Abstract: A method includes receiving seismic data of a subsurface. The method also includes color processing the seismic data to produce color-processed seismic data. The method also includes performing a seismic interpretation on the color-processed seismic data to identify regional geologic features. The method also includes performing first mapping along the regional geologic features to identify local geologic features. The method also includes extracting reservoir bodies from the local geologic features based upon the first mapping. The method also includes performing second mapping along the local geologic features to embed the local geological features into the regional geologic features. The method also includes delineating boundaries of reservoirs or seals in the subsurface based upon the local geologic features that are embedded into the regional geologic features. The method also includes de-risking a fluid prospect in a fluid reservoir based upon the boundaries of the reservoirs or the seals.

Abstract: A method can include providing data from at least two data sets in a continuous color model that includes at least two color axes; transforming the data from the continuous color model to a hue, saturation and value color model to generate at least saturation data; applying an edge detection algorithm to the saturation data to generate enhanced data; and rendering at least a portion of the enhanced data to a display. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: A method for generating a three dimensional (3D) model of a near surface layer. In one implementation, the method may include generating a one dimensional (1D) geologic model of the near surface layer, converting the 1D geologic model to a two dimensional (2D) geologic model of the near surface layer, converting the 2D geologic model to a 3D geologic model of the near surface layer, and converting the 3D geologic model to a 3D elastic geologic model of the near surface layer.

Abstract: A computer implemented technique for use in seismic data interpretation and, more particularly, with respect to near-surface geological structures, includes a computer-implemented method, including: jointly interpreting a plurality of complementary data sets describing different attributes of a near-surface geologic structure; and ascertaining a near-surface geomorphology from the joint interpretation. In another aspect, the technique includes a program storage medium encoded with instructions that, when executed, perform such a method. In yet another aspect, the method includes a computing apparatus programmed to perform such a method.

Abstract: A method can include providing data from at least two data sets in a continuous color model that includes at least two color axes; transforming the data from the continuous color model to a hue, saturation and value color model to generate at least saturation data; applying an edge detection algorithm to the saturation data to generate enhanced data; and rendering at least a portion of the enhanced data to a display. Various other apparatuses, systems, methods, etc., are also disclosed.

Abstract: A method for generating one or more maps of a survey area. In one implementation, the method may include receiving earth observation data, decomposing the earth observation data into pixels, georeferencing the earth observation data in pixel form with the curvature of the earth's surface, integrating the earth observation data in pixel form with seismic data, extracting one or more attributes from the integrated data and displaying the extracted attributes on one or more survey maps.

Abstract: A method and apparatus for use in seismic prospecting are disclosed. The method includes: attenuating coherent noise in a seismic data set generated from a sweep signal; and correlating the coherent noise-attenuated seismic data set to the sweep signal. The apparatus includes a program storage medium encoded with instructions that, when executed by a computing device perform the method and a computer programmed to perform the method.

Abstract: A method of processing seismic data comprises processing data representative of the acceleration wavefield so as to obtain information about the earth's subsurface direct from the seismic data representative of the acceleration wavefield. In conventional techniques for processing seismic data representative of the acceleration wavefield the data are transformed to the velocity domain at an early stage in the processing. The invention enables the transform step to be eliminated, thereby simplifying the processing and eliminating the risk that the transform might degrade the data. Furthermore, the increased sensitivity at high frequencies of a typical acceleration sensor compensates for the low-pass filter effect of the earth.

Abstract: A method and apparatus for use in seismic prospecting are disclosed. The method includes: attenuating coherent noise in a seismic data set generated from a sweep signal; and correlating the coherent noise-attenuated seismic data set to the sweep signal. The apparatus includes a program storage medium encoded with instructions that, when executed by a computing device perform the method and a computer programmed to perform the method.

Abstract: A method and apparatus for use in seismic prospecting are disclosed. The method includes: attenuating coherent noise in a seismic data set generated from a sweep signal; and correlating the coherent noise-attenuated seismic data set to the sweep signal. The apparatus includes a program storage medium encoded with instructions that, when executed by a computing device perform the method and a computer programmed to perform the method.

Abstract: A method for generating a three dimensional (3D) model of a near surface layer. In one implementation, the method may include generating a one dimensional (1D) geologic model of the near surface layer, converting the 1D geologic model to a two dimensional (2D) geologic model of the near surface layer, converting the 2D geologic model to a 3D geologic model of the near surface layer, and converting the 3D geologic model to a 3D elastic geologic model of the near surface layer.

Abstract: Interpretation of a shot gather and a stack of seismic data. In one implementation, the shot gather is sorted into a first component shot gather, a second component shot gather and a third component shot gather. The first component shot gather is represented as a first subimage, the second component shot gather is represented as a second subimage, and the third component is represented as a third subimage. The first subimage is then merged with the second subimage and the third subimage to create a false color image. The shot gather of seismic traces may then be interpreted based on the false color image. The first component may by an x component, the second component may be a y component and the third component may be a z component. The first subimage may be a red or cyan subimage, the second subimage may be a green or yellow subimage and the third subimage may be a blue or magenta subimage.