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          <family>Rowe</family>
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    <title>Dataset for &quot;Soliton dynamics in lithium niobate nano-waveguides&quot;</title>
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    <note>The thesis &quot;Soliton dynamics in lithium niobate nano-waveguides&quot; contains three research chapters with the majority of their content copied verbatim from three publications. These publications have their own archived datasets and so the majority of the research data from the thesis is contained within those pre-existing datasets. This dataset provides research data  for parts of the thesis that were not contained within those three publications and is therefore missing from the pre-existing datasets. Links to the three pre-existing datasets can be found in the &apos;Related datasets and code&apos; section of this dataset.</note>
    <abstract>This dataset contains simulated data and data from analytic predictions of soliton propagation in lithium niobate nano-waveguides. The data is grouped into four folders: two of these contain animations of simulated soliton and pulse propagation, the other two contain simulated and predicted data for soliton propagation under the influence of the Raman effect. These data are provided to aid the understanding of thesis and are in addition to other datasets produced for the publication of the work previously (see documentation section for more info).</abstract>
    <date>2022-03-08</date>
    <publisher>University of Bath</publisher>
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        <project_name>EPSRC Centre for Doctoral Training in Condensed Matter Physics</project_name>
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    <collection_method>The simulation data contained within this archive were produced by numerical simulation of pulse propagation in lithium niobate nano-waveguides. This simulation was done using the well known split-step Fourier method. The visualisation of the results shown for figures 4-4 and 4-5 are produced by the commonly used XFROG (cross-correlation frequency resolved optical gating) spectrogram in which both spectral and temporal features of the simulation can be observed at once. Simulation data for figures 5-7 and 5-8 are given in both the time and frequency domains and predictions are made using the theory we have developed for self-frequency shift in two-component solitons. 

All these methods are explained in more detail in the thesis to which this dataset is associated.</collection_method>
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