The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface

The research aimed to determine the effective radius (r*) of a trapped polystyrenemicrobead near a water-air interface and to develop a 3-dimensional piezostage control module foroptical trapping within micrometre...

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Main Author:	Muhammad Safuan Mat Yeng@Mat Zin
Format:	thesis
Language:	eng
Published:	2019
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Online Access:	https://ir.upsi.edu.my/detailsg.php?det=8690
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language	eng
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spellingShingle	Muhammad Safuan Mat Yeng@Mat Zin The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface
description	<p>The research aimed to determine the effective radius (r) of a trapped polystyrene</p><p>microbead near a water-air interface and to develop a 3-dimensional piezostage control module for</p><p>optical trapping within micrometre range. This study involved the development of a control</p><p>program so called PZStage and the determination of r near the water-air interface. PZStage was</p><p>developed on the LabVIEW platform to control laser focus location in the trapping medium. A 3 m</p><p>bead was trapped in water at several heights towards the free space in a special design test cell.</p><p>The temporal displacement data of the trapped bead was recorded by a quadrant photodiode (QPD) and</p><p>analysed by a custom made program namely OSCal to determine r. PZStage was well developed which</p><p>enabled precise laser focus control in 20 m range in three mutually orthogonal directions. The</p><p>result showed that r was constant at any focus height at fixed water thickness and laser power.</p><p>Besides, r* depended on laser power at fixed laser focus height and water thickness in the form of</p><p>exponentially decaying relation. In conclusion, PZStage was successfully developed to precisely</p><p>control laser focus toward water-air interface, and the r* was found to be dependent on laser power</p><p>rather than laser focus height within the set experimental conditions. The research implied that</p><p>the low laser power was possible for optical trapping near the water-air interface with appropriate</p><p>water thickness selection. However, consideration must be taken into account since the trap was</p><p>shifted away from the laser focus as the focus height increases due to scattering</p><p>force.</p><p></p>
format	thesis
qualification_name
qualification_level	Master's degree
author	Muhammad Safuan Mat Yeng@Mat Zin
author_facet	Muhammad Safuan Mat Yeng@Mat Zin
author_sort	Muhammad Safuan Mat Yeng@Mat Zin
title	The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface
title_short	The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface
title_full	The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface
title_fullStr	The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface
title_full_unstemmed	The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface
title_sort	determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface
granting_institution	Universiti Pendidikan Sultan Idris
granting_department	Fakulti Sains dan Matematik
publishDate	2019
url	https://ir.upsi.edu.my/detailsg.php?det=8690
_version_	1776104555496341504
spelling	oai:ir.upsi.edu.my:86902023-02-14 The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface 2019 Muhammad Safuan Mat Yeng@Mat Zin <p>The research aimed to determine the effective radius (r) of a trapped polystyrene</p><p>microbead near a water-air interface and to develop a 3-dimensional piezostage control module for</p><p>optical trapping within micrometre range. This study involved the development of a control</p><p>program so called PZStage and the determination of r near the water-air interface. PZStage was</p><p>developed on the LabVIEW platform to control laser focus location in the trapping medium. A 3 m</p><p>bead was trapped in water at several heights towards the free space in a special design test cell.</p><p>The temporal displacement data of the trapped bead was recorded by a quadrant photodiode (QPD) and</p><p>analysed by a custom made program namely OSCal to determine r. PZStage was well developed which</p><p>enabled precise laser focus control in 20 m range in three mutually orthogonal directions. The</p><p>result showed that r was constant at any focus height at fixed water thickness and laser power.</p><p>Besides, r* depended on laser power at fixed laser focus height and water thickness in the form of</p><p>exponentially decaying relation. In conclusion, PZStage was successfully developed to precisely</p><p>control laser focus toward water-air interface, and the r* was found to be dependent on laser power</p><p>rather than laser focus height within the set experimental conditions. The research implied that</p><p>the low laser power was possible for optical trapping near the water-air interface with appropriate</p><p>water thickness selection. However, consideration must be taken into account since the trap was</p><p>shifted away from the laser focus as the focus height increases due to scattering</p><p>force.</p><p></p> 2019 thesis https://ir.upsi.edu.my/detailsg.php?det=8690 https://ir.upsi.edu.my/detailsg.php?det=8690 text eng closedAccess Masters Universiti Pendidikan Sultan Idris Fakulti Sains dan Matematik <p>A. Gutirrez-Campos, R. C. (2010). Optical trapping of particles at the air / water interface for studies in Langmuir monolayers. Revista Mexicana de Fsica, 56(4), 339347.http://www.scielo.org.mx/scielo.php?pid=S0035001X2010000400012&script=sci_arttext&tlng=pt</p><p>Abidi, K., & abanovic, A. (2007). Sliding-mode control for high-precision motion of a piezostage. IEEE Transactions on Industrial Electronics, 54(1), 629637. https://doi.org/10.1109/TIE.2006.885477</p><p>Ahlawat, S., Dasgupta, R., & Gupta, P. K. (2008). Optical trapping near a colloidal cluster formed by a weakly focused laser beam. 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The determination of an effective radius of an optically trapped polystyrene microbead distribution near a water air interface

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