High-Resolution Imaging ofFracture Geometry and Conductivityin Unconventional Reservoirs

Visualize fracture growth, depletion effects, inter-well communication, and more — using your newly acquired or existing microseismic data.

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$3D rendered image of fractures$

What We Do

Reveal the Fracture Network. Unlock Reservoir Potential

We provide the industry's only commercial solution for imaging fracture geometry using microseismic data without hidden assumptions and black boxes.

Our technology produces high-resolution images that deliver insights previously impossible to obtain:

Accurate fracture geometry, orientation, and location
Imaging works even away from the sensor array
No custom hardware or proprietary acquisition required

The method is compatible with data recorded by both downhole geophones and DAS arrays, and works with standard acquisition setups.

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$Mesh representing fracture geometry$

One of the deliverables of Fracture Imaging is 3D fracture geometry, provided in the form of triangulated surfaces.

From Image to Value

Analytics That Drive Better Completion Decisions

Once imaging is done, our analytical layer extracts metrics that directly impact field development and completion design:

Quantify vertical and horizontal fracture growth vs. clean volume
Compute fracture surface area per well in multi-well pads
Evaluate vertical connectivity between benches
Understand inter-well communication and depletion effects
Monitor changes during and post-stimulation

See examples of analytical results →

Fracture Imaging computes cumulative and well-level fracture conductivity in gun barrel projection. This enables clear visualization and quantification of inter-well communication and cross-formation connectivity.

Scientifically Transparent

No black boxes. Just physics-based imaging and reproducible analytics

Our imaging algorithm is based on physical principles: it uses polarization to back-propagate reflected energy, accounts for signal frequency, and applies Fresnel zone concepts to estimate the size and orientation of reflectors. It also incorporates a validated model of reflection from thin, fluid-filled fractures.

How our approach stands apart:

Polarization-based waveform analysis for accurate back-propagation of reflected energy without heuristic assumptions
Frequency-aware imaging captures the spatial resolution controlled by real signal content
Fresnel zone interpretation estimates fracture size and orientation based on physical wave behavior
Transparent methodology: every step in imaging and analytics is explainable, reproducible, and open to review
Fully traceable results: from raw microseismic to final metrics

To learn more about the technical foundation, capabilities, and limitations of our method, explore detailed answers in our FAQ →

With a resolution of 5–7 ft, Fracture Imaging can resolve individual fractures at the cluster scale, enabling analysis of performance metrics like cluster uniformity and bias.

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Fracture Imaging Technology

Methodology, input data, capabilities and deliverables

Fracture Imaging Analytics

Metrics, insights, and examples of post-imaging analysis

FAQ

Answers to common technical questions