gempy.core.data.GeoModel

class gempy.core.data.GeoModel(name: str, structural_frame: StructuralFrame, grid: Grid, interpolation_options: InterpolationOptions)[source]

Class representing a geological model.

Examples using gempy.core.data.GeoModel

Getting Started

Getting Started

1.1 -Basics of geological modeling with GemPy

1.1 -Basics of geological modeling with GemPy

1.3b: 2-D sections

1.3b: 2-D sections

1.3c: Adding topography to geological models

1.3c: Adding topography to geological models

1.4: Unconformity relationships

1.4: Unconformity relationships

1.5: Fault relations

1.5: Fault relations

1.6: 2D Visualization.

1.6: 2D Visualization.

1.7: 3-D Visualization

1.7: 3-D Visualization

2.1 Forward Gravity: Simple example

2.1 Forward Gravity: Simple example

3.1: Simple example of kriging in gempy

3.1: Simple example of kriging in gempy

Chapter 4: Analyzing Geomodel Topology

Chapter 4: Analyzing Geomodel Topology

Video Tutorial “code-along”: Modeling step by step

Video Tutorial "code-along": Modeling step by step

Video Tutorial “code-along”: Faults

Video Tutorial "code-along": Faults

Model 1 - Horizontal Stratigraphy

Model 1 - Horizontal Stratigraphy

Model 2 - Anticline

Model 2 - Anticline

Model 3 - Recumbent Fold

Model 3 - Recumbent Fold

Model 4 - Pinchout

Model 4 - Pinchout

Model 5 - Fault

Model 5 - Fault

Model 6 - Unconformity

Model 6 - Unconformity

Model 7 - Combination

Model 7 - Combination

GemPy Models - Some More Complex Examples

GemPy Models - Some More Complex Examples

Model of Ales, France: Plotting Sections and Maps

Model of Ales, France: Plotting Sections and Maps

Geomodeling benchmark: the “Claudius”-Model

Geomodeling benchmark: the "Claudius"-Model

Greenstone.

Greenstone.

Geomodeling benchmark: the “Hecho”-Model

Geomodeling benchmark: the "Hecho"-Model

Geomodeling benchmark: the “Moureze”-Model

Geomodeling benchmark: the "Moureze"-Model

A geological model of the Perth basin, Australia

A geological model of the Perth basin, Australia

Unknown Model: Importing Borehole Data and Building a 3D Geological Model with GemPy

Unknown Model: Importing Borehole Data and Building a 3D Geological Model with GemPy

Methods

__init__(name, structural_frame, grid, ...)

add_surface_points(X, Y, Z, surface[, nugget])

update_transform([auto_anisotropy, ...])

Update the transformation of the geological model.

Attributes

extent_transformed_transformed_by_input

geophysics_input

The geophysics input of the geological model.

input_data_descriptor

input_transform

The transformation used in the geological model for input points.

interpolation_grid

Optional grid used for interpolation.

interpolation_input_copy

interpolation_options

legacy_model

Legacy model (if available).

orientations

orientations_copy

This is a copy! Returns a OrientationsTable for all orientations across the structural elements

orientations_copy_transformed

project_bounds

regular_grid_coordinates

regular_grid_coordinates_transformed

solutions

surface_points

surface_points_copy

This is a copy! Returns a SurfacePointsTable for all surface points across the structural elements

surface_points_copy_transformed

meta

Meta-information about the geological model, like its name, creation and modification dates, and owner.

structural_frame

The structural information of the geological model.

grid

The general grid used in the geological model.
geophysics_input: GeophysicsInput = None

The geophysics input of the geological model.

interpolation_grid: EngineGrid = None

Optional grid used for interpolation. Can be seen as a cache field.

legacy_model: gpl.Project = None

Legacy model (if available). Allows for backward compatibility.

__init__(name: str, structural_frame: StructuralFrame, grid: Grid, interpolation_options: InterpolationOptions)[source]
meta: GeoModelMeta

Meta-information about the geological model, like its name, creation and modification dates, and owner.

structural_frame: StructuralFrame

The structural information of the geological model.

grid: Grid

The general grid used in the geological model.

input_transform: Transform = None

The transformation used in the geological model for input points.

update_transform(auto_anisotropy: GlobalAnisotropy = GlobalAnisotropy.NONE, anisotropy_limit: ndarray | None = None)[source]

Update the transformation of the geological model.

This function updates the transformation of the geological model using the provided surface points and orientations. It also applies anisotropy based on the specified type and limit.

Parameters:

  • auto_anisotropy (GlobalAnisotropy) – The type of anisotropy to apply. Defaults to GlobalAnisotropy.NONE.

  • anisotropy_limit (Optional[np.ndarray]) – Anisotropy limit values. If None, no limit is applied.

property surface_points_copy

This is a copy! Returns a SurfacePointsTable for all surface points across the structural elements

property orientations_copy: OrientationsTable

This is a copy! Returns a OrientationsTable for all orientations across the structural elements