Ansys Lumerical's comprehensive suite of photonics simulation and analysis tools offers component-level and system-level simulations to optimize performance, minimize physical prototyping costs and reduce time-to-market. Enhanced design flows enable designers with compact models calibrated to leading foundry processes.
Ansys Lumerical, a complete photonics simulation software solution, enables the design of photonics components, circuits, and systems. Device and system level tools work together seamlessly allowing designers to model interacting optical, electrical, and thermal effects. Flexible interoperability between products enables a variety of workflows that combine device multiphysics and photonic circuit simulation with third-party design automation and productivity tools. Python-based automation and flows for building and using compact models support the industry’s leading foundries.
Device-level Tools
Use multiphysics-style simulation capabilities and workflows to model optical, electrical and thermal effects at the physical level.
System-level Tools
Simulate and optimize the performance of photonic integrated circuits and generate compact model libraries.
The 2023 R1 release of Ansys Lumerical introduces a series of powerful new capabilities to extend usability, accuracy, performance, and functionality across its family of products
For details, please see our release notes.
FDTD is the gold-standard for modeling nanophotonic devices, processes, and materials.
MODE has everything you need to get the most out of your waveguide and coupler designs.
CHARGE provides designers with the correct tools for comprehensive charge transport simulation in semiconductor devices.
Built on the finite element method, HEAT provides designers with comprehensive thermal modeling capabilities.
FEEM provides superior accuracy and performance scaling with a finite element Maxwell's solver.
MQW simulates quantum mechanical behavior in atomically thin semiconductor layers.
STACK is an ideal solution for the rapid analysis of thin film multilayer stacks.
Based on the Rigorous Coupled Wave Analysis method, Lumerical RCWA complements Lumerical FDTD and STACK by providing a rapid simulation of light scattering for periodic and multilayer structures.
Enables proven, automated, cross-simulator photonic compact model library (CML) generation.
Enables multi-mode, multi-channel and bidirectional photonic circuit modelling when used in conjunction with industry’s leading EDA simulators.
Ansys Lumerical’s photonic integrated circuit simulator verifies multimode, bidirectional and multi-channel PICs.
Ansys Lumerical's photonics simulation and design capabilities enable engineers to model nanophotonics devices, circuits, processes, and materials.
Our solutions work together seamlessly so you can model the most challenging problems in photonics. Flexible interoperability between tools enables a variety of workflows that combine device multiphysics and system-level photonic circuit simulation with third-party design automation and productivity tools.
A finely tuned implementation of the FDTD method delivers reliable, powerful and scalable solver performance over a broad spectrum of applications. The integrated design environment provides scripting capability, advanced post-processing and optimization routines, all allowing you to focus on your design.
3D CAD environments with parameterizable simulation objects allow for rapid model iterations. Build 2D and 3D models, define custom surfaces and volumes and import geometry from standard CAD and IC layout formats.
Ansys’ photonic integrated circuit (PIC) simulation tools work in conjunction with industry-leading electronic design automation (EDA) simulators to facilitate the design and implementation of electronic–photonic integrated systems. Electronic–photonic design automation (EPDA) workflows are available with Virtuoso® and Siemens EDA.
Build, run, and control simulations across multiple Lumerical tools, or interface with third-party applications. Leverage Lumerical scripting language, Matlab, or Python to make use of numerical analysis, visualization, optimization, and more.
Lumerical offers an integrated set of tools to model many common edge-emitting laser topologies. The hybrid modeling approach combines the accuracy of physical simulation with the performance and scale of photonic integrated circuit simulation. Design and model everything from SOAs and standalone FP and DFB lasers to complex external cavity DBR and ring or sampled grating Vernier lasers.
Automatically discover optimal geometries for a desired target performance and discover non-intuitive geometries to optimize performance, minimize area and improve manufacturability. Use shape-based or topology optimization and simulate performance to find the best solution.
Proven, automated, cross-simulator photonic compact model library (CML) generation. CML Compiler automates the creation, maintenance and QA testing of INTERCONNECT and Verilog-A photonic compact model libraries (CMLs) from a single data source of characterization measurements and 3D simulation results.
Process-enabled custom design flows that empower designers to quickly augment existing PDKs with custom passive and active components that adhere to foundry specifications.
Integration with Ansys Speos bridges the disconnect between nanophotonic simulation and macroscale simulation of the environment allowing designers to consider the effects of illumination, viewing angle, and human perception.
Demonstration workflows are available for display and image-sensor applications.
OptiSLang can drive Lumerical products in complex workflows, allowing designers to benefit from its design optimization and sensitivity analysis capabilities.
Demonstration workflows are available for display and modulator applications.
Efficiently create photonic compact model libraries (CMLs) for use in photonic process design kits (PDKs). Use CML Compiler for the creation, maintenance, and quality assurance (QA) testing of INTERCONNECT and Verilog-A photonic CMLs.
