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Olympic Dam: BHP thinking big about the future. 奥运大坝:必和必拓放眼未来。
Pub Date : 2020-12-01 DOI: 10.1177/0146645320960681
P Cuthbert

Olympic Dam is one of the world's most significant polymetallic orebodies producing copper, uranium, gold, and silver in remote South Australia. The polymetallic deposit is located 520 km north-northwest of Adelaide, South Australia and has an inferred resource of 2660 Mt at 1.2% Cu, 1.4 kg t-1 U3Os, and 0.5 g t-1 Au. Ore is mined from the underground operation at a rate of approximately 10 mt year-1, and is processed on site through a concentrator and hydrometallurgical facility, smelter, and electrolytic refinery. Olympic Dam is one of the only sites in the world to claim the 'mine to market' title. Protection of the workforce and the environment has been a primary focus for the operations through its 30+ year life and will continue to be into the future. Broken Hill Propriety Company (BHP) believes that its most important asset is its people. With such a large orebody and a very long potential mine life, it is important to think strategically about the future to ensure the viability of the operation. This requires development of mine and surface processing facilities in a staged manner. Importantly, it also involves the development of people. This presentation provides an overview of BHP's work at Olympic Dam and outlines development plans for Olympic Dam into the future.© 2020 ICRP. Published by SAGE.

奥林匹克大坝是世界上最重要的多金属矿体之一,位于偏远的南澳大利亚,生产铜、铀、金和银。该多金属矿床位于南澳大利亚州阿德莱德西北偏北520公里处,推断资源量为2660公吨,含1.2% Cu、1.4 kg t-1 u30和0.5 g t-1 Au。矿石以每年约1000万吨的速度从地下开采,并通过选矿厂和湿法冶金设施、冶炼厂和电解精炼厂在现场进行加工。奥林匹克大坝是世界上仅有的几个拥有“矿山到市场”称号的地点之一。在其30多年的生命周期中,对劳动力和环境的保护一直是运营的主要关注点,并将持续到未来。必和必拓认为,公司最重要的资产是员工。如此大的矿体和很长的潜在矿山寿命,重要的是战略性地考虑未来,以确保作业的可行性。这就要求分阶段发展矿山和地面加工设施。重要的是,它还涉及人的发展。本报告概述了必和必拓在奥林匹克大坝的工作,并概述了奥林匹克大坝未来的发展计划。©2020 icrp。SAGE出版。
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引用次数: 0
Ethical aspects in the use of radiation in medicine: update from ICRP Task Group 109. 医学放射应用中的伦理问题:ICRP第109工作组的最新情况。
Pub Date : 2020-12-01 Epub Date: 2020-08-11 DOI: 10.1177/0146645320929630
F Bochud, M C Cantone, K Applegate, M Coffey, J Damilakis, M Del Rosario Perez, F Fahey, M Jesudasan, C Kurihara-Saio, B Le Guen, J Malone, M Murphy, L Reid, F Zölzer

Whereas scientific evidence is the basis for recommendations and guidance on radiological protection, professional ethics is critically important and should always guide professional behaviour. The International Commission on Radiological Protection (ICRP) established Task Group 109 to advise medical professionals, patients, families, carers, the public, and authorities about the ethical aspects of radiological protection of patients in the diagnostic and therapeutic use of radiation in medicine. Occupational exposures and research-related exposures are not within the scope of this task group. Task Group 109 will produce a report that will be available to the different interested parties for consultation before publication. Presently, the report is at the stage of a working document that has benefitted from an international workshop organised on the topic by the World Health Organization. It presents the history of ethics in medicine in ICRP, and explains why this subject is important, and the benefits it can bring to the standard biomedical ethics. As risk is an essential part in decision-making and communication, a summary is included on what is known about the dose-effect relationship, with emphasis on the associated uncertainties. Once this theoretical framework has been presented, the report becomes resolutely more practical. First, it proposes an evaluation method to analyse specific situations from an ethical point of view. This method allows stakeholders to review a set of six ethical values and provides hints on how they could be balanced. Next, various situations (e.g. pregnancy, elderly, paediatric, end of life) are considered in two steps: first within a realistic, ethically challenging scenario on which the evaluation method is applied; and second within a more general context. Scenarios are presented and discussed with attention to specific patient circumstances, and on how and which reflections on ethical values can be of help in the decision-making process. Finally, two important related aspects are considered: how should we communicate with patients, family, and other stakeholders; and how should we incorporate ethics into the education and training of medical professionals?

