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Application Use Cases

Feature Use Cases

  • Grating Order Analyzerpdf2.03 MiB13.07.2018The analysis of the diffraction efficiencies of gratings is the typical modeling task with gratings. In VirtualLab this is done by the Grating Order Analyzer, which can display the efficiencies and Rayleigh coefficients of the distinct orders in various ways.
  • Grating Order Analyzerzip1.65 MiB13.07.2018The analysis of the diffraction efficiencies of gratings is the typical modeling task with gratings. In VirtualLab this is done by the Grating Order Analyzer, which can display the efficiencies and Rayleigh coefficients of the distinct orders in various ways.
  • Analyzing High-NA Objective Lens Focusingpdf1.15 MiB13.07.2018High-NA objective lenses are widely used in optical lithography, microscopy, etc. Consideration of the vectorial nature of light in the simulation of the focusing is therefore fundamental.
  • Analyzing High-NA Objective Lens Focusingzip773 KiB13.07.2018High-NA objective lenses are widely used in optical lithography, microscopy, etc. Consideration of the vectorial nature of light in the simulation of the focusing is therefore fundamental.
  • Construction and Modeling of a Graded-Index Lenspdf0.92 MiB13.07.2018VirtualLab allows the specification of a graded-index lens in a very user friendly way. In addition such index modulated lenses can be analyzed by ray tracing as well as field tracing.
  • Construction and Modeling of a Graded-Index Lenszip775 KiB13.07.2018VirtualLab allows the specification of a graded-index lens in a very user friendly way. In addition such index modulated lenses can be analyzed by ray tracing as well as field tracing.
  • Export Systems and Components into STL & IGES Formatpdf740 KiB13.07.2018VirtualLab supports the export of optical components specified in the system into various CAD formats. This includes for example the export of lenses, prisms, mirror systems and other components into STL and in IGES format.
  • Export Systems and Components into STL & IGES Formatzip473 KiB13.07.2018VirtualLab supports the export of optical components specified in the system into various CAD formats. This includes for example the export of lenses, prisms, mirror systems and other components into STL and in IGES format.
  • Import Optical Systems from Zemaxpdf1.04 MiB13.07.2018VirtualLab Fusion allows to import optical systems with full 3D position information and glasses from Zemax files. The import enables a user friendly interface between the two software packages.
  • Import Optical Systems from Zemaxzip638 KiB13.07.2018VirtualLab Fusion allows to import optical systems with full 3D position information and glasses from Zemax files. The import enables a user friendly interface between the two software packages.
  • Specification of Diffraction Orders for Grating Regionspdf0.93 MiB13.07.2018The waveguide component allow to define an arbitrary set of grating regions per surface. Per grating region several parameters can be defined. The user can specify a set of selected orders for each grating region.
  • Specification of Diffraction Orders for Grating Regionszip491 KiB13.07.2018The waveguide component allow to define an arbitrary set of grating regions per surface. Per grating region several parameters can be defined. The user can specify a set of selected orders for each grating region.
  • Usage of Focal Length Analyzerpdf1.04 MiB13.07.2018The focal length is an important parameter to evaluate an imaging system. By using the Focal Length Analyzer, the effective and back focal length of optical components can be obtained and used with parametric optimization.
  • Usage of Focal Length Analyzerzip763 KiB13.07.2018The focal length is an important parameter to evaluate an imaging system. By using the Focal Length Analyzer, the effective and back focal length of optical components can be obtained and used with parametric optimization.
  • Customizable Help for Programmable Elementspdf680 KiB13.07.2018VirtualLab provides multiple tools to implement your custom sources, components, detectors etc. For documentation of such customized object the snippet help can be used.
  • Configuration of Grating Structures by Using Special Mediapdf758 KiB13.07.2018In the VirtualLab’s Grating Software Package grating structures can be configured by using a stack. In this use case the configuration of grating structures based on media is explained.
