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Shack-Hartmann Wavefront Sensor

[September 30, 2021]
In VirtualLab Fusion such systems can be setup and simulated using a new MLA component introduced in the latest release, allowing a thorough investigation of the transmitted field in the near field behind the microlens component as well as in the far field and focal region.
[September 30, 2021]

The Shack-Hartmann sensor is a well-known detector that is used to gather information about the phase of impinging light. Due to phase information not being directly accessible (in an experimental context) an array of microlenses is used to generate a pattern of foci. By analyzing this pattern, e.g. measuring lateral shifts of the foci, details of the impinging wavefront at each position can be retrieved. With the fast physical optics modeling and design software VirtualLab Fusion not only is it possible to obtain the original phase information directly – one of the perks of simulation technology – but also to simulate the propagation of the light through the entire Shack-Hartmann optical device. Below you can see some examples of the physical-optics simulation of Shack-Hartmann-like systems.

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Propagation through Microlens Arrays

[September 23, 2021]
In VirtualLab Fusion such systems can be setup and simulated using a new MLA component introduced in the latest release, allowing a thorough investigation of the transmitted field in the near field behind the microlens component as well as in the far field and focal region.
[September 23, 2021]

With the advent of modern technologies specialized optical components like microlens arrays (MLAs) get more and more attention. Especially in the field of optical projection systems, material processing units and optical diffusers microlens arrays have seen common usage. In VirtualLab Fusion such systems can be set up and simulated using a new MLA component introduced in the latest release, allowing a thorough investigation of the transmitted field in the near field behind the microlens component as well as in the far field and focal region.

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Simulation of VCSELs & VCSEL Arrays

[August 27, 2021]
Vertical cavity surface emitting lasers (VCSEL) is known for its reliability and wavelength stability, as well for good quality in terms of the emitting beam.
[August 27, 2021]

Vertical cavity surface emitting lasers (VCSEL) constitute an ascending technology that is known for its reliability and wavelength stability, as well for good quality in terms of the emitting beam. For that reason, they are commonly used in various applications involving e.g. beam splitters and pattern generators.

In VirtualLab Fusion the newly introduced Multiple Light Source allows for the definition of individual VCSELs and whole VCSEL arrays.

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Simulating Complex Sources using Multiple Source Modes

[August 20, 2021]
For illumination and imaging the simulation of complex source models like light source arrays or extended sources is necessary for many different applications.
[August 20, 2021]

In the areas of illumination and imaging the simulation of complex source models like light source arrays or extended sources is necessary for many different applications.

We therefore want to demonstrate a new feature from the latest VirtualLab Fusion release (2021.1) which enables the configuration of such kind of sources through the definition and combination of different source modes. The modes can be configured as coherent or incoherent to each other to allow for the modeling of either fully coherent, fully incoherent or partially coherent sources.

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Birefringence Effects on Curved Surfaces

[August 13, 2021]
In order to provide additional design freedom in terms of polarization control and multiplexing, in many applications anisotropic layers are attached to the surfaces of optical components.
[August 13, 2021]

In order to provide additional design freedom in terms of polarization control and multiplexing, in many applications anisotropic layers are attached to the surfaces of optical components.

As the birefringence effect depends strongly on the orientation of the crystal axis with respect to the direction of the incoming light, the discussion of such kind of components is especially interesting when the coating is applied to a curved surface.

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Polarization Effects in Anisotropic Components

[August 06, 2021]
Birefringence and other polarization effects are a major part of any simulation of anisotropic optical components, which feature prominently in many applications, the fabrication of liquid crystal displays among them.
[August 06, 2021]

Birefringence and other polarization effects are a major part of any simulation of anisotropic optical components, which feature prominently in many applications, the fabrication of liquid crystal displays among them.

VirtualLab Fusion gives you the option to include anisotropic media in your system, in the form of coating layers or in different components, like the Stratified Media component or the Crystal Plate. This allows for a complete simulation of single and multi-layer polarizers as demonstrated in the examples below.

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Anisotropic Media for Coatings & Components

[July 29, 2021]
Anisotropic media, and crystals in particular, have long been linchpin components for various applications, including lasers and display technologies.
[July 29, 2021]

Anisotropic media, and crystals in particular, have long been linchpin components for various applications, including lasers and display technologies.

A HIGHLIGHT OF THE LATEST RELEASE, 2021.1

For the design, simulation and optimization of such kind of optical setups, VirtualLab Fusion provides a fast and rigorous electromagnetic field solver
that models the propagation of the electromagnetic field through anisotropic media, including polarization effects like conical refraction and birefringence.

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Propagation through Multimode Fibers

[July 22, 2021]
Multimode fibers are an integral part of most optical communication technologies. For a sound modeling of such structures, accurate propagation of the fiber modes and their interference is necessary.
[July 22, 2021]

Multimode fibers are an integral part of most optical communication technologies. For a sound modeling of such structures, accurate propagation of the fiber modes and their interference is necessary. In VirtualLab Fusion it is possible to use Bessel and Laguerre Polynomials to describe the fiber modes, for single-core fibers as well as graded-index ones. The resulting modes can then also be propagated while considering additional effects like e.g. atmospheric turbulence.

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