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        <formatdesc>Zip folder containing data contained in figures 2, 3 and 4 of the associated publication.</formatdesc>
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        <name>
          <family>Rowe</family>
          <given>Will</given>
        </name>
        <id>W.R.Rowe@bath.ac.uk</id>
        <orcid>0000-0001-7036-5441</orcid>
        <affiliation>University of Bath</affiliation>
        <contact>TRUE</contact>
      </item>
      <item>
        <name>
          <family>Gorbach</family>
          <given>Andriy</given>
        </name>
        <id>A.Gorbach@bath.ac.uk</id>
        <orcid>0000-0002-6743-5530</orcid>
        <affiliation>University of Bath</affiliation>
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        <name>
          <family>Gorbach</family>
          <given>Andriy</given>
        </name>
        <id>A.Gorbach@bath.ac.uk</id>
        <orcid>0000-0002-6743-5530</orcid>
        <affiliation>University of Bath</affiliation>
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          <family>Skryabin</family>
          <given>Dmitry</given>
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        <id>D.V.Skryabin@bath.ac.uk</id>
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        <affiliation>University of Bath</affiliation>
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    </contributors>
    <title>Dataset for &quot;Temporal quadratic solitons and their interaction with dispersive waves in Lithium Niobate nano-waveguides&quot;</title>
    <subjects>
      <item>HH0030</item>
      <item>HH0040</item>
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      <item>dept_physics</item>
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    <note>The data is organised into folders for each figure and subfigure panel.
The data is given in &quot;.csv&quot; format with each data column labelled with units where appropriate.

Data for figures 2, 3 and 4 are given.

The data for figure 1 is omitted as it is simple to reproduce from the explanation in the associated publication.</note>
    <abstract>This dataset includes simulated effective refractive index and dispersion data for two examples of Lithium Niobate nanowaveguides and XFROG spectrogram data from simulated propagation of different nonlinear pulses in those two example waveguides.
The refractive index data was collected by simulating the waveguides in COMSOL multiphysics (5.3a), a commercial eigenmode solver. The dispersion data was produced by processing the refractive index data (as described in the associated publication). The XFROG spectrogram data was produced by simulating the propagation of pulses in the two waveguides using the well known Split-step Fourier method. The method by which the XFROG spectrograms is briefly explained in the associated publication. 

The associated publication is open access.</abstract>
    <date>2019-12-03</date>
    <publisher>University of Bath</publisher>
    <full_text_status>public</full_text_status>
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        <funder_name>Engineering and Physical Sciences Research Council</funder_name>
        <funder_id>https://doi.org/10.13039/501100000266</funder_id>
        <grant_id>EP/L015544/1</grant_id>
        <project_name>EPSRC Centre for Doctoral Training in Condensed Matter Physics</project_name>
      </item>
    </funding>
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    <collection_method>The data collection methods are described in detail in the associated publication which is open access.</collection_method>
    <language>en</language>
    <version>1</version>
    <doi>10.15125/BATH-00710</doi>
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        <link>https://doi.org/10.1103/PhysRevResearch.1.033146</link>
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