  • Configuration of Grating Structures by Using Special Mediazip659 KiB13.07.2018In the VirtualLab’s Grating Software Package grating structures can be configured by using a stack. In this use case the configuration of grating structures based on media is explained.
  • Animation Generation from Chromatic Fields Sets in Parameter Runpdf795 KiB13.07.2018A very typical detector within VirtualLab is the camera detector which generates a chromatic fields set. This use case demonstrates how easy it is to convert a set of chromatic fields sets into an animation from a parameter run.
  • Animation Generation from Chromatic Fields Sets in Parameter Runzip9.17 MiB13.07.2018A very typical detector within VirtualLab is the camera detector which generates a chromatic fields set. This use case demonstrates how easy it is to convert a set of chromatic fields sets into an animation from a parameter run.
  • Configuration of Grating Structures by Using Interfacespdf1.81 MiB13.07.2018In the VirtualLab’s Grating Software Package grating structures can be configured by using a stack. In this use case the configuration of grating structures based on interfaces is explained.
  • Configuration of Grating Structures by Using Interfaceszip0.92 MiB13.07.2018In the VirtualLab’s Grating Software Package grating structures can be configured by using a stack. In this use case the configuration of grating structures based on interfaces is explained.
  • Data Array Import with Saved Settingspdf1.19 MiB13.07.2018Data is often stored in the form of .txt, .csv, .bmp etc. VirtualLab Fusion supports to import these data forms and store them into Data Array. VirtualLab Fusion supports also to save and load the settings of the import for multiple import sessions.
  • Data Array Import with Saved Settingszip6.32 MiB13.07.2018Data is often stored in the form of .txt, .csv, .bmp etc. VirtualLab Fusion supports to import these data forms and store them into Data Array. VirtualLab Fusion supports also to save and load the settings of the import for multiple import sessions.
  • Electromagnetic Field Detectorpdf1.02 MiB13.07.2018With the Electromagnetic Field Detector the user can access the fully vectorial electromagnetic field at any given plane in the system. We explain here how to handle this detector.
  • Electromagnetic Field Detectorzip881 KiB13.07.2018With the Electromagnetic Field Detector the user can access the fully vectorial electromagnetic field at any given plane in the system. We explain here how to handle this detector.
  • Flexible Region Configurationpdf1.11 MiB13.07.2018In optical modeling, a finite region is often used as the area for further operation. VirtualLab Fusion supports to generate regions in different manners with great ease.
  • Flexible Region Configurationzip576 KiB13.07.2018In optical modeling, a finite region is often used as the area for further operation. VirtualLab Fusion supports to generate regions in different manners with great ease.
  • Import of Zemax Beam Filespdf860 KiB13.07.2018VirtualLab Fusion can import the Zemax beam file, and convert it into field with full components. After importing, further operation with the field can be applied, e.g. propagation.
  • Import of Zemax Beam Fileszip18.60 MiB13.07.2018VirtualLab Fusion can import the Zemax beam file, and convert it into field with full components. After importing, further operation with the field can be applied, e.g. propagation.
  • Light Path Diagram Information Exportpdf903 KiB13.07.2018In VirtualLab Fusion you can export a summary of all system parameters in the light path diagram into an XML File. This use case shows how to export the parameters and how to visualize the parameters.
  • Source Code Editorpdf483 KiB13.07.2018For optical elements, which cannot be found in the catalogs of VirtualLab Fusion, users are able to create them by using programmable objects, e.g., programmable source, interface, medium and detector. The programming language is C#. The source code editors is the most important structure of all programmable objects. This use case introduces the general structure of the source code editor.
  • Specification of Diffraction Efficiencies for Grating Regionspdf1.03 MiB13.07.2018In modern optical systems gratings often appear edged into or deposited onto other elements. Here we cover how to characterise their efficiencies rigorously or by inputting the values ad hoc.
  • Specification of Diffraction Efficiencies for Grating Regionszip653 KiB13.07.2018In modern optical systems gratings often appear edged into or deposited onto other elements. Here we cover how to characterise their efficiencies rigorously or by inputting the values ad hoc.
