Cobolt, a part of Hübner Photonics, has introduced the Cobolt Tor XS, a Q-switched laser
Cobolt, a part of Hübner Photonics, continues to target the Raman spectroscopy market with the addition of 633nm and 785nm STM on the 08-01 series, with the aim to secure the market position as a major supplier of all laser wavelengths to the high resolution Raman market
Matthew Dale finds that food sorting using spectral analysis is big business
Cobolt, a part of Hübner Photonics, has added a new wavelength of 640nm to the Cobolt 05-01 series of single frequency lasers
Thanks to rapid technology advancements in recent years, Raman spectroscopy has become a routine, cost-efficient, and much appreciated analytical tool with applications in material science and in-line process control for pharmaceutical, food & beverage, chemical and agricultural industries. This white paper discusses important performance parameters to consider when selecting a laser for Raman spectroscopy experiments
Cobolt, a part of Hübner Photonics, has released the Cobolt Skyra, a multi-line laser platform
Cobolt, a part of Hübner Photonics, will highlight new wavelengths of 457nm, 473nm, 515nm, 660nm and 1,064nm on its 08-01 series, complementing the already available wavelengths of 405nm, 532nm, 561nm and 785nm. The 08-01 series of single frequency and narrow linewidth lasers are ideal for Raman spectroscopy applications.
Jane Burgermeister reports on world-class neuroscience research that’s being advanced by photonics
HÜBNER Photonics, a division of the HÜBNER Group, has been appointed by Azur Light Systems (ALS) of France to distribute their products in Germany, Austria and Switzerland (D/A/CH) as well as the Nordics from 1 June 2017
Cobolt, Swedish manufacturer of high performance lasers, will show a range of new products at the show
Organoid imaged with Andor’s desktop confocal microscope system, the BC43. Credit: Andor
As microscopes become ever more powerful, a growing band of businesses are racing to make the latest technologies more accessible and more affordable, reports Rebecca Pool
Illustration of a three-dimensional crystal with various types of confining centres. (a) Crystal with four confining centres, each trapping waves (yellow) in all three dimensions simultaneously. (b) Crystal with a linear confining centre where waves can propagate in one dimension, analogous to an optical fibre. (c) Crystal with a planar confining centre where waves can propagate in two dimensions, analogous to a 2D electron gas. (Image: Vos et al.)
Newly discovered fundamental rules have been embedded into software to dramatically optimise the design of photonic integrated circuits
