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.
The 32 bit version of OptiFDTD is an older version and does not have a project browser. You can use our tutorials on our website or the ones found in your installation directory in the “docs” folder.
The number of time steps is most likely not large enough for the optical signal to reach the detector. Place an Observation Point at the same distance and view the time domain signal. The gaussian pulse should be completely recorded, if not increase the number of time steps in the simulation settings to allow the simulation to run longer.
Technically this is possible, but in practice I am not so sure. You could script the generation of numerous Observation Areas, that are all offset by 1 mesh point. This would capture the slices of the volume in different observation areas, which you could then export the fields using the scripting language as well.
However, if you are measuring the absorption of a waveguide you would probably be fine with only having a couple observation areas and interpolating the data in between the areas. If you are exciting propagating modes then the field distribution should be changing very slowly over the length of the waveguide.
You cannot export the electrode part only the response of the optical signal. You will only be able to export the Scattering Matrix for a single operating voltage.
You can use Observation Areas to detect the amount of power flow through each arm in a coupler and compare that to the input power. See our TE planar waveguide coupler splitter tutorial in the OptiFDTD installation folder.
As this question is FDTD-based, I can help you with it. OptiFDTD can be used to simulate nonlinear materials with 2-order, 3-order responses as well as the Raman effect.
These nonlinear effects are limited to 2D simulations.
Yes you can. If you apply the same voltage to both arms both optical signals will accumulate a phase shift proportional to the applied voltage. If the voltage varies in time you will have a phase modulated signal.
I am not familiar with OTSB, but I think you are talking about Optical Dual Sideband Suppressed carrier and Optical Single Sideband Suppressed Carrier. We have a sample of ODSB found in the samples folder->Microwave and RF optical Systems that you could take as a building block.
There is an absolute maximum for the time step size, but no formula for directly calculating what minimum is the correct choice. The default choice of OptiFDTD is the aforementioned maximum. This at least guarantees a stable simulation.
I think your issue might be the number of time steps and not the individual time step size. Resonators and cavities trap light within them and it takes time for the light to leak out (Q-factor). This means that you will need to check to see if the energy in the resonator has had time to leave. You can do this by using an observation point placed inside the resonator or at on of the ports. You should see the electric field decaying with something similar to an exponential envelope. Check to see if the electric field has diminished to an appropriately small value by the end of the simulation.
You will not be able to convert the .fdt file to .bpd, so you will have to create your design in OptiBPM. OptiBPM is focused on guided optics and so there is no tool that will automatically generate photonic crystals. You can use the scripting functionality to generate your required shapes.
This is a good starting point to get familiar with the characteristics of these types of waveguiding structures. We have an example of thsi type of structure as well: