LightTrans

Trainings Archives

VirtualLab Fusion Technology and Applications: Introduction to Optical Design Software - March 2019

25 – 26 March 2019
9:00 - 17:00
Jena, Germany

Nowadays physical optics principles are of ever-growing importance for the analysis and design of advanced optical devices and systems. Come to our training course to learn the concepts of Fast Physical Optics on which VirtualLab Fusion is based. We show how you can benefit from VirtualLab Fusion in your daily work.


Learning outcomes:

  • Discover essential physical-optics effects and phenomena in modern optical systems and how to include them in your modeling and design.
  • Dive right into the software with hands-on exercises on typical applications (e.g., lens systems, laser optics, fiber coupling, interferometry, microscopy), accompanied by the corresponding workflows.
  • Build up your optical system and perform an analysis and design thereof with different modeling technologies and optimization tools in VirtualLab Fusion.

Analysis and Design of Diffractive and Micro-Optical Systems Santa Clara 17 – 19 October 2018

Attendees at the software course in Santa Clara develop their skills in modeling and analysis of diffractive and micro-optical systems and there components.

Analysis and Design of Diffractive and Micro-Optical Systems Santa Clara 17 – 19 October 2018

17 – 19 October 2018
Santa Clara, CA, USA
9:00 am - 5:00 pm

Attendees at the software course develop their skills in modeling and analysis of micro-structured and diffractive optical components with refractive, diffractive and hybrid surfaces. Customized surface profiles and refractive index distributions will also be explained. The course teaches the analysis of these components including diffraction and interference effects. The modeling and analysis of typical tolerances, e.g. of micro-structured elements, will be discussed along several examples. We present the optimization of diffractive beam splitters, diffusers and beam shapers by the Iterative Fourier Transform Algorithm (IFTA). The course will also cover the use of the Fourier Modal Method (FMM) to model and perform a rigorous analysis of both 2D and 3D grating structures with features in the wavelength range and with arbitrary surface and index modulations. Finally local and global parametric optimization algorithms of VirtualLab for the rigorous optimization of gratings will be introduced.

Short Overview:

  • Modeling of micro-optical components
  • Import and export
  • Analysis, design and tolerancing of diffractive and micro-optical systems
  • Modeling and analysis of homogenization systems
  • Design of diffractive and refractive beam splitters, diffusers and beam shapers
  • Rigorous analysis and optimization of gratings

Introduction to VirtualLab Fusion | Santa Clara 15 – 16 October 2018

The software training in Santa Clara gives an introduction to the principles of the innovative physical optics design methods of VirtualLab Fusion.

Introduction to VirtualLab Fusion | Santa Clara 15 – 16 October 2018

15 - 16 October 2018
Santa Clara, CA, USA
9:00 am - 5:00 pm

The software training gives an introduction to the principles of the innovative optical design methods of VirtualLab. Components of VirtualLab’s user interface are introduced and the different types of documents are discussed in detail. Participants learn step by step about components, sources and detectors of VirtualLab. The setup and the simulation of optical systems will be illustrated on various laser systems. The goal of the course is that participants learn how to model and simulate optical systems in VirtualLab. Discover the fast physical optics concept and how to benefit from it through our user-friendly GUI!

Short Overview:

  • Brief overview and introduction toVirtualLab documents, GUI and usage
    • Brief overview of the theory behind the algorithm
    • Introduction to the concepts of field and ray tracing for the simulation of light in optical systems
  • Application-oriented examples such as microscope and spectrometer setups
    • Simulation of paraxial and non-paraxial lens systems
    • Polarization of light
    • Calculation of interferograms and simulation of interferometers

Analysis and Design of Diffractive and Micro-Optical Systems Jena 26 – 28 September 2018

Attendees at the software course in Jena develop their skills in modeling and analysis of micro-structured and diffractive optical components.

Analysis and Design of Diffractive and Micro-Optical Systems Jena 26 – 28 September 2018

26 – 28 September 2018
Jena, Germany
9:00 am - 5:00 pm

Attendees at the software course develop their skills in modeling and analysis of micro-structured and diffractive optical components with refractive, diffractive and hybrid surfaces. Customized surface profiles and refractive index distributions will also be explained. The course teaches the analysis of these components including diffraction and interference effects. The modeling and analysis of typical tolerances, e.g. of micro-structured elements, will be discussed along several examples. We present the optimization of diffractive beam splitters, diffusers and beam shapers by the Iterative Fourier Transform Algorithm (IFTA). The course will also cover the use of the Fourier Modal Method (FMM) to model and perform a rigorous analysis of both 2D and 3D grating structures with features in the wavelength range and with arbitrary surface and index modulations. Finally local and global parametric optimization algorithms of VirtualLab for the rigorous optimization of gratings will be introduced.

