PRODUCTS
WaveSim Pro
Photonic Simulation Web-Based Platform
Coming Soon...
OVERVIEW
WaveSimPro is a web-based platform for simulating photonic devices at wavelength scale. Run full-wave optical simulations directly from your browser — no installation, no local hardware, no environment setup. Simulations run on GPU-accelerated infrastructure managed by Rayfos, so you access high-performance compute without managing hardware or software. Set up simulations interactively through the web interface and move from design to results in minutes and iterate quickly as requirements evolve.
Designed For
WaveSimPro is built for photonic engineers, optical designers, and R&D teams who require high-fidelity full-wave simulation at wavelength scale — and need results fast enough to guide design decisions, not just verify them after the fact.
It is particularly suited to workflows involving large simulation domains, high index contrast, and complex geometries where conventional tools become resource-intensive or difficult to work with.
If you currently spend time reducing simulation domains, managing compute infrastructure, or waiting on overnight runs, WaveSimPro is designed to eliminate that overhead.
Photonic Simulation Web-Based Platform
Simulate wavelength-scale optical structures directly from your browser. In seconds, not hours. No installation, no local hardware. No compromise on accuracy or scale.
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2,000× faster than FDTD on benchmark problems
Uses ~1% of the memory — fits problems FDTD cannot
Zero numerical dispersion — accurate results at any scale
Browser-based — nothing to install, start in minutes
Key Capabilities
Run from your browser. Access WaveSimPro from any modern browser. No installation, configuration, or dependency management required.
On-demand GPU compute. Simulations run on Rayfos-managed cloud infrastructure. Access high-performance compute without maintaining local hardware.
Full-wave and scalar solvers in one platform. Use a full vectorial Maxwell solver for polarisation-sensitive simulations, or a scalar Helmholtz solver for faster analysis where appropriate.
Reliable execution. Every simulation runs to completion. No failed runs, no manual parameter adjustments, no time lost troubleshooting solver issues.
Accuracy that holds on large structures. Results remain reliable as designs get larger and more complex — no trade-off between domain size and fidelity.
API-driven workflows. Automate simulations, run parameter sweeps, and integrate with existing design pipelines using Python and MATLAB APIs.
Flexible geometry import. Import standard design formats including GDS, STL, and voxel-based geometries.
Full 3D field access. Retrieve complete electromagnetic field data for post-processing, far-field analysis, and system-level integration.
Applications
Metasurfaces and metalenses. Design and optimise large-aperture metalenses, beam-steering elements, and sub-wavelength nanostructures with full polarisation control.
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Micro-optics and diffractive optical elements. Model microlens arrays, beam shapers, phase plates, holograms, and structured illumination systems at full aperture in a single simulation.
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Photonic integrated circuits. Analyse waveguides, couplers, splitters, resonators, and multi-component circuits at realistic device scales.
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Biomedical and scattering optics. Simulate light propagation in tissue, scattering media, and inhomogeneous structures for applications such as OCT, microscopy, and optical sensing.
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Nano-optics and sensors. Evaluate biosensors, near-field devices, and nanostructured components where sub-wavelength features and high index contrast are critical.
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