Awesome

SCIMITAR provides a variety of tools to analyze trajectory maps of single-cell measurements.

With SCIMITAR you can:

• Obtain coarse-grain, (metastable) state and transition representations of your data. This is useful when you want to get a broad sense of how your data is connected.
• Infer full-fledged Gaussian distribution trajectories from single-cell data --- not only will you get cell orderings and estiamted 'pseudotemporal' mean measurements but also pseudo-time-dependant covariance matrices so you can track how your measurements' correlation change across biological progression.
• Obtain uncertainties for a cell's psuedotemporal positioning (due to uncertainty arising from heteroscedastic noise)
• Obtain genes that significantly change throughout the progression (i.e. 'progression-associated genes')
• Obtain genes that significantly change their correlation structure throughout the progression (i.e. 'progression co-associated genes')
• Infer broad co-regulatory states and psuedotemporal dynamic gene modules from the evolving co-expression matrices.

To install SCIMITAR, follow the steps below:

1. Install the pyroconductor package

2. Do the usual python setup.py install

3. Check out the jupyter notebooks tutorials in the tutorials directory

4. Questions, concerns, or suggestions? Thanks! Open up a ticket or pm @dimenwarper (Pablo Cordero)

If you use SCIMITAR please cite the paper ;)

• Cordero and Stuart, "Tracing co-regulatory network dynamics in noisy, single-cell transcriptome trajectories", Pac. Symp. of Biocomput. (2017)

Also, take a look at the talk slides.