Literature DB >> 23143035

Conclusions and data analysis: a 6-year study of Raman spectroscopy of solid tumors at a major pediatric institute.

Alexander W Auner1, Rachel E Kast, Raja Rabah, Janet M Poulik, Michael D Klein.   

Abstract

PURPOSE: Create a Raman spectroscopic database with potential to diagnose cancer and investigate two different diagnostic methodologies. Raman spectroscopy measures the energy of photons scattered inelastically by molecules. These molecular signatures form the basis of identifying complex biomolecules and can be used to differentiate normal from neoplastic tissue.
METHODS: 1,352 spectra from 55 specimens were collected from fresh or frozen normal brain, kidney and adrenal gland and their malignancies. Spectra were obtained utilizing a Renishaw Raman microscope (RM1000) at 785 nm excitation wavelength with an exposure time of 10 to 20 s/spectrum over three accumulations. Spectra were preprocessed and discriminant function analysis was used to classify spectra based on pathological gold standard.
RESULTS: The results of leave 25 % out training/testing validation were as follows: 94.3 % accuracy for training and 91.5 % for testing adrenal, 95.1 % accuracy for training and 88.9 % for testing group of brain, and 100 % accuracy for kidney training/testing groups when tissue origin was assumed. A generalized database not assuming tissue origin provided 88 % training and 85.5 % testing accuracy.
CONCLUSION: A database can be made from Raman spectra to classify and grade normal from cancerous tissue. This database has the potential for real time diagnosis of fresh tissue and can potentially be applied to the operating room in vivo.

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Year:  2013        PMID: 23143035     DOI: 10.1007/s00383-012-3211-6

Source DB:  PubMed          Journal:  Pediatr Surg Int        ISSN: 0179-0358            Impact factor:   1.827


  9 in total

1.  Agreement and error rates using blinded review to evaluate surgical pathology of biopsy material.

Authors:  Andrew A Renshaw; Norberto Cartagena; Scott R Granter; Edwin W Gould
Journal:  Am J Clin Pathol       Date:  2003-06       Impact factor: 2.493

2.  Differentiation of small round blue cell tumors using Raman spectroscopy.

Authors:  Rachel Kast; Raja Rabah; Hale Wills; Janet Poulik; Gregory W Auner; Michael D Klein
Journal:  J Pediatr Surg       Date:  2010-06       Impact factor: 2.545

3.  Near infrared Raman spectroscopic mapping of native brain tissue and intracranial tumors.

Authors:  Christoph Krafft; Stephan B Sobottka; Gabriele Schackert; Reiner Salzer
Journal:  Analyst       Date:  2005-05-24       Impact factor: 4.616

4.  Full range characterization of the Raman spectra of organs in a murine model.

Authors:  Naiyan Huang; Michael Short; Jianhua Zhao; Hequn Wang; Harvey Lui; Mladen Korbelik; Haishan Zeng
Journal:  Opt Express       Date:  2011-11-07       Impact factor: 3.894

5.  The International Neuroblastoma Pathology Classification (the Shimada system).

Authors:  H Shimada; I M Ambros; L P Dehner; J Hata; V V Joshi; B Roald; D O Stram; R B Gerbing; J N Lukens; K K Matthay; R P Castleberry
Journal:  Cancer       Date:  1999-07-15       Impact factor: 6.860

6.  Discriminating vital tumor from necrotic tissue in human glioblastoma tissue samples by Raman spectroscopy.

Authors:  Senada Koljenović; Lin-P'ing Choo-Smith; Tom C Bakker Schut; Johan M Kros; Herbert J van den Berge; Gerwin J Puppels
Journal:  Lab Invest       Date:  2002-10       Impact factor: 5.662

7.  Raman spectroscopy detects and distinguishes neuroblastoma and related tissues in fresh and (banked) frozen specimens.

Authors:  Hale Wills; Rachel Kast; Cory Stewart; Raja Rabah; Abhilash Pandya; Janet Poulik; Greg Auner; Michael D Klein
Journal:  J Pediatr Surg       Date:  2009-02       Impact factor: 2.545

8.  Diagnosis of neuroblastoma and ganglioneuroma using Raman spectroscopy.

Authors:  Raja Rabah; Rachel Weber; Gulay K Serhatkulu; Alex Cao; Houbei Dai; Abhilash Pandya; Ratna Naik; Gregory Auner; Janet Poulik; Michael Klein
Journal:  J Pediatr Surg       Date:  2008-01       Impact factor: 2.545

9.  Diagnosis of Wilms' tumor using near-infrared Raman spectroscopy.

Authors:  Hale Wills; Rachel Kast; Cory Stewart; Brian Sullivan; Raja Rabah; Janet Poulik; Abhilash Pandya; Greg Auner; Michael D Klein
Journal:  J Pediatr Surg       Date:  2009-06       Impact factor: 2.545

  9 in total
  5 in total

1.  Raman spectroscopy to distinguish grey matter, necrosis, and glioblastoma multiforme in frozen tissue sections.

Authors:  Steven N Kalkanis; Rachel E Kast; Mark L Rosenblum; Tom Mikkelsen; Sally M Yurgelevic; Katrina M Nelson; Aditya Raghunathan; Laila M Poisson; Gregory W Auner
Journal:  J Neurooncol       Date:  2014-01-04       Impact factor: 4.130

Review 2.  Improving the accuracy of brain tumor surgery via Raman-based technology.

Authors:  Todd Hollon; Spencer Lewis; Christian W Freudiger; X Sunney Xie; Daniel A Orringer
Journal:  Neurosurg Focus       Date:  2016-03       Impact factor: 4.047

3.  Rise of Raman spectroscopy in neurosurgery: a review.

Authors:  Damon DePaoli; Émile Lemoine; Katherine Ember; Martin Parent; Michel Prud'homme; Léo Cantin; Kevin Petrecca; Frédéric Leblond; Daniel C Côté
Journal:  J Biomed Opt       Date:  2020-05       Impact factor: 3.170

4.  Efficacy of raman spectroscopy in the diagnosis of kidney cancer: A systematic review and meta-analysis.

Authors:  Hongyu Jin; Xiao He; Hui Zhou; Man Zhang; Qingqing Tang; Lede Lin; Jianqi Hao; Rui Zeng
Journal:  Medicine (Baltimore)       Date:  2020-07-02       Impact factor: 1.817

5.  Glioma biopsies Classification Using Raman Spectroscopy and Machine Learning Models on Fresh Tissue Samples.

Authors:  Marco Riva; Tommaso Sciortino; Riccardo Secoli; Ester D'Amico; Sara Moccia; Bethania Fernandes; Marco Conti Nibali; Lorenzo Gay; Marco Rossi; Elena De Momi; Lorenzo Bello
Journal:  Cancers (Basel)       Date:  2021-03-03       Impact factor: 6.639

  5 in total

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