Mantraratnam Vaishnavi, Bonnet Jorge, Rowe Caleb, Janko Daniel, Bolding Mark
Department of Radiology, University of Alabama at Birmingham, Birmingham, AL, United States.
Department of Neurology, University of Alabama at Birmingham, Birmingham, AL, United States.
Front Cell Neurosci. 2022 Aug 2;16:917273. doi: 10.3389/fncel.2022.917273. eCollection 2022.
Since their discovery in 1895, many studies have been conducted to understand the effect of X-rays on neural function and behavior in animals. These studies examined a range of acute and chronic effects, and a subset of studies has attempted to determine if X-rays can produce any sensory responses. Here we review literature on animal behavioral responses to X-rays from 1895 until 2021 to assess the evidence for detection of X-rays by sensory receptors in animals. We focus on the changes in appetitive and consummatory behavior, radiotaxis, behavioral arousal, and olfactory responses to X-rays that have been reported in the literature. Taken together, the reviewed literature provides a large body of evidence that X-rays can induce sensory responses in a wide variety of animals and also suggests that these responses are mediated by known sensory receptors. Furthermore, we postulate the role of reactive oxygen species (ROS), the most biologically active byproduct of X-rays, as a key mediator of sensory receptor responses to X-rays.
自1895年X射线被发现以来,人们进行了许多研究以了解其对动物神经功能和行为的影响。这些研究考察了一系列急性和慢性影响,并且有一部分研究试图确定X射线是否能产生任何感觉反应。在此,我们回顾了1895年至2021年期间关于动物对X射线行为反应的文献,以评估动物感觉受体检测X射线的证据。我们重点关注文献中报道的动物对X射线的食欲和进食行为、放射趋性、行为觉醒及嗅觉反应的变化。综合来看,所回顾的文献提供了大量证据表明X射线可在多种动物中诱发感觉反应,并且还表明这些反应是由已知的感觉受体介导的。此外,我们推测活性氧(ROS)作为X射线最具生物活性的副产物,在感觉受体对X射线的反应中起关键介导作用。