尽管科学证据是关于放射防护的建议和指导的基础,但职业道德至关重要,并应始终指导职业行为。国际放射防护委员会(ICRP)设立了第109任务组,就医学放射诊断和治疗使用中对患者进行放射防护的伦理问题向医疗专业人员、患者、家属、护理人员、公众和当局提供咨询。职业暴露和与研究相关的暴露不在本任务组的范围内。第109工作组将编写一份报告,供各有关方面在出版前咨询。目前,该报告正处于工作文件阶段,这得益于世界卫生组织就该专题组织的一次国际讲习班。它介绍了ICRP中医学伦理学的历史,并解释了为什么这个主题很重要,以及它可以给标准生物医学伦理学带来的好处。由于风险是决策和沟通的一个重要组成部分,因此对已知的剂量-效应关系进行了总结,并强调了相关的不确定性。一旦提出了这个理论框架,报告就会变得更加实际。首先,提出了一种从伦理角度分析具体情况的评价方法。这种方法允许利益相关者审查一套六种道德价值观,并提供如何平衡它们的提示。接下来,将分两个步骤考虑各种情况(例如怀孕、老年、儿科、生命终结):首先,在应用评估方法的现实的、具有道德挑战性的情况下;第二,在更广泛的背景下。方案提出和讨论的关注具体的病人情况,以及如何和哪些反思道德价值观可以在决策过程中有所帮助。最后,考虑了两个重要的相关方面:我们应该如何与患者、家属和其他利益相关者沟通;我们应该如何将伦理道德融入到医疗专业人员的教育和培训中?
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引用次数: 12
What is the point of innovation in patient dose monitoring? 患者剂量监测创新的意义是什么?
Pub Date : 2020-12-01 Epub Date: 2020-08-25 DOI: 10.1177/0146645320927858
J Hislop-Jambrich

The Medical Futurist says that radiology is one of the fastest growing and developing areas of medicine, and therefore this might be the speciality in which we can expect to see the largest steps in development. So why do they think that, and does it apply to dose monitoring? The move from retrospective dose evaluation to a proactive dose management approach represents a serious area of research. Indeed, artificial intelligence and machine learning are consistently being integrated into best-in-class dose management software solutions. The development of clinical analytics and dashboards are already supporting operators in their decision-making, and these optimisations - if taken beyond a single machine, a single department, or a single health network - have the potential to drive real and lasting change. The question is for whom exactly are these innovations being developed? How can the patient know that their scan has been performed to the absolute best that the technology can deliver? Do they know or even care how much their lifetime risk for developing cancer has changed post examination? Do they want a personalised size-specific dose estimate or perhaps an individual organ dose assessment to share on Instagram? Let's get real about the clinical utility and regulatory application of dose monitoring, and shine a light on the shared responsibility in applying the technology and the associated innovations.

