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. 2024 Nov 28;301(1):108028. doi: 10.1016/j.jbc.2024.108028

Table 2.

Therapeutic interventions targeting cytoskeletal mechanics in asthma—Implications for fluidization and solidification

Drug/compound Target Fluidization–solidification mechanism(s) Comments References
Y16 ARHGEF12 Actin polymerization Attenuated IL-17 induced bronchial ring hypercontraction (53)
Fasudil/hyroxyfasudil ROCK Reduced MYPT1 phosphorylation Decreased AHR in mouse models and PCLS; anti-inflammatory (54)
TSG12/TSG1180 Transgelin-2 MYPT1 dephosphorylation; RhoA, ezrin phosphorylation Elicit bronchodilation and reduce AHR in mouse models (59, 60)
Volasertib (BI6727) Plk1 Actin polymerization Relaxation of mouse bronchial rings; reduced HDM associated AHR; Phase III clinical trials for cancer (77)
Imatinib c-Abl Actin polymerization Reduced AHR in short term RDBPC trial of patients with severe asthma (81)
FR900359 Gαq Ca2+ flux, MLC phosphorylation Decreased AHR in several animal models of asthma (107)
R59949 diacylglycerol kinase (DGKζ) Ca2+ flux (PLCβ) Decreased AHR in mouse models and PCLS; anti-inflammatory (108, 109)
Pitavastatin, atorvastatin RhoA Inhibits MLC phosphorylation, actin polymerization Reduces AHR in mice and PCLS contraction; lower risk of exacerbations in people treated with statins for dyslipidemia (116, 117)