Optical trapping and manipulation of a single calix[4] arene microcluster in water
<p>This research aimed to optically trap and manipulate a single calix[4]arene</p><p>microcluster in water. The optically trapped microclusters were evaluated in terms of</p><p>their optical stiffness and rotatability with respect...
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QC Physics Nur Izzati Mahadi Optical trapping and manipulation of a single calix[4] arene microcluster in water |
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<p>This research aimed to optically trap and manipulate a single calix[4]arene</p><p>microcluster in water. The optically trapped microclusters were evaluated in terms of</p><p>their optical stiffness and rotatability with respect to the variation of microclusters'</p><p>effective radius and laser power density. The calixarene microclusters contained</p><p>solution was prepared by sonicating a vial containing a mixture of 1.7 mg of</p><p>calix[4]arene powder in 1 ml of deionised water for three minutes. Calix[4]arene</p><p>microclusters in the effective radius range between 0.5 and 3.5 m were optically</p><p>trapped using a 976 nm laser at laser power densities between 0.67 and 2.30 MW/cm2</p><p>with laser sport size 1.1 m. A quadrant photodiode (QPD) collected the scattered</p><p>light from a single trapped microcluster. The QPD signal was analysed using a</p><p>custom-made program named OSCal to determine the corner frequency of the optical</p><p>trap. A quarter waveplate was introduced to the laser path to change the laser</p><p>polarisation state and induce microcluster rotation. The rotatability of the trapped</p><p>microcluster was determined by analysing the QPD signal and particle tracking</p><p>method. Results showed that as the laser power density increases, the corner</p><p>frequency of the trapped microcluster also increases. Furthermore, the trapped</p><p>microcluster rotated faster as the laser power density increased regardless of the</p><p>microcluster's effective radius. To conclude, calix[4]arene in the form of a</p><p>microcluster can be optically trapped and respond to the circularly polarised light. The</p><p>strength of the optical stiffness and the magnitude of the rotatability of a trapped</p><p>calix[4]arene microcluster depend on the laser power density. This research implies</p><p>the broadening potential of light-manipulated calix[4]arene as a microprobe or</p><p>microactuator in a liquid.</p> |
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Nur Izzati Mahadi |
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Nur Izzati Mahadi |
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Nur Izzati Mahadi |
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Optical trapping and manipulation of a single calix[4] arene microcluster in water |
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Optical trapping and manipulation of a single calix[4] arene microcluster in water |
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Optical trapping and manipulation of a single calix[4] arene microcluster in water |
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Optical trapping and manipulation of a single calix[4] arene microcluster in water |
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Optical trapping and manipulation of a single calix[4] arene microcluster in water |
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optical trapping and manipulation of a single calix[4] arene microcluster in water |
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Universiti Pendidikan Sultan Idris |
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Fakulti Sains dan Matematik |
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2022 |
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oai:ir.upsi.edu.my:97862024-01-08 Optical trapping and manipulation of a single calix[4] arene microcluster in water 2022 Nur Izzati Mahadi QC Physics <p>This research aimed to optically trap and manipulate a single calix[4]arene</p><p>microcluster in water. The optically trapped microclusters were evaluated in terms of</p><p>their optical stiffness and rotatability with respect to the variation of microclusters'</p><p>effective radius and laser power density. The calixarene microclusters contained</p><p>solution was prepared by sonicating a vial containing a mixture of 1.7 mg of</p><p>calix[4]arene powder in 1 ml of deionised water for three minutes. Calix[4]arene</p><p>microclusters in the effective radius range between 0.5 and 3.5 m were optically</p><p>trapped using a 976 nm laser at laser power densities between 0.67 and 2.30 MW/cm2</p><p>with laser sport size 1.1 m. A quadrant photodiode (QPD) collected the scattered</p><p>light from a single trapped microcluster. The QPD signal was analysed using a</p><p>custom-made program named OSCal to determine the corner frequency of the optical</p><p>trap. A quarter waveplate was introduced to the laser path to change the laser</p><p>polarisation state and induce microcluster rotation. The rotatability of the trapped</p><p>microcluster was determined by analysing the QPD signal and particle tracking</p><p>method. Results showed that as the laser power density increases, the corner</p><p>frequency of the trapped microcluster also increases. Furthermore, the trapped</p><p>microcluster rotated faster as the laser power density increased regardless of the</p><p>microcluster's effective radius. To conclude, calix[4]arene in the form of a</p><p>microcluster can be optically trapped and respond to the circularly polarised light. The</p><p>strength of the optical stiffness and the magnitude of the rotatability of a trapped</p><p>calix[4]arene microcluster depend on the laser power density. This research implies</p><p>the broadening potential of light-manipulated calix[4]arene as a microprobe or</p><p>microactuator in a liquid.</p> 2022 thesis https://ir.upsi.edu.my/detailsg.php?det=9786 https://ir.upsi.edu.my/detailsg.php?det=9786 text eng closedAccess Masters Universiti Pendidikan Sultan Idris Fakulti Sains dan Matematik <p>Agayan, R. R., Horvath, T., McNaughton, B. H., Anker, J. N., & Kopelman, R. (2004). Optical manipulation of metal-silica hybrid nanoparticles. In K. Dholakia & G. C. Spalding (Eds.), Optical Trapping and Optical Micromanipulation (Vol. 5514, p. 502). SPIE.</p><p>Agrawal, R., Smart, T., Nobre-Cardoso, J., Richards, C., Bhatnagar, R., Tufail, A., Shima, D., H. Jones, P., & Pavesio, C. (2016). Assessment of red blood cell deformability in type 2 diabetes mellitus and diabetic retinopathy by dual optical tweezers stretching technique. Scientific Reports, 6(1), 15873.</p><p>An, L., Wang, C., Han, L., Liu, J., Huang, T., Zheng, Y., Yan, C., & Sun, J. 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