Effect of Aluminum Concentration in Water on Its Toxicity and Bioaccumulation in Zooplankton (Chaoborus and Chironomus) and Carp (Cyprinus carpio L.) Roe.

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC
ACS Applied Electronic Materials Pub Date : 2024-11-01 Epub Date: 2024-01-17 DOI:10.1007/s12011-024-04062-2
Magdalena Senze, Monika Kowalska-Góralska, Katarzyna Czyż
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引用次数: 0

Abstract

An attempt to evaluate aluminum toxicity to living organisms was undertaken in the study. A laboratory experiment was conducted to determine aluminum bioaccumulation and toxicity in Chironomus and Chaoborus larvae and in Cyprinus carpio L. roe depending on aluminum concentration in water reflecting natural chemical composition. Water was examined for temperature, pH, electrical conductivity, dissolved oxygen, color, nitrate nitrogen, nitrite nitrogen, sulfates by spectrophotometric method; total hardness and chlorides by titration method; and calcium, magnesium, sodium by flame atomic absorption spectrometry, total aluminum by electrothermal atomic absorption spectrometry. Determination of aluminum levels in water, roe, and zooplankton was carried out after mineralization using electrothermal atomic absorption spectrometry. Aluminum bioaccumulation factor in roe was determined with respect to concentration in water. Moreover, acute toxicity (LC50) was calculated. In the roe experiment, aluminum concentration in water at the end of the experiment was 0.0635-0.1283 mgAl∙dm-3. The lowest values were noted for the control sample and the highest for water with 0.03 mgAl∙dm-3 aluminum content. The final aluminum level in roe was, like in water, the highest in roe treated with 0.03 mgAl∙dm-3 (18.95 mgAl∙kg-1), and the lowest in roe treated with 3.00 mgAl∙dm-3 (6.96 mgAl∙kg-1). Aluminum bioaccumulation in roe was the strongest in the control. Survival rate ranged from 2.00 to 97.00%, which shows higher sensitivity of roe to aluminum concentration. LC50 value for Chaoborus was 0.6464 mgAl⋅dm-3, and for Chironomus 0.2076 mgAl⋅dm-3 indicating that Chironomus is more sensitive to aluminum toxic effects. Concentration of 3.0 mgAl∙dm-3 caused the highest mortality. Aluminum in both species at each concentration reached the highest levels after one day (24 h), 254.58 mg⋅kg-1 for Chaoborus and 3107 mg⋅kg-1 for Chironomus. After another day, aluminum levels decreased. This demonstrated the differential accumulation of aluminum depending on the species, which predisposes Chironomus as a better indicator organism. This type of research is important from the point of view of aquaculture, which is a targeted activity with a high degree of economic importance, but is also important for aquatic organisms living in natural conditions. Fish reproduction takes place in both types of waters, so all these reservoirs regardless of their source of destination should be inspected.

水中铝浓度对浮游动物(Chaoborus 和 Chironomus)和鲤鱼(Cyprinus carpio L.)狍子的毒性和生物累积的影响。
该研究试图评估铝对生物的毒性。研究人员进行了一项实验室实验,以确定铝在摇蚊和翘嘴鲌幼虫体内的生物蓄积性和毒性,以及鲤鱼子体内的生物蓄积性和毒性,这取决于水中反映自然化学成分的铝浓度。采用分光光度法检测水的温度、pH 值、电导率、溶解氧、色度、硝酸盐氮、亚硝酸盐氮、硫酸盐;采用滴定法检测总硬度和氯化物;采用火焰原子吸收光谱法检测钙、镁、钠;采用电热原子吸收光谱法检测总铝。采用电热原子吸收光谱法测定矿化后水、鱼子和浮游动物中的铝含量。根据水中铝的浓度确定了鱼子中铝的生物累积系数。此外,还计算了急性毒性(LC50)。在狍子实验中,实验结束时水中的铝浓度为 0.0635-0.1283 mgAl∙dm-3。对照样品的铝含量最低,而含 0.03 毫克铝的水的铝含量最高。狍子体内的最终铝含量与水中的铝含量一样,用 0.03 mgAl∙dm-3 处理的狍子体内的铝含量最高(18.95 mgAl∙kg-1),而用 3.00 mgAl∙dm-3 处理的狍子体内的铝含量最低(6.96 mgAl∙kg-1)。对照组中狍子的铝生物蓄积性最强。存活率在 2.00% 到 97.00% 之间,这表明狍子对铝浓度的敏感性较高。Chaoborus的半数致死浓度为0.6464 mgAl⋅dm-3,摇蚊的半数致死浓度为0.2076 mgAl⋅dm-3,这表明摇蚊对铝的毒性更敏感。3.0 mgAl∙dm-3 浓度造成的死亡率最高。一天(24 小时)后,两种鱼在各浓度下的铝含量均达到最高值,翘嘴鱼为 254.58 毫克-千克-1,摇蚊为 3107 毫克-千克-1。又过了一天,铝含量有所下降。这表明铝的积累因物种而异,摇蚊是更好的指示生物。从水产养殖的角度来看,这类研究非常重要,因为水产养殖是一项具有高度经济重要性的目标活动,但对生活在自然条件下的水生生物也很重要。鱼类的繁殖在这两种水域中都会发生,因此所有这些水库,无论其来源地如何,都应进行检查。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
7.20
自引率
4.30%
发文量
567
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