Genetic Engineering & Society Center, North Carolina State University, Gene Edited Food Project, Iowa State University, USA.
School of Public and International Affairs, Genetic Engineering and Society Center, North Carolina State University, USA.
NanoImpact. 2021 Jul;23:100326. doi: 10.1016/j.impact.2021.100326. Epub 2021 May 23.
The use of nanotechnology and engineered nanomaterials in food and agriculture (nano-agrifood) sectors is intended to provide several potential benefits to consumers and society, such as the provision of more nutritious processed foods, edible food coatings to extend shelf lives of fresh cut produce, and more sustainable alternatives to traditional agrochemicals. The responsible innovation of nano-agrifoods may be particularly important to pursue given previous case studies involving other agrifood technologies that experienced significant public consternation. Here, we define responsible innovation following Stilgoej et al. (2013) that establishes processes to iteratively review and reflect upon one's innovation, engage stakeholders in dialogue, and to be open and transparent throughout innovation stages - processes that go beyond primary focuses of understanding environmental, health, and safety impacts of nano-enabled products and implementing safe-by-design principles. Despite calls for responsible nano-innovation across diverse sectors, it has not yet been clear what types of barriers are faced by nano-agrifood researchers and innovators in particular. This study therefore identifies and builds the first typology of barriers to responsible innovation as perceived by researchers and product developers working in nano-agrifood sectors in the United States. Our findings report 5 key barriers to responsible innovation of nano-agrifoods: Lack of Data (reported by 70% of all interview participants, and represented 34.6% of all barrier-related excerpts), Lack of Product Oversight (reported by 60% of participants, and represented 28.7% of excerpts), Need for Ensuring Marketability & Use (reported by 70% of participants, and represented 21.3% of all barrier-related excerpts), Need for Increased Collaboration (reported by 40% of participants, and represented 10.3% of excerpts), and finally Lack of Adequate Training & Workforce (reported by 30% of participants, and represented by 5.1% of excerpts). We also relate these key barriers across three main nano-innovation phases, including 1) Scientific and Technical R&D, 2) Product Oversight, and 3) Post-commercialization Marketability & Use, and discuss how these barriers may impact stakeholders as well as present opportunities to align with principles of responsible innovation. Overall, these findings may help illuminate challenges that researchers and innovators face in the pursuit of responsible innovation relevant for the field of nanotechnology with relevancy for other emerging food and agricultural technologies more broadly.
在食品和农业(纳米农业食品)领域中使用纳米技术和工程纳米材料旨在为消费者和社会提供若干潜在益处,例如提供更有营养的加工食品、可食用的食品涂层以延长新鲜切割农产品的保质期,以及用更可持续的传统农用化学品替代品。鉴于先前涉及其他农业食品技术的案例研究引起了公众的极大关注,因此对纳米农业食品进行负责任的创新可能尤为重要。在这里,我们按照 Stilgoej 等人(2013 年)的定义来定义负责任的创新,该定义确定了迭代审查和反思创新、让利益相关者参与对话以及在整个创新阶段保持开放和透明的过程——这些过程超越了理解纳米产品的环境、健康和安全影响以及实施安全设计原则的主要重点。尽管不同部门都呼吁进行负责任的纳米创新,但纳米农业食品研究人员和创新者所面临的具体障碍类型尚不清楚。因此,本研究确定并构建了美国纳米农业食品领域研究人员和产品开发人员认为的负责任创新障碍的首个分类法。我们的研究结果报告了 5 个负责任的纳米农业食品创新的关键障碍:缺乏数据(所有接受采访的人中有 70%报告了这一障碍,占所有与障碍相关的摘录的 34.6%)、缺乏产品监督(60%的参与者报告了这一障碍,占摘录的 28.7%)、确保市场适用性和使用性的需要(70%的参与者报告了这一障碍,占所有与障碍相关的摘录的 21.3%)、需要增加合作(40%的参与者报告了这一障碍,占摘录的 10.3%)以及缺乏足够的培训和劳动力(30%的参与者报告了这一障碍,占摘录的 5.1%)。我们还将这些主要障碍与包括 1)科学和技术研发、2)产品监督和 3)商业化后市场适用性和使用性在内的三个主要纳米创新阶段联系起来,并讨论了这些障碍如何影响利益相关者以及为符合负责任创新原则提供机会。总体而言,这些发现可能有助于阐明研究人员和创新者在追求与纳米技术相关的负责任创新时所面临的挑战,这些发现对更广泛的其他新兴食品和农业技术也具有相关性。