Observation of One-Dimensional Optical Soliton in a Non-rest Frame

碩士 === 國立臺灣大學 === 物理研究所 === 100 === Using light to control the fluid flow is a very interesting issue. In this dissertation, we want to simplify this issue. First, the fluid flow can be treated as a non-rest frame. Second, The response of light-controlled fluid flow is noninstantaneous. Final, we wa...

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Main Authors: Bin-Wei Wang, 王彬維
Other Authors: Shih, Ming-Feng
Format: Others
Language:en_US
Published: 2012
Online Access:http://ndltd.ncl.edu.tw/handle/52493701893557569051
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spelling ndltd-TW-100NTU051980462015-10-13T21:50:18Z http://ndltd.ncl.edu.tw/handle/52493701893557569051 Observation of One-Dimensional Optical Soliton in a Non-rest Frame 一維光孤子在非靜止座標系中之實驗觀察 Bin-Wei Wang 王彬維 碩士 國立臺灣大學 物理研究所 100 Using light to control the fluid flow is a very interesting issue. In this dissertation, we want to simplify this issue. First, the fluid flow can be treated as a non-rest frame. Second, The response of light-controlled fluid flow is noninstantaneous. Final, we want to use low optical power to control fluid flow in the future. For these reasons, we can observe the low optical power soliton in a laterally shifting noninstantaneous photorefractive crystal to simulate the controlling of the refractive index and soliton stability in the fluid flow. As a result, we present the experimental observation of optical soliton in a non-rest frame in this dissertation. We use the photorefractive crystal on linear stage to be a non-rest frame, and move the linear stage with a laterally shifting speed. After that, we observe the behavior of solitons versus different lateral shift speed of the crystal. We find there are three phase with different velocity region in this observation. Finally, we attempt to explain these results. Shih, Ming-Feng 石明豐 2012 學位論文 ; thesis 28 en_US
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description 碩士 === 國立臺灣大學 === 物理研究所 === 100 === Using light to control the fluid flow is a very interesting issue. In this dissertation, we want to simplify this issue. First, the fluid flow can be treated as a non-rest frame. Second, The response of light-controlled fluid flow is noninstantaneous. Final, we want to use low optical power to control fluid flow in the future. For these reasons, we can observe the low optical power soliton in a laterally shifting noninstantaneous photorefractive crystal to simulate the controlling of the refractive index and soliton stability in the fluid flow. As a result, we present the experimental observation of optical soliton in a non-rest frame in this dissertation. We use the photorefractive crystal on linear stage to be a non-rest frame, and move the linear stage with a laterally shifting speed. After that, we observe the behavior of solitons versus different lateral shift speed of the crystal. We find there are three phase with different velocity region in this observation. Finally, we attempt to explain these results.
author2 Shih, Ming-Feng
author_facet Shih, Ming-Feng
Bin-Wei Wang
王彬維
author Bin-Wei Wang
王彬維
spellingShingle Bin-Wei Wang
王彬維
Observation of One-Dimensional Optical Soliton in a Non-rest Frame
author_sort Bin-Wei Wang
title Observation of One-Dimensional Optical Soliton in a Non-rest Frame
title_short Observation of One-Dimensional Optical Soliton in a Non-rest Frame
title_full Observation of One-Dimensional Optical Soliton in a Non-rest Frame
title_fullStr Observation of One-Dimensional Optical Soliton in a Non-rest Frame
title_full_unstemmed Observation of One-Dimensional Optical Soliton in a Non-rest Frame
title_sort observation of one-dimensional optical soliton in a non-rest frame
publishDate 2012
url http://ndltd.ncl.edu.tw/handle/52493701893557569051
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