FrequenSol - Advanced Frequency Domain Simulation

FrequenSol Solver

Our flagship frequency domain finite element solver represents a breakthrough in simulation technology, offering unparalleled performance and accuracy for wave propagation problems.

Key Capabilities

Complex Topography Modeling: Accurately represent intricate surface features
Attenuation Analysis: Precise modeling of wave energy dissipation
Fine-scale Heterogeneity: Capture material variations at multiple scales
Comprehensive Physics: Support for acoustics, elasticity, and anisotropy
Time & Frequency Domain: Flexible simulation approaches for different applications

Deployment Options

Choose the solution that best fits your organization's needs.

Local Execution

Deploy our solver within your existing infrastructure with flexible licensing options.

Ideal for organizations with existing hardware resources
Maximum control over your simulation environment
Enhanced data security for sensitive projects

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Consulting Services

Work with our experts to optimize your simulation workflow and solve complex engineering challenges.

Specialized simulation expertise for your project
Custom workflow development and optimization
Training and knowledge transfer to your team

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High Performance Computing

Leverage our solver for large-scale problems on your existing HPC infrastructure.

Optimized for distributed computing environments
Scale across thousands of cores
Support for various HPC architectures

Cloud Compute

Run our solver on major cloud platforms with optimized configurations.

Pre-configured images for AWS, Azure, and GCP
Automated scaling and resource management
Integration with cloud storage solutions


# Example Python API usage
import frequensol as fs

# Define simulation domain
domain = fs.Domain(dimensions=(1000, 1000, 500))

# Set material properties
domain.add_material(region="layer1", vp=2000, vs=1200, rho=2200)
domain.add_material(region="layer2", vp=3500, vs=2000, rho=2500)

# Configure source and receivers
source = fs.Source(position=(500, 500, 10), frequency=25.0)
receivers = fs.ReceiverArray(x_range=(0, 1000), spacing=10, depth=0)

# Run simulation
simulation = fs.Simulation(domain=domain, source=source, receivers=receivers)
results = simulation.run()

# Process and visualize results
results.plot_wavefield()

Python API

Our intuitive Python API makes it easy to set up, run, and analyze simulations, whether you're running them locally or in the cloud.

API Features

Intuitive Interface: Simple, Pythonic syntax for defining simulation parameters
Parallel Execution: Seamless scaling across multiple cores or nodes
Visualization Tools: Built-in functions for analyzing and visualizing results
Integration Support: Easy integration with popular scientific Python libraries
Comprehensive Documentation: Detailed guides and examples to get you started quickly

Our Solutions