Inverse dose protraction effects of low-LET radiation: Evidence and significance

IF 6.4 2区 医学 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY Mutation Research-Reviews in Mutation Research Pub Date : 2025-01-01 DOI:10.1016/j.mrrev.2025.108531
Nobuyuki Hamada , Yusuke Matsuya , Lydia B. Zablotska , Mark P. Little
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Abstract

Biological effects of ionizing radiation vary not merely with total dose but also with temporal dose distribution. Sparing dose protraction effects, in which dose protraction reduces effects of radiation have widely been accepted and generally assumed in radiation protection, particularly for stochastic effects (e.g., solid cancer). In contrast, inverse dose protraction effects (IDPEs) in which dose protraction enhances radiation effects have not been well recognized, nor comprehensively reviewed. Here, we review the current knowledge on IDPEs of low linear energy transfer (LET) radiation. To the best of our knowledge, since 1952, 157 biology, epidemiology or clinical papers have reported IDPEs following external or internal low-LET irradiation with photons (X-rays, γ-rays), β-rays, electrons, protons or helium ions. IDPEs of low-LET radiation have been described for biochemical changes in cell-free macromolecules (DNA, proteins or lipids), DNA damage responses in bacteria and yeasts, DNA damage, cytogenetic changes, neoplastic transformation and cell death in mammalian cell cultures of human, rodent or bovine origin, mutagenesis in silkworms, cytogenetic changes, induction of cancer (solid tumors and leukemia) and non-cancer effects (male sterility, cataracts and diseases of the circulatory system), tumor inactivation and survival in non-human mammals (rodents, rabbits, dogs and pigs), and induction of cancer and non-cancer effects (skin changes and diseases of the circulatory system) in humans. In contrast to a growing body of phenomenological evidence for manifestations of IDPEs, there is limited knowledge on mechanistic underpinnings, but proposed mechanisms involve cell cycle-dependent resensitization and low dose hyper-radiosensitivity. These necessitate continued studies for further mechanistic developments and assessment of implications of scientific evidence for radiation protection (e.g., in terms of a dose rate effectiveness factor).
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低let辐射的逆剂量延长效应:证据和意义。
电离辐射的生物效应不仅随总剂量而变化,而且随时间剂量分布而变化。保留剂量延长效应,其中剂量延长减少辐射效应已被广泛接受,并在辐射防护中普遍假定,特别是对于随机效应(例如实体癌)。相反,剂量延长增强辐射效应的逆剂量延长效应(IDPEs)尚未得到很好的认识,也没有得到全面的综述。本文对低线性能量传递(LET)辐射的idpe进行了综述。据我们所知,自1952年以来,已有157篇生物学、流行病学或临床论文报道了光子(x射线、γ射线)、β射线、电子、质子或氦离子进行外部或内部低let照射后的idpe。低let辐射的idpe已被描述为无细胞大分子(DNA,蛋白质或脂质)的生化变化,细菌和酵母的DNA损伤反应,DNA损伤,细胞遗传学变化,人类,啮齿动物或牛源哺乳动物细胞培养中的肿瘤转化和细胞死亡,家蚕的诱变,细胞遗传学变化,诱导癌症(实体瘤和白血病)和非癌症效应(男性不育,白内障和循环系统疾病),非人类哺乳动物(啮齿动物、兔子、狗和猪)的肿瘤失活和存活,以及人类癌症和非癌症效应(皮肤变化和循环系统疾病)的诱导。与越来越多关于idpe表现的现象学证据相反,对其机制基础的了解有限,但提出的机制涉及细胞周期依赖性再敏化和低剂量超放射敏感性。这就需要继续研究进一步的机制发展和讨论科学证据对辐射防护的影响(例如剂量率有效系数)。
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来源期刊
CiteScore
12.20
自引率
1.90%
发文量
22
审稿时长
15.7 weeks
期刊介绍: The subject areas of Reviews in Mutation Research encompass the entire spectrum of the science of mutation research and its applications, with particular emphasis on the relationship between mutation and disease. Thus this section will cover advances in human genome research (including evolving technologies for mutation detection and functional genomics) with applications in clinical genetics, gene therapy and health risk assessment for environmental agents of concern.
期刊最新文献
Decoding complexity: The role of long-read sequencing in unraveling genetic disease etiologies The functional regulation between extracellular vesicles and the DNA damage responses Inverse dose protraction effects of high-LET radiation: Evidence and significance Inverse dose protraction effects of low-LET radiation: Evidence and significance A tale of two drugs: Molnupiravir and Paxlovid
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