args: imputation: True imputation_method: distribution missing_shift: 1.8 missing_nstd: 0.3 missing_method: percentage missing_per_group: True missing_max: 0.3 value_col: Intensity extra_identifier: name index: - group - sample - subject overview: #section overview statistics: data: processed analyses: - summary plots: - multiTable store_analysis: True args: title: Summary Statistics modifications: data: number of modified proteins analyses: [] plots: - facetplot - basicTable args: x: x y: y group: group class: type x_title: Analytical sample y_title: number of modified proteins plot_type: bar title: 'Number of modified proteins identified per type' coefficient_variation: data: processed analyses: - coefficient_of_variation plots: - scatterplot_matrix args: drop_columns: - sample - subject columns: - name - y group: group index: True x_title: '%CV' y_title: log2 intensity size: 9 height: 900 width: 1500 title: 'Proteins %CV' ranking: data: - processed analyses: - ranking plots: - ranking args: drop_columns: - sample - subject columns: - name - y data: processed identifier: identifier group: group index: True x_title: Ranking of modified proteins y_title: log2 intensity size: 9 height: 900 width: 1500 title: Modified proteins ranking data exploration: stratification: description: '# Principal Component Analysis **Principal component analysis (PCA)** is a statistical procedure that uses an orthogonal transformation to convert a set of observations of possibly correlated variables (entities each of which takes on various numerical values) into a set of values of linearly uncorrelated variables called principal components. This transformation is defined in such a way that the first principal component has the largest possible variance (that is, accounts for as much of the variability in the data as possible), and each succeeding component in turn has the highest variance possible under the constraint that it is orthogonal to the preceding components. The resulting vectors (each being a linear combination of the variables and containing n observations) are an uncorrelated orthogonal basis set. PCA is sensitive to the relative scaling of the original variables. [Wikipedia](https://en.wikipedia.org/wiki/Principal_component_analysis)' data: processed analyses: - pca #- tsne #- umap plots: - pca args: x_title: PC1 y_title: PC2 components: 2 perplexity: 40 n_iter: 1000 init: 'pca' width: 1000 height: 700 loadings: 15 title: 'Sample stratification' regulation: description: '# Regulation **Analysis of variance (ANOVA)** is a collection of statistical models and their associated estimation procedures (such as the "variation" among and between groups) used to analyze the differences among group means in a sample. ANOVA was developed by statistician and evolutionary biologist Ronald Fisher. The ANOVA is based on the law of total variance, where the observed variance in a particular variable is partitioned into components attributable to different sources of variation. In its simplest form, ANOVA provides a statistical test of whether two or more population means are equal, and therefore generalizes the t-test beyond two means.[Wikipedia](https://en.wikipedia.org/wiki/Analysis_of_variance)' data: processed analyses: - anova plots: - basicTable - volcanoplot store_analysis: True args: alpha: 0.05 fc: 2.0 group: 'group' subject: subject colorscale: 'Blues' showscale: False marker_size: 10 permutations: 0 num_annotations: 50 x_title: log2FC y_title: -log10(pvalue) drop_cols: - sample - subject name: name title: 'Differential regulation ANOVA' data associations: substrate_associations: data: regulated analyses: [] plots: - network store_analysis: True args: use: columns: identifiers source: node1 target: node2 title: 'Kinase-substrate network' format: edgelist values: weight dist: False node_properties: {} width: 1600 height: 1600 maxLinkWidth: 7 maxRadius: 20 color_weight: False node_size: 'degree' communities_algorithm: louvain kinase_regulation: data: - regulated - modifier values analyses: - merge_for_polar plots: - polar store_analysis: True args: regulation_data: regulated regulators: modifier values group_col: 'group' identifier_col: 'identifier' normalize: True aggr_func: 'mean' width: 900 height: 800 group_by: - modifier - group value_col: value theta_col: modifier color_col: group type: line title: 'Intensities by Kinase' reg_go_annotation: data: regulated analyses: [] plots: - basicTable store_analysis: True args: use: columns: identifiers height: 700 width: 900 title: 'GO biological processes associated to regulating Kinases' drug_associations: data: regulated analyses: [] plots: - basicTable store_analysis: True args: use: columns: identifiers height: 700 width: 900 title: 'Drugs targetting proteins with differentially regulated modifications' disease_associations: data: regulated analyses: [] plots: - basicTable store_analysis: True args: use: columns: identifiers height: 700 width: 900 title: 'Diseases associated with the differentially regulated modified proteins' go_annotation_mod: data: regulated analyses: [] plots: - basicTable store_analysis: True args: use: columns: identifiers height: 700 width: 900 title: 'GO biological processes associated with the differentially regulated modified proteins' enrichment: go_enrichment: data: - regulation table - go annotation analyses: - regulation_site_enrichment plots: - basicTable store_analysis: True args: regulation_data: regulation table annotation: go annotation identifier: identifier groups: - group1 - group2 annotation_type: Biological_processes annotation_col: annotation reject_col: rejected method: fisher title: 'Gene Ontology Enrichment for proteins with differentially regulated modifications' pathway_enrichment: data: - regulation table - pathway annotation analyses: - regulation_site_enrichment plots: - basicTable store_analysis: True args: regulation_data: regulation table annotation: pathway annotation identifier: identifier groups: - group1 - group2 annotation_type: Pathways annotation_col: annotation reject_col: rejected method: fisher title: 'Pathway Enrichment for proteins with differentially regulated modifications'