Sentences with phrase «of fiber laser»

The researchers recognized that their new hollow core fibers could enable a new type of fiber laser.

IPG Photonics Corporation is a developer and manufacturer of a line of fiber lasers, fiber amplifiers, diode lasers, laser systems and optical accessories that are used for various applications.

Not exact matches

• Nlight, a Vancouver, Wash. - based semiconductor and fiber laser maker, filed for an IPO of up to $ 86.3 million.

• nLight, a Vancouver, Wash. - based semiconductor and fiber laser maker, raised $ 96 million in an IPO of 6 million shares priced at $ 16, an upsized IPO above its $ 13 to $ 15 range.

IPG Photonics (NASDAQ: IPGP) has provided key advances in that regard through its work with fiber lasers, and its industry - leading position has benefited from the advantages that fiber lasers offer over both non-laser cutting - and - welding equipment and other types of lasers as well.

IPG Photonics (NASDAQ: IPGP) stock closed 9.5 % higher on Tuesday after the maker of fiber optic lasers reported fiscal Q1 2018 earnings earlier in the day.

«There are actually 11 kinds of lasers that are part of the detector system,» she said, for such uses as optical levels, fiber welding, thermal compensation and photon calibration.

Helped by the recent development of fiber - optic - bundle - coupled laser - scanning confocal fluorescence imaging (Confocal Laser Endomicroscopy — CLE), which allowed the scientists to image blood flow more deeply in the brain than ever belaser - scanning confocal fluorescence imaging (Confocal Laser Endomicroscopy — CLE), which allowed the scientists to image blood flow more deeply in the brain than ever beLaser Endomicroscopy — CLE), which allowed the scientists to image blood flow more deeply in the brain than ever before.

Using an optical fiber and laser light, physicists have simulated a «white hole» — essentially a black hole working in reverse — as they report on page 1367 of this week's issue of Science.

Researchers at Containerless Research in Evanston, Illinois, used this NASA - developed device to create a novel type of glass that could lead to better lasers for surgery, dentistry, and fiber optics.

«The transistor laser has those plus a third output — a coherent photon beam,» which can be transmitted by fiber - optic line for speed - of - light processing.

«With our robust and efficient system we can reliably and accurately determine the objects» exact position and direction of movement in orbit,» explains Dr. Thomas Schreiber from the fiber lasers group at Fraunhofer IOF.

The WGM biosensor, which Arnold named for the famous Whispering Gallery in the dome of St. Paul's Cathedral in London, is a device the size of a small smartphone comprising a tunable laser guided down a specially treated fiber optic filament with a detector at the far end of the filament measuring the light's intensity and resonance.

A research team at the Fraunhofer Institute for Applied Optics and Precision Engineering IOF in Jena, Germany, has now especially developed a fiber laser that reliably determines the position and direction of the space debris» movement to mitigate these risks.

It also lies at the heart of two quintessential modern technologies: lasers that radiate beams of staggering purity and intensity and optical fibers that direct those beams to telephones, televisions, and computers around the world.

He was already known for his work refining a laser that would become a mainstay of fiber - optic communications.

The group plans to deploy a small proof - of - concept experiment on the ISS, with a small, 20 - centimeter version of the EUSO telescope and a laser with 100 fibers.

But the researchers have demonstrated experimentally that their setup — which includes lasers to feed beams of polarized light into a network of optical fibers, beam - splitters and other optical devices — gives results that agree closely with their predictions.

«If that goes well,» says Ebisuzaki, «we plan to install a full - scale version on the ISS, incorporating a three - meter telescope and a laser with 10,000 fibers, giving it the ability to deorbit debris with a range of approximately 100 kilometers.

Traditional technologies used for fiber optic cables and high - speed data transmission, such as diode lasers, are reaching the upper end of their switching speeds, Feng said.

So rodents in optogenetics experiments must remain tethered to a surgically implanted, fiber optic cable that delivers laser beams directly to the brain region of interest.

DARPA is looking at more efficient technologies, like fiber lasers and liquid lasers, which could lead to smaller, more compact devices, while the Navy is researching a Free Electron Laser, an experimental technology that uses high - speed electrons to generate an extremely powerful focused beam of radiation.

