Potential advantage of invasive estuarine worms over native species under exposure to relevant concentrations of graphene oxide: Behavioral and biochemical insights
Maria João Figueiredo , Cátia Venâncio , Paulo Cardoso , Paula A.A.P. Marques , Etelvina Figueira , Adília Pires
{"title":"Potential advantage of invasive estuarine worms over native species under exposure to relevant concentrations of graphene oxide: Behavioral and biochemical insights","authors":"Maria João Figueiredo , Cátia Venâncio , Paulo Cardoso , Paula A.A.P. Marques , Etelvina Figueira , Adília Pires","doi":"10.1016/j.marenvres.2024.106821","DOIUrl":null,"url":null,"abstract":"<div><div>Technological development using graphene oxide (GO) has increased in the last years, leading to the release of this contaminant to final sinks, such as estuaries. Due to their potential to flocculate and deposit when interacting with high ionic strength media, GO poses a threat, especially to benthic organisms like polychaetes. In addition to chemical contamination, estuaries also face a severe threat from invasive species, which can cause irreversible damage to ecosystems. The combination of abiotic and biotic stressors may work together on native species, decreasing their resilience. Thus, this study aims to assess the effects of an abiotic stressor, GO nanosheets (0.001, 0.01, 0.1, 1, 10 mg GO/Kg dw) on <em>Hediste diversicolor</em> (native species) and <em>Arenicola marina</em> (invasive species) through several behavioral assays and biochemical markers. The impact of invasive species <em>A. marina</em> (biotic factor) on <em>H. diversicolor</em> avoidance behavior was also evaluated. Obtained results demonstrated that <em>H. diversicolor</em> fled from lower GO contamination compartments to higher ones and that exposure to increased GO concentrations negatively impacted its burrowing activity. They were unable to escape from higher contamination compartments, but at the highest concentrations, the bioturbation activity was significantly higher, which may indicate that <em>H. diversicolor</em> tended to dwell deeper in the sediment. <em>A. marina</em> showed an escape behavior from compartments with higher GO concentrations. Additionally, this species' bioturbation activity significantly decreased when exposed to GO. Moreover, avoidance tests demonstrated that the presence of <em>A. marina</em> affected the behavior of <em>H. diversicolor</em>. Regarding oxidative stress, <em>H. diversicolor</em> seems to be more impacted than <em>A. marina</em>, since Lipid peroxidation levels were higher in all GO concentrations and Superoxide dismutase activity significantly increased in the lowest GO levels. Overall, <em>H. diversicolor</em> spatial distribution may be severely constrained under abiotic and biotic stress, while <em>A. marina'</em>s higher foraging activity may promote its propagation in the estuary. Behavioral tests, combined with biochemical markers have shown to be relevant tools for the development of more environmental-realistic assessment and monitoring frameworks for estuaries.</div></div>","PeriodicalId":18204,"journal":{"name":"Marine environmental research","volume":"202 ","pages":"Article 106821"},"PeriodicalIF":3.0000,"publicationDate":"2024-11-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Marine environmental research","FirstCategoryId":"93","ListUrlMain":"https://www.sciencedirect.com/science/article/pii/S0141113624004823","RegionNum":3,"RegionCategory":"环境科学与生态学","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q2","JCRName":"ENVIRONMENTAL SCIENCES","Score":null,"Total":0}
引用次数: 0
Abstract
Technological development using graphene oxide (GO) has increased in the last years, leading to the release of this contaminant to final sinks, such as estuaries. Due to their potential to flocculate and deposit when interacting with high ionic strength media, GO poses a threat, especially to benthic organisms like polychaetes. In addition to chemical contamination, estuaries also face a severe threat from invasive species, which can cause irreversible damage to ecosystems. The combination of abiotic and biotic stressors may work together on native species, decreasing their resilience. Thus, this study aims to assess the effects of an abiotic stressor, GO nanosheets (0.001, 0.01, 0.1, 1, 10 mg GO/Kg dw) on Hediste diversicolor (native species) and Arenicola marina (invasive species) through several behavioral assays and biochemical markers. The impact of invasive species A. marina (biotic factor) on H. diversicolor avoidance behavior was also evaluated. Obtained results demonstrated that H. diversicolor fled from lower GO contamination compartments to higher ones and that exposure to increased GO concentrations negatively impacted its burrowing activity. They were unable to escape from higher contamination compartments, but at the highest concentrations, the bioturbation activity was significantly higher, which may indicate that H. diversicolor tended to dwell deeper in the sediment. A. marina showed an escape behavior from compartments with higher GO concentrations. Additionally, this species' bioturbation activity significantly decreased when exposed to GO. Moreover, avoidance tests demonstrated that the presence of A. marina affected the behavior of H. diversicolor. Regarding oxidative stress, H. diversicolor seems to be more impacted than A. marina, since Lipid peroxidation levels were higher in all GO concentrations and Superoxide dismutase activity significantly increased in the lowest GO levels. Overall, H. diversicolor spatial distribution may be severely constrained under abiotic and biotic stress, while A. marina's higher foraging activity may promote its propagation in the estuary. Behavioral tests, combined with biochemical markers have shown to be relevant tools for the development of more environmental-realistic assessment and monitoring frameworks for estuaries.
