Rowe Caleb, Santiago Nathan, Warner Jeffrey, Tsytsarev Vassiliy, Rozhkova Elena A, Ngwu-Hyacinth Ogechukwu, Bolding Mark
Department of Surgery, University of Alabama at Birmingham, United States.
Department of Immunology, University of Alabama at Birmingham, United States.
Phys Life Rev. 2025 Jul;53:1-21. doi: 10.1016/j.plrev.2025.02.002. Epub 2025 Feb 7.
Here we address the question of whether humans can perceive ionizing radiation. We conducted a thorough review of the clinical and experimental literature related to ionizing radiation, with a focus on its acute effects. Specifically, we examined the three domains of X-ray perception found in animals (abdominal, olfactory, and retinal), which led us to instances of ionizing radiation-induced hearing and taste sensory phenomena in humans thus suggesting that humans can perceive X-rays across various sensory modalities via multiple mechanisms. We also analyzed literature to understand the mechanisms associated with reported symptoms, this led us to the concept of radiomodulation, an understudied modulatory effect of sub-ablative ionizing radiation doses on neurons. Based on this review of the literature we propose the hypothesis that a significant radiomodulation mechanism is the formation of reactive oxygen species from radiolysis which activates immune and sensory signal transduction mechanisms specifically related to the redox activity in TRP and K channels. Additionally, we find evidence to support the previous claims of perception stemming from Cherenkov radiation and ozone production which are perceived using canonical sensory modalities. Finally, for we provide a concise summary of the applications of ionizing radiation in clinical imaging and therapy, as well as prospects for future developments of radiation technologies for biomedical and fundamental research.
在此,我们探讨人类是否能感知电离辐射这一问题。我们对与电离辐射相关的临床和实验文献进行了全面综述,重点关注其急性效应。具体而言,我们研究了在动物中发现的X射线感知的三个领域(腹部、嗅觉和视网膜),这使我们发现了人类中电离辐射诱发的听觉和味觉感官现象的实例,从而表明人类可以通过多种机制跨各种感官模式感知X射线。我们还分析了文献以了解与所报告症状相关的机制,这使我们得出了放射调节的概念,即亚消融剂量的电离辐射对神经元的一种研究较少的调节作用。基于对文献的这一综述,我们提出假说,即一种重要的放射调节机制是辐射分解产生活性氧,其激活了与TRP和钾通道中的氧化还原活性特别相关的免疫和感觉信号转导机制。此外,我们发现有证据支持先前关于切伦科夫辐射和臭氧产生导致的感知的说法,这些是通过经典感官模式感知到的。最后,我们简要总结了电离辐射在临床成像和治疗中的应用,以及辐射技术在生物医学和基础研究方面未来发展的前景。