Find out how network mapping can unleash insights in your data.
Combine experimental data with domain knowledge, statistical methods, multivariate analyses and machine learning to create information rich networks.
![Screenshot](/images/network_mapping1.png)
Carry out statistical analyses to identify significant relationships or altered variables between groups.
Use parametric and non-parametric methods to test a variety of hypotheses.
![Screenshot](/images/dave_stats.png)
Identify similarities between groups using supervised and non-supervised clustering methods.
Carry out hierarchical, fuzzy, density and other clustering analyses using a variety of distance and linkage methods.
![Screenshot](/images/dave_cluster.png)
Use dimensional reduction and projection methods to analyze and visualize multivariate relationships and trends.
Apply algorithms including PCA, MDS, tSNE and other techniques to overview complex multivariate relationships.
![Screenshot](/images/dave_pca.png)
Add domain knowledge using biochemical pathway analysis.
Visualize changes in groups within a metabolic, proteomic and genomic context.
![Screenshot](/images/dave_pathway.png)
Choose from over 200 machine learning algorithms.
Easily conduct regression and classification based predictive modeling using robust model validation and feature selection methods.
![Screenshot](/images/dave_ml.png)
Generate complex biochemical and empirical networks.
Use biochemical domain knowledge, structural similarity and regularized correlations to calculate information rich mapped networks.
![Screenshot](/images/dave_network.png)
Put it all together with dynamic interactive reports.
Combine and overview all analyses results using interactive reporting features.
![Screenshot](/images/dave_report.png)
![Dmitry Grapov](/images/cds.png)
CDS tools are designed from the ground up with metabolomics in mind. Find out how you can connect your data with context.