The effects of radiation on angiogenesis.

Q4 Neuroscience Vascular Cell Pub Date : 2013-10-26 DOI:10.1186/2045-824X-5-19
Peter Grabham, Preety Sharma
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Abstract

The average human body contains tens of thousands of miles of vessels that permeate every tissue down to the microscopic level. This makes the human vasculature a prime target for an agent like radiation that originates from a source and passes through the body. Exposure to radiation released during nuclear accidents and explosions, or during cancer radiotherapy, is well known to cause vascular pathologies because of the ionizing effects of electromagnetic radiations (photons) such as gamma rays. There is however, another type of less well-known radiation - charged ion particles, and these atoms stripped of electrons, have different physical properties to the photons of electromagnetic radiation. They are either found in space or created on earth by particle collider facilities, and are of significant recent interest due to their enhanced effectiveness and increasing use in cancer radiotherapy, as well as a health risk to the growing number of people spending time in the space environment. Although there is to date, relatively few studies on the effects of charged particles on the vascular system, a very different picture of the biological effects of these particles compared to photons is beginning to emerge. These under researched biological effects of ion particles have a large impact on the health consequences of exposure. In this short review, we will discuss the effects of charged particles on an important biological process of the vascular system, angiogenesis, which creates and maintains the vasculature and is highly important in tumor vasculogenesis.

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辐射对血管生成的影响
人体平均包含数万英里长的血管,这些血管渗透到每个组织的微观层面。这就使得人体血管成为辐射源等放射源通过人体时的主要目标。众所周知,暴露于核事故和爆炸释放的辐射或癌症放射治疗过程中,由于伽马射线等电磁辐射(光子)的电离作用,会导致血管病变。然而,还有另一种不太为人所知的辐射--带电离子粒子,这些失去电子的原子具有与电磁辐射光子不同的物理特性。它们或是在太空中被发现,或是由粒子对撞机设施在地球上产生,由于它们在癌症放射治疗中的效果更强、使用越来越多,以及对越来越多在太空环境中度过的人的健康构成威胁,因此最近引起了人们的极大兴趣。尽管迄今为止,关于带电粒子对血管系统影响的研究相对较少,但这些粒子对生物的影响与光子的影响截然不同。这些研究不足的离子微粒的生物效应对暴露于这些微粒对健康造成的后果有很大影响。在这篇简短的综述中,我们将讨论带电粒子对血管系统的一个重要生物过程--血管生成的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Vascular Cell
Vascular Cell Neuroscience-Neurology
CiteScore
0.70
自引率
0.00%
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0
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