矿产远景测绘中多种地球科学数据集整合技术综述

Neelesh Katiyar, A. Kulshreshtha, Pramod Singh
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引用次数: 0

摘要

在人类生活的各个领域和实用方面,都需要金属和建筑材料。近地表以下的矿物几乎都是根据直接的地理空间证据进行勘探的。在当前形势下,人们需要更快、更精确的勘探策略,特别是强调绿地勘探和深层成矿。本文全面回顾了现有的多地球科学数据集整合方法,旨在进行矿物预测,重点是确定最精确、最可靠的基于人工智能(AI)的数据整合技术。此外,报告还深入分析了印度矿产勘探的现状以及全球数据整合实践的演变。地质、地球物理、地球化学和地球光谱数据等多种类型的地球科学数据集必须在地球空间领域进行组织,以获得有意义的矿产勘探结果。对这些数据集进行处理以提取勘探指标层,用于数据整合,这就是所谓的矿产远景制图(MPM)。事实上,MPM 是一项多准则决策(MCDM)任务,它提供了一个预测模型,用于根据矿石成矿情况对寻找区域进行分类。然后,根据地质因素,即寻找矿化区域的岩性、结构、剪切和断层带、蚀变带等,选择钻探参数(深度、角度、水平、类型、转速、给料),进行资源评估。文献调查表明,以这些数据集为基础,通过综合方法进行矿产勘探的效果仍然不佳。研究发现,使用模糊伽马运算器和多类指数叠加法进行知识驱动的数据整合最适合矿产勘探。过去,其他国家也有少数研究人员采用了数据整合方法,并取得了令人鼓舞的成果。尽管印度有丰富的数据,但这种方法并没有得到很好的利用,甚至在钻探作业的决策制定方面也没有标准协议。因此,很明显,采用模糊推理系统(FIS)算法,特别是利用模糊伽马运算器和多类指数叠加集成方法,在为印度矿产勘探和钻井作业决策设计标准化操作程序(SOP)方面仍未得到充分利用。这种方法有望最大限度地减少时间滞后,优化人力、仪器和资金等资源。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Review of Integration Techniques of Multi-Geoscience Data-Sets in Mineral Prospectivity Mapping
In every sphere and utility aspects of human life, there is need of metals and construction materials. Minerals which are below the near subsurface is almost explored on the basis of direct geospatial evidences. There is high demand of metals and other materials which are mined below the surface of earth In the current landscape, there's a demand for faster and more precise exploration strategies, particularly emphasizing Greenfield exploration and deep-seated mineralization. This paper conducts a comprehensive review of existing methodologies for integrating multi-geoscience datasets aimed at mineral prognostication, with a focus on identifying the most precise and authentic Artificial Intelligence (AI) - based data integration techniques. Additionally, it offers insights into the current status of mineral exploration in India and the global evolution of data integration practices. Several types of geoscientific datasets i.e. geological, geophysical, geochemical and geospectral data have to be organized in geospatial domain for meaningful mineral exploration outcome. These datasets have been processed to extract exploratory indicator layers for data integration are called Mineral Prospectivity Mapping (MPM). Indeed, MPM is a multiple criterion decision making (MCDM) task which provide a predictive model for categorizing of sought areas in terms of ore mineralization. There after based upon Geological factors i.e. lithology, structure, shear & fault zones, alteration zones etc. of sought mineralized area, selection of drilling parameters (depth, angle, level, type, rpm, feed) is done for resource assessment. Literature survey suggests that minerals exploration by integrated approach on the basis of these datasets is still poorly performed. It has been gathered that knowledge-driven data integration using Fuzzy Gamma Operator and Multiclass Index Overlay method is best suited for mineral exploration. In past, few researchers of other countries have exploited data integration approach with encouraging results. Despite the abundance of data available in India, this approach has not been utilized very successfully and no standard protocols exist even for decision making for drilling operation. Thus, it's evident that employing the Fuzzy Inference System (FIS) algorithm, particularly utilizing the Fuzzy Gamma Operator and Multiclass Index Overlay integration method, remains underutilized in designing standardized operating procedures (SOP) for mineral exploration in India and decision-making for drilling operations. This approach holds promise for minimizing time lag and optimizing resources such as manpower, instruments, and finances.
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