Geomechanics

Our approach is robust and effective: we honor the data, select the best constitutive models, and apply scientific workflows to maximize the reliability of our rock mechanics predictions.

• Pore Pressure & Fracture Gradient
• Wellbore Stability
• Solids Production Prediction
• Reservoir Compaction
• Fault Stability
• Subsidence
• Laboratory Tests Design & Interpretation
• Natural Fractures Connectivity
• Mechanical Skin Assessment
• Well Integrity Analysis

By applying state-of-the-art numerical methods and workflows, we can tackle geomechanics-related issues at any scale, from well-centered to full-field models.

We identify key subsurface risks and help design data collection and mitigation programs. We can deliver key technical requirements for Class VI permitting and expedite the permitting process.

• Faults and Fractures
  Characterize faults and fractures to assess the likelihood of reactivation or propagation of fractures.

• Geomechanics
  Provide a full subsurface stress and pore pressure (1D or 3D) characterization to assess integrity of the confining zone.

• Well Operability Limits
  Assist in calculating the confining zone fracture pressure and assess the physical-chemical characteristics of the injection / sealing zones and its fluids.

• Seal Integrity
  Assess seal integrity to evaluate the likelihood of fluid migrations across or along faults.

• Storage Capacity
  Can assist in estimating storage and flow capacity of the injection zone using reservoir simulations coupled with geomechanics.

View our CO₂ Storage Solutions brochure for more information.

Integrated multi-scale characterization and modeling of fracture reservoirs, physics-based modeling of subsurface in-situ stresses and mechanical properties, and implementation and simulation of dual porosity models to assess early breakthrough of injected fluids or interaction with hydraulic fractures.

• Core Characterization
  Use core observations to develop a process-based classification which improves predictivity of fractures (intensity and opening) away from well control.

• Borehole Images
  Develop rules for enhancing image log interpretation, reducing the number of false positive picks, and improving estimates of fracture density and orientation.

• Modeling: Geomechanics & DFNs
  Use quantitative data from core, image logs and numerical models to build Discrete Fracture Network (DFN) models.

• Well Tests & Simulation
  We calibrate DFN models using well tests (DST and interference) to fine tune fracture permeability and anisotropy.

We integrate observations from core all the way through seismic to maximize value of information and reduce uncertainty.

View our Fractured Reservoirs Solutions brochure for more information.

Integrated multi-scale characterization and modeling of geothermal reservoirs, physics-based modeling of subsurface in-situ stresses and mechanical properties, and implementation of coupled geomechanical models to optimize development plans.

• In-Situ Stress
  Understand and constrain the in-situ stress magnitudes and orientations in geothermal fields is of paramount importance for successful and safe drilling operations in hostile high-temperature environments.

• Natural Fractures
  Achieving high injection rates and efficiently circulating fluids between injector and producer often depends on the presence of natural fractures. Characterizing the natural fracture network and its connectivity helps to optimize field development.

• Thermal Stress
  Additional stresses arising from the temperature contrast between a cold injected fluid and a hot formation can lead to underestimating the impact of in-situ stresses. Modeling induced thermal stresses can ensure safe drilling operations and predict the impact on stress-sensitive reservoir permeability.

• Simulation
  Coupling reservoir and geomechanical simulations can improve reservoir performance prediction while optimizing field development plans. It can also help predict and mitigate collateral effects such as induced seismicity and surface heave.

View our Geothermal Solutions brochure for more information.

We use a process-based approach to develop geologic concepts. We integrate core, wireline, drilling, well tests, and production data to characterize and model permeability architecture in complex reservoirs.

• Core Description
• Image Log Interpretation
• Integration of Core and Image Logs
• Cap Rock Integrity
• Fault Seal and Connectivity
• Fractures and Karst
• Analogs
• Petrophysics
• Rock Typing
• Geocellular Models
• DFN Models
• Well Test Integration
• Field Trips and Training

We specialize in characterization and modeling of complex reservoirs with dual porosity and permeability extremes. Our models help manage the risk associated to early breakthrough of undesired fluids and optimize field development programs.

We use a state-of-the-art fully integrated black-oil/compositional, geomechanics and hydraulic fracturing reservoir simulators to assess plausible scenarios that can result in project underperformance.

• Black Oil/Compositional
• Dual Porosity
• Coupled Geomechanics
• Rock-Fluid Interactions
• Thermal / Chemical EOR
• CCUS and Geothermal
• Hydraulic Fracturing
• Flexibility and Integration
• Uncertainty Analysis
• Optimization Workflows
• Streamlines
• Exploration-to-Production Simulation
• Experience with Main 3D Numerical Simulators

We manage the most relevant physics required for conventional and unconventional reservoirs, while maintaining flexibility and enabling fast decision making.