OPTICAL TRAPPING OF A SINGLE CHLOROFORM MICRODROPLET IN WATER

IF 0.6 Q3 ENGINEERING, MULTIDISCIPLINARY Jurnal Teknologi-Sciences & Engineering Pub Date : 2023-04-19 DOI:10.11113/jurnalteknologi.v85.19303
Muhamad Safuan Mat Yeng, S. K. Ayop, K. Sasaki
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Abstract

The study aims to optically trap a single chloroform (CHCl3) microdroplet in water using optical tweezers. The study also investigates the effect of the preparation procedure by sonication on the chloroform microdroplet size and its stability in water. This microdroplet can potentially act as a carrier containing active molecules and for sensor applications in a fluid. The chloroform is sonicated in deionized water to produce a chloroform microdroplet solution. The size of the resultant microdroplets is observed under the optical microscope. The stability of the chloroform microdroplets in water was studied by monitoring the absorption spectra within a specified duration of time for 1 hour. A single chloroform microdroplet in the water is trapped using a 976 nm continuous laser beam with optical tweezers. The finding shows that the average size of the produced chloroform microdroplets does not vary significantly when the sonication time is less than 10 minutes. Furthermore, Chloroform microdroplets in water were stable within an hour of monitoring time. This study confirmed that a single chloroform microdroplet could be stably trapped using optical tweezers. It implies that the chloroform can form stable microdroplets in water and can be optically trapped under a focused laser.
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水中单个三氯甲烷微滴的光学捕获
该研究旨在使用光学镊子在水中光学捕获单个氯仿(CHCl3)微滴。研究了超声制备工艺对氯仿微滴粒径及其在水中稳定性的影响。这种微液滴可以潜在地作为含有活性分子的载体,并用于流体中的传感器应用。氯仿在去离子水中超声产生氯仿微滴溶液。在光学显微镜下观察所得微滴的大小。通过监测氯仿微滴在水中1小时内的吸收光谱,研究了其在水中的稳定性。使用带有光学镊子的976 nm连续激光束捕获水中的单个氯仿微滴。结果表明,当超声时间小于10分钟时,制备的氯仿微滴的平均大小变化不明显。此外,水中氯仿微滴在1小时的监测时间内是稳定的。本研究证实了利用光镊可以稳定地捕获单个氯仿微滴。这意味着氯仿可以在水中形成稳定的微滴,并且可以在聚焦激光下被光学捕获。
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来源期刊
Jurnal Teknologi-Sciences & Engineering
Jurnal Teknologi-Sciences & Engineering ENGINEERING, MULTIDISCIPLINARY-
CiteScore
1.30
自引率
0.00%
发文量
96
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