首页> 外文期刊>Health Physics: Official Journal of the Health Physics Society >Thirty-sixth lauriston S. Taylor lecture on radiation protection and measurements - From the field to the laboratory and back: The what ifs, wows, and who cares of radiation biology
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Thirty-sixth lauriston S. Taylor lecture on radiation protection and measurements - From the field to the laboratory and back: The what ifs, wows, and who cares of radiation biology

机译:第三十六届lauriston S. Taylor关于辐射防护和测量的演讲-从现场到实验室再到背部:辐射生物学的研究背景,令人惊叹的内容以及谁在乎

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My scientific journey started at the University of Utah chasing fallout. It was on everything, in everything, and was distributed throughout the ecosystem. This resulted in radiation doses to humans and caused me great concern. From this concern I asked the question, "Are there health effects from these radiation doses and levels of radioactive contamination?" I have invested my scientific career trying to address this basic question. While conducting research, I got acquainted with many of the What ifs of radiation biology. The major What if in my research was, "What if we have underestimated the radiation risk for internally-deposited radioactive material?" While conducting research to address this important question, many other What ifs came up related to dose, dose rate, and dose distribution. I also encountered a large number of Wows. One of the first was when I went from conducting environmental fallout studies to research in a controlled laboratory. The activity in fallout was expressed as pCi L, whereas it was necessary to inject laboratory animals with μCi g body weight to induce measurable biological changes, chromosome aberrations, and cancer. Wow! That is seven to nine orders of magnitude above the activity levels found in the environment. Other Wows have made it necessary for the field of radiation biology to make important paradigm shifts. For example, one shift involved changing from "hit theory" to total tissue responses as the result of bystander effects. Finally, Who cares' While working at U.S. Department of Energy headquarters and serving on many scientific committees, I found that science does not drive regulatory and funding decisions. Public perception and politics seem to be major driving forces. If scientific data suggested that risk had been underestimated, everyone cared. When science suggested that risk had been overestimated, no one cared. This result-dependent Who cares' was demonstrated as we tried to generate interactions by holding meetings with individuals involved in basic low-dose research, regulators, and the news media. As the scientists presented their "exciting data" that suggested that risk was overestimated, many of the regulators simply said, "We cannot use such data." The newspaper people said, "It is not possible to get such information by my editors." In spite of these difficulties, research results from basic science must be made available and considered by members of the public as well as by those that make regulatory recommendations. Public outreach of the data is critical and must continue to be a future focus to address properly the question of, "Who cares'" My journey in science, like many of yours, has been a mixture of chasing money, beatings, and the joys of unique and interesting research results. Perhaps through our experiences, we can improve research environments, funding, and use of the valuable information that is generated. Scientists that study at all levels of biological organization, from the environment to the laboratory and human epidemiology, must share expertise and data to address the What Ifs, Wows, and Who Cares of radiation biology.
机译:我的科学之旅是从犹他大学开始研究尘埃的。它存在于所有事物上,分布在整个生态系统中。这导致了对人类的辐射剂量,引起了我的极大关注。出于这种担忧,我问了一个问题:“这些辐射剂量和放射性污染水平是否会对健康产生影响?”我已经投入了科学事业来尝试解决这个基本问题。在进行研究时,我熟悉了许多放射生物学的假设。主要问题如果在我的研究中是:“如果我们低估了内部沉积的放射性物质的辐射风险呢?”在进行研究以解决这一重要问题时,还有许多其他假设与剂量,剂量率和剂量分布有关。我也遇到了很多哇。第一次是我从进行环境尘埃研究到在受控实验室进行研究的那一刻。沉降物中的活性表示为pCi L,而有必要向实验动物中注射μCig体重,以诱导可测量的生物学变化,染色体畸变和癌症。哇!这比环境中的活动水平高出七个到九个数量级。其他Wow使得辐射生物学领域有必要进行重要的范式转换。例如,一种转变涉及作为旁观者效应的结果,从“命中理论”转变为总组织反应。最后,谁在乎?在美国能源部总部工作并担任许多科学委员会委员时,我发现科学并不会推动监管和资金决策。公众的看法和政治似乎是主要的推动力。如果科学数据表明风险被低估了,那么每个人都会在意。当科学表明风险被高估时,没人关心。我们试图通过与参与低剂量基础研究的人员,监管机构和新闻媒体举行会议来产生互动,从而证明了这种与结果相关的“谁在乎”。当科学家提出他们的“令人兴奋的数据”表明风险被高估时,许多监管机构只是简单地说:“我们不能使用此类数据。”报纸上的人说:“我的编辑不可能获得这些信息。”尽管存在这些困难,但必须提供基础科学的研究结果,并由公众以及提出监管建议的人加以考虑。公开发布数据至关重要,并且必须继续作为将来的焦点,以正确解决“谁在乎”的问题我的科学之旅(与您中的许多人一样)一直是追逐金钱,殴打和欢乐独特而有趣的研究成果。也许通过我们的经验,我们可以改善研究环境,资金以及对所生成的有价值信息的使用。从环境到实验室以及人类流行病学等各个层次的生物组织进行研究的科学家,必须共享专业知识和数据,以解决放射生物学的假设,惊奇和关注领域。

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