Seismic Processing Suite

A comprehensive solution for time and depth processing

Anytime, anywhere access

Cloud-based architecture seeks to enable fully secure, remote access to easily manage and oversee seismic processing workflows.

• Helps achieve more with less: A user-friendly interface, and streamlined workflows help generate high quality results efficiently.
• Unlock greater value: Leverage hundreds of geophysical algorithms and processing modules to extract greater value from your data.
  
  

Seamless integration

Seeks to maximize efficiency and minimize risk with a tightly knit integration between data, user, and workflows.

• Rapid QC and iteration: Easily QC and analyze data to derive optimal geophysics algorithms and parameters.
• Maintain quality assurance: Review and validate results obtained at every step with interactive tools to ensure high-quality output.
  
  

Unified and shared environment

Collaborate with interpreters using DecisionSpace^® 365 Geosciences Suite to streamline integrated workflows.

• Solve unique challenges: Seamlessly develop and implement proprietary geophysical algorithms, tools, workflows, processes etc.
• Simplify complex scenarios: Helps improve structure imaging and stratigraphic definitions for complex geology.

Seismic processing suite

• Seismic processing: Delivering large volumes of data quickly and accurately remains the hallmark of any seismic processing system. SeisSpace^® software addresses the E&P industry’s seismic processing needs quickly, reliably, and cost-effectively.
  
  
• Landmark depth imaging: The Landmark Depth Imaging suite delivers advanced imaging technology to provide the most accurate understanding of the subsurface.  Landmark Depth Imaging (LDI) provides acoustic and elastic forward modeling, reverse time migration, illumination and visibility analysis, and tomographic velocity updating.
  
  
• SeisSpace^® field: Perform quality control of any seismic survey during field acquisition.
  
  
• Shot profile basic: The Shot profile migration provides a one-way wave equation propagator that can image steeply dipping events in the presence of strong lateral velocity variations for both isotropic and vertical, horizontal, and transverse isotropic media.
  
  
• SeisSpace^® VSP: A suite of modules designed specifically for geophysicists working with borehole seismic processing.
  
  
• Shot profile advanced: Reverse time migration (RTM) utilizes a full two-way wave equation propagator that handles more complex structures, such as salt and vertical or overturned reflectors.
  
  
• SeisSpace^® 2D: Processes and reprocesses huge regional 2D lines for geological basin scale seismic interpretation.
  
  
• TomoMVA: Provides the tools and workflows to derive an accurate representation of the subsurface velocities.
  
  
• SeisSpace^® 3D: Generates accurate images of 3D subsurface geological targets, providing interactive QC, leading edge algorithms and a developer’s toolkit for innovation.
  
  
• Seismic illumination: Quantitatively estimates the seismic wave energy reflected for shots and receivers from a target event using a wave equation-based source-receiver pair illumination. The overall visibility strength illustrates whether a target event is visible to surface seismic imaging. Seismic Illumination studies can identify imaging problems, calibrate, and compensate imaging amplitudes and optimize acquisition designs.
  
  
• SeisSpace^® 4D: Processes time-lapse datasets, to generate an accurate volume with the differences observed in time, to monitor the effectiveness of enhanced recovery programs with injection in the reservoir or measure depletion zones.
  
  
• Acoustic forward modeling: Simulate 3D seismic wave propagation in an acoustic media and provide synthetic data for validation and scenario testing.  This algorithm was utilized to model the SEG SEAM Phase I data. “SEAM Phase I: Challenges of Subsalt Imaging in Tertiary Basins, with Emphasis on Deepwater Gulf of Mexico” has been a resounding success!”
  
  
• Elastic forward modeling: A full elastic wave equation simulates seismic wave propagation in elastic media, and generates three-component data, such as horizontal radial, horizontal transverse, and vertical component data. Elastic modeling accurately generates direct, surface and converted waves, and primary and multiple reflected waves.