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日本海东南部表层水中的多环芳烃

Polycyclic Aromatic Hydrocarbons in Surface Water of the Southeastern Japan Sea.

作者信息

Hayakawa Kazuichi, Makino Fumiya, Yasuma Mari, Yoshida Shota, Chondo Yvonne, Toriba Akira, Kameda Takayuki, Tang Ning, Kunugi Masayuki, Nakase Hisatoshi, Kinoshita Chihiro, Kawanishi Takuya, Zhou Zhijun, Qing Wu, Mishukov Vassily, Tishchenko Pavel, Lobanov Vyacheslav B, Chizhova Tatiana, Koudryashova Yulia

机构信息

Institute of Medical, Pharmaceutical and Health Sciences, Kanazawa University.

出版信息

Chem Pharm Bull (Tokyo). 2016;64(6):625-31. doi: 10.1248/cpb.c16-00063.

Abstract

Surface water samples were collected at 15 sampling sites in the southeastern Japan Sea along the Japanese Archipelago for analysis of polycyclic aromatic hydrocarbons (PAHs). Water samples were fractionated by filtration through a glass fiber membrane (pore size 0.5 µm) and analyzed by high-performance liquid chromatography with fluorescence detection. Thirteen PAHs having 3 to 6 rings were found in the dissolved phase (DP) and 12 were found in the particulate phase (PP). The total (DP+PP) PAH concentration ranged from 6.83 to 13.81 ng/L with the mean±standard deviation (S.D.) concentration of 9.36±1.92 ng/L. The mean±S.D. PAH concentration in the DP and PP was 5.99±1.80 and 3.38±0.65 ng/L, respectively. Three-ring PAHs predominated in the DP, while the proportion of 4-ring PAHs was higher in the PP. The mean total PAH concentration in the southeastern Japan Sea was higher than the concentration in the northwestern Japan Sea (8.5 ng/L). The Tsushima Current, which originates from the East China Sea with higher PAH concentration, is considered to be responsible for this higher concentration.

摘要

在日本列岛沿岸的日本海东南部15个采样点采集地表水样本,用于分析多环芳烃(PAHs)。水样通过玻璃纤维膜(孔径0.5 µm)过滤进行分离,并采用高效液相色谱荧光检测法进行分析。在溶解相(DP)中发现了13种具有3至6个环的多环芳烃,在颗粒相(PP)中发现了12种。总(DP + PP)多环芳烃浓度范围为6.83至13.81 ng/L,平均±标准差(S.D.)浓度为9.36±1.92 ng/L。DP和PP中的平均±S.D.多环芳烃浓度分别为5.99±1.80和3.38±0.65 ng/L。三环多环芳烃在DP中占主导地位,而四环多环芳烃在PP中的比例更高。日本海东南部的平均总多环芳烃浓度高于日本海西北部的浓度(8.5 ng/L)。源自PAH浓度较高的东海的对马暖流被认为是造成这种较高浓度的原因。

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