So for decades engineers have tried to accelerate the pace of conventional, electricity - based computer chips by melding them with laser - based signal processors (like those used to send Internet data blazing through fiber - optic cables).

Einstein's quantum theory of light is essential to modern electronics, including television, solar cells, lasers, and fiber optics.

«We see it stimulating other applications of the hollow fiber and new ways of interacting different types of laser beams with gases at various wavelengths, including wavelengths that you wouldn't expect to work.»

And yet, scientists have known for years that hydrogen can alter the performance of optical fibers, which are often used to transmit or even generate laser light in optical devices.

Fibers treated this way can transmit stable, high - power ultraviolet laser light for long periods of time, resisting the damage usually caused by UV light.

An observer at the end of the fiber would never know the laser had been fired, because it never interacted with the light beam.

The researchers say that a number of other gases should work with their fiber gas laser, allowing emission up to 5 microns.

With 313 nm wavelength laser light at 100 mW power, light transmission through the fibers dropped to zero in four hours, confirming the value of the hydrogen treatment.

The new laser, detailed in The Optical Society's high impact journal Optica, combines aspects of both gas and fiber lasers.

NIST researchers tested two types of fibers with solid cores made of fused silica surrounded by lattices of air holes, which form a crystal structure that maintains the shape of transmitted laser beams.

Researchers at the National Institute of Standards and Technology (NIST) have put this hydrogen «cure» to practical use, making optical fibers that transmit stable, high - power ultraviolet laser light for hundreds of hours.

The fibers also lose very little of the laser light as it is transmitted.

Key to the laser's success was the team's development of silica hollow - core fibers that perform exceptionally well in the mid-IR.

«This laser is just one use of our hollow - core fiber,» said Muhammad Rosdi Abu Hassan, a doctoral student and first author of the paper.

Placing a suitable gas inside of a hollow optical fiber allowed the researchers to create a fiber gas laser with mid-IR emission.

When co-author Zhaoming Zhu, Gauthier's postdoctoral research associate, encoded information onto one of these beams, the data could be imprinted on these newly created phonons and retained for 12 billionths of a second, long enough to be transferred back to light again by shining a third laser through the fiber.

The final puzzle piece fell into place at the 1999 Conference on Lasers and Electro - Optics where Jinendra Ranka of Bell Laboratories presented a paper on a new kind of optical fiber known as microstructure fiber.

Within two weeks of receiving the express package from Bell Laboratories, we had done a proof - of - principle experiment showing that the spectral broadening in the microstructure fiber preserved the frequency comb structure in the original laser pulse.

The time lens combined the two techniques: It involved hitting a beam of light with a laser just as it passed through a glass fiber, allowing considerable control over the beam's speed.

