Thermo Fisher Scientific Announces Winners of 2016 Winter Conference Awards in Plasma Spectrochemistry

Independent committee recognizes significant contributions in plasma spectrochemistry

22 Sept 2015
Lois Manton-O'Byrne, PhD
Executive Editor

Industry news

Thermo Fisher Scientific Inc., the world leader in serving science, has announced the winners of the 2016 Winter Conference Awards in Plasma Spectrochemistry. Selected by an independent awards committee, these industry leading scientists have made noteworthy contributions over time or through a single, significant breakthrough in the field of plasma spectrochemistry. Award winners will be honored during the Winter Plasma Conference in Tucson, Arizona, January 11-16, 2016.

Established in 2009, the biannual Winter Conference Awards in Plasma Spectrochemistry are sponsored by Thermo Fisher and acknowledge achievements in conceptualization and development of innovative instrumentation as well as the elucidation of fundamental events or processes involved in plasma spectrochemistry. The Lifetime Achievement award is presented to a scientist who has made noteworthy contributions in the field of plasma spectrochemistry. The Young Scientist award recognizes achievement for a scientist under the age of 45 years. The independent award committee, comprised of scientists from across multiple industries, will award each recipient $5,000.

2016 award winners include:

  • Lifetime Achievement Award: Professor Nicolò Omenetto of the University of Florida
  • Young Scientist Award: Professor Steven J. Ray, assistant professor at the State University of New York at Buffalo

“As the leader in plasma spectrochemistry instrumentation, we are pleased to sponsor an industry award that brings together the major figures in this field,” said Dr. Lothar Rottmann, director of R&D for trace elemental analysis for Thermo Fisher. “The Winter Conference award complements our objectives for advancement and innovation, and we look forward to honoring Professors Omenetto and Ray for their achievements and valuable contributions to the field.”

Omenetto heads the Omenetto Research Group at the University of Florida’s Department of Chemistry, where his research has centered on the use of lasers on atomic and molecular systems. His research makes extensive use of laser-induced breakdown spectroscopy (LIBS), but also employs a broad range of other spectroscopic and mathematical techniques, including plasma emission, laser-induced fluorescence (both molecular and atomic), diode-laser absorption and Raman. The research team has recently combined LIBS with spatial-heterodyne spectrometry (LIBS-SHS), to develop a potentially portable, inexpensive, rugged instrument for field applications.

Ray has recently assumed a faculty position at the University at Buffalo, where he is working to improve instrumentation and measurements through integration of spectrochemical research. Recently, Ray successfully built one of the first distance-of-flight mass spectrometry (DOFMS) devices, providing a new way of separating, collecting, and quantifying components of complex samples.

“I am profoundly honored to receive the first of these awards, and I applaud Thermo Fisher Scientific for understanding how valuable recognition of this type is to an young(er) researcher,” said Ray.

Links

Tags

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.Mass SpectrometryMass spectrometry (MS) is a powerful analytical technique used to identify and quantify molecules based on the mass-to-charge ratio of gas-phase ions. It provides detailed information about the structure, composition, and properties of compounds and is widely used across fields such as environmental monitoring, materials science, drug discovery and development, food and beverage testing, and wider chemical research. Key MS techniques include tandem mass spectrometry (MS/MS), liquid chromatography–mass spectrometry (LS-MS) and inductively coupled plasma (ICP-MS). Choosing from these wide range of techniques and technologies can be a daunting task, so keep up to date with scientific applications, performance expectations, and customer reviews here all in one place. Visit our product directory to receive quotes direct from the manufacturer. Raman SpectroscopyRaman spectroscopy is used to discern the vibrational and rotational states of molecules and hence the chemical composition of a sample by measuring the inelastic scattering of monochromatic light. Explore a range of Raman spectrometers, including handheld/portable Raman spectrometers for QC/QA labs and in situ spectrometers for processes. Conduct Raman imaging for microanalysis of mixed samples using a Raman microscope. Raman spectrographs are also available. Find the best Raman spectroscopy products in our peer-reviewed product directory: compare products, check customer reviews and receive pricing direct from manufacturers.SpectroscopySpectroscopy is a technique that analyzes the interaction of light with matter to study molecular properties, concentrations, and structural information. Widely used in chemical, pharmaceutical, and environmental analysis, spectroscopy offers insights into molecular composition and helps identify unknown compounds. It plays a key role in quality control, research, and diagnostics. Browse our peer-reviewed product directory to compare spectroscopy tools, read reviews, and get prices directly 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.DOFMSLIBSLaser Ablation