Synopsys RSoft Photonic Device Tools offer a comprehensive portfolio for simulating passive device components in photonics. These tools are designed to model and optimize components such as waveguides, splitters, couplers, filters, and resonators. With advanced simulation capabilities, they enable engineers to evaluate light propagation, optimize device performance, and ensure high precision in the design of photonic devices. By utilizing these tools, designers can enhance the efficiency and reliability of passive components, which are essential for a wide range of photonic applications, including telecommunications, sensing, and optical networks.
Tools
GratingMOD
GratingMOD™ is a general design tool for analyzing and synthesizing complicated grating profiles in optical fibers and integrated waveguide circuits for a wide variety of…
ModePROP
ModePROP™ is an eigenmode expansion propagation tool that accounts for both forward and backward propagation and radiation modes. It provides a rigorous steady-state solution to…
MetaOptic Designer
Metalenses have the potential to revolutionize optical products by replacing bulky curved lenses with thin, flat surfaces. Metalenses are a key enabling technology for the next…
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Innovating with Light: Advanced Optical Solutions for Automotive, Medical, and Photonic Systems
The rapidly evolving optical industry demands cutting-edge systems with exceptional precision and accuracy. As the market for these advanced solutions grows, engineers and manufacturers must…
Resources
MetaOptic Designer: Automated Design of Metalenses
Metalenses have the potential to revolutionize optical products by replacing bulky curved lenses with thin, flat surfaces. Metalenses are a key enabling technology for the…
Choosing the Right Photonic Device Design Software
There are many factors to consider before deciding which software to use for photonic device design. To narrow the field, it can be helpful to…
High-Performance FDTD Simulations with Sub-Cell/Conformal Meshing in RSoft FullWAVE
The finite-difference time-domain (FDTD) method is an advanced, rigorous solution to Maxwell's equations that does not have any approximations or theoretical restrictions.