<tool id="dimet_@EXECUTABLE@" name="dimet @TOOL_LABEL@" version="@TOOL_VERSION@+galaxy@VERSION_SUFFIX@" profile="20.05">
    <description>
        Figures of Principal Component Analysis for tracer metabolomics (by DIMet)
    </description>
    <macros>
        <token name="@TOOL_LABEL@">pca plot</token>
        <token name="@EXECUTABLE@">pca_plot</token>
        <import>macros.xml</import>
    </macros>
    <expand macro="requirements"/>
    <command detect_errors="exit_code"><![CDATA[
    @INIT_CONFIG@
    @INIT_PCA@
    @INIT_IMPUTE_VALUES@
    @INIT_CONDITIONS@
    HYDRA_FULL_ERROR=1 python -m dimet
        -cp '$__new_file_path__/config'
        '++hydra.run.dir=pca-plot'
        '++figure_path=figures'
        '++table_path=tables'
        '++analysis={
            dataset:{
                _target_:dimet.data.DatasetConfig,
                name: "Galaxy DIMet run"
            },
            method:{
                _target_: dimet.method.PcaPlotConfig,
                label: pca-plot,
                name: "Generate Principal Component Analysis plots",
                pca_split_further:['timepoint'],
                draw_ellipses: null,
                run_iris_demo: false,
                color: condition,
                style: timepoint,
                figure_format:${output_options.figure_format},
                impute_values:${impute_values}
            },
            label: pca-plot
        }'
         '++analysis.dataset.subfolder='
         '++analysis.dataset.label='
         '++analysis.dataset.conditions=${conds}'
        #if $metadata_path:
            '++analysis.dataset.metadata=metadata'
        #end if
        #if $abundance_file:
            '++analysis.dataset.abundances=abundance'
        #end if
        #if $me_or_frac_contrib_file:
            '++analysis.dataset.mean_enrichment=me_or_frac_contrib'
        #end if
    @REMOVE_CONFIG@

    ]]></command>
    <inputs>
        <expand macro="input_parameters_pca"/>
        <expand macro="conditions"/>
        <section name="output_options" title="Output options">
            <param name="figure_format" type="select" value="pdf" display="radio" label="Select output figure format" help="Please enter at max 1 format">
                <option value="pdf">Pdf</option>
                <option value="svg">Svg</option>
            </param>
        </section>
    </inputs>

    <outputs>
        <collection name="report" type="list">
            <discover_datasets pattern="__designation_and_ext__" directory="figures"/>
        </collection>
    </outputs>
    <tests>
        <test>
            <param name="abundance_file" ftype="tabular" value="rawAbundances.csv" />
            <param name="metadata_path" ftype="tabular" value="example2_metadata.csv"/>
            <param name="conditions" value='Control,L-Cycloserine'/>
            <section name="output_options">
                <param name="figure_format" value="svg"/>
            </section>
            <output_collection name="report" type="list" count="18">
                <element file="abundances--T0--cell_var.svg" name="abundances--T0--cell_var" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T0--cell--label-n_pc.svg" name="abundances--T0--cell--label-n_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T0--cell--label-y_pc.svg" name="abundances--T0--cell--label-y_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T0--med_var.svg" name="abundances--T0--med_var" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T0--med--label-n_pc.svg" name="abundances--T0--med--label-n_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T0--med--label-y_pc.svg" name="abundances--T0--med--label-y_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T2h--cell--label-n_pc.svg" name="abundances--T2h--cell--label-n_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T2h--cell--label-y_pc.svg" name="abundances--T2h--cell--label-y_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T2h--cell_var.svg" name="abundances--T2h--cell_var" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T2h--med--label-n_pc.svg" name="abundances--T2h--med--label-n_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T2h--med--label-y_pc.svg" name="abundances--T2h--med--label-y_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--T2h--med_var.svg" name="abundances--T2h--med_var" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--cell--label-n_pc.svg" name="abundances--cell--label-n_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--cell--label-y_pc.svg" name="abundances--cell--label-y_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--cell_var.svg" name="abundances--cell_var" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--med--label-n_pc.svg" name="abundances--med--label-n_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--med--label-y_pc.svg" name="abundances--med--label-y_pc" ftype="svg" compare="sim_size" delta="100"/>
                <element file="abundances--med_var.svg" name="abundances--med_var" ftype="svg" compare="sim_size" delta="100"/>
            </output_collection>
        </test>
    </tests>
    <help><![CDATA[
This module is part of DIMet: Differential analysis of Isotope-labeled targeted Metabolomics data (https://pypi.org/project/DIMet/).

This tool performs the Principal Components Analysis (PCA) on your data,
generating the figures with the results of the PCA, it is, the scatter-plot of the two first principal components or dimensions (eigenvalues), and the barplot of the percentage of explained variances across all the principal components detected in your data.

The figures in .pdf format are of publication quality, and as they are vectorial images you can open them and customize aesthetics with a professional image software such as Inkscape, Adobe Illustrator, Sketch,  CorelDRAW, etc.


    **Input data files**

This tool requires (at max.) 3 tab-delimited .csv files as inputs. There are two types of files:

- The measures' (or quantifications') files, that can be of 4 types.

- The metadata, a unique file with the description of the samples in your measures' files. This is compulsory.

For running DIMet @EXECUTABLE@ you need **at least one file** of measures:

- The total **abundances** (of the metabolites) file

- The mean **enrichment** or labelled fractional contributions


and one metadata file, WHICH IS COMPULSORY, see section **Metadata File Information**.


