Stone Vicki, Pozzi-Mucelli Stefano, Tran Lang, Aschberger Karin, Sabella Stefania, Vogel Ulla, Poland Craig, Balharry Dominique, Fernandes Teresa, Gottardo Stefania, Hankin Steven, Hartl Mark G J, Hartmann Nanna, Hristozov Danial, Hund-Rinke Kerstin, Johnston Helinor, Marcomini Antonio, Panzer Oliver, Roncato Davide, Saber Anne T, Wallin Håkan, Scott-Fordsmand Janeck J
Heriot Watt University, City of Edinburgh, UK.
Part Fibre Toxicol. 2014 Feb 13;11:9. doi: 10.1186/1743-8977-11-9.
To assess the risk of all nanomaterials (NMs) on a case-by-case basis is challenging in terms of financial, ethical and time resources. Instead a more intelligent approach to knowledge gain and risk assessment is required.
A framework of future research priorities was developed from the accorded opinion of experts covering all major stake holder groups (government, industry, academia, funders and NGOs). It recognises and stresses the major topics of physicochemical characterisation, exposure identification, hazard identification and modelling approaches as key components of the current and future risk assessment of NMs.
The framework for future research has been developed from the opinions of over 80 stakeholders, that describes the research priorities for effective development of an intelligent testing strategy (ITS) to allow risk evaluation of NMs. In this context, an ITS is a process that allows the risks of NMs to be assessed accurately, effectively and efficiently, thereby reducing the need to test NMs on a case-by-case basis.For each of the major topics of physicochemical characterisation, exposure identification, hazard identification and modelling, key-priority research areas are described via a series of stepping stones, or hexagon diagrams structured into a time perspective. Importantly, this framework is flexible, allowing individual stakeholders to identify where their own activities and expertise are positioned within the prioritisation pathway and furthermore to identify how they can effectively contribute and structure their work accordingly. In other words, the prioritisation hexagon diagrams provide a tool that individual stakeholders can adapt to meet their own particular needs and to deliver an ITS for NMs risk assessment. Such an approach would, over time, reduce the need for testing by increasing the reliability and sophistication of in silico approaches.The manuscript includes an appraisal of how this framework relates to the current risk assessment approaches and how future risk assessment could adapt to accommodate these new approaches. A full report is available in electronic format (pdf) at http://www.nano.hw.ac.uk/research-projects/itsnano.html.
ITS-NANO has delivered a detailed, stakeholder driven and flexible research prioritisation (or strategy) tool, which identifies specific research needs, suggests connections between areas, and frames this in a time-perspective.
基于具体情况评估所有纳米材料(NMs)的风险在资金、伦理和时间资源方面都具有挑战性。因此,需要一种更明智的知识获取和风险评估方法。
根据涵盖所有主要利益相关者群体(政府、行业、学术界、资助者和非政府组织)的专家一致意见,制定了一个未来研究重点框架。该框架认可并强调物理化学表征、暴露识别、危害识别和建模方法等主要主题,将其作为当前和未来纳米材料风险评估的关键组成部分。
未来研究框架是根据80多位利益相关者的意见制定的,该框架描述了有效制定智能测试策略(ITS)以评估纳米材料风险的研究重点。在此背景下,ITS是一个能够准确、有效且高效地评估纳米材料风险的过程,从而减少逐案测试纳米材料的必要性。对于物理化学表征、暴露识别、危害识别和建模等每个主要主题,关键优先研究领域通过一系列垫脚石或按时间顺序构建的六边形图进行描述。重要的是,该框架具有灵活性,允许各利益相关者确定其自身活动和专业知识在优先排序路径中的位置,并进一步确定他们如何能够有效做出贡献并据此安排工作。换句话说,优先排序六边形图提供了一种工具,各利益相关者可以根据自身特定需求进行调整,以实现纳米材料风险评估的ITS。随着时间的推移,这种方法将通过提高计算机模拟方法的可靠性和复杂性来减少测试需求。本文还评估了该框架与当前风险评估方法的关系,以及未来风险评估如何适应这些新方法。完整报告可在http://www.nano.hw.ac.uk/research-projects/itsnano.html以电子格式(pdf)获取。
ITS-NANO提供了一个详细的、由利益相关者驱动的灵活研究优先排序(或策略)工具,该工具确定了具体的研究需求,提出了各领域之间的联系,并从时间角度进行了框架构建。