  • Usage of Camera Detectorpdf603 KiB13.07.2018The Camera Detector constitutes one of the most fundamental detectors in VirtualLab Fusion. Keep reading for an in-depth description of how to configure and use this detector in simulations.
  • Usage of Camera Detectorzip452 KiB13.07.2018The Camera Detector constitutes one of the most fundamental detectors in VirtualLab Fusion. Keep reading for an in-depth description of how to configure and use this detector in simulations.
  • Usage of Distortion Analyzerpdf0.93 MiB13.07.2018VirtualLab Fusion provides an analyzer for the distortion of an optical system that yields the standard representation of distortion versus angle.
  • Usage of Distortion Analyzerzip872 KiB13.07.2018VirtualLab Fusion provides an analyzer for the distortion of an optical system that yields the standard representation of distortion versus angle.
  • Usage of Field Curvature Analyzerpdf836 KiB13.07.2018In VirtualLab Fusion, the field curvature of a lens component can be analyzed precisely, with the field curvature analyzer used. This use case shows how to set up the parameters in the field curvature analyzer.
  • Usage of Field Curvature Analyzerzip527 KiB13.07.2018In VirtualLab Fusion, the field curvature of a lens component can be analyzed precisely, with the field curvature analyzer used. This use case shows how to set up the parameters in the field curvature analyzer.
  • Wavefront Error Detectorpdf629 KiB13.07.2018Wavefront error is defined as the difference between the reference wavefront phase, which is a constant phase or spherical phase, and the detected wavefront phase of one optical system. This use case shows how to handle a wavefront error detector in VirtualLab Fusion.
  • Wavefront Error Detectorzip506 KiB13.07.2018Wavefront error is defined as the difference between the reference wavefront phase, which is a constant phase or spherical phase, and the detected wavefront phase of one optical system. This use case shows how to handle a wavefront error detector in VirtualLab Fusion.
  • Channel Setting for Non-Sequential Tracingpdf1.30 MiB13.07.2018In VirtualLab Fusion, non-sequential tracing is enabled by adjusting the channels of a surface as well as regions on a surface. This use case shows the adjustment of channels for a surface and a region on a surface, and the consequences from these settings.
  • Channel Setting for Non-Sequential Tracingzip0.91 MiB13.07.2018In VirtualLab Fusion, non-sequential tracing is enabled by adjusting the channels of a surface as well as regions on a surface. This use case shows the adjustment of channels for a surface and a region on a surface, and the consequences from these settings.
  • Parametric Optimization of a Half-Symmetric Two-Mirror Resonatorpdf1.10 MiB13.07.2018In VirtualLab Fusion, users can easily construct a two-mirror laser resonator, and use parametric optimization to design this resonator to generate a desired output mode.
  • Parametric Optimization of a Half-Symmetric Two-Mirror Resonatorzip776 KiB13.07.2018In VirtualLab Fusion, users can easily construct a two-mirror laser resonator, and use parametric optimization to design this resonator to generate a desired output mode.
  • Position and Orientation Information Display Controlpdf1.05 MiB13.07.2018In VirtualLab Fusion, users can select which information of position and orientation to be shown. This use case shows how to set up the position and orientation information display in a Light Path View.
  • Usage of PSF & MTF Detectorpdf488 KiB13.07.2018Point spread function and modulation transfer function are important optical quantities to evaluate the quality of an imaging system. In VirtualLab Fusion, PSF and MTF for an imaging system are fast and accurately calculated.
  • Usage of PSF & MTF Detectorzip415 KiB13.07.2018Point spread function and modulation transfer function are important optical quantities to evaluate the quality of an imaging system. In VirtualLab Fusion, PSF and MTF for an imaging system are fast and accurately calculated.
  • How to Control the Inclusion of Diffraction using Field Tracingpdf692 KiB13.07.2018In this document we present a clear workflow for how to configure a simulation so that diffraction effects are accounted for or disregarded in a physical optics simulation.