过去几年中,使用氧化石墨烯(GO)的技术不断发展,导致这种污染物被释放到河口等最终汇中。由于氧化石墨烯在与高离子强度介质相互作用时可能会絮凝和沉积,因此对底栖生物(如多毛目动物)构成威胁。除了化学污染,河口还面临着入侵物种的严重威胁,它们会对生态系统造成不可逆转的破坏。非生物压力和生物压力的结合可能会共同作用于本地物种,降低它们的恢复能力。因此,本研究旨在通过几种行为测定和生化标记来评估非生物应激源--GO 纳米片(0.001、0.01、0.1、1、10 毫克 GO/Kg dw)对 Hediste diversicolor(本地物种)和 Arenicola marina(入侵物种)的影响。还评估了入侵物种 A. marina(生物因素)对 H. diversicolor 回避行为的影响。研究结果表明,H. diversicolor 会从 GO 污染较低的区域逃往 GO 污染较高的区域,而暴露在 GO 浓度增加的环境中会对其穴居活动产生负面影响。它们无法从较高的污染区逃逸,但在最高浓度下,生物扰动活动显著增加,这可能表明 H. diversicolor 倾向于在沉积物中更深的地方栖息。A. marina 在 GO 浓度较高的区域表现出逃逸行为。此外,当暴露于 GO 时,该物种的生物扰动活动明显减少。此外,回避测试表明,A. marina 的存在影响了 H. diversicolor 的行为。在氧化应激方面,H. diversicolor 似乎比 A. marina 受到的影响更大,因为在所有 GO 浓度下,脂质过氧化水平都较高,而在最低 GO 浓度下,超氧化物歧化酶活性明显增加。总之,在非生物和生物压力下,H. diversicolor 的空间分布可能会受到严重限制,而 A. marina 较高的觅食活动可能会促进其在河口的繁殖。行为测试与生化标记相结合,已被证明是为河口制定更切合环境实际的评估和监测框架的相关工具。
期刊介绍:
Marine Environmental Research publishes original research papers on chemical, physical, and biological interactions in the oceans and coastal waters. The journal serves as a forum for new information on biology, chemistry, and toxicology and syntheses that advance understanding of marine environmental processes.
Submission of multidisciplinary studies is encouraged. Studies that utilize experimental approaches to clarify the roles of anthropogenic and natural causes of changes in marine ecosystems are especially welcome, as are those studies that represent new developments of a theoretical or conceptual aspect of marine science. All papers published in this journal are reviewed by qualified peers prior to acceptance and publication. Examples of topics considered to be appropriate for the journal include, but are not limited to, the following:
– The extent, persistence, and consequences of change and the recovery from such change in natural marine systems
– The biochemical, physiological, and ecological consequences of contaminants to marine organisms and ecosystems
– The biogeochemistry of naturally occurring and anthropogenic substances
– Models that describe and predict the above processes
– Monitoring studies, to the extent that their results provide new information on functional processes
– Methodological papers describing improved quantitative techniques for the marine sciences.