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CCSNet.ai

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About

CCSNet.ai is a specialized deep learning modeling suite designed to predict carbon dioxide (CO2) storage behavior in saline reservoirs. Developed by researchers at Stanford University with support from the Stanford Center for Carbon Storage and ExxonMobil, the platform addresses the computational intensity of traditional numerical simulators used in carbon capture and storage (CCS) projects. It provides a web-based interface where users can simulate CO2 gas saturation plumes and pressure buildup across various scales and dimensions, from 2D radial models to full-scale 3D basin models. The system utilizes several advanced machine learning architectures tailored to specific geologic conditions. For isotropic 2D models, it employs a convolutional neural network known as R-U-Net, while 2D anisotropic permeability scenarios are handled by U-FNO (U-shaped Fourier Neural Operators). For complex 3D basin-scale predictions, the suite uses Nested Fourier Neural Operators (Nested FNO), a framework that delivers high-resolution spatial-temporal results. This technology allows for the inclusion of diverse reservoir conditions, injection designs, rock properties, and heterogeneous permeability maps that would typically require massive computing resources. One of the primary advantages of this tool is its processing speed. By replacing traditional physics-based numerical solvers with pre-trained deep learning models, CCSNet.ai can generate predictions nearly 700,000 times faster than conventional simulators. This speed enables real-time visualization and the ability to run extensive sensitivity analyses or site selection evaluations that were previously impractical due to time constraints. The platform is intended for geoscientists, reservoir engineers, and climate researchers who need to evaluate the feasibility and safety of underground CO2 storage sites efficiently. As an academic project, CCSNet.ai bridges the gap between complex geotechnical research and accessible software tools. It offers a transparent approach to AI in geophysics by providing citations to peer-reviewed literature, source code, and datasets for its underlying models. While it is highly specialized for CO2 sequestration in saline reservoirs, its application of neural operators represents a significant shift in how multiphase flow in porous media is modeled in the energy and environmental sectors.

Pros & Cons

Predictions are generated up to 700,000 times faster than conventional simulators.

Provides high-resolution spatial-temporal data for both 2D and 3D reservoirs.

Backed by peer-reviewed research from Stanford University and ExxonMobil.

Supports complex heterogeneous permeability maps using U-FNO models.

Available as a free web-based tool for the scientific and engineering community.

The tool is highly specialized and limited strictly to CO2 saline reservoir modeling.

As an academic project, it lacks the commercial support or integrations found in enterprise reservoir software.

Requires specific technical knowledge of reservoir parameters to yield accurate results.

Use Cases

Reservoir engineers can perform real-time high-resolution 3D CO2 storage predictions to evaluate potential sequestration sites rapidly.

Geoscientists can use the 2D anisotropic permeability tools to model plume migration in complex, heterogeneous rock formations.

Climate researchers can leverage the 700,000x speed increase to run thousands of carbon storage scenarios in the time it takes for one traditional simulation.

Academic students can utilize the interactive models to visualize multi-phase flow and pressure dynamics in porous media.

Site selection teams can use the dedicated tool to identify optimal locations for carbon capture and storage projects.

Platform
Web
Task
carbon modeling

Features

interactive parameter adjustment

site selection tool

2d isotropic r-u-net models

anisotropic permeability mapping

pressure buildup prediction

real-time co2 plume visualization

nested fourier neural operators

3d basin-scale modeling

FAQs

What core technologies power the CCSNet.ai predictions?

The platform utilizes several deep learning architectures including R-U-Net for isotropic models, U-FNO for anisotropic permeability, and Nested Fourier Neural Operators (Nested FNO) for high-resolution 3D basin-scale predictions.

How much faster is this tool compared to traditional numerical simulators?

CCSNet.ai can generate spatial-temporal predictions nearly 700,000 times faster than state-of-the-art numerical simulators, allowing for real-time visualization and rapid sensitivity analysis.

What types of geological formations can I model with this tool?

The suite is specifically designed for 2D and 3D saline reservoirs, supporting a wide range of reservoir conditions, rock properties, and both isotropic and anisotropic permeability maps.

Can I access the underlying code or datasets for research?

Yes, the platform provides direct links to the datasets, source code, and published scientific papers for each of its modeling tools, including citations for Royal Society of Chemistry and Elsevier publications.

Pricing Plans

Academic Access
Free Plan

Interactive 2D and 3D models

Basin-scale 3D predictions

Reservoir-scale 2D isotropic modeling

Reservoir-scale 2D anisotropic modeling

Site selection tool access

Real-time visualization

Access to user manual and demo cases

Source code and dataset links

Scientific citations provided

Job Opportunities

There are currently no job postings for this AI tool.

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