The Interconnected Mechanisms of Feedback regulation in CD8 T cells.
In plain English
AI plain-English summaryWhen a T cell kills an infected cell, it must also stop itself before it causes collateral damage—this project investigates the molecular brakes that make that possible. The ZFP36 family of proteins act as RNA-binding regulators that slow down T cell activation, preventing runaway immune responses. But exactly how they work inside mature T cells is largely unknown. This research will map how these proteins interact with the CCR4-NOT complex to repress and degrade target messenger RNAs, and how signals from the T cell receptor and co-stimulatory molecules control that process. The team will also test whether these same regulators drive T cell exhaustion—a state where immune cells become dysfunctional during chronic infections or cancer. If successful, this work will reveal a new layer of molecular control over immune responses. Understanding how T cells balance activation and restraint could eventually inform strategies to improve vaccine-induced memory or reverse T cell exhaustion in cancer immunotherapy. This is fundamental science: no immediate clinical application is expected, but similar studies of RNA-binding proteins have previously uncovered mechanisms now targeted in inflammatory disease and cancer therapy.
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