

FOLLOWUS
1.Engineering Research Center of Shellfish Culture and Breeding of Liaoning Province, Dalian Ocean University, Dalian 116023, China
2.Ecological Monitoring and Evaluation Division, Wuhan SINOECO Ecological Science & Technology Co. Ltd., Wuhan 430080, China
YANG Feng, yangfeng@dlou.edu.cn
YAN Xiwu, yanxiwu@dlou.edu.cn
收稿:2018-09-29,
录用:2018-11-30,
网络首发:2019-03-19,
纸质出版:2020-01
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Impact of seawater acidification on shell property of the Manila clam
Hongmei YUAN, Xian XU, Feng YANG, et al. Impact of seawater acidification on shell property of the Manila clam
Impact of seawater acidification on shell property of the Manila clam
Hongmei YUAN, Xian XU, Feng YANG, et al. Impact of seawater acidification on shell property of the Manila clam
Although the impact of ocean acidification on marine bivalves has been previously investigated under mainly controlled laboratory conditions
it is still unclear whether the impact of acidification on sediment-burrowing species differs between those within or without sediment. In order to fill this gap in our knowledge
we compared shell properties of the infaunal Manila clam (
Ruditapes philippinarum
) exposed to three pH concentrations (7.4
7.7
and 8.0)
within and without sediments. In the first experiment (140 d)
clams were exposed to seawater in an acidification system without sediment. A decrease in shell weight corresponding to the increase in dissolution rate was observed in the group of pH 7.4
at which shell color disappeared or whitened. SEM observations confirmed the changes of the external shell surface. In the second experiment (170 d)
sediment was placed at the bottom of each exposure chamber. The effects were found obvious in shell dissolution rate and shell color in the shell specimens exposed to overlying seawater but not found in the shell specimens exposed to sediment. Although the experimental period was longer in the second experiment
shell specimens in the first experiment were more seriously damaged than those in the second experiment under acidic seawater conditions. Our results
in relation to the defense function of the shell
show that marine bivalves in burrowing behavior are more adaptable to seawater acidification than those who do not burrow into sediment.
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