Wang , Mengning Mu
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Abstract

Surface porosity is crucial for evaluating tight sandstone reservoirs' performance and resource potential. The current manual calculation and algorithm extraction methods have problems such as heavy workload, long time consumption, low accuracy in identifying complex pore morphologies, and weak learning ability for sparse samples. Drawing on the concept of hybrid intelligence, this paper proposes an intelligent calculation method for the surface porosity of tight sandstone reservoirs (ICSO) that combines the SOLOv2 algorithm and OpenCV. The SOLOv2 instance segmentation algorithm was used to segment and label pore regions in images. OpenCV was employed to extract pore distribution and proportions, thereby realizing the calculation of surface porosity. The performance comparison with similar algorithms demonstrates the advantages of this method in terms of accuracy, running speed, and generalization ability. It addresses the surface porosity calculation issue and provides a novel research approach for solving similar problems in related fields.

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基于ICSO智能算法的致密砂岩储层薄片孔隙度计算方法
地表孔隙度是评价致密砂岩储层性能和资源潜力的关键。目前的人工计算和算法提取方法存在工作量大、耗时长、识别复杂孔隙形态准确率低、对稀疏样本学习能力弱等问题。本文借鉴混合智能的概念,提出了一种将SOLOv2算法与OpenCV算法相结合的致密砂岩储层表面孔隙度(ICSO)智能计算方法。采用SOLOv2实例分割算法对图像中的孔隙区域进行分割和标记。利用OpenCV提取孔隙分布和比例,实现表面孔隙度的计算。通过与同类算法的性能比较,证明了该方法在精度、运行速度和泛化能力等方面的优势。解决了表面孔隙度计算问题,为解决相关领域类似问题提供了新的研究途径。
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