Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/90624
標題: Fatty-Acid-Based Supramolecular Microextraction for the Rapid Determination of UV-filters and Polycyclic Aromatic Hydrocarbons in Aqueous Samples by HPLC-UV
以脂肪酸超分子微萃取法結合HPLC-UV快速分析水樣中紫外光吸收劑及多環芳香烴含量
作者: 姜盈如
Yin-Ru Jiang
關鍵字: Supramolecular microextraction
Fatty-acid
UV-filters
Polycyclic aromatic hydrocarbons
HPLC-UV
超分子微萃取
脂肪酸
紫外光吸收劑
多環芳香烴
高效液相層析儀-紫外光偵測器
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摘要: In this study, a fatty-acid-based supramolecular microextraction (FA-SMME) was applied for the extraction of UV-filters and polycyclic aromatic hydrocarbons (PAHs) from aqueous samples. With the surfactant characteristic, fatty acid salt self-congregates in aqueous sample to form micelles encompassing hydrophobic analytes. When the solution pH is adjusted to lower than its pKa, the neutral hydrophobic fatty acid is formed and extracted analytes from the aqueous phase. A home-made glass extraction barrel inbuilt with a scaled capillary tube was utilized as the FA-SMME device to collect and measure the extractant from 5-mL aqueous sample solution. Parameters affecting the extraction were thoroughly optimized. For extracting UV-filters, 500 μL of 10% sodium heptanoate solution was added into a 8-mL extraction barrel filled with 5 mL sample solution, after shaking for 10 sec, 0.1% of NaCl and 600 μL of H2SO4 were added and shaked for 10 sec to form the insoluble heptanoic acid. The cloudy solution was centrifuged at 1100 rpm for 1 min, then the extractant was push into scaled capillary tube and 20 μL was collected for HPLC analysis. Under these conditions, the detection was linear ranged in 5-1000 ng/mL for 4-MBC, 2.5-500 ng/mL for BP, HMB, OS and HMS with relative standard derivation (RSD) below 7.4%. Detection limits were in 0.5-1 ng/mL, and quantitative limits were in 2-4 ng/mL. Recoveries were from 93.5 % to 106.4 % with RSDs less than 5.7%. For PAHs extraction, 500 μL of 10% sodium heptanoate solution and 500 μL of H2SO4 were used in the FA-SMME with other conditions as for UV-filters. Under the selected conditions, the detections were linear ranged in 10-2000 ng/mL for Nap and AcPy, 4-800 ng/mL for Flu, FluA and Pyr with RSD below 5.0%. Detection limits were in 0.6-1 ng/mL and quantitative limits were in 2-5 ng/mL. Recoveries were from 86.7% to 109.6% with RSDs less than 4.8%. The present FA-SMME method was proven to be a simple, rapid, low-cost and eco-friendly sample preparation process to extract UV-filters and PAHs in aqueous samples.
本研究利用有機酸鹽在水中自組裝特性開發超分子微萃取前處理技術,萃取水中多環芳香烴(naphthalene, acenaphthylene, fluorene, fluoranthene, 與pyrene)及紫外光吸收劑(Benzophenone, 4-Methylbenzylidene camphor, 2-Hydroxy-4-methoxybenzophenone, Octyl salicylate, 與Homosalate),搭配液相層析-紫外線偵測器分析測定。 研究中以脂肪酸鹽(庚酸鈉)在水中自形成屬超分子的微胞特性,將待測物包埋在超分子微胞中。當樣品溶液的pH值調降至其pKa以下時,超分子的微胞崩解,脂肪酸鹽回復為分子態的脂肪酸,待測物則被萃取於與水層分離的脂肪酸相。離心分離後,取上層的脂肪酸相注入HPLC-UV分析測定。 為求得此方法的最佳萃取條件,分別對脂肪酸鈉的用量,硫酸的體積,鹽類添加量及離心轉速進行探討。研究結果顯示,對紫外光吸收劑而言,在5 mL水樣中加入500 μL 10 %庚酸鈉,混合均勻後,加入600 μL的硫酸及0.1 %的NaCl,經轉速1100 rpm離心分離後採樣進HPLC分析,可得最佳的萃取效果。在最佳條件下分析五種紫外光吸收劑,其線性範圍介於 2.5-1000 ng/mL,線性相關係數高於0.9952,偵測極限介於 0.5-1 ng/mL,定量極限介於2-4 ng/mL,RSD 低於 7.4 %。將本方法應用在真實樣品中回收率為93.5-106.4%。 對多環芳香烴而言,在5 mL水樣中加入700 μL 10 %庚酸鈉,混合均勻後,加入500 μL的硫酸及0.1 %的NaCl,經轉速1100 rpm離心分離後採樣進HPLC分析,可得最佳的萃取效果。在最佳條件下分析五種多環芳香烴,其線性範圍介於 4-2000 ng/mL,線性相關係數高於 0.9950,偵測極限介於 0.6-1 ng/mL,定量極限介於2-5 ng/mL,RSD低於5.0 %。將本方法應用在真實樣品中回收率為86.7-109.6%。 本開發方法整個萃取過程少於5分鐘,僅使用極少量的脂肪酸鹽及常見的酸進行萃取,所使用之材料皆不會造成環境負擔,為一操作簡單、方便、快速、高萃取效率,兼具環保的綠色化學分析樣品前處理方法。
URI: http://hdl.handle.net/11455/90624
文章公開時間: 2018-08-17
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