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Molecular Mechanism Underlying Effects of Wumeiwan on Steroid-Dependent Asthma: A Network Pharmacology, Molecular Docking, and Experimental Verification Study

Steroid-dependent asthma (SDA) is characterized by oral corticosteroid (OCS) resistance and dependence. Wumeiwan (WMW) showed potentials in reducing the dose of OCS of SDA patients based on our previous studies. Network pharmacology was conducted to explore the molecular mechanism of WMW against SDA...

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Published in:Drug design, development and therapy development and therapy, 2022-01, Vol.16, p.909-929
Main Authors: Lyu, Mingsheng, Wang, Yahui, Chen, Qiuyi, Qin, Jingbo, Hou, Dan, Huang, Shuaiyang, Shao, Dongmei, Gong, Xuefeng, Huang, Guirui, Zhang, Shiyu, Zhang, Zhijie, Cui, Hongsheng
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container_title Drug design, development and therapy
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creator Lyu, Mingsheng
Wang, Yahui
Chen, Qiuyi
Qin, Jingbo
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Huang, Shuaiyang
Shao, Dongmei
Gong, Xuefeng
Huang, Guirui
Zhang, Shiyu
Zhang, Zhijie
Cui, Hongsheng
description Steroid-dependent asthma (SDA) is characterized by oral corticosteroid (OCS) resistance and dependence. Wumeiwan (WMW) showed potentials in reducing the dose of OCS of SDA patients based on our previous studies. Network pharmacology was conducted to explore the molecular mechanism of WMW against SDA with the databases of TCMSP, STRING, etcetera. GO annotation and KEGG functional enrichment analysis were conducted by metascape database. Pymol performed the molecular docking. In the experiment, the OVA-induced plus descending dexamethasone intervention chronic asthmatic rat model was conducted. Lung pathological changes were analyzed by H&E, Masson, and IHC staining. Relative expressions of the gene were performed by real-time PCR. A total of 102 bioactive ingredients in WMW were identified, as well as 191 common targets were found from 241 predicted targets in WMW and 3539 SDA-related targets. The top five bioactive ingredients were identified as pivotal ingredients, which included quercetin, candletoxin A, palmidin A, kaempferol, and beta-sitosterol. Besides, 35 HUB genes were obtained from the PPI network, namely, , etcetera. GO biological process analysis indicated that HUB genes were related to bacteria, transferase, cell differentiation, and steroid. KEGG pathway enrichment analysis indicated that the potential mechanism might be associated with IL-17 and MAPK signaling pathways. Molecular docking results supported these findings. H&E and Masson staining proved that WMW could reduce airway inflammation and remodeling of model rats, which might be related to the downward expression of IL-8 proved by IHC staining and real-time PCR. WMW could be a complementary and alternative therapy for SDA by reducing airway inflammation.
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Wumeiwan (WMW) showed potentials in reducing the dose of OCS of SDA patients based on our previous studies. Network pharmacology was conducted to explore the molecular mechanism of WMW against SDA with the databases of TCMSP, STRING, etcetera. GO annotation and KEGG functional enrichment analysis were conducted by metascape database. Pymol performed the molecular docking. In the experiment, the OVA-induced plus descending dexamethasone intervention chronic asthmatic rat model was conducted. Lung pathological changes were analyzed by H&amp;E, Masson, and IHC staining. Relative expressions of the gene were performed by real-time PCR. A total of 102 bioactive ingredients in WMW were identified, as well as 191 common targets were found from 241 predicted targets in WMW and 3539 SDA-related targets. The top five bioactive ingredients were identified as pivotal ingredients, which included quercetin, candletoxin A, palmidin A, kaempferol, and beta-sitosterol. Besides, 35 HUB genes were obtained from the PPI network, namely, , etcetera. GO biological process analysis indicated that HUB genes were related to bacteria, transferase, cell differentiation, and steroid. KEGG pathway enrichment analysis indicated that the potential mechanism might be associated with IL-17 and MAPK signaling pathways. Molecular docking results supported these findings. H&amp;E and Masson staining proved that WMW could reduce airway inflammation and remodeling of model rats, which might be related to the downward expression of IL-8 proved by IHC staining and real-time PCR. 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Wumeiwan (WMW) showed potentials in reducing the dose of OCS of SDA patients based on our previous studies. Network pharmacology was conducted to explore the molecular mechanism of WMW against SDA with the databases of TCMSP, STRING, etcetera. GO annotation and KEGG functional enrichment analysis were conducted by metascape database. Pymol performed the molecular docking. In the experiment, the OVA-induced plus descending dexamethasone intervention chronic asthmatic rat model was conducted. Lung pathological changes were analyzed by H&amp;E, Masson, and IHC staining. Relative expressions of the gene were performed by real-time PCR. A total of 102 bioactive ingredients in WMW were identified, as well as 191 common targets were found from 241 predicted targets in WMW and 3539 SDA-related targets. The top five bioactive ingredients were identified as pivotal ingredients, which included quercetin, candletoxin A, palmidin A, kaempferol, and beta-sitosterol. Besides, 35 HUB genes were obtained from the PPI network, namely, , etcetera. GO biological process analysis indicated that HUB genes were related to bacteria, transferase, cell differentiation, and steroid. KEGG pathway enrichment analysis indicated that the potential mechanism might be associated with IL-17 and MAPK signaling pathways. Molecular docking results supported these findings. H&amp;E and Masson staining proved that WMW could reduce airway inflammation and remodeling of model rats, which might be related to the downward expression of IL-8 proved by IHC staining and real-time PCR. 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subjects Animals
Asthma
Asthma - drug therapy
chinese herbal medicine
Dexamethasone
Drug therapy
Drugs, Chinese Herbal - pharmacology
Drugs, Chinese Herbal - therapeutic use
Humans
il-8
Inflammation
Medical research
Medicine, Botanic
Medicine, Chinese
Medicine, Chinese Traditional
Medicine, Experimental
Medicine, Herbal
molecular docking
Molecular Docking Simulation
Network Pharmacology
Omalizumab
Original Research
Pharmacology
Phytosterols
Rats
steroid-dependent asthma
Tumor proteins
wumeiwan
title Molecular Mechanism Underlying Effects of Wumeiwan on Steroid-Dependent Asthma: A Network Pharmacology, Molecular Docking, and Experimental Verification Study
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