《医学未来学家》表示,放射学是医学中发展最快的领域之一,因此,这可能是我们可以期待看到最大发展步伐的专业。那么为什么他们会这么想,这是否适用于剂量监测?从回顾性剂量评估到主动剂量管理方法的转变是一个重要的研究领域。事实上,人工智能和机器学习一直被集成到一流的剂量管理软件解决方案中。临床分析和仪表板的发展已经为运营商的决策提供了支持,这些优化——如果应用到单个机器、单个部门或单个医疗网络之外——有可能推动真正和持久的变化。问题是,这些创新究竟是为谁开发的?病人怎么知道他们的扫描已经达到了技术所能提供的绝对最佳水平?他们知道或关心他们一生中患癌症的风险在检查后改变了多少吗?他们是想要一个个性化的特定尺寸剂量估计,还是想要一个单独的器官剂量评估,在Instagram上分享?让我们真正了解剂量监测的临床应用和监管应用,并阐明应用该技术和相关创新的共同责任。
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引用次数: 0
Corrigendum. 更正。
Pub Date : 2020-10-05 DOI: 10.1177/0146645320966413
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引用次数: 0
ICRP Publication 144: Dose Coefficients for External Exposures to Environmental Sources. ICRP出版物144:环境源外部照射的剂量系数。
Pub Date : 2020-10-01 DOI: 10.1177/0146645320906277
N Petoussi-Henss, D Satoh, A Endo, K F Eckerman, W E Bolch, J Hunt, J T M Jansen, C H Kim, C Lee, K Saito, H Schlattl, Y S Yeom, S J Yoo
This publication presents radionuclide-specific organ and effective doserate coefficients for members of the public resulting from environmental external exposures to radionuclide emissions of both photons and electrons, calculated using computational phantoms representing the International Commission on Radiological Protection’s (ICRP) reference newborn, 1-year-old, 5-year-old, 10year-old, 15-year-old, and adult males and females. Environmental radiation fields of monoenergetic photon and electron sources were first computed using the Monte Carlo radiation transport code PHITS for source geometries representing environmental radionuclide exposures including planar sources on and within the ground at different depths (representing radionuclide ground contamination from fallout or naturally occurring terrestrial sources), volumetric sources in air (representing a radioactive cloud), and uniformly distributed sources in simulated contaminated water. For the above geometries, the exposed reference individual is considered to be completely within the radiation field. Organ equivalent dose-rate coefficients for monoenergetic photons and electrons were next computed employing the PHITS code, thus simulating photon and electron interactions within the tissues and organs of the exposed reference individual. For quality assurance purposes, further cross-check calculations were performed using GEANT4, EGSnrc, MCNPX, MCNP6, and the Visible Monte Carlo radiation transport codes. From the monoenergetic values, nuclide-specific effective and organ equivalent dose-rate coefficients were computed for 1252 radionuclides of 97 elements for the above environmental exposures using the nuclear decay data from ICRP Publication 107. The coefficients are given as dose-rates normalised to radionuclide concentrations in environmental media, such as radioactivity concentration (nSv h Bq m or nSv h Bq m), and can be renormalised to ambient dose equivalent (Sv Sv ) or air kerma free in air (SvGy ). The main text provides effective dose-rate coefficients for selected radionuclides; details including ageand sex-dependent organ dose-rate coefficients are provided as an electronic supplement to be downloaded from the ICRP and SAGE websites. The data show that, in general, the smaller the body mass of the
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引用次数: 22
Phantom Evolution. 幻影进化。
Pub Date : 2020-10-01 DOI: 10.1177/0146645320919328
John D Harrison
The phantoms used by the International Commission on Radiological Protection (ICRP) are mathematical models of the anatomy of the human body, required for dosimetric calculations. The improvements made to these phantoms, particularly more recently, reflect considerable advances in scientific methodology and computing power, together with changing expectations that the best science will be used and will be communicated openly. The highly sophisticated models in this publication should ‘future-proof’ the Commission in readiness for anticipated requirements for new calculations.
