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Space radiation and cardiovascular disease risk 被引量:2

Space radiation and cardiovascular disease risk
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摘要 Future long-distance space missions will be associated with significant exposures to ionizing radiation,and the health risks of these radiation exposures during manned missions need to be assessed. Recent Earth-based epidemiological studies in survivors of atomic bombs and after occupational and medical low dose radiation exposures have indicated that the cardiovascular system may be more sensitive to ionizing radiation than was previously thought. This has raised the concern of a cardiovascular disease risk from exposure to space radiation during long-distance space travel. Groundbased studies with animal and cell culture models play an important role in estimating health risks from space radiation exposure. Charged particle space radiation has dense ionization characteristics and may induce unique biological responses,appropriate simulation of the space radiation environment and careful consideration of the choice of the experimental model are critical. Recent studies have addressed cardiovascular effects of space radiation using such models and provided first results that aid in estimating cardiovascular disease risk,and several other studies are ongoing. Moreover,astronauts could potentially be administered pharmacological countermeasures against adverse effects of space radiation,and research is focused on the development of such compounds. Because the cardiovascular response to space radiation has not yet been clearly defined,the identification of potential pharmacological countermeasures against cardiovascular effects is still in its infancy. Future long-distance space missions will be associated with significant exposures to ionizing radiation, and the health risks of these radiation exposures during manned missions need to be assessed. Recent Earth-based epidemiological studies in survivors of atomic bombs and after occupational and medical low dose radiation exposures have indicated that the cardiovascular system may be more sensitive to ionizing radiation than was previously thought. This has raised the concern of a cardiovascular disease risk from exposure to space radiation during long-distance space travel. Ground-based studies with animal and cell culture models play an important role in estimating health risks from space radiation exposure. Charged particle space radiation has dense ionization characteristics and may induce unique biological responses, appropriate simulation of the space radiation environment and careful consideration of the choice of the experimental model are critical. Recent studies have addressed cardiovascular effects of space radiation using such models and provided first results that aid in estimating cardiovascular disease risk, and several other studies are ongoing. Moreover, astronauts could potentially be administered pharmacological countermeasures against adverse effects of space radiation, and research is focused on the development of such compounds. Because the cardiovascular response to space radiation has not yet been clearly defined, the identification of potential pharmacological countermeasures against cardiovascular effects is still in its infancy.
出处 《World Journal of Cardiology》 CAS 2015年第12期882-888,共7页 世界心脏病学杂志(英文版)(电子版)
基金 Supported by The National Space Biomedical Research Institute(RE03701)through NCC 9-58 the National Institutes of Health(CA148679 and P20 GM109005)
关键词 Space RADIATION CARDIOVASCULAR DISEASE RISK EXPERIMENTAL models COUNTERMEASURES Ionizing RADIATION Space radiation Cardiovascular disease risk Experimental models Countermeasures Ionizing radiation
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参考文献65

  • 1Boerma M,Koturbash I,Sridharan V,Miousse IR,Hauer-Jensen M,Nelson GA.Cellular and molecular alterations in the heart in response to 56Fe and protons. Proceedings of the 60th Annual Meeting of the Radiation Research Society . 2014
  • 2Patel ZS,Grande-Allen KJ.Development of a Flow-Perfused and Immunocompetent 3-D Vascular Model for Radiation Risk Assessment of Cardiovascular Disease and Countermeasure Screening. Proceedings of the NASA Human Research Program Investigators’’Workshop . 2015
  • 3Grabham P,Sharma P,Bigelow A,Geard C.Two distinct types of the inhibition of vasculogenesis by different species of charged particles. Vase Cell . 2013
  • 4Romero-Weaver AL,Wan XS,Diffenderfer ES,Lin L,Kennedy AR.Kinetics of neutrophils in mice exposed to radiation and/or granulocyte colony-stimulating factor treatment. Radiation Research . 2013
  • 5Hall EJ,Giaccia AJ.Radiobiology for the Radiologist. . 2011
  • 6Little MP,Azizova TV,Bazyka D,Bouffler SD,Cardis E,Chekin S,Chumak VV,Cucinotta FA,de Vathaire F,Hall P,Harrison JD,Hildebrandt G,Ivanov V,Kashcheev VV,Klymenko SV,Kreuzer M,Laurent O,Ozasa K,Schneider T,Tapio S,Taylor AM,Tzoulaki I,Vandoolaeghe WL,Wakefo.Systematic review and meta-analysis of circulatory disease from exposure to low-level ionizing radiation and estimates of potential population mortality risks. Environmental Health Perspectives . 2012
  • 7Shuchman M.Striving for Mars:what are acceptable risks?. Canadian Medical Association Journal . 2014
  • 8Zeitlin C,Hassler DM,Cucinotta FA,Ehresmann B,WimmerSchweingruber RF,Brinza DE,Kang S,Weigle G,Bottcher S,Bohm E,Burmeister S,Guo J,Kohler J,Martin C,Posner A,Rafkin S,Reitz G.Measurements of energetic particle radiation in transit to Mars on the Mars Science Laboratory. Science . 2013
  • 9Kennedy AR.Biological Effects of Space Radiation and Development of Effective Countermeasures. Life Sci Space Res (Amst) . 2014
  • 10Kim MY,Rusek A,Cucinotta FA.Mixed-field GCR Simulations for Radiobiological Research Using Ground Based Accelerators. Proceedings of the 40th COSPAR Scientific Assembly . 2014

二级参考文献135

  • 1[1]National Cancer Policy Board CoCS.From Cancer Patient to Cancer Survivor:Lost in Transition.Hewitt M,Greenfield S,Stovall E,editors.Washington DC:The National Academies Press,2006
  • 2[2]DeVita VT,Hellman S,Rosenberg SA.Cancer:Principles and Practice of Oncology.Philadelphia:Lippincott Williams & Wilkins/2005
  • 3[3]Denham JW,Hauer-Jensen M.The radiotherapeutic injury-a complex 'wound1.Radiother Oncol 2002; 63:129-145
  • 4[4]Wolinsky H.A proposal linking clearance of circulating lipoproteins to tissue metabolic activity as a basis for understanding atherogenesis.Circ Res 1980; 47:301-311
  • 5[5]Ones DB,Pollak ES,Buck CA,Loscalzo J,Zimmerman GA,McEver RP,Pober JS,Wick TM,Konkle BA,Schwartz BS,Bamathan ES,McCrae KR,Hug BA,Schmidt AM,Stern DM.Endothelial cells in physiology and in the pathophysiology of vascular disorders.Blood 1998; 91:3527-3561
  • 6[6]Pearson JD.Endothelial cell function and thrombosis.Baillieres Best Pract Res Clin Haematol 1999; 12:329-341
  • 7[7]Baker DG,Krochak RJ.The response of the microvascular system to radiation:a review.Cancer Invest 1989; 7:287-294
  • 8[8]Hopewell JW,Calvo W,Jaenke R,Reinhold HS,Robbins ME,Whitehouse EM.Microvasculature and radiation damage.Recent Results Cancer Res 1993; 130:1-16
  • 9[9]Jaenke RS,Robbins ME,Bywaters T,Whitehouse E,Rezvani M,Hopewell JW.Capillary endothelium.Target site of renal radiation injury.Lab Invest 1993; 68:396-405
  • 10[10]Lyubimova N,Hopewell JW.Experimental evidence to support the hypothesis that damage to vascular endothelium plays the primary role in the development of late radiation-induced CNS injury.Br J Radiol 2004; 77:488^492

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