OghmaNano
Simulate organic/Perovskite Solar Cells, OFETs, and OLEDs
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Advanced Ray Tracing and Microlens Design
Ray Tracing in 3D Structures
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OghmaNano’s advanced 3D ray tracing module allows you to model light propagation, scattering, and extraction in complex device architectures — from OLEDs and micro-LEDs to photovoltaic modules and custom optical assemblies.
By combining fast polygon-based rendering with accurate wavelength-dependent material properties, you can analyse how device geometry, refractive index profiles, and surface structures affect optical performance.
Key Features:
- Full 3D modelling of light generation, propagation, reflection, refraction, and absorption within device layers.
- Photon escape probability calculated as a function of wavelength and viewing angle.
- Integration with OghmaNano’s material database for wavelength-dependent n and k values to ensure spectrally accurate simulations.
- Extensive emission spectra database with easy import of custom spectral data.
- Determine RGB colour coordinates of emitted light as a function of viewing angle.
- Support for multiple emission layers to model multi-colour and white-light devices.
- Simulation of microlenses, diffractive elements, and textured surfaces to enhance light extraction and coupling efficiency.
- Import arbitrary device geometries from common CAD formats (
.obj
, .stl
) for complex lens and housing designs.
- Acceleration structures (AABB/BVH) for rapid ray–geometry intersection testing, enabling large-scale simulations with millions of rays.
- Monte Carlo ray tracing for accurate statistical evaluation of luminance, irradiance, and efficiency.
- High-performance core written in a low-level language for maximum speed, even on modest hardware.
- Direct integration with OghmaNano’s drift–diffusion solvers, allowing optical results to be used as input for electrical simulations.