Literature DB >> 19820454

Radiation carcinogenesis in context: how do irradiated tissues become tumors?

Mary Helen Barcellos-Hoff1, David H Nguyen.   

Abstract

It is clear from experimental studies that genotype is an important determinant of cancer susceptibility in general, and for radiation carcinogenesis specifically. It has become increasingly clear that genotype influences not only the ability to cope with DNA damage but also influences the cooperation of other tissues, like the vasculature and immune system, necessary for the establishment of cancer. Our experimental data and that of others suggest that the carcinogenic action of ionizing radiation (IR) can also be considered a two-compartment problem: while IR can alter genomic sequence as a result of DNA damage, it can also induce signals that alter multicellular interactions and phenotypes that underpin carcinogenesis. Rather than being accessory or secondary to genetic damage, we propose that such non-targeted radiation effects create the critical context that promotes cancer development. This review focuses on experimental studies that clearly define molecular mechanisms by which cell interactions contribute to cancer in different organs, and addresses how non-targeted radiation effects may similarly act though the microenvironment. The definition of non-targeted radiation effects and their dose dependence could modify the current paradigms for radiation risk assessment since radiation non-targeted effects, unlike DNA damage, are amenable to intervention. The implications of this perspective in terms of reducing cancer risk after exposure are discussed.

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Year:  2009        PMID: 19820454      PMCID: PMC2761885          DOI: 10.1097/HP.0b013e3181b08a10

Source DB:  PubMed          Journal:  Health Phys        ISSN: 0017-9078            Impact factor:   1.316


  112 in total

Review 1.  Cell-cycle checkpoints and cancer.

Authors:  Michael B Kastan; Jiri Bartek
Journal:  Nature       Date:  2004-11-18       Impact factor: 49.962

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4.  Importance of extended growth potential and growth factor independence on in vivo neoplastic potential of primary rat mammary carcinoma cells.

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5.  Role of bone marrow stromal cells in irradiation leukemogenesis.

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Journal:  Acta Haematol       Date:  1996       Impact factor: 2.195

6.  Transforming growth factor beta 1 suppresses genomic instability independent of a G1 arrest, p53, and Rb.

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Journal:  Cancer Res       Date:  1996-08-15       Impact factor: 12.701

7.  Polymorphisms in TGF-beta1 gene and the risk of lung cancer.

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Journal:  Lung Cancer       Date:  2006-02-24       Impact factor: 5.705

Review 8.  The organizing principle: microenvironmental influences in the normal and malignant breast.

Authors:  Mina J Bissell; Derek C Radisky; Aylin Rizki; Valerie M Weaver; Ole W Petersen
Journal:  Differentiation       Date:  2002-12       Impact factor: 3.880

9.  Precancerous and cancerous breast lesions during lifetime and at autopsy. A study of 83 women.

Authors:  M Nielsen; J Jensen; J Andersen
Journal:  Cancer       Date:  1984-08-15       Impact factor: 6.860

10.  Targeted deletion of the TGF-beta 1 gene causes rapid progression to squamous cell carcinoma.

Authors:  A B Glick; M M Lee; N Darwiche; A B Kulkarni; S Karlsson; S H Yuspa
Journal:  Genes Dev       Date:  1994-10-15       Impact factor: 11.361

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  18 in total

1.  Double-strand break motions shift radiation risk notions?

Authors:  Lynn Hlatky
Journal:  Proc Natl Acad Sci U S A       Date:  2011-12-30       Impact factor: 11.205

2.  Double-strand break-induced transcriptional silencing is associated with loss of tri-methylation at H3K4.

Authors:  Doris M Seiler; Jacques Rouquette; Volker J Schmid; Hilmar Strickfaden; Christian Ottmann; Guido A Drexler; Belinda Mazurek; Christoph Greubel; Volker Hable; Günther Dollinger; Thomas Cremer; Anna A Friedl
Journal:  Chromosome Res       Date:  2011-10-11       Impact factor: 5.239

3.  What mechanisms/processes underlie radiation-induced genomic instability?

Authors:  Andrei V Karotki; Keith Baverstock
Journal:  Cell Mol Life Sci       Date:  2012-09-06       Impact factor: 9.261

Review 4.  Models of carcinogenesis: an overview.

Authors:  Paolo Vineis; Arthur Schatzkin; John D Potter
Journal:  Carcinogenesis       Date:  2010-04-29       Impact factor: 4.944

Review 5.  [Second neoplasms after percutaneous radiotherapy].

Authors:  F Haidl; D Pfister; R Semrau; A Heidenreich
Journal:  Urologe A       Date:  2017-03       Impact factor: 0.639

Review 6.  Radiation-induced sarcomas of the head and neck.

Authors:  Anuradha Thiagarajan; N Gopalakrishna Iyer
Journal:  World J Clin Oncol       Date:  2014-12-10

Review 7.  Dysregulations of long non-coding RNAs - The emerging "lnc" in environmental carcinogenesis.

Authors:  Po-Shun Wang; Zhishan Wang; Chengfeng Yang
Journal:  Semin Cancer Biol       Date:  2021-04-03       Impact factor: 15.707

8.  Nature of nontargeted radiation effects observed during fractionated irradiation-induced thymic lymphomagenesis in mice.

Authors:  Hideo Tsuji; Hiroko Ishii-Ohba; Tadahiro Shiomi; Naoko Shiomi; Takanori Katsube; Masahiko Mori; Mitsuru Nenoi; Mizuki Ohno; Daisuke Yoshimura; Sugako Oka; Yusaku Nakabeppu; Kouichi Tatsumi; Masahiro Muto; Toshihiko Sado
Journal:  J Radiat Res       Date:  2013-01-07       Impact factor: 2.724

9.  Space radiation risks for astronauts on multiple International Space Station missions.

Authors:  Francis A Cucinotta
Journal:  PLoS One       Date:  2014-04-23       Impact factor: 3.240

10.  A new approach to reduce uncertainties in space radiation cancer risk predictions.

Authors:  Francis A Cucinotta
Journal:  PLoS One       Date:  2015-03-19       Impact factor: 3.240

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