An intelligent lithology identification system and method based on images and spectrum technology. The intelligent lithology identification system includes a rock shape analysis system, an image identification system, a sample processing system, a spectrum analysis system, and a central analysis and control system; wherein the central analysis and control system determines the final lithology of a sample according to the rock identification results from the image identification system and the analysis results from the spectrum analysis system. The technical solution further identifies the content and type of minerals by using spectrum technology, integrates and analyzes the results of spectrum analysis and image identification, and finally gives the lithology of the rock, which greatly improves the accuracy of lithology identification.
Drawings
Claims10
An intelligent lithology identification system based on images and spectrum technology, comprising:
a rock shape analysis system, an image identification system, a sample processing system, a spectrum analysis system, and a central analysis and control system;
the rock shape analysis system acquires shape information of a sample to be tested, pre-selects a plurality of X-ray fluorescence(XRF) detection planes according to the shape information of the sample, determines a grinding position of the sample to be tested according to grinding workloads of different detection planes, and transmits the grinding position of the sample to be tested and flatness of a ground plane to the central analysis and control system;
the central analysis and control system controls, according to the determined grinding position of the sample to be tested, the sample processing system to grind the sample till meeting the requirement of XRF analysis for flatness, and the image identification system preliminarily identifies lithology of a ground rock;
the sample processing system grinds debris produced in the grinding process of the sample after grinding the sample following the requirement of XRF analysis, and the image identification system judges whether rock powder meets the requirement of X-ray diffraction (XRD) analysis for a size of rock particles;
the spectrum analysis system performs XRD analysis on the rock powder meeting the requirement of particle size and XRF analysis on the rock sample meeting the requirement of sample flatness, and transmits respective analysis results to the central analysis and control system;
the central analysis and control system determines the final lithology of the sample according to the rock identification results from the image identification system and the analysis results from the spectrum analysis system.
3 more elements
An intelligent lithology identification method based on images and spectrum technology, comprising:
acquiring shape information of a sample to be tested;
selecting an XRF detection plane according to the shape information of a rock, and determining a grinding position of the sample to be tested according to the detection plane;
grinding, after determining the grinding position of the sample to be tested, the sample till meeting the requirement of XRF analysis for flatness, and preliminarily identifying the lithology of a ground rock;
grinding, after grinding the sample to meet the requirement of XRF analysis for flatness, a debris produced in the grinding process of the sample, judging whether a ground rock powder meets the requirement of XRD analysis for a size of rock particles, and continuing to, if not, grind the debris till meeting the requirement;
and
performing XRF analysis on the sample meeting the requirement of XRF analysis for flatness and XRD analysis on a rock powder meeting the requirement of XRD analysis for the size of rock particles respectively to obtain respective analysis results, and determining the final lithology of the sample according to the preliminary identification on the lithology of the rock and two analysis results.
#The present disclosure relates to the technical field of rock identification and classification in engineering geology, in particular to an intelligent lithology identification system and method based on images and spectrum technology.
#Rock identification is a fundamental work in geological survey. During the field of geological survey, geologists may identify the lithology of rocks based on the color, the texture, the mineral composition and the like of rocks. With the rapid development of artificial intelligence (AI), more and more researchers have begun to identify the lithology of rocks using deep learning technology, and to analyze and process the image features of the rocks through intelligent algorithms such as machine learning, thereby reducing the dependence on professional knowledge and equipment, achieving the purpose of identifying the lithology of rocks from image identification, and effectively avoiding the problems of long time consumption, low accuracy and subjective influence in artificial identification of rocks.
#However, the inventors found in research that with the wide application of image-based deep learning technology in lithology judgment, some problems have been gradually exposed. The determination of rock lithology should consider not only the appearance but also the composition and content of minerals, and these factors are often not reflected in the images. Therefore, when a variety of rock types are to be identified, it is unrealistic to rely simply on images to identify rock lithology.
Brief description of the drawings5 figures
#The accompanying drawings constituting a part of the present disclosure are used for providing a further understanding of the present disclosure, and the schematic embodiments of the present disclosure and the descriptions thereof are used for interpreting the present disclosure, rather than constituting improper limitations to the present disclosure.
#FIG. 1 is a schematic structural diagram of a rock shape generation system according to an embodiment of the present disclosure;
#FIG. 2 is a schematic side view of part of a sample processing system according to an embodiment of the present disclosure;
Detailed description3,368 words
#In which, 1, laser rangefinder; 2, clip; 3, first retractable member; 4, rock; 5, rock shape generation module; 6, rock XRF detection plane pre-selection module; 7, central analysis and control system; 8, first gear; 9, first drive motor; 10, second retractable member; 11, third retractable member; 12, fourth retractable member; 13, mobile base; 14, rail; 15, horizontal movement driving device; 16, grinding member; 17, support beam; 18, fifth retractable member; 19, second drive motor; 20, second gear; 21, clamping groove; 22, grinding stone; 23, rock debris; 24, grinding bowl; 25, XRF analyzer; 26, XRD analyzer; 27, second data processing unit; 28, camera; 29, rock particle detection model; 30, rock classification model; 31, third data processing unit.
#It should be noted that the following detailed descriptions are exemplary and are intended to provide further descriptions of the present disclosure. All technical and scientific terms used herein have the same meaning as commonly understood by those of ordinary skills in the technical filed to which the present disclosure belongs, unless otherwise indicated.
#It should be noted that the terms used here are merely used for describing specific embodiments, but are not intended to limit the exemplary embodiments of the present invention. As used herein, unless otherwise clearly stated in the context, singular forms are also intended to include plural forms. In addition, it should also be understood that when the terms “comprise” and/or “include” are used in the description, it indicates the presence of features, steps, operations, devices, components, and/or combinations thereof.
Application
16/957,631Filed 26 Apr 2019
Priority
CN 20191027192714 Apr 2019
Published
US 2021/0215590 A115 Jul 2021
Granted
27 Dec 2022
Term ends
26 Apr 2040Estimated · howhide20 years from earliest known nonprovisional domestic filing plus recorded patent term adjustment, including 366 days of adjustment. Maintenance-fee lapses, terminal disclaimers and statutory extensions have not been checked. The continuity chain may be incomplete; this is not an enforceability determination.