  • How to Control the Inclusion of Diffraction using Field Tracingzip541 KiB13.07.2018In this document we present a clear workflow for how to configure a simulation so that diffraction effects are accounted for or disregarded in a physical optics simulation.
  • Overview of Detectorspdf790 KiB13.07.2018Detectors are a fundamental part of any optical system. In this document you may find an overview of the detectors which are readily available in VirtualLab Fusion.
  • Programmable Light Source, Function, Interface and Mediumpdf676 KiB13.07.2018VirtualLab offers the option to define optical component by programmable elements. This use case explains the usage of code snippets for programmable light source, interface, function and medium
  • Programmable Light Source, Function, Interface and Mediumzip615 KiB13.07.2018VirtualLab offers the option to define optical component by programmable elements. This use case explains the usage of code snippets for programmable light source, interface, function and medium
  • Uniformity Detector in the Waveguide Toolboxzip554 KiB13.07.2018In the advanced imaging system, when the exit pupils are repeated, uniformity of the energy of these exit pupils is an important merit function to evaluate the quality of the optical system. This use case shows how to use the uniformity detector.
  • Uniformity Detector in the Waveguide Toolboxpdf905 KiB13.07.2018In the advanced imaging system, when the exit pupils are repeated, uniformity of the energy of these exit pupils is an important merit function to evaluate the quality of the optical system. This use case shows how to use the uniformity detector.
  • The Programmable Componentpdf1.78 MiB13.07.2018VirtualLab supports various possibilities for customization. This use case shows how to specify arbitrary effects to equidistant or non-equidistant field data as an optical component within optical systems.
  • Channel Resolution Accuracy Setting of Non-Sequential Field Tracingpdf690 KiB13.07.2018Non-sequential field tracing is done with two steps in VirtualLab Fusion. Firstly, according to an adjustable accuracy factor, the light path through the system is detected. This light path finding can be controlled by the corresponding accuracy factor.
  • Channel Resolution Accuracy Setting of Non-Sequential Field Tracingzip453 KiB13.07.2018Non-sequential field tracing is done with two steps in VirtualLab Fusion. Firstly, according to an adjustable accuracy factor, the light path through the system is detected. This light path finding can be controlled by the corresponding accuracy factor.
  • Wave Aberration Detectorspdf1.89 MiB13.07.2018In lens design, the aberration information in the lens system is important for the optimization process. In VirtualLab Fusion, detectors for different kinds of wave aberration representation are provided.
  • Wave Aberration Detectorszip1.69 MiB13.07.2018In lens design, the aberration information in the lens system is important for the optimization process. In VirtualLab Fusion, detectors for different kinds of wave aberration representation are provided.
  • Application of the Programmable Mode of a Parameter Runpdf408 KiB13.07.2018In VirtualLab, the variation of parameters of optical systems are freely customizable by using the programmable mode of the parameter run feature. In an example, the application of this programmable mode is presented.
  • Application of the Programmable Mode of a Parameter Runzip415 KiB13.07.2018In VirtualLab, the variation of parameters of optical systems are freely customizable by using the programmable mode of the parameter run feature. In an example, the application of this programmable mode is presented.
  • Advanced Configuration of Slanted Gratingspdf423 KiB13.07.2018Coated slanted gratings can be configured easily within VirtualLab. This use case explains the available options for the customization of slanted gratings.
  • System Analysis with Sequential and Non-Sequential Tracingpdf436 KiB13.07.2018VirtualLab enables the user to build up an optical system once and analyze it with different tracing techniques. This use case demonstrates how the non-sequential analysis of your setup can be performed.
  • System Analysis with Sequential and Non-Sequential Tracingzip341 KiB13.07.2018VirtualLab enables the user to build up an optical system once and analyze it with different tracing techniques. This use case demonstrates how the non-sequential analysis of your setup can be performed.
