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镜泊湖——世界第二大高山堰塞湖的微塑料污染分布及生态风险评估

The Distribution of Microplastic Pollution and Ecological Risk Assessment of Jingpo Lake-The World's Second Largest High-Mountain Barrier Lake.

作者信息

Wang Haitao, Zhao Chen, Huo Tangbin

机构信息

Heilongjiang River Fisheries Research Institute, Chinese Academy of Fishery Sciences, Harbin 150070, China.

Heilongjiang River Basin Fishery Ecological Environment Monitoring Center, Ministry of Agriculture and Rural Affairs, Harbin 150070, China.

出版信息

Biology (Basel). 2025 Feb 14;14(2):201. doi: 10.3390/biology14020201.

DOI:10.3390/biology14020201
PMID:40001969
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC11851502/
Abstract

To investigate the influence of factors such as tourism, agriculture, and population density on the presence of microplastic (MP) content in aquatic environments and their associated ecological risks, Jingpo Lake, a remote high-mountain lake situated away from urban areas, was selected as the research subject. This study examined the abundance, types, sizes, colors, and polymer compositions of MPs within the water body, fish, and sediments. By considering variables, including fishing practices, agricultural activities, population dynamics, and vegetation cover, an analysis was conducted to unravel the spatial and temporal distribution of MPs concerning human activities, ultimately leading to an assessment of the ecological risks posed by MP pollution. The findings revealed that the average abundance of MPs in the lake's surface water was recorded as (304.8 ± 170.5) n/m, while in the sediments, it averaged (162.0 ± 57.45) n/kg. Inside the digestive tracts of fish, the MP abundance was measured at 11.4 ± 5.4 n/ind. The contamination of MPs within the aquatic environment of Jingpo Lake was found to be relatively minimal. Variations in MP loads across time and space were observed, with MPs predominantly falling within the size range of small planktonic organisms (50-1000 μm). Additionally, the prevalent colors of MPs in the water samples were white or transparent, constituting approximately 55.65% of the entire MP composition. Subsequently, they were black, red, and blue. This colors distribution were consistent across MPs extracted from fish and sediment samples. The chemical compositions of the MPs predominantly comprised PE (31.83%) and PS (25.48%), followed by PP (17.56%), PA (11.84%), PET (6.71%), EVA (4.56%), and PC (2.03%). Regarding the seasonal aspect, MP concentrations were highest during summer (46.68%), followed by spring (36.75%) and autumn (16.56%). The spatial distribution of MPs within Jingpo Lake's water body, fish, and sediments was notably influenced by human activities, as confirmed by Pearson correlation coefficients. A strong association was observed between MP levels and water quality indicators such as ammonium nitrogen (NH-N), total phosphorus (TP), and chlorophyll-a (Chla), suggesting that human-related pollution contributed significantly to MP contamination. The diversity assessment of MP pollutants exhibited the highest variability in chemical composition (1.23 to 1.79) using the Shannon-Wiener Index. Subsequently, the diversity of colors ranged from 0.59 to 1.54, shape diversity from 0.78 to 1.30, seasonal diversity from 0.83 to 1.10, and size diversity from 0.44 to 1.01. The assessment results of ecological risk highlighted that the risk categories for MPs within the surface water, fish, and sediments of Jingpo Lake were categorized as I for the PHI and PLI and as "Minor" for the PERI. These relatively low-risk values were attributed to the predominantly low toxicity of the distributed MPs within the Jingpo Lake basin. Moreover, the results of the risk assessment were found to be interconnected with the distribution of the local population and agricultural activities around the sampling sections. Usage patterns of coastal land and population density were recognized as influential factors affecting MP loads within the water body, sediments, fish, and other components of the lake ecosystem.

摘要

为了研究旅游、农业和人口密度等因素对水生环境中微塑料(MP)含量及其相关生态风险的影响,选取了远离城市地区的偏远高山湖泊镜泊湖作为研究对象。本研究调查了水体、鱼类和沉积物中微塑料的丰度、类型、尺寸、颜色和聚合物组成。通过考虑包括捕鱼活动、农业活动、人口动态和植被覆盖等变量,分析了与人类活动相关的微塑料的时空分布,最终评估了微塑料污染带来的生态风险。研究结果显示,该湖泊地表水的微塑料平均丰度为(304.8±170.5)个/立方米,沉积物中的平均丰度为(162.0±57.45)个/千克。鱼类消化道内的微塑料丰度为11.4±5.4个/个体。发现镜泊湖水生环境中的微塑料污染相对较小。观察到微塑料负荷在时间和空间上的变化,微塑料主要落在小型浮游生物的尺寸范围内(50 - 1000微米)。此外,水样中微塑料最常见的颜色是白色或透明,约占微塑料总组成的55.65%。其次是黑色、红色和蓝色。从鱼类和沉积物样本中提取的微塑料的这种颜色分布是一致的。微塑料的化学成分主要包括PE(31.83%)和PS(25.48%),其次是PP(17.56%)、PA(11.84%)、PET(6.71%)、EVA(4.56%)和PC(2.03%)。在季节方面,夏季微塑料浓度最高(46.68%),其次是春季(36.75%)和秋季(16.56%)。皮尔逊相关系数证实,镜泊湖水体、鱼类和沉积物中微塑料的空间分布受人类活动显著影响。观察到微塑料水平与水质指标如铵氮(NH - N)、总磷(TP)和叶绿素 - a(Chla)之间存在强关联,表明与人类相关的污染对微塑料污染有显著贡献。使用香农 - 维纳指数对微塑料污染物的多样性评估显示,化学成分的变异性最高(1.23至1.79)。随后,颜色多样性范围为0.59至1.54,形状多样性为0.78至1.30,季节多样性为0.83至1.10,尺寸多样性为0.44至1.01。生态风险评估结果突出显示,镜泊湖地表水、鱼类和沉积物中微塑料的风险类别对于PHI和PLI为I类,对于PERI为“轻微”类。这些相对较低的风险值归因于镜泊湖流域内分布的微塑料的主要低毒性。此外,发现风险评估结果与采样断面周围当地人口分布和农业活动相互关联。沿海土地利用模式和人口密度被认为是影响湖体生态系统水体、沉积物、鱼类和其他组成部分中微塑料负荷的影响因素。

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