Optical Squeezing, Atomic Force Microscopy, Gravity Wave Detection and the SolsTiS

Image 7

The marketing team enjoyed a visit to one of our longest standing and most valued customers last month. We met Professor Vincent Boyer whose Birmingham University Quantum Optics Group has been using a SolsTiS (our alignment-free, narrow linewidth Ti:S laser) for over two years in their optical squeezing apparatus. 

Birmingham-University

We were shown a complex experiment with the SolsTiS sitting at the centre of an immense breadboard of equipment which included a Rb vapour cell used to generate a four-wave-mixing process to create photon pairs. These photons are recombined to create a squeezed beam with a clean transverse intensity profile. The squeezed beam can then be used in applications such as atomic force microscopy, gravity wave detection and as an illumination source in microscopy to improve the quantum limit of optical resolution. 

The Birmingham University Quantum Optics Group selected a SolsTiS because of its low amplitude noise, low mechanical noise, thermal stability and the low maintenance, alignment free nature of the design and technology. Tuned to the Rubidium D1 line, the laser is simply switched on from cold each morning and is ready to start immediately.In particular, Professor Boyer cites the robust build quality of the SolsTiS as an important factor in eliminating mechanical (technical) noise from the experiment's delicate and complex apparatus.

It was a real treat and a privilege to see an experiment like this up close. Visit the downloads section of our website where we will shortly be posting a case study of this SolsTiS installation. You can also download a datasheet for the SolsTiS.

Bookmark the permalink  or go back to the index.

  •  
  •