Generative Inter-Well Modeling
Fills the rock between wells with geologically plausible detail instead of a smooth interpolation that no outcrop ever looked like.
Picks faults and horizons across a full seismic volume in hours, leaving the interpreter to judge rather than to click.
Manual fault interpretation on a large 3D survey takes weeks and is interpreter-dependent to the point that two specialists produce visibly different fault frameworks from the same volume.
Convolutional segmentation networks trained on synthetic and operator-labelled volumes produce fault probability and horizon surfaces, which the interpreter edits rather than draws. Every automated pick carries a probability, and low-probability regions are highlighted for manual review.
Performance drops sharply on data with a different processing signature from the training set, and re-processing a survey can invalidate a tuned model. In low signal-to-noise zones — below salt, under gas clouds — it produces confident-looking artefacts, so those zones are masked and flagged rather than interpreted.
Every capability page states a real limitation. If a vendor cannot tell you where their product stops, you are not being told the truth about where it starts.
Fills the rock between wells with geologically plausible detail instead of a smooth interpolation that no outcrop ever looked like.
Searches for where the next wells should go, with drilling feasibility and surface constraints inside the search rather than applied afterwards.
Understands log images, maps and cross-sections alongside text, so you can ask a question about a figure rather than only about a paragraph.
A learned stand-in for the full reservoir simulator that answers in seconds instead of hours, so an engineer can test fifty scenarios instead of three.
Tunes the reservoir model until it reproduces what the field actually produced, automatically and with the uncertainty kept rather than discarded.