Visualize, analyze, and integrate your geophysical data, from Oasis montaj, in Leapfrog via the new geophysical extension.
Using the geophysics extension geophysical voxels and grids can be imported into Leapfrog, where data integration is made possible through the creation of numerical models of the geophysical data using the new IDW grid interpolant (geophysics extension). From the geophysical numerical models, isosurfaces of interest can be integrated into the geological model, as a lithologic units, allowing further analysis and interpretation of the geology.
<v Instructor>In this video, I’m going to show you</v>
how to integrate your data between Leapfrog
and Oasis montaj.
Interoperability between Oasis montaj
and Leapfrog allows you to use your geophysical information
to inform your geological model.
You can leverage our new geophysics extension
to seamlessly visualize, analyze,
and integrate different formats of geophysics data
into Leapfrog’s intuitive workflows
to refine and optimize geological interpretations.
In this example of the interoperability,
I will use data from an airborne frequency domain EM survey
collected over a large area in Nebraska.
The airborne EM data can be utilized to constrain
the extents of the groundwater aquifer
that is known to be in the area.
Our geological model created in Leapfrog Works
was constructed from borehole data,
which is sparse in the area of the known aquifer.
So the geophysics will provide a much higher resolution
of the subsurface in this region.
Most importantly, we can use the geophysical data
to inform our geological interpretation
and plan further drill holes to constrain the aquifer.
In Oasis montaj, I have inverted
the geophysical airborne EM data,
which is a frequency domain survey
spanning a depth of exploration to about 100 meters.
The inversion was done in VOXI,
which is Seequent’s, on-demand cloud-hosted forward modeling
and inversion service.
In VOXI, the data is processed in the cloud,
leaving your computer resources free to do other tasks.
We can export our voxel to a UBC model,
which can easily be imported into Leapfrog Works
via the new geophysics extension.
This will allow you to filter
and visualize your data in Leapfrog.
Furthermore, we can use this geophysical data
to create a numerical model of the aquifer.
This is done through our new, IDW isosurfacing
in the geophysics extension.
Imported geophysical grids can be isosurfaced
using the local IWD Isosurfacer.
This allows for faster and more complete integration
of geophysical data into the context of your 3D model.
Once we have our surface, or surfaces of interest,
we can then begin to incorporate this information
into our geological model.
I can add a lithology to my model.
And I have called it aquifer.
I can incorporate my aquifer
into my geological model as a new intrusion.
So this is done in the surface chronology folder.
Once I have added this and selected it,
my geological model will update to include this unit.
Once the geological model is run,
I can see my aquifer in relation to the geology in my model.
This can be used to interpret your geology
and further plan drill holes
that can be used to constrain the aquifer even further.
So this is an iterative process,
also with our new geophysics extension in Leapfrog,
we are able to import crooked grids or crooked sections.
So this will also aid in the interpretation
of your geological data.