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Gene expression arrays as a tool to unravel mechanisms of normal tissue radiation injury and prediction of response 被引量:1

Gene expression arrays as a tool to unravel mechanisms of normal tissue radiation injury and prediction of response
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摘要 Over the past 5 years there has been a rapid increase in the use of microarray technology in the field of cancer research. The majority of studies use microarray analysis of tumor biopsies for profiling of molecular characteristics in an attempt to produce robust classifi ers for prognosis. There are now several published gene sets that have been shown to predict for aggressive forms of breast cancer, where patients are most likely to benefit from adjuvant chemotherapy and tumors most likely to develop distant metastases, or be resistant to treatment. The number of publications relating to the use of microarrays for analysis of normal tissue damage, after cancer treatment or genotoxic exposure, is much more limited. A PubMed literature search was conducted using the following keywords and combination of terms: radiation, normal tissue, microarray, gene expression profi ling, prediction. With respect to normal tissue radiation injury, microarrays have been used in three ways: (1) to generate gene signatures to identify sensitive and resistant populations (prognosis); (2) to identify sets of biomarker genes for estimating radiation exposure, either accidental or as a result of terrorist attack (diagnosis); (3) to identify genes and pathways involved in tissue response to injury (mechanistic). In this article we will review all (relevant) papers that covered our literature search criteria on microarray technology as it has been applied to normal tissue radiation biology and discuss how successful this has been in defining predisposition markers for radiation sensitivity or how it has helped us to unravel molecular mechanisms leading to acute and late tissue toxicity. We also discuss some of the problems and limitations in application and interpretation of such data. Over the past 5 years there has been a rapid increase in the use of microarray technology in the field of cancer research, The majority of studies use microarray analysis of tumor biopsies for profiling of molecular characteristics in an attempt to produce robust classifiers for prognosis. There are now several published gene sets that have been shown to predict for aggressive forms of breast cancer, where patients are most likely to benefit from adjuvant chemotherapy and tumors most likely to develop distant metastases, or be resistant to treatment. The number of publications relating to the use of microarrays for analysis of normal tissue damage, after cancer treatment or genotoxic exposure, is much more limited. A PublVled literature search was conducted using the following keywords and combination of terms: radiation, normal tissue, microarray, gene expression profiling, prediction. With respect to normal tissue radiation injury, microarrays have been used in three ways: (1) to generate gene signatures to identify sensitive and resistant populations (prognosis); (2) to identify sets of biomarker genes for estimating radiation exposure, either accidental or as a result of terrorist attack (diagnosis); (3) to identify genes and pathways involved in tissue response to injury (mechanistic). In this article we will review all (relevant) papers that covered our literature search criteria on microarray technology as it has been applied to normal tissue radiation biology and discuss how successful this has been in defining predisposition markers for radiation sensitivity or how it has helped us to unravel molecular mechanisms leading to acute and late tissue toxicity. We also discuss some of the problems and limitations in application and interpretation of such data.
出处 《World Journal of Gastroenterology》 SCIE CAS CSCD 2007年第19期2669-2674,共6页 世界胃肠病学杂志(英文版)
关键词 放射损伤 正常组织反应 预测 基因表达 微阵列 Radiation Normal tissue response Microarrays Gene expression Limitations
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  • 1King HC,Sinha AA.Gene expression prof ile analysis by DNA microarrays: promise and pitfalls[].The Journal of The American Medical Association.2001
  • 2Russell NS,Grummels A,Hart AA,Smolders IJ,Borger J,Bartelink H,Begg AC.Low predictive value of intrinsic fi broblast radiosensitivity for fi brosis development following radiotherapy for breast cancer[].International Journal of Radiation Biology.1998
  • 3Andreassen CN.Can risk of radiotherapy-induced normal tissue complications be predicted from genetic profi les[].Acta Oncologica.2005
  • 4Lewis SE.Gene Ontology: looking backwards and forwards[].Genome Biology.2005
  • 5Yin E,Nelson DO,Coleman MA,Peterson LE,Wyrobek AJ.Gene expression changes in mouse brain after exposure to low-dose ionizing radiation[].International Journal of Radiation Biology.2003
  • 6Johnston CJ,Williams JP,Okunieff P,Finkelstein JN.Radiation-induced pulmonary fibrosis: examination of chemokine and chemokine receptor families[].Radiation Research.2002
  • 7Burnet NG,Nyman J,Turesson I,Wurm R,YarnoldJR,Peacock JH.Prediction of normal-tissue tolerance to radiotherapy from in-vitro cellular radiation sensitivity[].The Lancet.1992
  • 8Bonner RF,Emmert-Buck M,Cole K,Pohida T,Chuaqui R,Goldstein S,Liotta LA.Laser capture microdissection: molecular analysis of tissue[].Science.1997
  • 9Amundson SA,Bittner M,Chen Y,Trent J,Meltzer P,Fornace AJ Jr.Fluorescent cDNA microarray hybridization reveals complexity and heterogeneity of cellular genotoxic stress responses[].Oncegene.1999
  • 10Draghici S,Khatri P,Eklund AC,Szallasi Z.Reliability and reproducibility issues in DNA microarray measurements[].Trends in Genetics.2006

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