  • Non-Sequential Configuration: How to Use Simulation Settings for Ray and Field Tracingpdf288 KiB13.07.2018Following simulation settings will be explained in more detail: Global accuracy (Field Tracing 2nd Generation) and non-sequential field/ray tracing.
  • Feature UC Export of Parameter Run Results.pdfpdf390 KiB13.07.2018
  • Feature UC Non-Sequential Configuration - How to Use Simulation Settings for Ray and Field Tracing.pdfpdf288 KiB13.07.2018
  • Feature UC Orientation of Gratings within a Grating Region.pdfpdf788 KiB13.07.2018
  • Feature UC Orientation of Gratings within a Grating Region.zipzip739 KiB13.07.2018
  • Feature UC Parameter Coupling.pdfpdf381 KiB13.07.2018
  • Feature UC Parameter Coupling.zipzip335 KiB13.07.2018
  • Feature UC Polarization State of Diffraction Orders.pdfpdf551 KiB13.07.2018
  • Feature UC Polarization State of Diffraction Orders.zipzip695 KiB13.07.2018
  • Feature UC Structure Design.pdfpdf691 KiB13.07.2018
  • Feature UC Structure Design.zipzip1.76 MiB13.07.2018
  • Export of Fabrication Datapdf505 KiB13.07.2018VirtualLab can export smooth and quantized interfaces, as well as mirror/prism/grating cells arrays into various file formats, e.g., STL and GDSII file format.

Technology Use Cases

  • Polarizer in Focal Regionzip15.49 MiB13.07.2018To model polarizer used in non-paraxial cases, an idealized model is implemented in VirtualLab, and the effect of a polarizer in the focal region is presented.
  • Analysis of Blazed Grating by Fourier Modal Methodpdf887 KiB13.07.2018The Fourier modal method (FMM) can be used to analyze grating efficiencies rigorously. VirtualLab allows rigorous efficiency analysis for single simulations as well as for parameter variations.
  • Polarizer in Focal Regionpdf1.01 MiB13.07.2018To model polarizer used in non-paraxial cases, an idealized model is implemented in VirtualLab, and the effect of a polarizer in the focal region is presented.
  • Modeling of Graded-Index (GRIN) Lenszip440 KiB13.07.2018VirtualLab provides a physical-optics modeling technique for light propagation through GRIN media, which includes fully electromagnetic information and runs as fast as ray tracing.
  • Modeling of Graded-Index (GRIN) Lenspdf763 KiB13.07.2018VirtualLab provides a physical-optics modeling technique for light propagation through GRIN media, which includes fully electromagnetic information and runs as fast as ray tracing.
  • High-NA Focusing by Off-Axis Parabolic Mirrorzip373 KiB13.07.2018In high-NA focusing situations, e.g. with parabolic mirror, it is demonstrated that input fields with polarizations leads to different focal spots.
  • High-NA Focusing by Off-Axis Parabolic Mirrorpdf626 KiB13.07.2018In high-NA focusing situations, e.g. with parabolic mirror, it is demonstrated that input fields with polarizations leads to different focal spots.
  • Rigorous Simulation of Holographic Generated Volume Gratingzip491 KiB13.07.2018A holographic volume grating is analyzed by using the Fourier modal method. Both the spectral and angular properties are presented.
  • Rigorous Simulation of Holographic Generated Volume Gratingpdf678 KiB13.07.2018A holographic volume grating is analyzed by using the Fourier modal method. Both the spectral and angular properties are presented.
  • Analysis of Blazed Grating by Fourier Modal Methodzip0.96 MiB13.07.2018The Fourier modal method (FMM) can be used to analyze grating efficiencies rigorously. VirtualLab allows rigorous efficiency analysis for single simulations as well as for parameter variations.
  • Stokes Parameters Measurement behind a Tilted Polarizerpdf500 KiB13.07.2018By using an idealized non-paraxial polarizer model, the interaction of a polarizer with incident wave from different angles is investigated, and the results are characterized by Stokes parameters.
