Quantel fiber laser enables atom-cooling experiments onboard CNES Zero-G aircraft

Sept. 22, 2014
Quantel Laser announced that its EYLSA Fiber Laser completed a series of atom-cooling experiments on board the CNES Zero-G aircraft.
(Image credit: Quantel)
The Quantel EYLSA fiber laser was used aboard the CNES Zero-G aircraft to complete a series of atom-cooling experiments.
The Quantel EYLSA fiber laser was used aboard the CNES Zero-G aircraft to complete a series of atom-cooling experiments.
The Quantel EYLSA fiber laser was used aboard the CNES Zero-G aircraft to complete a series of atom-cooling experiments.
The Quantel EYLSA fiber laser was used aboard the CNES Zero-G aircraft to complete a series of atom-cooling experiments.
The Quantel EYLSA fiber laser was used aboard the CNES Zero-G aircraft to complete a series of atom-cooling experiments.
The Quantel EYLSA fiber laser was used aboard the CNES Zero-G aircraft to complete a series of atom-cooling experiments.

Solid-state laser manufacturer Quantel Laser (Paris, France and Bozeman, MT) announced that its EYLSA Fiber Laser completed a series of atom-cooling experiments on board the CNES (French national space agency) Zero-G aircraft. The standard commercial 1W, 780 nm laser source was used as part of an atom-cooling experiment conducted by the laboratoire LP2N in Bordeaux, France and by CNES in order to prove the suitability and the reliability of the laser source for onboard applications.

RELATED ARTICLE: Innovative atom trap catches highly magnetic atoms

Ever since Chu, Cohen-Tannoudji, and Phillips were awarded the Nobel Prize for their development of methods to cool and trap atoms with laser light, the field has expanded rapidly, with researchers using the technique to study fundamental quantum effects that can only be observed very close to 0 K temperature. Quantel says the field has increased dramatically but has been limited by the complexity of the experimental setup and the associated lab-grade lasers and optical assemblies. The Quantel EYLSA Fiber Laser, built in a master oscillator power fiber amplifier (MOPFA) architecture, replaces the mechanically tuned, external-cavity diode laser (ECDL) and tapered amplifier typical for such experiments.

Quantel says its fiber laser is robust, plug-and-play, and based on proven telecom-grade components with much longer lifetime and more rugged reliability than existing ECDL-based systems that allow researchers to spend their time on the results of their atom-cooling experiments rather than on maintaining the alignment and performance of the laser source.

"For our experiment, we needed to operate in 0G. CNES' Zero-G A-300 offers us this unique opportunity, but puts tremendous demands on the equipment as the aircraft cycles from zero gravity to hyper gravity again and again during a run," said Philippe Bouyer, director of the LP2N laboratory.

"Cold atom experiments have become more and more complicated and researchers do not want to waste time building or tweaking their laser source," said David Pureur, general manager of Quantel’s fiber laser division. "Obviously, not all our customers need to operate in such harsh environments, however, they certainly are seeking to simplify their atom cooling experiments. The EYLSA [trade mark] allows them to spend their time on the experiment, not on the laser source."

EYLSA has 1 W power from a single-mode polarization-maintaining fiber with M squared <1.1, available wavelengths of 780, 767, and 530 to 560 nm, 19” rack mount package, plug-in to full power in < 15 minutes, no maintenance, and two years warranty. In addition to the EYLSA Fiber Laser, Quantel Laser also offers high power, pulsed nanosecond lasers, laser diode stacks, and custom laser solutions.

SOURCE: Quantel Laser; http://www.quantel-laser.com/news-article-106/items/quantels-fiber-laser.html

About the Author

Gail Overton | Senior Editor (2004-2020)

Gail has more than 30 years of engineering, marketing, product management, and editorial experience in the photonics and optical communications industry. Before joining the staff at Laser Focus World in 2004, she held many product management and product marketing roles in the fiber-optics industry, most notably at Hughes (El Segundo, CA), GTE Labs (Waltham, MA), Corning (Corning, NY), Photon Kinetics (Beaverton, OR), and Newport Corporation (Irvine, CA). During her marketing career, Gail published articles in WDM Solutions and Sensors magazine and traveled internationally to conduct product and sales training. Gail received her BS degree in physics, with an emphasis in optics, from San Diego State University in San Diego, CA in May 1986.

Sponsored Recommendations

Achieving Ultralow-Loss Photonics Array Alignment

Feb. 23, 2024
Two- and three-dimensional photonics arrays are commonly used for coupling light in photonic integrated circuits. With the increasing demand for ultralow-loss transmission in ...

Control Techniques in Laser Processing

Feb. 23, 2024
A laser processing tool is only as good as the motion equipment underneath it. One must first consider design characteristics of a motion platform, and second, advanced control...

High-Precision Laser Processing for Medical Device Manufacturing

Feb. 23, 2024
Laser processing has been used for decades to manufacture tubular medical devices, such as stents, valves, and vascular grafts. However, achieving the precision that is necessary...

Selecting Optimal Positioning Equipment for Laser Direct-Write Processes

Feb. 23, 2024
Choosing the optimal automation equipment for a given process requires a thorough understanding of the process parameters and the effects of positioning errors on the results....

Voice your opinion!

To join the conversation, and become an exclusive member of Laser Focus World, create an account today!