Optiwave software can be used in different industries and applications, including Fiber Optic Communication, Sensing, Pharma/Bio, Military & Satcom, Test & Measurement, Fundamental Research, Solar Panels, Components / Devices, etc..
OptiSystem is a comprehensive software design suite that enables users to plan, test, and simulate optical links in the transmission layer of modern optical networks.
OptiSPICE is the first circuit design software for analysis of integrated circuits including interactions of optical and electronic components. It allows for the design and simulation of opto-electronic circuits at the transistor level, from laser drivers to transimpedance amplifiers, optical interconnects and electronic equalizers.
OptiFDTD is a powerful, highly integrated, and user friendly CAD environment that enables the design and simulation of advanced passive and non-linear photonic components.
OptiBPM is a comprehensive CAD environment used for the design of complex optical waveguides. Perform guiding, coupling, switching, splitting, multiplexing, and demultiplexing of optical signals in photonic devices.
OptiFiber The optimal design of a given optical communication system depends directly on the choice of fiber parameters. OptiFiber uses numerical mode solvers and other models specialized to fibers for calculating dispersion, losses, birefringence, and PMD.
Emerging as a de facto standard over the last decade, OptiGrating has delivered powerful and user friendly design software for modeling integrated and fiber optic devices that incorporate optical gratings.
OptiConverge is a collaborative integration framework that seamlessly combines two or more Optiwave products (e.g., OptiSystem, OptiSPICE, OptiFDTD, etc.) and other third party products into unified solutions. Designed to streamline complex workflows, it empowers users to achieve their goals faster by harnessing the collective power of our trusted Optiwave tools.
Optiwave software can be used in different industries and applications, including Fiber Optic Communication, Sensing, Pharma/Bio, Military & Satcom, Test & Measurement, Fundamental Research, Solar Panels, Components / Devices, etc..
OptiSystem is a comprehensive software design suite that enables users to plan, test, and simulate optical links in the transmission layer of modern optical networks.
OptiSPICE is the first circuit design software for analysis of integrated circuits including interactions of optical and electronic components. It allows for the design and simulation of opto-electronic circuits at the transistor level, from laser drivers to transimpedance amplifiers, optical interconnects and electronic equalizers.
OptiFDTD is a powerful, highly integrated, and user friendly CAD environment that enables the design and simulation of advanced passive and non-linear photonic components.
OptiBPM is a comprehensive CAD environment used for the design of complex optical waveguides. Perform guiding, coupling, switching, splitting, multiplexing, and demultiplexing of optical signals in photonic devices.
OptiFiber The optimal design of a given optical communication system depends directly on the choice of fiber parameters. OptiFiber uses numerical mode solvers and other models specialized to fibers for calculating dispersion, losses, birefringence, and PMD.
Emerging as a de facto standard over the last decade, OptiGrating has delivered powerful and user friendly design software for modeling integrated and fiber optic devices that incorporate optical gratings.
OptiConverge is a collaborative integration framework that seamlessly combines two or more Optiwave products (e.g., OptiSystem, OptiSPICE, OptiFDTD, etc.) and other third party products into unified solutions. Designed to streamline complex workflows, it empowers users to achieve their goals faster by harnessing the collective power of our trusted Optiwave tools.
Ok, so it is not possible to visualize the sources and observation points but I tried to use a 3D sphere object with small diameter to set the position of the source and detectors in the sample. I want to place the source in the middle of the rod’s height, measure the field there, above it, outside the cavity and below in the substrate. So I fixed the observation planes and added a few more. Here is the project file again.
When you mention “they are half a micron away from the simulation boundary”, how do I check the simulation boundary? As far as I can see, I have number of Y cells as 300 and 0.02microns big, that’s 6 microns vertically, so all except the topmost detector should be included, please correct me if needed.
Hi Damian,
I had been doing a 3D simulation, mesh size 0.4 for x and z, 0.5 for y. I am re-running those simulations, at 0.2um x z and 0.25um y. Keeping everything else the same.
The 2d ref index doesn’t make sense as my structure is in three dimensions. So, you can look at the sliced 3D refractive index, which is correct as I checked it.
From your image I see that the source and the observation points are displayed as spheres in the 3D layout, how do I enable viewing the input source and observation points in the 32bit program?
Thank you, though I do not understand why you take this convention, why not call electrical field components Ex, Ey and Ez and magnetic with Hx Hy and Hz? Do you know where in that book is the convention explained?
Damian thanks for your reply, I have attached my project files.
Here’s some info about my structure:
wafer dimension: x=5um, z=5um
Top layer: rods, n-3.5, H1 defect in triangle lattice
substrate: n=3.5
source: 0.6um, Gaussian CW,
observation points in cavity and around
observation areas for all three planes