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引用次数: 2
Evaluation of Effective Dose for Exposures in The Environment. 环境中照射有效剂量的评估。
Pub Date : 2020-10-01 DOI: 10.1177/0146645320916969
Kimiaki Saito
It is often said that radiological protection is a practical science and I quite agree. There are many cases where decisions must be made even if the scientific knowledge is imperfect. In such cases, the decision should be made using the best scientific knowledge available at the time. Effective dose is a typical example of a useful concept for such decisions in radiological protection as a practical science. The biological effect of exposure to radiation below 100mSv is, as well known, not thoroughly elucidated; nevertheless, radiological protection needs to be implemented appropriately for the safe use of radiation which provides huge benefits to human lives via various applications such as nuclear energy and medical use. The concept of effective dose was invented more than 40 years ago by Professor Wolfgang Jacobi (Jacobi, 1975), and since its adoption by the International Commission on Radiological Protection (ICRP, 1991) has played an essential role in radiological protection as the basic protection quantity. I was lucky to get the chance to meet Professor Jacobi while attending his 60th birthday party which was held in 1988 at the Gesellschaft für Strahlenforschung (GSF) (now Helmholtz Zentrum München). At that time, Professor Jacobi was serving as the director of one of the research institutes of GSF. He was so kind to smile and talk to the stranger who joined the party by chance while studying at GSF for a single year. During the party, a scientific journal with articles dedicated to him and his work was presented to him as a gift. It was quite an inspiring moment, and I decided to continue working in the field of radiological protection. I remember, after returning to Japan, arguments with my colleagues on how effective dose is useful in radiological protection. I was in favour of using effective dose, but could not argue sufficiently about its merits at that time. The fact that effective dose has been used for more than 40 years has proved its usefulness. Dose coefficients for external exposures in the environment have been studied for a long time. The first comprehensive studies on this subject were those by Dillman (1974), and Poston and Snyder (1974). Since then, many researchers, myself included, have tackled this subject, mainly using computer simulations, and several articles have been published. Before effective dose was established, dose coefficients were calculated for the whole body and specific organs. After the invention of effective dose, dose coefficients were estimated mainly in terms of effective dose, and have been an essential input for dose evaluation in the environment.
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引用次数: 0
Chinese Institute for Radiation Protection European Commission UAE Federal Authority for Nuclear Regulation US Department of Energy US Environmental Protection Agency 中国辐射防护研究所欧洲委员会阿联酋联邦核监管局美国能源部美国环境保护局
Pub Date : 2020-10-01 DOI: 10.1177/0146645320953807
F. A. Kaabi, P. Allisy, Meshary Alnuaimi, K. Applegate, N. Ban, Catrin Bauréus Koch, Alistair Bell, T. Berris, É. Blanchardon, W. Bolch, S. Bouffler, M. Cantone, N. Caplin, K. Cho, R. Clarke, C. Clement, Kelsey Cloutier, D. Cool, C. Cousins, M. Cowie, K. Eckerman, A. Endo, Scott Foley, H. Fujita, Juan J. Burgos Gallego, E. G. Diaz, Julian Ginniver, D. Giuffrida, J. jónsdóttir, N. Hamada, G. Hammer, Naomi Harley, John D Harrison, Marcia Hartman, Dan Hibbing, T. Higuchi, T. Homma, Mark D. Hoover, M. Hosono, Chan Hyeong Kim, L. Jødal, D. Jokisch, M. Kai, Alexandra Kamp, K. Kang, I. Kawaguchi, P. Kazantsev, B. Kerr, L. Kratzwald, C. Larsson, D. Laurier, Lynn Lemaire, Chunsheng Li, J. Lochard, Stephen Long, R. Loose, M. A. López, Sigur ur Magnússon, Yahong Mao, J. Climent, Colin J. Martin, N. Martinez, P. Mattera, F. Mettler, Miguel Mota, Rock Neveau, A. Nisbet, J. O. Ramos, J. Pentreath, Nina Petoussi-Heinss, K. Potts, J. Preston, R. Puckett, M. Rehani, Julie Reyjal, M. Rosenstein, W. Rühm, M. Sasaki, Y. Sasa
