Frontiers in immunology · 2026
Epitranscriptomics, immunometabolism, and NETosis: unlocking novel mechanisms of traditional Chinese medicine in COPD.
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Chen Hui-Hui, Ni Feng-Xian, Huang Dong-Hui, Jiang Ze-Bo
Аннотация
Chronic obstructive pulmonary disease (COPD) is driven by self-perpetuating inflammation that resists conventional therapies. Recent evidence reveals three interconnected pathogenic layers: immunometabolic reprogramming, m6A epitranscriptomic dysregulation, and excessive NETosis with defective resolution. Pathogenic immune cells shift toward aerobic glycolysis and impaired fatty acid oxidation, sustaining pro-inflammatory phenotypes and corticosteroid resistance. m6A modifications may control the stability of key transcripts such as MALT1, IL-17, and PADI4, as suggested by emerging evidence. A recent rat COPD model study reported that the Shenqi Tiaoshen Formula reduced METTL16-mediated m6A methylation of MALT1, though human replication is lacking. Concurrently, neutrophil extracellular traps (NETs) damage lung tissue and expose autoantigens, accompanied by failed resolution. Traditional Chinese Medicine (TCM)-including Shenqi Tiaoshen Formula, baicalin, berberine, astragaloside IV, and curcumin-can reprogram metabolism via AMPK, modulate m6A writers/erasers, inhibit NETosis, and upregulate SPMs in preclinical models. However, most evidence derives from non-COPD models or uses supraphysiological concentrations; the translational gap to human COPD remains substantial. We discuss the bidirectional metabolism-m6A crosstalk as a theoretical framework requiring experimental validation, and outline single-cell m6A sequencing, spatial metabolomics, and CRISPR screening as tools to accelerate precision TCM for COPD.