Flinders Institute for NanoScale Science and Technology, College of Science and Engineering, Flinders University, GPO Box 2100, Adelaide, SA, 5001, Australia.
Flinders Institute for NanoScale Science and Technology, College of Science and Engineering, Flinders University, GPO Box 2100, Adelaide, SA, 5001, Australia; ARC Training Centre for Biofilm Research and Innovation, Flinders University, Bedford Park, SA 5042, Australia.
Environ Pollut. 2023 Mar 15;321:121156. doi: 10.1016/j.envpol.2023.121156. Epub 2023 Jan 26.
Contamination from plastic debris is omnipresent in marine environments, posing a substantial risk to marine organisms, food webs and the ecosystem. The overlap between the size range of marine plastic pollution with prey means that plastics are readily available for consumption by organisms at all trophic levels. Large plastic debris can directly result in the death of larger marine organisms, through entanglement, strangulation, choking and starvation through a false sense of satiation. Whereas smaller plastic debris, such as micro- and nano-plastics can have adverse impact to marine organisms due to their large surface area to volume ratio and their ability to translocate within an organism. Various physiological processes are reported to be impacted by these small contaminants, such as feeding behaviour, reproductive outputs, developmental anomalies, changes in gene expression, tissue inflammation and the inhibition of growth and development to both adults and their offspring. Micro- and nano-plastics are still relatively poorly understood and are considered a hidden threat. Plastic is a complex contaminant due to the diversity in sizes, shapes, polymer compositions, and chemical additives. These factors can each have unique and species-specific impacts. Consumption of plastics can occur directly, through ingestion and indirectly, through trophic transfer, entanglement of prey, adherence of plastics to external surfaces, and adherence of organisms to the external surfaces of plastics. This review investigated the intrusion of plastics into the marine food web and the subsequent consequences of plastic pollution to marine biota.The objective of this review was to identify the complexity of impacts to marine organisms through the food web from plastic contamination. Through a concise analysis of the available literature the review has shown that plastic pollution and their associated additives can adversely impact environmental and biological health.
塑料碎片的污染在海洋环境中无处不在,对海洋生物、食物网和生态系统构成了巨大的风险。海洋塑料污染的大小范围与猎物重叠,这意味着塑料很容易被所有营养级别的生物食用。大型塑料碎片可能会直接导致较大的海洋生物死亡,因为它们可能会被缠绕、勒死、窒息,或者因为虚假的饱腹感而导致饥饿。而较小的塑料碎片,如微塑料和纳米塑料,由于其较大的表面积与体积比,以及它们在生物体内部迁移的能力,可能会对海洋生物产生不利影响。据报道,各种生理过程都会受到这些小污染物的影响,例如摄食行为、生殖产出、发育异常、基因表达变化、组织炎症以及对成年生物及其后代的生长和发育的抑制。微塑料和纳米塑料仍然相对不太被理解,被认为是一种隐藏的威胁。塑料是一种复杂的污染物,因为其大小、形状、聚合物组成和化学添加剂的多样性。这些因素都可能对特定物种产生独特的影响。塑料的摄入可能是直接的,通过摄食,也可能是间接的,通过食物链传递、猎物缠绕、塑料附着在外部表面,以及生物附着在塑料的外部表面。本综述研究了塑料进入海洋食物网的情况,以及随后对海洋生物群的塑料污染后果。本综述的目的是确定通过食物网从塑料污染中对海洋生物造成的影响的复杂性。通过对现有文献的简要分析,综述表明塑料污染及其相关添加剂会对环境和生物健康产生不利影响。
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