Literature DB >> 17331302

Relative intensity correction of Raman spectrometers: NIST SRMs 2241 through 2243 for 785 nm, 532 nm, and 488 nm/514.5 nm excitation.

Steven J Choquette1, Edgar S Etz, Wilbur S Hurst, Douglas H Blackburn, Stefan D Leigh.   

Abstract

Standard Reference Materials SRMs 2241 through 2243 are certified spectroscopic standards intended for the correction of the relative intensity of Raman spectra obtained with instruments employing laser excitation wavelengths of 785 nm, 532 nm, or 488 nm/514.5 nm. These SRMs each consist of an optical glass that emits a broadband luminescence spectrum when illuminated with the Raman excitation laser. The shape of the luminescence spectrum is described by a polynomial expression that relates the relative spectral intensity to the Raman shift with units in wavenumber (cm(-1)). This polynomial, together with a measurement of the luminescence spectrum of the standard, can be used to determine the spectral intensity-response correction, which is unique to each Raman system. The resulting instrument intensity-response correction may then be used to obtain Raman spectra that are corrected for a number of, but not all, instrument-dependent artifacts. Peak area ratios of the intensity-corrected Raman spectrum of cyclohexane are presented as an example of a methodology to validate the spectral intensity calibration process and to illustrate variations that can occur in this measurement.

Entities:  

Year:  2007        PMID: 17331302     DOI: 10.1366/000370207779947585

Source DB:  PubMed          Journal:  Appl Spectrosc        ISSN: 0003-7028            Impact factor:   2.388


  8 in total

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Journal:  Biomed Opt Express       Date:  2019-11-06       Impact factor: 3.732

2.  Vibrational spectroscopy of liquid biopsies for prostate cancer diagnosis.

Authors:  Dinesh K R Medipally; Daniel Cullen; Valérie Untereiner; Ganesh D Sockalingum; Adrian Maguire; Thi Nguyet Que Nguyen; Jane Bryant; Emma Noone; Shirley Bradshaw; Marie Finn; Mary Dunne; Aoife M Shannon; John Armstrong; Aidan D Meade; Fiona M Lyng
Journal:  Ther Adv Med Oncol       Date:  2020-07-30       Impact factor: 8.168

Review 3.  Clinical instrumentation and applications of Raman spectroscopy.

Authors:  Isaac Pence; Anita Mahadevan-Jansen
Journal:  Chem Soc Rev       Date:  2016-04-07       Impact factor: 54.564

4.  Reverse Intensity Correction for Raman Spectral Library Search.

Authors:  Jun Zhao; Kristen Frano; Jack Zhou
Journal:  Appl Spectrosc       Date:  2017-03-30       Impact factor: 2.388

5.  Quantitative spectral quality assessment technique validated using intraoperative in vivo Raman spectroscopy measurements.

Authors:  Frédérick Dallaire; Fabien Picot; Jean-Philippe Tremblay; Guillaume Sheehy; Émile Lemoine; Rajeev Agarwal; Samuel Kadoury; Dominique Trudel; Frédéric Lesage; Kevin Petrecca; Frédéric Leblond
Journal:  J Biomed Opt       Date:  2020-04       Impact factor: 3.170

6.  Integration of a Raman spectroscopy system to a robotic-assisted surgical system for real-time tissue characterization during radical prostatectomy procedures.

Authors:  Michael Pinto; Kevin C Zorn; Jean-Philippe Tremblay; Joannie Desroches; Frédérick Dallaire; Kelly Aubertin; Eric Marple; Chris Kent; Frederic Leblond; Dominique Trudel; Frederic Lesage
Journal:  J Biomed Opt       Date:  2019-02       Impact factor: 3.170

7.  Microarray Scanner Performance Over a Five-Week Period as Measured With Cy5 and Cy3 Serial Dilution Slides.

Authors:  Mary B Satterfield; Katrice Lippa; Z Q Lu; Marc L Salit
Journal:  J Res Natl Inst Stand Technol       Date:  2008-06-01

8.  Experimental validation of a spectroscopic Monte Carlo light transport simulation technique and Raman scattering depth sensing analysis in biological tissue.

Authors:  Alireza Akbarzadeh; Ehsan Edjlali; Guillaume Sheehy; Juliette Selb; Rajeev Agarwal; Jessie Weber; Frédéric Leblond
Journal:  J Biomed Opt       Date:  2020-10       Impact factor: 3.170

  8 in total

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