**Measures' files**

The measure's files must be organized as matrices:

- The first column must contain Metabolite IDs that are unique (not repeated) within the file.

- The rest of the columns correspond to the samples

- The rows correspond to the metabolites

- The values must be tab separated, with the first row containing the sample/column labels.

See the following examples of measures files:


Example - Metabolites **abundances**:

    =============== ================== ================== ================== ================== ================== ==================
    ID              **MCF001089_TD01** **MCF001089_TD02** **MCF001089_TD03** **MCF001089_TD04** **MCF001089_TD05** **MCF001089_TD06**
    =============== ================== ================== ================== ================== ================== ==================
    2_3-PG          8698823.9926       10718737.7217      10724373.9         8536484.5          22060650           28898956
    2-OHGLu         36924336           424336             92060650           45165              84951950           965165051
    Glc6P           2310               2142               2683               1683               012532068          1252172
    Gly3P           399298             991656565          525195             6365231            89451625           4952651963
    IsoCit          0                  0                  0                  84915613           856236             954651610
    =============== ================== ================== ================== ================== ================== ==================

Example - mean **enrichment** or labeled fractional contributions:

    =============== ================== ================== ================== ================== ================== ==================
    ID              **MCF001089_TD01** **MCF001089_TD02** **MCF001089_TD03** **MCF001089_TD04** **MCF001089_TD05** **MCF001089_TD06**
    =============== ================== ================== ================== ================== ================== ==================
    2_3-PG          0.9711             0.968              0.9909             0.991              0.40               0.9
    2-OHGLu         0.01719            0.0246             0.554              0.555              0.73               0.68
    Glc6P           0.06               0.66               2683               0.06               2068               2172
    Gly3P           0.06               0.06               0.06               1                  5                  3
    IsoCit          0.06               1                  0.49               0.36               6                  10
    =============== ================== ================== ================== ================== ================== ==================


**Metadata File Information**

Provide a tab-separated file that has the names of the samples in the first column and one header row.
Column names must be exactly in this order:

   name_to_plot
   condition
   timepoint
   timenum
   compartment
   original_name


Example **Metadata File**:


    ==================== =============== ============= ============ ================ =================
    **name_to_plot**     **condition**   **timepoint** **timenum**  **compartment**   **original_name**
    -------------------- --------------- ------------- ------------ ---------------- -----------------
    Control_cell_T0-1    Control         T0            0            cell             MCF001089_TD01
    Control_cell_T0-2    Control         T0            0            cell             MCF001089_TD02
    Control_cell_T0-3    Control         T0            0            cell             MCF001089_TD03
    Tumoral_cell_T0-1    Tumoral         T0            0            cell             MCF001089_TD04
    Tumoral_cell_T0-2    Tumoral         T0            0            cell             MCF001089_TD05
    Tumoral_cell_T0-3    Tumoral         T0            0            cell             MCF001089_TD06
    Tumoral_cell_T24-1   Tumoral         T24           24           cell             MCF001089_TD07
    Tumoral_cell_T24-2   Tumoral         T24           24           cell             MCF001089_TD08
    Tumoral_cell_T24-3   Tumoral         T24           24           cell             MCF001090_TD01
    Control_med_T24-1    Control         T24           24           med              MCF001090_TD02
    Control_med_T24-2    Control         T24           24           med              MCF001090_TD03
    Tumoral_med_T24-1    Tumoral         T24           24           med              MCF001090_TD04
    Tumoral_med_T24-2    Tumoral         T24           24           med              MCF001090_TD05
    Control_med_T0-1     Control         T0            0            med              MCF001090_TD06
    Tumoral_med_T0-1     Tumoral         T0            0            med              MCF001090_TD07
    Tumoral_med_T0-2     Tumoral         T0            0            med              MCF001090_TD08
    ==================== =============== ============= ============ ================ =================


The column **original_name** must have the names of the samples as given in your data.

The column **name_to_plot** must have the names as you want them to be (or set identical to original_name if you prefer). To set names that
are meaningful is a better choice, as we will take them to display the results.

The column **timenum** must contain only the numeric part of the timepoint, for example 2,0, 10, 100 (this means, without letters ("T", "t", "s", "h" etc)
nor any other symbol). Make sure these time numbers are in the same units (but do not write the units here!).

The column **compartment** is an abbreviation, coined by you, for the compartments. This will be used for the results' files names: the longer the
compartments names are, the longer the output files' names! Please pick short and clear abbreviations to fill this column.


**Running the analysis**

You can precise how you want your analysis to be executed, there exist hints on use that will guide you, next to the parameters.

Our tool automatically processes the integrality of your data (global PCA plots), and also splits your data by timepoint to generate PCA plots by timepoint (which is convenient to explore the "grouping" of conditions), but if you only have one condition you can discard them.

The output, for the global PCA, and for each timepoint PCA, consists of :

- a scatter-plot of the first two Principal Components (PC), with labels corresponding to 'name_to_plot'.

- the same scatter-plot as above but without labels.

- a bar-plot of the percentage of explained variances.



**Available data for testing**

You can test our tool with the data from our manuscript https://zenodo.org/record/10579862 (the pertinent
files for you are located in the subfolders inside the data folder).
You can also use the minimal data examples from https://zenodo.org/record/10579891

 ]]>
    </help>
    <expand macro="citations" />
</tool>