Short Overview:

  • Modeling of micro-optical components
  • Import and export
  • Analysis, design and tolerancing of diffractive and micro-optical systems
  • Modeling and analysis of homogenization systems
  • Design of diffractive and refractive beam splitters, diffusers and beam shapers
  • Rigorous analysis and optimization of gratings

Introduction to VirtualLab Fusion | Jena 24 – 25 September 2018

Software training provides an introduction to the principles of innovative optical design methods and the components, sources and detectors offered.

Introduction to VirtualLab Fusion | Jena 24 – 25 September 2018

24 - 25 September 2018
Jena, Germany
9:00 am - 5:00 pm

The software training gives an introduction to the principles of the innovative optical design methods of VirtualLab. Components of VirtualLab’s user interface are introduced and the different types of documents are discussed in detail. Participants learn step by step about components, sources and detectors of VirtualLab. The setup and the simulation of optical systems will be illustrated on various laser systems. The goal of the course is that participants learn how to model and simulate optical systems in VirtualLab. Discover the fast physical optics concept and how to benefit from it through our user-friendly GUI!

Short Overview (daily program is available here):

  • Brief overview and introduction toVirtualLab documents, GUI and usage
    • Brief overview of the theory behind the algorithm
    • Introduction to the concepts of field and ray tracing for the simulation of light in optical systems
  • Application-oriented examples such as microscope and spectrometer setups
    • Simulation of paraxial and non-paraxial lens systems
    • Polarization of light
    • Calculation of interferograms and simulation of interferometers

Design & Simulation of Diffractive Optical Elements | Sunnyvale 6 – 7 June 2018

We explain and demonstrate the capabilities of VirtualLab Fusion in terms of designing and optimizing diffractive optical elements (DOEs) and MLAs.

Design & Simulation of Diffractive Optical Elements | Sunnyvale 6 – 7 June 2018

6 - 7 June 2018
Sunnyvale, CA , USA
9:00 am - 5:00 pm

We explain and demonstrate the capabilities of VirtualLab Fusion in terms of designing and optimizing diffractive optical elements (DOEs).

Topics:

  • Modeling and design of diffractive beam splitters, beam shapers and light diffusers
  • Monte Carlo tolerance simulation
  • Evaluation of different merit functions
  • Analysis of micro lens arrays (MLAs)
  • Modeling partially coherent light
  • Demonstration of light shaping
  • Concepts based on grating/prism/mirror cells arrays
  • High-NA simulations
  • Consequences/limitations of used
  • Design & simulation methods (from the more starkly approximated all the way to rigorous)
  • Modeling of spatial light modulators (SLMs)
  • Modeling of diffractive lens
  • Analysis of a bifocal hybrid lens
  • Fabrication export

Simulation & Optimization of Optical Gratings | Sunnyvale 4 – 5 June 2018

This training covers the simulation capabilities of VirtualLab Fusion using the rigorous coupled wave analysis (RCWA) method for optical gratings.

Simulation & Optimization of Optical Gratings | Sunnyvale 4 – 5 June 2018

4 - 5 June 2018
Sunnyvale, CA, USA
9:00 am - 5:00 pm

This training covers the simulation capabilities of VirtualLab Fusion using the rigorous coupled wave analysis (RCWA) method for the investigation of periodic micro-structures. These simulation options can be integrated in the analysis of complex optical systems.

Topics:

  • Modeling of periodic micro-structures:
    • rectangular gratings
    • blazed gratings
    • slanted gratings
    • splitter elements
    • photonic crystals
    • anti-reflection structures
    • volume grating
  • Application-oriented examples such as microscope and spectrometer setups
  • Optimization options and investigations of parameter variations
  • Investigations of field distribution within the structure
  • Effects due to conical incidence, coatings and different polarization characteristics
  • Configuration settings and numerical limitations
  • Near field and efficiency analysis of the structure types listed above

Design & Simulation of Diffractive Optical Elements | Jena 18 – 19 April 2018

We explain and demonstrate the capabilities of VirtualLab Fusion in terms of designing and optimizing diffractive optical elements (DOEs) and MLAs.

Design & Simulation of Diffractive Optical Elements | Jena 18 – 19 April 2018

18 - 19 April 2018
Jena, Germany
9:00 am - 5:00 pm

We explain and demonstrate the capabilities of VirtualLab Fusion in terms of designing and optimizing diffractive optical elements (DOEs).

Topics:

  • Modeling and design of diffractive beam splitters, beam shapers and light diffusers
  • Monte Carlo tolerance simulation
  • Evaluation of different merit functions
  • Analysis of micro lens arrays (MLAs)
  • Modeling partially coherent light
  • Demonstration of light shaping
  • Concepts based on grating/prism/mirror cells arrays
  • High-NA simulations
  • Consequences/limitations of used
  • Design & simulation methods (from the more starkly approximated all the way to rigorous)
  • Modeling of spatial light modulators (SLMs)
  • Modeling of diffractive lens
  • Analysis of a bifocal hybrid lens
  • Fabrication export

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info (at) lighttrans.com

 

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