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Microbes & Immunity                                               Big data and DNN-based DTI model in CHP



            potentially slow or prevent the progression of lung fibrosis.   CHP treatment. Our methodology included system
            This is crucial for CHP patients, as managing fibrosis is a   order detection methods for systematic identification of
            major treatment challenge. Studies suggest that masitinib   GWGEN, which can effectively eliminate false-positive
            may be beneficial in treating both fibrotic and non-fibrotic   interactions and regulations within candidate GWGEN,
            forms of HP by regulating immune responses and reducing   resulting in the accurate system identification of the real
            tissue damage.  Compared to traditional broad-spectrum   GWGEN for both CHP and non-CHP. Through big data
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            immunosuppressants, masitinib’s targeted molecular   exploration, we constructed comprehensive genetic and
            pathway action offers a more specific treatment approach.  epigenetic biological networks of CHP and non-CHP.
              Primaquine is traditionally used to treat and prevent   Employing the PNP method, we extracted core GWGEN
            malaria by disrupting the mitochondrial function of   for the annotation of KEGG signaling pathways to obtain
            Plasmodium. In addition, it has been found to have potential   the core signaling pathways of CHP and non-CHP. By
            in regulating the immune system, particularly by inhibiting   comparing these core signal pathways of CHP and non-
            T-cell overactivation and reducing inflammation, which is   CHP, we investigated the pathogenetic mechanism of
            significant in treating immune responses involved in HP.   CHP and then identified key biomarkers crucial to CHP-
            Primaquine also has antifibrotic effects, which can slow or   induced cellular fibrosis. To discover candidate drugs and
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            prevent the progression of lung fibrosis in HP patients.    their drug targets (biomarkers), we trained a DNN-based
            It effectively downregulates AKT1 and NF-κB expression   DTI model using the DTI database, predicting interaction
            levels in the MAPK signaling pathway, which play crucial   probabilities using the drug-target feature vectors. For drug
            roles in the metabolic changes of fibrotic cells. Although   targets, we applied stringent criteria – drug regulation
            more clinical research and trials are needed to verify   capacity, low toxicity, and high sensitivity – to screen
            primaquine’s specific effects in HP treatment, its potential   potential molecular drugs from the predicted candidate
            as a molecular drug is promising, providing new ideas for   molecular drugs. Consequently, we identified azathioprine,
            developing more effective HP treatments.           masitinib, and primaquine as an optimal multi-molecular
                                                               drug combination for CHP treatment, targeting critical
              There are a few limitations to this study. First, it relies on   biomarkers including AKT1, TNF, CCL-20, CDC23, and
            GSE86618 microarray data, and the quality and completeness   CXCL1. Our findings demonstrate that the integration of
            of this data directly affect the accuracy of the results. If the   multiple types of genome-wide genomic data of CHP and
            dataset contains errors or incomplete data, it may lead to   non-CHP with the systems biology method can significantly
            biased conclusions. Second, the study’s conclusions are   enhance our understanding of key biomarkers in the role of
            mainly based on mathematical models and bioinformatics   pathogenetics  involved  in  CHP-induced  cellular  fibrosis.
            analysis, lacking clinical experimental support. Predictions   The proposed combination of the systems biology method
            not validated by clinical and biological experiments may   and systematic drug discovery design offers a promising
            face challenges in practical drug applications, necessitating   new  direction for  the  treatment of  chronic lung  fibrosis
            further clinical and biological experiments to ensure their   progression. Future studies will benefit from incorporating
            effectiveness and safety. In addition, although multiple   more diverse genomic data types for epigenetic and
            drug combinations were predicted, their actual effects and   epigenomic regulation, which will further refine our
            interactions need to be confirmed through in vivo and in   understanding and improve therapeutic strategies for CHP.
            vitro experiments. Finally, the model predictions may not
            fully consider potential synergistic or antagonistic effects   Acknowledgments
            between different drugs. These limitations need to be   None.
            addressed in future research to improve the reliability and
            applicability of drug repurposing strategies.      Funding
            5. Conclusion                                      None.
            In this study, we developed and validated a novel approach   Conflict of interest
            that combines systems biology to investigate the complex
            pathogenetic  mechanisms  underlying  CHP-induced   The authors declare that they do not have competing
            cellular fibrosis. Utilizing extensive database mining,   interests.
            we analyzed whole-genome data along with genetic and   Author contributions
            epigenetic networks to identify significant biomarkers of
            pathogenetic mechanisms as drug targets from a systemic   Conceptualization: Sung-Yu Lin, Bor-Sen Chen
            drug design perspective for multi-molecular drugs of   Formal analysis: Sung-Yu Lin, Bor-Sen Chen


            Volume 2 Issue 2 (2025)                        101                               doi: 10.36922/mi.4620
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