Reservoir Compaction Model

Reservoir Compaction Model MCP Connector for Claude

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Quantifies reservoir deformation, subsidence, and compaction drive.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner

This MCP server provides specialized simulation tools to model the physical deformation of a reservoir as pore pressure declines. It allows AI agents to calculate vertical subsidence using calculate_vertical_subsidence, estimate energy contribution via estimate_compaction_drive, and predict flow degradation with predict_permeability_loss. It also offers a holistic view of the reservoir's mechanical state through summarize_reservoir_impact.

reservoircompactionsubsidencegeomechanicspetroleum

4 tools expose this connector's capabilities to your AI agent.

calculate_vertical_subsidence

Calculates the total vertical movement of the reservoir top due to compaction

estimate_compaction_drive

Determines the volumetric contribution of compaction to the reservoir's energy

predict_permeability_loss

Predicts how much the ability to flow is degraded by the reduction in pore space

summarize_reservoir_impact

Provides a holistic view of the reservoir's mechanical state

See how to talk to your AI agent using Reservoir Compaction Model.

Calculate the vertical subsidence for a reservoir with 0.0001 compressibility, 100m thickness, and 5MPa pressure change using uniaxial mode.

The total vertical subsidence is 0.005 meters.

What is the predicted permeability loss if initial permeability is 150mD, initial porosity is 0.25, and porosity reduction is 0.02?

The final permeability is 132.4 mD, representing a 11.73% reduction.

Estimate the compaction drive for a reservoir with 0.2 porosity, 0.0001 compressibility, 10MPa pressure change, and 50m thickness.

The drive contribution ratio is 0.001 and the total expelled volume is 0.01 units.

Uniaxial compaction assumes deformation is restricted to the vertical axis, whereas hydrostatic compaction assumes isotropic deformation in all directions.

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