Video Player Options

When you are inside the training center you will see that we have tutorial videos to help you learn how to use the MIRaGE software. Below are the options available to you when watching our training videos.

How to change the video speed

You will see a gear on the right side and when you click on it you will see your current speed. To change the speed click on your current speed.

Then you will see all the speeds available to you. You can slow your video down or speed it up based on your preferences. You can always change this speed as you need.

How to enter full screen mode

If you need to make the video bigger so it is easier to see what is going on you can simply click the duel arrow on the bottom right to enter full screen mode and clicking this option will also exit full screen mode as well.

How to skip ahead or skip back

You will see there is a 10 second skip forwards or back buttons next to the play button you can use this to jump forward and backwards

 

Thank you for your interest in the MIRaGE software tool suite!

MIRaGE is a new and ongoing R&D area, and as such, our governing entities require some additional information to be gathered and reviewed before distribution.

Acquiring a copy of MIRaGE is a two-step process. The first step will be on the following page when you click the button below. This step is an in-depth questionnaire called the Participant Data Sheet (PDS) and is used to review eligibility.

The second step involves the approval and signature of a Government Use Notice (GUN), which allows entities that either 1) hold an existing government contract with DARPA or another Federal Agency and have a need for the software or 2) have negotiated access to the software through DARPA.

Once the GUN is signed you will receive credentials via an email that allow you to download and install MIRaGE.

If you have issues with the process or questions, please do not hesitate to contact us at help@mirage-software.com.

Click here to start your request

Intelligent Symmetry Engine:

  • Mapping of symmetry to constitutive tensor and optical properties
  • Expert , Guided and Templated build modules
  • Library of meta-atoms and unit cells
  • State of the art CAD with all geometrical primitives and Boolean operations to achieve arbitrary meta-atoms designs
  • User based material assignment to segments of atoms
  • Automatic physical meshing based on material refractive index
  • Pick-and-place arbitrary 3D heterogeneous-unit cell tiling & stitching
  • Arbitrary layered super- and substrates
  • Periodic table of meta-atoms, unit cells, and molecules
  • Supports all space filling tiles in 2D, 2.5D and 3D systems
  • Algebraic expressions for dimensional dependencies

Smart Efficient Multiscale Electromagnetic Simulation Engine:

  • V&V on literature from Microwave-to-optical domains
  • Ability to extract and track diffraction orders
  • Automatic phase unfolding
  • Data processing and extraction of physical properties including: S-parameters, phase, volumetric fields distribution power, pointing vector, field intensity, surface charge density, quiver plots.
  • Exportation of tabulated CVS data and gif temporal time propagation
  • Handling of perturbative nonlinearity
  • User friendly scripting interface for exotic anisotropic material properties including: anisotropic and, dispersive media, gyrotropic media, ferrites with bias fields, graphine, and nonlinear susceptibility
  • Analytic determination of SALC resonant modes pre-simulation
  • Symmetry-based meta-atom periodic table for the design of meta-surfaces and lenses
  • Adjoint based source inversion and masking
  • 1mm2 metalens simulation

Guided flexible Optimization Engine:

  • Incorporation of DAKOTA geometric optimization package
  • Engagement of optimization method via simple mouse clicks in an optimization GUI
  • Canned objective functions and exemplar scripts for user guidance
  • Exposing of all compute quantities including spatial fields vectors and s-parameters to user for defining custom objective functions
  • Automatic propagation of assigned dynamic variables to optimization module
  • Run-time history showing geometric evolution of structure at various stages
  • User ability to upload measured data and use optimization module forensic tool to deduce structural dimensions
  • Incorporation of sensitivity analysis and uncertainty quantification for yielding robust solutions
  • Single and multi-objective optimization with user defined weights
  • Generation and exportation of optimization Pareto-Fronts
  • Incorporation of adjoint formulation and the enabling of exotic inversions including:
  • Source inversion
  • Source masking via active control
  • Target inversion
  • Tensor inversion (numerical homogenization)

Access Request

Access Request

Access Request

Access Request