ESCRT‐Mimetic Nanodegrader Targets STING for Anti‐Inflammatory Therapy

Excessive STING activation underlies the pathogenesis of diverse inflammatory diseases, yet conventional inhibitors often fail to restore its physiological degradation. To address this, we designed a biomimetic STING-directed autophagy-targeting chimera (STING-ATTEC) that recapitulates the endogenous ESCRT-mediated degradation pathway, with computational modeling providing preliminary guidance for molecular optimization. The optimized STING-ATTEC was encapsulated within folate-modified cationic lipid nanoparticles (FA-LNP<sup>+</sup>), formulated with DOTAP to enhance autophagic activity and promote lysosomal trafficking. This combined strategy synergistically amplified STING degradation, leading to potent suppression of inflammatory signaling, mitigation of tissue damage, and promotion of tissue regeneration across multiple disease models. These findings illustrate a cooperative material-based strategy that enhances autophagy and enables targeted protein degradation, positioning lysosome-targeting degraders as a promising translational modality for immunomodulatory therapy.

Publication Details

Journal
Advanced Science
Published
2026-03-24
DOI
https://doi.org/10.1002/advs.202523601
Primary Topic
interferon and immune responses
Type
article
Field-Weighted Citation Impact
0.00
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article

ESCRT‐Mimetic Nanodegrader Targets STING for Anti‐Inflammatory Therapy

Advanced Science
interferon and immune responses
article

ESCRT‐Mimetic Nanodegrader Targets STING for Anti‐Inflammatory Therapy

article en

Abstract

Excessive STING activation underlies the pathogenesis of diverse inflammatory diseases, yet conventional inhibitors often fail to restore its physiological degradation. To address this, we designed a biomimetic STING-directed autophagy-targeting chimera (STING-ATTEC) that recapitulates the endogenous ESCRT-mediated degradation pathway, with computational modeling providing preliminary guidance for molecular optimization. The optimized STING-ATTEC was encapsulated within folate-modified cationic lipid nanoparticles (FA-LNP<sup>+</sup>), formulated with DOTAP to enhance autophagic activity and promote lysosomal trafficking. This combined strategy synergistically amplified STING degradation, leading to potent suppression of inflammatory signaling, mitigation of tissue damage, and promotion of tissue regeneration across multiple disease models. These findings illustrate a cooperative material-based strategy that enhances autophagy and enables targeted protein degradation, positioning lysosome-targeting degraders as a promising translational modality for immunomodulatory therapy.

Advanced Science
Openalex Percentile: Top 10%
interferon and immune responses
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