PerkinElmer Launches FL 6500 and FL 8500 Fluorescence Spectrometers

New product’s advanced technologies enable flexible, reliable analysis of a broad range of sample types

10 Jul 2018
Eileen Bernadette Moran
Marketing / Sales

Product news

PerkinElmer, Inc., a global leader committed to innovating for a healthier world, has announced the launch of its FL 6500™ Pulse Xenon and FL 8500™ Continuous Wave Fluorescence Spectrometers. The instruments enable industrial companies, universities, government, contract and pharmaceutical laboratories to analyze a diverse range of sample types, to meet growing research or evolving compliance requirements. When used together, these create a comprehensive fluorescence spectrometer solution for research and commercial laboratories to handle a variety of application challenges.

The FL 8500 fluorescence spectrometer uses a high-performance Xenon continuous wave excitation source with PerkinElmer optics for high sensitivity measurements, at scan speeds up to 60,000 nanometers. It can be configured for a range of applications, including material characterization; industrial tracing and manufacturing R&D; agricultural and environmental analysis; along with analysis of LEDs, solar cells and organic electroluminescent materials.

The FL 6500 fluorescence spectrometer, which uses PerkinElmer optics and a Xenon pulse excitation source with variable power settings, is designed for testing samples that are susceptible to photo bleaching. Applications include cell biology, molecular biology, immunology, enzymology and protein analysis, as well as thin coatings.

Both instruments share the new Spectrum™ FL software that mirrors laboratory workflows for simple, streamlined method development and comprehensive data analysis in minutes. Optional interchangeable, plug-and-play accessories are auto-recognized by the software to further minimize downtime. The intuitive software is also available in Enhanced Security (ES) to maintain FDA 21CFR11 compliance and adhere to stringent data integrity requirements, preventing laboratories from incurring costly fines.

“Due to the highly sensitive and selective nature of fluorescence spectroscopy, this technique can provide significant advantages over absorption spectroscopy when used in detecting and measuring trace amounts of organic compounds. Many labs, however, increasingly desire greater flexibility for analyzing a diverse range of sample types and volumes,” said Jim Corbett, Executive Vice President and President, Discovery & Analytical Solutions, PerkinElmer. “To meet these growing research needs, along with evolving compliance requirements, PerkinElmer developed a comprehensive fluorescence solution that delivers versatility and accuracy, without compromising sample integrity.”

Do you use fluorecence spectrometers in your laboratory? Write a review today for a chance to win a $400 Amazon Voucher!

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Fluorescence SpectroscopyFluorometers and spectrofluorometers (also called fluorescence spectrometers) are used to measure the intensity and wavelength of fluorescent light emitted from a sample after excitation by illumination. Spectrofluorometers utilize monochromators to select the desired wavelengths, whereas filter fluorometers employ a set of filters. Spectrofluorometers for measuring steady-state fluorescence and lifetime fluorescence (or time-resolved fluorescence) are available, as well as fluorescence microscopes and microplate readers. Find the best fluorescence spectroscopy products in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.FluorescenceThe emission of fluorescence occurs when a photon of energy is supplied to a fluorescent chemical compound by an external source, causing it to become excited. Fluorescence can be detected and measured for different purposes using microplate readers, fluorescence microscopes, fluorescence scanners, and flow cytometers.Fluorescence MicroscopyFluorescence microscopy has become an essential tool in biology, as well as in materials science. The application of many fluorochromes has made it possible to identify cells and sub-microscopic cellular components with a high degree of specificity. Using multiple fluorescence labels, different probes can simultaneously identify several target molecules.SpectrometrySpectrometry is a technique used to measure the mass-to-charge ratio of ions. It provides valuable information about the composition, structure, and molecular weight of compounds. Used across a variety of fields, including chemistry, biology, and environmental science, spectrometry is essential for identifying substances, analyzing mixtures, and developing new products. Explore the best spectrometry tools in our peer-reviewed product directory; compare products, check reviews, and get pricing directly from manufacturers.NanomaterialsNanomaterials such as carbon nanotubes, fullerenes and nanoparticles are a group of materials that measure between 1-1000nm for a single unit. Analysis techniques include AFM, electron microscopy and super resolution microscopy.