  • Stokes Parameters Measurement behind a Tilted Polarizerzip381 KiB13.07.2018By using an idealized non-paraxial polarizer model, the interaction of a polarizer with incident wave from different angles is investigated, and the results are characterized by Stokes parameters.
  • Stress-induced Birefringence in Laser Crystalspdf631 KiB13.07.2018The stress-induced birefringence in a YAG crystal is investigated, by examining the change of output field with respect to the strength of stresses.
  • Stress-induced Birefringence in Laser Crystalszip362 KiB13.07.2018The stress-induced birefringence in a YAG crystal is investigated, by examining the change of output field with respect to the strength of stresses.
  • Advanced PSF Calculation in a High NA Lens Systempdf499 KiB13.07.2018When a linearly polarized Gaussian beam is focused by a high-NA aspheric lens, the PSF in focal plane shows asymmetry due to vectorial effects.
  • Advanced PSF Calculation in a High NA Lens Systemzip247 KiB13.07.2018When a linearly polarized Gaussian beam is focused by a high-NA aspheric lens, the PSF in focal plane shows asymmetry due to vectorial effects.
  • Advanced PSF & MTF Calculation for System with Rectangular Aperturepdf712 KiB13.07.2018By placing a rotated rectangular aperture behind input fields with different sizes, the PSF and MTF in the focal plane are investigated.
  • Advanced PSF & MTF Calculation for System with Rectangular Aperturezip411 KiB13.07.2018By placing a rotated rectangular aperture behind input fields with different sizes, the PSF and MTF in the focal plane are investigated.
  • Electromagnetic Field Interaction with Nanocylinderspdf472 KiB13.07.2018With the perfectly matched layers (PMLs) technique, the interaction between a focused Gaussian beam and nanocylinders with varying diameters is investigated.
  • Electromagnetic Field Interaction with Nanocylinderszip464 KiB13.07.2018With the perfectly matched layers (PMLs) technique, the interaction between a focused Gaussian beam and nanocylinders with varying diameters is investigated.
  • Focusing of Femtosecond Pulse by Using a High-NA Off-Axis Parabolic Mirrorpdf698 KiB13.07.2018The focusing process of a 10 fs pulse by using a high-NA parabolic mirror is modeled in VirtualLab, and both the spatial and temporal behaviors are investigated.
  • Focusing of Femtosecond Pulse by Using a High-NA Off-Axis Parabolic Mirrorzip420 KiB13.07.2018The focusing process of a 10 fs pulse by using a high-NA parabolic mirror is modeled in VirtualLab, and both the spatial and temporal behaviors are investigated.
  • Femtosecond Pulse Propagation through Dispersive Seawaterpdf445 KiB13.07.2018The propagation of an 5 fs pulse through seawater is studied in VirtualLab. The broadening of the pulse and the change in its temporal profile due to dispersion of the material are shown.
  • Femtosecond Pulse Propagation through Dispersive Seawaterzip249 KiB13.07.2018The propagation of an 5 fs pulse through seawater is studied in VirtualLab. The broadening of the pulse and the change in its temporal profile due to dispersion of the material are shown.
  • Simulation of Laser Beam in Focal Region of High-NA Aspherepdf477 KiB13.07.2018When a linearly polarized beam is focused by a high-NA lens, the focal spot shows asymmetry due to the relatively strong E(z) component.
  • Simulation of Laser Beam in Focal Region of High-NA Aspherezip247 KiB13.07.2018When a linearly polarized beam is focused by a high-NA lens, the focal spot shows asymmetry due to the relatively strong E(z) component.
  • Investigation of Ghost Imaging Effects in Collimation Systempdf557 KiB13.07.2018The ghost image effect in a collimation lens system is investigated, by checking the effect from the surface coating with the non-sequential tracing technique.
  • Investigation of Ghost Imaging Effects in Collimation Systemzip1.13 MiB13.07.2018The ghost image effect in a collimation lens system is investigated, by checking the effect from the surface coating with the non-sequential tracing technique.
