Reid Deseree J, Patel Kaizad F, Melville Angela M, Bailey Vanessa L, Omberg Kristin M, Lamoureux Loreen R
Chemical and Biological Signature Sciences, Pacific Northwest National Laboratory, Richland, Washington, USA.
Biological Systems Science, Pacific Northwest National Laboratory, Richland, Washington, USA.
J Environ Qual. 2025 May-Jun;54(3):513-527. doi: 10.1002/jeq2.70016. Epub 2025 Mar 24.
The lack of available information on the presence and persistence of fentanyl in the environment is a significant gap in the technical literature. Although the origins of the opioid in the environment are well-known because they follow the same pathways of other drug-related environmental contaminants, the downstream effects of fentanyl in the water supply and its retention in soil are less understood. The characterization of fentanyl and its potential degradation products in complex environmental samples such as soil is severely understudied. Very few articles are available that work to identify fentanyl and its degradation products in complex samples or name the possible hazards that may result from environmental exposure and degradation. Therefore, the objectives were to identify available articles focused on environmental fentanyl and its pathways and highlight quantifiable research or results that included specific degradation products or downstream effects. Research articles focused on fentanyl between 2000 and 2024 were identified and reviewed and then filtered using Boolean search terms for environmental parameters. Various studies have determined that trace levels of fentanyl can be found in a variety of environments, and additional data suggest preferential partitioning into soils from water and long-term persistence. Despite this knowledge, very little data exists on the long-term downstream effects of fentanyl or its analogs. As the chronic effects from low-level fentanyl exposure are currently unknown, this lack of insight brings to the forefront the need for further research to improve our understanding of fentanyl persistence, degradation, and toxicity within the environment.
环境中芬太尼的存在及持久性方面缺乏可用信息,这是技术文献中的一个重大空白。尽管环境中阿片类药物的来源众所周知,因为它们遵循与其他与药物相关的环境污染物相同的途径,但芬太尼在供水系统中的下游影响及其在土壤中的留存情况却了解较少。在诸如土壤等复杂环境样品中对芬太尼及其潜在降解产物的表征研究严重不足。致力于识别复杂样品中芬太尼及其降解产物或指明环境暴露和降解可能导致的潜在危害的文章非常少。因此,目标是识别专注于环境中芬太尼及其途径的现有文章,并突出包括特定降解产物或下游影响的可量化研究或结果。识别并审查了2000年至2024年间专注于芬太尼的研究文章,然后使用环境参数的布尔搜索词进行筛选。各种研究已确定在多种环境中可发现痕量水平的芬太尼,并且更多数据表明芬太尼会优先从水中分配到土壤中并具有长期持久性。尽管有这些认识,但关于芬太尼或其类似物的长期下游影响的数据却非常少。由于目前尚不清楚低水平芬太尼暴露的慢性影响,这种认识上的不足凸显了进一步研究的必要性,以增进我们对环境中芬太尼的持久性、降解和毒性的理解。