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Recognition method of copper flotation field foam condition based on wavelet multi-scale binarization

A copper flotation and foam technology, which is applied in the field of image processing technology and pattern recognition, can solve the problems that it is difficult to describe the appearance of foam and affect the accurate judgment of working conditions.

Active Publication Date: 2016-04-13
CENT SOUTH UNIV
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  • Abstract
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  • Claims
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Problems solved by technology

Although the traditional statistical features extracted by wavelet analysis have multi-scale characteristics, it is difficult to describe the appearance of foam that conforms to the visual habits of workers, thus directly affecting the accurate judgment of working conditions

Method used

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  • Recognition method of copper flotation field foam condition based on wavelet multi-scale binarization
  • Recognition method of copper flotation field foam condition based on wavelet multi-scale binarization
  • Recognition method of copper flotation field foam condition based on wavelet multi-scale binarization

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Embodiment 1

[0063] The specific embodiment of the present invention is described below in conjunction with accompanying drawing, there are three kinds of foams of different working conditions in a certain copper flotation site, are respectively normal foam, hydration foam and viscous foam, the foam images of these three kinds of different working conditions are as follows figure 1 shown.

[0064] In the first step, according to the foam video obtained at the copper flotation site, the foam image is obtained, and the three-dimensional image is grayscaled. Then wavelet decomposition is performed on the two-dimensional grayscale image to obtain wavelet subgraphs on different scales. Ignore the characteristics of each order detail subgraph, and only perform single-branch reconstruction on each order approximation subgraph to obtain the reconstructed approximation subgraph.

[0065] Step 1: Grayscale the original foam image;

[0066] Raw 3D RGB foam image K (X×Y×3) After grayscale, it beco...

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Abstract

The invention discloses a method for identifying the foam working condition on a copper flotation site based on wavelet multi-scale binaryzation. The method comprises the steps of carrying out wavelet transformation on a foam grey image; carrying out binaryzation on wavelet approaching subgraphs with different scales; carrying out statistical calculation on white areas of all binary images according to the space-frequency relation of two-dimensional wavelet transformation to obtain a novel multi-scale statistical characteristic, namely an equivalent dimension characteristic directly related to the apparent form of foam. A foam image equivalent dimension distribution diagram can be obtained according to the obtained equivalent dimension characteristic, and foam images with different working conditions can be distinguished directly through the distribution diagram. The method for identifying the foam working condition on the copper flotation site based on the wavelet multi-scale binaryzation is simple and efficient, and has great guiding significance for foam working condition identification on the copper flotation site.

Description

technical field [0001] The invention relates to a wavelet multi-scale binarization-based recognition method for copper flotation foam working conditions, which belongs to the fields of image processing technology, pattern recognition and the like. Background technique [0002] The flotation working condition is the working condition in the flotation production process, timely and accurate identification of the working condition is very important to guide the flotation production. The traditional way of relying on workers to observe the apparent changes of foam with naked eyes can no longer meet the needs of rapid and accurate identification of working conditions in today's flotation production. With the rapid development of technologies such as machine vision and image processing, great progress has been made in the intelligent identification of working conditions based on the foam characteristics of flotation sites. By quickly and accurately identifying the working conditi...

Claims

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Application Information

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Patent Type & Authority Patents(China)
IPC IPC(8): G06K9/54
Inventor 彭涛曹威黄易卢明桂卫华阳春华粟梅韩华
Owner CENT SOUTH UNIV
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