NEWS

Get in touch at SPIE Optics + Photonics, San Diego, CA, USA!

(July 13, 2010)

We offer several opportunities to learn more about VirtualLab™ at SPIE Optics + Photonics, San Diego, CA, USA, starting August 1, 2010. VirtualLab™ is being presented at the SPIE show at booth 628 of our distributor in the United States, Jenoptik Optical Systems, Inc. Further a free seminar on &quot...

VirtualLab™ 4.8 Released

(July 09, 2010)

VirtualLab™ and VirtualLab™ Advanced 4.8 have been released. VirtualLab™ 4.8 extends the flexibility of 2-D grating simulations. Using so called stacks, the period of the structure can be defined by sequences of optical interfaces, including grating, conical, aspherical, sampled and programmable int...

Presentation of VirtualLab™ at IODC, Jackson Hole, Wyoming, USA.

(June 08, 2010)

Our distributor in the United States, Jenoptik Optical Systems, Inc., is exhibiting at the International Optical Design Conference (IODC) in Jackson Hole, Wyoming, USA starting June 13 2010. As part of their exhibition the optical software VirtualLab™ is being presented. An invited talk on "Uni...

Major speed-up in optics calculations with VirtualLab™ Advanced

Challenging tasks in design and simulation require appropriate computer resources with respect to both, CPU performance and physical memory. VirtualLab™ Advanced provides such an infrastructure based on 64bit technology. VirtualLab™ Advanced can exploit the entire physical memory allowing a much higher spatial resolution of fields within calculations and designs. Technically, resolution and size of numerical arrays are only limited by the physical memory (RAM) of the computer in use. Hence, resolutions of more than 10.000 x 10.000 sampling points do not pose a problem for VirtualLab™ Advanced.

Further VirtualLab™ Advanced exploits multi-core systems. This option allows to utilize multiple processor cores in parallel resulting in a considerable acceleration of design and simulation. The attached illustration shows the decline in processing time with different levels of parallelization when solving a design problem using the Iterative Fourier Transform Algorithm. The achieved speedup (larger than 6) is close to the number of cores being used (8 cores of a dual CPU system). VirtualLab™ Advanced requires a 64bit Windows operating system.

Calculation time without parallelization, as well as with 2, 4 and 8 cores in parallel use.