Optimization of Adsorption and Desorption Time in the Extraction of Volatile Compounds in Brewed Java Arabica Coffee Using the HS-SPME/GC-MS Technique

Lidwina Angelica Soetantijo, Hendrik Oktendy Lintang, Mitha Ayu Pratama Handojo, T. H. Brotosudarmo
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引用次数: 1

Abstract

The headspace solid phase microextraction (HS-SPME) technique has been recognized as a reliable technique for characterizing the aroma profile of Arabica coffee beans. The amount and content of the detected volatile compounds depend on the volatile analyte extraction process with HS-SPME, namely the adsorption and desorption processes. However, the optimal extraction time in applying coffee volatile compounds is still limited. This research aimed to obtain the optimum adsorption and desorption time in analyzing volatile compounds in brewed Java Arabica coffee. The adsorption time was optimized for 20 to 60 minutes with 5 minutes desorption time. The desorption time was optimized from 5 to 45 minutes with a 20 minutes of adsorption time. There are 14 volatile compounds with a peak area percentage of more than 2% from adsorption and desorption optimization. The optimal adsorption time was 50 minutes, where there were 5 of 7 compounds with the most significant area, such as 2-furfural (29%), 2-acetyl furan (3%), 2-furfuryl acetate (6%), 5-methyl furfural (12%), and 2-furfuryl alcohol (14%). Meanwhile, the most optimal desorption time was 5 minutes which detected 12 compounds, while the other desorption time only detected eight compounds. Furfuryl formate (2%), pyridine (12%), and 2-furfuryl alcohol (14%) had a higher peak area than the other compounds at a desorption time of 5 minutes. The results showed the same number of volatile compounds at each adsorption time. In conclusion, the adsorption time did not affect the number of compounds detected as in the optimization of desorption time. Adsorption and desorption time is crucial in analyzing volatile compounds from coffee using the HS-SPME/GC-MS technique.
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HS-SPME/GC-MS技术优化Java Arabica咖啡中挥发性物质的吸附和解吸时间
顶空固相微萃取(HS-SPME)技术已被认为是表征阿拉比卡咖啡豆香气特征的可靠技术。检测到的挥发性化合物的量和含量取决于HS-SPME的挥发性分析物提取过程,即吸附和解吸过程。然而,应用咖啡挥发性化合物的最佳提取时间仍然有限。本研究旨在获得分析酿造的爪哇阿拉比卡咖啡中挥发性化合物的最佳吸附和解吸时间。吸附时间优化为20至60分钟,解吸时间为5分钟。解吸时间优化为5至45分钟,吸附时间为20分钟。通过吸附和解吸优化,有14种挥发性化合物的峰面积百分比超过2%。最佳吸附时间为50分钟,其中7种化合物中有5种具有最显著的面积,如2-糠醛(29%)、2-乙酰基呋喃(3%)、2-乙酸糠酯(6%)、5-甲基糠醛(12%)和2-糠醇(14%)。同时,最适解吸时间为5分钟,共检测到12种化合物,而其他解吸时间仅检测到8种化合物。在5分钟的解吸时间,甲酸糠酯(2%)、吡啶(12%)和2-糠醇(14%)具有比其他化合物更高的峰面积。结果表明,在每个吸附时间都有相同数量的挥发性化合物。总之,吸附时间不会像解吸时间的优化那样影响检测到的化合物数量。在使用HS-SPME/GC-MS技术分析咖啡中的挥发性化合物时,吸附和解吸时间至关重要。
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发文量
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审稿时长
17 weeks
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