Group 1: Materials, Resonators, & Resonator Circuits A. Fundamental Properties of Materials B. Micro - and Macro-Fabrication Technology for Resonators and Filters C. Theory, Design, and Performance of Resonators and Filters, including BAW, FBAR, MEMS, NEMS, SAW, and others D. Reconfigurable Frequency Control Circuits, e.g., Arrays, Channelizers Group 2: Oscillators, Synthesizers, Noise, & Circuit Techniques A. Oscillators — BAW, MEMS, and SAW B. Oscillators - Microwave to Optical C. Heterogeneously Integrated Miniature Oscillators, e.g., Single - Chip D. Synthesizers, Multi-Resonator Oscillators, and Other Circuitry E. Noise Phenomena and Aging F. Measurements and Specifications G. Timing Error in Digital Systems and Applications Group 3: Microwave Frequency Standards A. Microwave Atomic Frequency Standards B. Atomic Clocks for Space Applications C. Miniature and Chip Scale Atomic Clocks and other instrumentation D. Fundamental Physics, Fundamental Constants, & Other Applications Group 4: Sensors & Transducers A. Resonant Chemical Sensors B. Resonant Physical Sensors C. Vibratory and Atomic Gyroscopes & Magnetometers D. BAW, SAW, FBAR, and MEMS Sensors E. Transducers F. Sensor Instrumentation Group 5: Timekeeping, Time and Frequency Transfer, GNSS Applications A. TAI and Time Scales, Time and Frequency Transfer, and Algorithms B. Satellite Navigation (Galileo, GPS,...) C.Telecommunications Network Synchronization, RF Fiber Frequency Distribution D. All - optical fiber frequency transfer E. Optical free - space frequency transfer F. Frequency and Time Distribution and Calibration Services Group 6: Optical Frequency Standards and Applications A. Optical Ion and Neutral Atom Clocks B. Optical Frequency Combs and Frequency Measurements C. Ultrastable Laser Sources and Optical Frequency Distribution D. Ultrastable Optical to Microwave Conversion E. Fundamental Physics, Fundamental Constants, and Other ApplicaFiber Frequency Distribution D. All - optical fiber frequency transfer E. Optical free - space frequency transfer F. Frequency and Time Distribution and Calibration Services Group 6: Optical Frequency Standards and Applications A. Optical Ion and Neutral Atom Clocks B. Optical Frequency Combs and Frequency Measurements C. Ultrastable Laser Sources and Optical Frequency Distribution D. Ultrastable Optical to Microwave Conversion E. Fundamental Physics, Fundamental Constants, and Other Applicafiber frequency transfer E. Optical free - space frequency transfer F. Frequency and Time Distribution and Calibration Services Group 6: Optical Frequency Standards and Applications A. Optical Ion and Neutral Atom Clocks B. Optical Frequency Combs and Frequency Measurements C. Ultrastable Laser Sources and Optical Frequency Distribution D. Ultrastable Optical to Microwave Conversion E. Fundamental Physics, Fundamental Constants, and Other Applications

Economically important applications for semiconductor photonic devices include optical data recording, fiber optic telecommunications, laser printing (based on xerography), displays, and optical pumping of high - power lasers.

In this paper we present a laser frequency comb measurement technique to characterize the frequency stability of a custom - designed fiber Fabry - Perot interferometer (FFP).

Laser Light Test Reveals Spreading Cancer Cancer imaging and breast cancer experts used advanced microscopes equipped with tissue - penetrating laser light to develop a promising new way to accurately analyze the distinctive patterns of ultra-thin collagen fibers in breast tumor tissue samples and to help tell if the cancer has spLaser Light Test Reveals Spreading Cancer Cancer imaging and breast cancer experts used advanced microscopes equipped with tissue - penetrating laser light to develop a promising new way to accurately analyze the distinctive patterns of ultra-thin collagen fibers in breast tumor tissue samples and to help tell if the cancer has splaser light to develop a promising new way to accurately analyze the distinctive patterns of ultra-thin collagen fibers in breast tumor tissue samples and to help tell if the cancer has spread.

Interrogation of fiber Bragg - grating resonators by polarization - spectroscopy laser - frequency locking G. Gagliardi, S. De Nicola, P. Ferraro, and P. De Natale Optics Express 15, 3715 - 3728 (2007).

By rotating and sliding the fiber tip (Figure 9B) with side illumination (similar solutions were already realized for laser surgery [68 - 71]-RRB- we will generate and detect the PNBs in a cylindrical volume with a diameter of 10 mm and a height of 10 mm (Figure 9B).

So one of my members who happens to be a laser physicist, him and his wife, they own a company that sells fiber optics in the city of New York, okay?

About Blog RP Photonics Consulting GmbH provides technical consultancy and simulation & design software on a wide range of topics in photonics, in particular concerning lasers, laser amplifiers, nonlinear optics and fiber optics.

RPMC Lasers, Inc. is a supplier of laser products including Multimode and Single Mode Laser Diodes, Femtosecond Lasers, Picosecond Lasers, Nanosecond Lasers, Millisecond Lasers, CW Lasers, Fiber Lasers, Fiber Amplifiers and laser products including Multimode and Single Mode Laser Diodes, Femtosecond Lasers, Picosecond Lasers, Nanosecond Lasers, Millisecond Lasers, CW Lasers, Fiber Lasers, Fiber Amplifiers and Laser Diodes, Femtosecond Lasers, Picosecond Lasers, Nanosecond Lasers, Millisecond Lasers, CW Lasers, Fiber Lasers, Fiber Amplifiers and more.