地震反射数据扫描图像数字化的机器学习和深度学习

A. Abdullah
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引用次数: 0

摘要

我们提出了使用k近邻机器学习算法(KNN)和人工神经网络深度学习算法将地震反射数据的扫描图像转换为数字地震格式。数字地震数据格式为用户实现去噪、增强、转换为标准格式(即SEGY)等地震处理算法提供了更大的灵活性,便于进行地震解释、地震属性生成等进一步分析。用不同的彩色图和传统的摆动显示对地震图像的颜色密度表示进行了测试。数字化色彩密度图像包括三个主要步骤:识别每个像素中的红绿蓝(RGB)表示,创建RGB幅度查找表,并用落在色彩标度动态范围内的颜色替换RGB。同时,对于具有摆动表示的图像,该方法略有不同。在模型建立过程中,生成若干图像的属性,如梯度和边缘梯度,以获得针对已知目标振幅的更好的输入唯一性。然后,这个预训练模型用于预测相对于一组图像属性的特定像素位置的地震振幅。转换的结果显示有希望的结果。在地震事件、层位、断层、地层和其他地质/地球物理特征方面,使用定性解释来检查输入和输出之间的相似性,以验证数字化图像的质量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Machine Learning and Deep Learning for Digitizing Scanned Images of Seismic Reflection Data
We present the use of Machine Learning algorithm of K-Nearest Neighbors (KNN) and Deep Learning algorithm of Artificial Neural Network for converting scanned images of seismic reflection data into digital seismic format. Digital seismic data format provides more flexibility for users to implement seismic processing algorithms like de-noising, enhancement and converting it into standard format, namely SEGY for further analysis such as seismic interpretation and seismic attributes generation. Varieties of seismic image in color density representation with different color maps and conventional wiggle display have been tested. Digitizing color density image consists of three main steps: recognizing Red-Green-Blue (RGB) representation in each pixel, creating a look-up table of RGB amplitude and substitute the RGB with a color that falls within the color-scale's dynamic range. Meanwhile, the approach is slightly different for image with wiggles representation. Several images’ attributes such as gradients and edge gradients are generated for better input uniqueness against known target amplitudes during model establishment. This pre-trained model is then used for predicting seismic amplitudes at specific pixel location in respect to a set of image attributes.The outcome of the conversion shows promising results. A qualitative interpretation for similarity check between input and output in terms of seismic events, horizon, faults, stratigraphy and other geological/geophysical features are used to validate the quality of digitized images.
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