  • Michelson Interferometerpdf312 KiB13.07.2018A Michelson interferometer with Xenon lamp source is modeled, with the spectral property, i.e. limited coherence length, of the source fully taken into account.
  • Michelson Interferometerzip86 MiB13.07.2018A Michelson interferometer with Xenon lamp source is modeled, with the spectral property, i.e. limited coherence length, of the source fully taken into account.
  • Non-Sequential Ray Tracing Analysis of Glass Platepdf740 KiB13.07.2018By using the non-sequential tracing technique in VirtualLab, the ray tracing analysis of a glass plate is performed.
  • Non-Sequential Ray Tracing Analysis of Glass Platezip477 KiB13.07.2018By using the non-sequential tracing technique in VirtualLab, the ray tracing analysis of a glass plate is performed.
  • Tailored Light Outcoupling from Glass Plate with Arbitrarily Shaped Aperturespdf747 KiB13.07.2018With the region concept in VirtualLab, apertures with arbitrary shapes can be defined flexibly. Situations with fully and partially illuminated apertures are shown.
  • Tailored Light Outcoupling from Glass Plate with Arbitrarily Shaped Apertureszip508 KiB13.07.2018With the region concept in VirtualLab, apertures with arbitrary shapes can be defined flexibly. Situations with fully and partially illuminated apertures are shown.

Tutorial - Configuration

  • UseCase.0010.pdfpdf473 KiB13.07.2018
  • UseCase.0011.pdfpdf1.20 MiB13.07.2018
  • UseCase.0012.pdfpdf676 KiB13.07.2018
  • UseCase.0014.pdfpdf463 KiB13.07.2018
  • UseCase.0015.pdfpdf636 KiB13.07.2018
  • UseCase.0016.pdfpdf490 KiB13.07.2018
  • UseCase.0017.pdfpdf526 KiB13.07.2018
  • UseCase.0051.pdfpdf467 KiB13.07.2018
  • UseCase.0052.zipzip358 KiB13.07.2018
  • Pulse Simulation – Temporal Dispersionpdf658 KiB13.07.2018The use case demonstrate the effect of material dispersion on pulse propagation. It demonstrates the modeling of a pulse through 100 mm in BK7 vs Air. The central wavelength of the pulse is 800 nm. Different pulse lengths are evaluated: 5, 10, 15 fs. PDF only.
  • UseCase.0053.zipzip363 KiB13.07.2018The use case demonstrate the effect of material dispersion on pulse propagation. It demonstrates the modeling of a pulse through 100 mm in BK7 vs Air. The central wavelength of the pulse is 800 nm. Different pulse lengths are evaluated: 5, 10, 15 fs. Zip-file includes use case (pdf) and VirtualLab sample file(s).
  • Optimize Detector Positionpdf514 KiB13.07.2018This use case demonstrates a very convenient tool for finding an optimized position of detectors. PDF only.
  • UseCase.0062.zipzip258 KiB13.07.2018This use case demonstrates a very convenient tool for finding an optimized position of detectors. Zip-file includes use case (pdf) and VirtualLab sample file(s).

Tutorial - Simulation

  • UseCase.0052.zipzip358 KiB13.07.2018
  • UseCase.0065.pdfpdf611 KiB13.07.2018
  • Parameteric Optimization using the Ray Tracing Enginepdf846 KiB13.07.2018This use case demonstrate how VirtualLab can be used to perform a parametric optimization using the ray tracing engine. Only PDF.
  • UseCase.0080.zipzip554 KiB13.07.2018This use case demonstrate how VirtualLab can be used to perform a parametric optimization using the ray tracing engine. Zip-file includes use case (pdf) and VirtualLab sample file(s).
  • UseCase.0052.pdfpdf651 KiB13.07.2018
  • Settings and Result Displays of the Ray Tracing Enginepdf1.06 MiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing Engine. Only PDF.
