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Updated: Jul 27, 2025

Time-resolved Förster Resonance Energy Transfer Assays for Measurement of Endogenous Phosphorylated STAT Proteins in Human Cells
Published on: September 9, 2021
Predicting gene level sensitivity to JAK-STAT signaling perturbation using a mechanistic-to-machine learning
Neha Cheemalavagu1,2,3, Karsen E Shoger2,3, Yuqi M Cao2,3
1University of Pittsburgh, Department of Computational and Systems Biology, University of Pittsburgh School of Medicine, University of Pittsburgh, Pittsburgh, PA USA.
This study links STAT signaling dynamics to gene expression using a computational model. It predicts how cytokine signals impact macrophage gene activity, aiding future research into STAT-driven diseases.
Area of Science:
- Cellular signaling and gene regulation
- Computational biology and systems immunology
Background:
- The JAK-STAT pathway integrates cytokine signals, but STAT transcription factor function diversity remains unclear.
- Understanding STAT specificity is crucial for deciphering complex cellular responses to cytokines like IL-6 and IL-10.
Approach:
- Developed a computational workflow integrating mechanistic and machine learning models.
- Modeled macrophage responses to IL-6 and IL-10, analyzing STAT phosphorylation dynamics.
- Predicted and validated gene expression changes upon JAK2 inhibition.
Key Points:
- Identified cytokine-induced gene sets linked to late pSTAT3 dynamics.
- Observed preferential pSTAT1 reduction with JAK2 inhibition.
- Discovered dynamically regulated genes sensitive or insensitive to JAK2 variation.
Conclusions:
- Successfully linked STAT signaling dynamics to specific gene expression patterns.
- Provides a foundation for multi-level predictive models of signaling system outputs.
- Supports future efforts targeting STAT-driven gene sets in pathology.
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