Multi-omics profiling reveals microenvironmental remodeling as a key driver of house dust mite-induced lung cancer progression.
1/5 보강
Chronic exposure to the common aeroallergen house dust mite (HDM) induces lung inflammation and DNA damage, but its impact on lung cancer development remains largely unexplored.
APA
Al-Azzam S, Stuewe I, et al. (2026). Multi-omics profiling reveals microenvironmental remodeling as a key driver of house dust mite-induced lung cancer progression.. Neoplasia (New York, N.Y.), 73, 101275. https://doi.org/10.1016/j.neo.2026.101275
MLA
Al-Azzam S, et al.. "Multi-omics profiling reveals microenvironmental remodeling as a key driver of house dust mite-induced lung cancer progression.." Neoplasia (New York, N.Y.), vol. 73, 2026, pp. 101275.
PMID
41610471
Abstract
Chronic exposure to the common aeroallergen house dust mite (HDM) induces lung inflammation and DNA damage, but its impact on lung cancer development remains largely unexplored. Using whole-genome sequencing, RNA-seq, and DNA methylation profiling, we assessed HDM effects in lung epithelial cell lines and a mouse orthotopic lung cancer model. HDM accelerated tumor growth without altering mutational burden. Transcriptomic and epigenetic analyses revealed tissue-specific effects: in normal lung, HDM enhanced pro-inflammatory and immune activation programs, whereas in tumors it suppressed T cell responses, antigen presentation, and chemokine signaling. Immune deconvolution showed a shift toward myeloid enrichment and lymphoid suppression, with reduced cytotoxic T and NK signatures. Notably, HDM-driven tumor promotion was abolished in Il17a but not Il1b mice, identifying IL-17A as a critical mediator. These findings demonstrate that chronic aeroallergen exposure reshapes the lung microenvironment to promote immune suppression and accelerate lung cancer progression.
MeSH Terms
Animals; Lung Neoplasms; Pyroglyphidae; Mice; Tumor Microenvironment; Disease Progression; Humans; Disease Models, Animal; Interleukin-17; Gene Expression Profiling; Cell Line, Tumor; Mice, Knockout; DNA Methylation; Transcriptome; Multiomics