SENgEAR: an interactive visualization platform for comparative analysis of senescence signatures and cellular communication
Authors:
- Sushma NagarajSNSushma Nagaraj
- Ricky S. AdkinsRARicky S. Adkins
- Alexandra N. RindoneARAlexandra N. Rindone
- Arun DasADArun Das
- Daniel LesperanceDLDaniel Lesperance
- Joshua OrvisJOJoshua Orvis
- Kavita KrishnanKKKavita Krishnan
- Benjamin D. CosgroveBCBenjamin D. Cosgrove
- Nathan BasistyNBNathan Basisty
- Darren J. BakerDBDarren J. Baker
- Owen R. WhiteOWOwen R. White
- Anup A. MahurkarAMAnup A. Mahurkar
Preprint
Abstract
Single-cell and spatial transcriptomic datasets provide tremendous potential to identify the cellular states and communication networks associated with senescence. Annotating senescent cells in these datasets is hindered by the lack of universal markers for senescent cells and their context-dependent variability. To overcome this, several groups have developed gene signatures to annotate cells with distinct senotypes. However, comparing these signatures and their biological contexts to determine the specificity of senescence signatures remains complicated by the separate data platforms for signatures and datasets. We present SENgEAR, a no-code web platform for senescent cell annotation, visualization of cell-cell communication networks, and comparison of senescence signatures across studies, tissues, species, and data modalities. SENgEAR provides a unified framework to explore contextual signature specificity, cellular communication pathways, and senotype heterogeneity. We demonstrate the use of SENgEAR for applications spanning aging, fibrosis, and wound healing and its ability to interrelate these states.Keywords
Funding Information
- University of Maryland, Baltimore (Pivot Strategic Investment Initiative)
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