Conference

Comprehensive genome-wide identification and comparative analysis of the NBS-LRR resistance gene family in rice to elucidate evolutionary patterns, structural diversity, and functional roles in plant–microbe interactions. Integrating bioinformatics, phylogenetics, and expression profiling, the study highlights candidate resistance loci for improved blast disease management and sustainable crop protection. 

This study combined morphological identification, molecular phylogenetics, and in silico immunoinformatic analyses to characterize Alternaria destruens, an emerging fungal pathogen threatening tomato production in Bangladesh. The research assessed genetic diversity, pathogenic potential, and predicted antigenic determinants to evaluate both agricultural impact and possible human health risks. The findings contribute to early detection strategies and integrated disease management frameworks for sustainable crop protection.

Combined morphological assessment, molecular characterization, and effector protein profiling to decode pathogenic diversity and virulence mechanisms of Pyricularia oryzae associated with rice blast.

This study combined classical morphology with RAPD-based molecular profiling to characterize genetic diversity in Pyricularia oryzae, the causal agent of rice blast. The integrative approach revealed distinct genetic variability among isolates, providing insights into pathogen evolution, virulence potential, and implications for resistance breeding strategies.

This study integrated morphological identification, molecular characterization, and in silico immunoinformatic analyses to profile Alternaria destruens, an emerging fungal pathogen threatening tomato production in Bangladesh. The work highlighted its pathogenic potential, genetic attributes, and possible health-related allergenic risks, providing a foundation for improved surveillance and disease management strategies.

This work explored bio–nano synergistic systems by integrating fungal-derived enzymes with green-synthesized nanoparticles to enhance catalytic efficiency and stability. The approach highlights a sustainable biocatalysis framework with potential applications in eco-friendly industrial processes and circular bioeconomy innovation.

This study conducted a comprehensive genome-wide analysis of the NBS-LRR resistance gene family in rice, integrating comparative genomics, domain architecture profiling, and evolutionary analysis. The findings revealed structural diversification and adaptive expansion patterns linked to plant–microbe interactions, providing genomic insights for improved disease resistance and sustainable crop management. 

This study explored chemically induced mutagenesis to develop blast-resistant Oryza sativa L. lines, integrating phenotypic screening with molecular validation. The findings highlight mutagenesis as a sustainable strategy for enhancing disease resilience while ensuring nutritional safety and long-term food system stability.