A computational approach to discover and prioritize new antifungal compounds against Pyricularia oryzae using virtual screening and predictive modeling. The workflow combines target-based bioinformatics and 3D modeling, pharmacophore and 3D-QSAR modeling, molecular docking, and ADMET/physicochemical filtering. Binding stability is further assessed with molecular dynamics and MM-GBSA to identify promising candidates while reducing time and cost versus traditional synthesis and testing.
The proposed solution provides a computational approach to identify novel antifungal compounds targeting Pyricularia oryzae, the causative agent of rice blast disease. By leveraging virtual screening and predictive modeling, the approach aims to prioritize compounds with high biological activity, selectivity for rice, and field-compatible properties such as stability and solubility. This method is intended to reduce the time and costs associated with traditional synthesis and testing, supporting sustainable and innovative agricultural solutions.
Currently at TRL 3, the technology has been validated through in silico studies, with plans for biological validation to further develop and test prioritized candidates in laboratory or greenhouse settings.