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        <formatdesc>DFT calculation inputs and output, and analysis code to support the computational results in &quot;Atomic Insights into Aluminium-Ion Insertion in Defective Anatase for Batteries&quot; by Legein et al. DOI: 10.1002/anie.202007983.</formatdesc>
        <language>en</language>
        <security>public</security>
        <license>cc_by</license>
        <main>Al_F_OH_TiO2.zip</main>
        <content>data</content>
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    <eprint_status>archive</eprint_status>
    <userid>5745</userid>
    <dir>disk0/00/00/08/15</dir>
    <datestamp>2020-12-07 11:22:08</datestamp>
    <lastmod>2024-07-15 10:59:27</lastmod>
    <status_changed>2020-12-07 11:22:08</status_changed>
    <type>data_collection</type>
    <metadata_visibility>show</metadata_visibility>
    <creators>
      <item>
        <name>
          <family>Morgan</family>
          <given>Benjamin</given>
        </name>
        <id>B.J.Morgan@bath.ac.uk</id>
        <orcid>0000-0002-3056-8233</orcid>
        <affiliation>University of Bath</affiliation>
        <contact>FALSE</contact>
      </item>
    </creators>
    <title>Computational Supporting Dataset: Atomic Insights into Aluminium-Ion Insertion in Defective Hydroxyfluorinated Anatase for Batteries</title>
    <subjects>
      <item>ED0080</item>
    </subjects>
    <divisions>
      <item>dept_chem</item>
    </divisions>
    <keywords>Polyvalent Ion Batteries, Solid-State NMR</keywords>
    <abstract>This dataset contains DFT calculation inputs and outputs and analysis codes for calculations of Al intercalation into (OH,F)-substituted anatase TiO2. More details on these calculations and analysis are given in the paper by Legein et al., &quot;Atomic Insights into Aluminium-Ion Insertion in Defective Anatase for Batteries&quot;.</abstract>
    <date>2020-07-10</date>
    <publisher>University of Bath</publisher>
    <full_text_status>public</full_text_status>
    <corp_contributors>
      <item>
        <type>RightsHolder</type>
        <corpname>University of Bath</corpname>
      </item>
    </corp_contributors>
    <funding>
      <item>
        <funder_name>Royal Society</funder_name>
        <funder_id>https://doi.org/10.13039/501100000288</funder_id>
        <grant_id>UF130329</grant_id>
        <project_name>Dr B Morgan URF - Modelling Collective Lithium-Ion Dynamics in Battery Materials</project_name>
      </item>
      <item>
        <funder_name>Royal Society</funder_name>
        <funder_id>https://doi.org/10.13039/501100000288</funder_id>
        <grant_id>URF\R\191006</grant_id>
        <project_name>Computational Discovery of Conduction Mechanisms in Lithium-Ion Solid Electrolytes</project_name>
      </item>
      <item>
        <funder_name>Engineering and Physical Sciences Research Council</funder_name>
        <funder_id>https://doi.org/10.13039/501100000266</funder_id>
        <grant_id>EP/L000202/1</grant_id>
        <project_name>Materials Chemistry High End Computing Consortium</project_name>
      </item>
    </funding>
    <collection_method>The VASP output data were parsed and collated using the `vasp_summary` script contained in the `vasppy` Python package.
 
This dataset was then used for subsequent analysis using a combination of Python scripts and Jupyter notebooks.
 
The data parsing and analysis steps are described as a Snakemake workflow.</collection_method>
    <techinfo>All DFT calculations were performed using VASP 5.4.4 (vasp.5.4.4.18Apr17-6-g9f103f2a35).

To rerun the DFT calculations in this dataset the appropriate pseudopotentials are needed. These are not included in this dataset due to the VASP license conditions. Each calculation directory contains a corresponding `POTCAR.spec` file that specifies the pseudopotentials used. These calculations use pseudopotentials from the VASP 5.4 set.

The data analysis workflow has the following Python package requirements:

- vasppy&gt;=0.6.1.0;
- snakemake;
- numpy;
- version_information;
- matplotlib;
- pymatgen;
- tqdm;
- jupyter.

From the top level directory, the analysis workflow can be run from a *nix command prompt with the following commands:

```
pip install -r requirements.txt
snakemake --cores all clean
snakemake --cores all
```
 
Full details are given in the top-level `README.md` file.</techinfo>
    <language>en</language>
    <version>1</version>
    <doi>10.15125/BATH-00815</doi>
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        <link>https://doi.org/10.1002/anie.202007983</link>
        <type>pub</type>
      </item>
    </related_resources>
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