  • UseCase.0047.zipzip802 KiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing Engine. Zip-file includes use case (pdf) and VirtualLab sample file(s).
  • Settings and Result Displays of the Ray Tracing System Analyzer Enginepdf452 KiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing System Analyzer Engine. PDF only.
  • UseCase.0048.zipzip181 KiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing System Analyzer Engine. Zip-file includes use case (pdf) and VirtualLab sample file(s).

Tutorial - Tools & Handling

  • UseCase.0002.pdfpdf381 KiB13.07.2018
  • UseCase.0003.pdfpdf677 KiB13.07.2018
  • UseCase.0005.pdfpdf529 KiB13.07.2018
  • UseCase.0008.pdfpdf537 KiB13.07.2018
  • UseCase.0009.pdfpdf430 KiB13.07.2018
  • UseCase.0013.pdfpdf444 KiB13.07.2018
  • UseCase.0014.pdfpdf463 KiB13.07.2018
  • UseCase.0017.pdfpdf526 KiB13.07.2018
  • UseCase.0019.pdfpdf815 KiB13.07.2018
  • UseCase.0001.pdfpdf587 KiB13.07.2018
  • UseCase.0029.pdfpdf672 KiB13.07.2018
  • UseCase.0029.zipzip372 KiB13.07.2018
  • UseCase.0039.pdfpdf856 KiB13.07.2018
  • UseCase.0039.zipzip562 KiB13.07.2018
  • UseCase.0044.zipzip6.37 MiB13.07.2018
  • Creating Nice 1D-Diagramspdf870 KiB13.07.2018This use case demonstrates how to configure 1D diagrams in a way they meet the demands of an appealing presentation.
  • UseCase.0045.zipzip548 KiB13.07.2018This use case demonstrates how to configure 1D diagrams in a way they meet the demands of an appealing presentation. Zip-file includes use case (pdf) and VirtualLab sample file(s).
  • Creating Nice 2D-Diagramspdf2.09 MiB13.07.2018This use case demonstrates how to configure diagrams in a way they meet the demands of an appealing presentation. Diagrams are used to visualize for example numerical data arrays. PDF only.
  • Settings and Result Displays of the Ray Tracing Enginepdf1.06 MiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing Engine. PDF only.
  • UseCase.0047.zipzip802 KiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing Engine. Zip-file includes use case (pdf) and VirtualLab sample file(s).
  • Settings and Result Displays of the Ray Tracing System Analyzer Enginepdf452 KiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing System Analyzer Engine. PDF only.
  • UseCase.0048.zipzip181 KiB13.07.2018This use case explains the configuration options and the result displays of the Ray Tracing System Analyzer Engine. Zip-file includes use case (pdf) and VirtualLab sample file(s).
  • Combine Chromatic Fields Setspdf447 KiB13.07.2018This use case illustrates the usage of a module for the combination of two chromatic fields sets (CFSs). PDF only.
  • UseCase.0061.zipzip331 KiB13.07.2018This use case illustrates the usage of a module for the combination of two chromatic fields sets (CFSs). Zip-file includes use case (pdf) and VirtualLab sample file(s).
  • UseCase.0066.pdfpdf579 KiB13.07.2018
  • Multigraph Mode for 1D Numerical Data Arrayspdf490 KiB13.07.2018This use case demonstrates how to use the Multigraph Mode for diagrams showing 1D Numerical Data Arrays. Several setup options will be discussed. The use case also explains the specification of default values for the Multigraph Mode via the Global Options dialog. PDF only.
  • Multigraph Mode for 1D Numerical Data Arrayszip204 KiB13.07.2018This use case demonstrates how to use the Multigraph Mode for diagrams showing 1D Numerical Data Arrays. Several setup options will be discussed. The use case also explains the specification of default values for the Multigraph Mode via the Global Options dialog. Zip-file includes use case (pdf) and VirtualLab sample file(s).

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