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[Preprint]. 2024 Nov 21:2024.05.28.596138. Originally published 2024 May 31. [Version 2] doi: 10.1101/2024.05.28.596138

Figure 6: Models trained on RAMPAGE data can learn PRO-cap signal similar to ProCapNet.

Figure 6:

(A) Relationship between total PRO-cap signal and total RAMPAGE signal within PRO-cap peaks. r, Pearson correlation. (B) Counts task performance of RAMPAGE-Net on RAMPAGE peaks from held-out test chromosomes (C) Counts predictions from RAMPAGE-Net vs. predictions from ProCapNet within PRO-cap peaks. (D) Same as C, but with measured PRO-cap signal on the y-axis. (E) PRO-cap and RAMPAGE signal, ProCapNet and RAMPAGE-Net model predictions, contribution scores from both models, and 100-way PhyloP sequence conservation scores105 for an example promoter. (F) Position-probability matrix (PPM) and position-weight matrix (PWM) summarizing all sequences where TSSs (5’ read ends) were identified by PRO-cap (left) or RAMPAGE (right), weighted by the number of reads at each TSS. (G) Pearson correlations between contribution scores from ProCapNet and RAMPAGE-Net for the profile and counts tasks across 1kb windows over all PRO-cap peaks.