Chinese Society for Radiation Protection Federal Ministry for the Environment, Nature Conservation, and Nuclear Safety, Germany National Institute for Radiological Protection and Nuclear Safety, France Health Canada Canadian Nuclear Safety Commission American Academy of Health Physics Society for Radiological Protection, UK Radiation Effects Association, Japan International Radiation Protection Association American Association of Physicists in Medicine Dutch Society for Radiation Protection National Inspectorate for Nuclear Safety and Radiation Protection, Italy Canadian Radiation Protection Association Australian Radiation Protection and Nuclear Safety Agency Centre d’étude sur l’Evaluation de la Protection dans le domaine Nucléaire, France Federal Agency for Nuclear Control, Belgium Société Française de Radioprotection, France Medical Physics Association, Italy Society of Medical and Interventional Radiology, Italy Danish Society for Medical Physics Centers for Disease Control and Prevention, USA International Organisation for Medical Physics Society for Radiation Protection, Israel EURAMED Nordic Society for Radiation Protection Nordic Nuclear Safety Research South African Association of Physicists in Medicine and Biology National Centre for Radiation Protection, Delft University, Netherlands Spanish Radiation Protection Society East Tennessee Chapter of the Health Physics Society, USA Spanish Society of Medical Physics Institute of Physics and Engineering in Medicine, UK Icelandic Radiation Safety Authority ENUSA Industria Avanzandas, Spain Australasian Radiation Protection Association South Pacific Environmental Radioactivity Association RP Alba Limited
中国辐射防护学会联邦环境、自然保护与核安全部德国国家辐射防护与核安全研究所法国卫生部加拿大加拿大核安全委员会美国卫生物理学会辐射防护学会英国辐射效应协会日本国际辐射防护协会美国医学物理学家协会荷兰辐射防护学会国家核安全和辐射防护检查机构、意大利加拿大辐射防护协会澳大利亚辐射防护和核安全机构 防护评估中心、法国联邦核控制机构、比利时法国辐射防护协会、法国医学物理学会、意大利医学和介入放射学会、意大利丹麦医学物理学会疾病控制和预防中心、美国国际医学物理组织辐射防护学会、以色列EURAMED北欧辐射防护学会北欧核安全研究南非医学和生物学物理学家协会、代尔夫特大学国家辐射防护中心、荷兰西班牙辐射防护学会东田纳西州健康物理学会分会,美国西班牙医学物理学会医学物理与工程研究所,英国冰岛辐射安全局ENUSA Industria Avanzandas,西班牙澳大拉西亚辐射防护协会南太平洋环境放射性协会RP Alba有限公司
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引用次数: 0
ICRP Publication 145: Adult Mesh-Type Reference Computational Phantoms. ICRP出版物145:成人网格型参考计算幻影。
Pub Date : 2020-10-01 DOI: 10.1177/0146645319893605
C H Kim, Y S Yeom, N Petoussi-Henss, M Zankl, W E Bolch, C Lee, C Choi, T T Nguyen, K Eckerman, H S Kim, M C Han, R Qiu, B S Chung, H Han, B Shin
Following the issuance of new radiological protection recommendations in ICRP Publication 103, the Commission released, in ICRP Publication 110, the adult male and female voxel-type reference computational phantoms to be used for calculation of the reference dose coefficients (DCs) for both external and internal exposures. While providing more anatomically realistic representations of internal anatomy than the older stylised phantoms, the voxel phantoms have their limitations, mainly due to voxel resolution, especially with respect to small tissue structures (e.g. lens of the eye) and very thin tissue layers (e.g. stem cell layers in the stomach wall mucosa and intestinal epithelium). This publication describes the construction of the adult mesh-type reference computational phantoms (MRCPs) that are the modelling counterparts of the Publication 110 voxel-type reference computational phantoms. The MRCPs include all source and target regions needed for estimating effective dose, even the micrometre-thick target regions in the respiratory and alimentary tract organs, skin, and urinary bladder, assimilating the supplementary stylised models. The MRCPs can be implemented directly into Monte Carlo particle transport codes for dose calculations (i.e. without voxelisation), fully maintaining the advantages of the mesh geometry. DCs of organ dose and effective dose and specific absorbed fractions (SAFs) calculated with the MRCPs for some external and internal exposures show that while some differences were observed for small tissue structures and for weakly-penetrating radiations the MRCPs provide the same or very similar values as the previously published reference DCs and SAFs, which were calculated with the Publication 110 reference phantoms and supplementary stylised models, for most tissues and penetrating radiations. Consequently, the DCs for effective dose (i.e. the fundamental protection quantity) were not found to be different. The DCs of ICRP Publication 116 and the SAFs of ICRP Publication 133 thus remain valid.
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引用次数: 35
Addendum 1 to ICRP Publication 128: Radiation dose to patients from radiopharmaceuticals: a compendium of current information related to frequently used substances [Ann. ICRP 44(2S), 2015]. 国际放射防护委员会第 128 号出版物增编 1:放射性药物对患者的辐射剂量:与常用物质有关的最新信息简编[Ann. ICRP 44(2S),2015]。
Pub Date : 2020-07-14 DOI: 10.1177/0146645320936035
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引用次数: 0
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