Excelitas PCO GmbH - Industrial Camera 11-24 VS LB

< More Lasers Subscribe to our E-Newsletters

Photonics.com Lasers Tech Pulse (9/22/2020)

Photonics.com Lasers Tech Pulse

If you are having problems seeing this newsletter, please click here to view

Tuesday, September 22, 2020

September 2020
Lasers Tech Pulse is a special edition newsletter from Photonics Media and Bristol Instruments covering key developments in laser technology. Manage your Photonics Media membership at Photonics.com/subscribe.

sponsor

Filtering Visible Light According to Wavelength and Bandwidth
Some supercontinuum lasers have an output power in the range of tens of watts with a wavelength range that covers the entire UV-VIS range and a portion of the NIR region. With these performance specifications, the combination of a tunable filter and a broadband light source is more efficient than multiple discrete light sources.

Read Article

Bristol Instruments Inc.
High-Speed Laser Wavelength Meter
The 871 Laser Wavelength Meter measures laser wavelength at a sustained rate of 1 kHz, enabling the wavelength characterization of every single pulse for most lasers. The combination of proven Fizeau etalon technology and automatic calibration with a built-in wavelength standard ensures the uncompromised accuracy needed for the most meaningful experimental results. Operation is available from 375 nm to 2.5 μm.

Request Info

Visit Website

The Laser Turns 60
Six decades ago, in a windowless lab on a hilltop above the Pacific Ocean, Theodore (Ted) Maiman — assisted by Irnee D’Haenens — tested a palm-size device that would upend the scientific establishment. Working at Hughes Research Lab (now HRL Laboratories and formerly the research arm of Hughes Aircraft Co.) in Malibu, Calif., Maiman had built the prototype in less than nine months with a paltry budget of $50,000. It was a fraction of what his competitors working on well-funded projects worldwide at powerhouse facilities had to accomplish the same task, which was to build the world’s first laser.

Read Article

Diamond Raman Lasers Offer Multifaceted Potential
The development of optical gain media has become a critical area of study for many science and engineering fields. While traditional approaches have generated coherent light by incurring a population inversion within the lasing media, more creative methods, such as Raman lasing, have since emerged to permit the tuning of laser light, specifically at high power densities.

Read Article

Supertwisted Light from a Metasurface Laser
Structured light refers to the tailoring or shaping of light in all its degrees of freedom. The recent development of structured light supports applications such as optical communications, enhanced resolution in imaging, and optical trapping and tweezing. Chiral light is foremost among the family of structured light fields that carries spin angular momentum (±ℏ per photon, depending on the handedness) and orbital angular momentum.

Read Article

Tiny Quantum Effects Promise Big Impact on Future Instruments
While the quantum world may seem abstract and remote from day-to-day life, researchers are discovering that quantum effects such as photon entanglement could improve the performance and precision of everyday tools. Advancements in quantum metrology could help sharpen sensor location data, improve the precision of atomic clocks, or enable more versatile detectors for sensing greenhouse gas emissions.

Read Article

A Laser Points Toward Disease Diagnosis
A critical starting point in reducing the incidence of chronic disease involves detecting, locating, and accurately evaluating disease in its initial stages. One important step in tackling these challenges will be developing light-based technologies such as near-infrared (NIR) and mid-infrared (MIR) spectroscopy.

Read Article

Laser Direct IR Imaging Projects Microplastics Analysis
Contamination of soil, air, and drinking water by microplastics is a growing focus of attention around the world. Environmental agencies are increasing the monitoring of waterways, and governmental bodies are seeking to protect these resources. Simultaneously, research institutions are trying to determine the extent and potential toxicological impacts of microplastic contamination. Optical technologies are playing a vital role in these studies.

Read Article

We respect your time and privacy. You are receiving this email because you are a Photonics Media subscriber, and/or a member
of our website, Photonics.com. You may use the links below to manage your subscriptions or contact us.

Questions: [email protected]

Unsubscribe | Subscribe | Subscriptions | Privacy Policy | Terms and Conditions of Use

Photonics Media, 100 West St., PO Box 4949, Pittsfield, MA 01202-4949
© 1996 - 2024 Laurin Publishing. All rights reserved. Photonics.com is Registered with the U.S. Patent & Trademark Office.
Reproduction in whole or in part without permission is prohibited.