2026· Life Research· Vol 9, pp. 16· 0 citations· 73 references
TL;DR
This review synthesizes current knowledge regarding the biological complexity and genetic differentiation of the pathogen, the spatiotemporal dynamics of host infection and histopathology, and the mechanistic contributions of core virulence arsenals to provide an in-depth analysis of how mechanistic insights can be translated into actionable strategies for improving maize resistance and developing sustainable green management technologies.
Abstract
Maize sheath blight, caused by the soil-borne necrotrophic fungus Rhizoctonia solani Kühn, constitutes a pervasive threat to global maize production. Particularly severe epidemics have been documented across China’s three major cultivation regions: the Huang-Huai-Hai Plain, Northeast China, and Southwest China. Annual yield losses routinely range from 10% to 20%, and can exceed 35% under conditions of high inoculum density. The escalating prevalence of this disease is driven by the convergence of intensified agronomic practices—specifically higher planting densities and prolonged monocropping—and the altered environmental pressures of global climate change. This review synthesizes current knowledge regarding the biological complexity and genetic differentiation of the pathogen, the spatiotemporal dynamics of host infection and histopathology, and the mechanistic contributions of core virulence arsenals. We explicitly distinguish between mechanisms validated in maize, those conserved across hosts, and those requiring further verification in maize systems. Most importantly, we provide an in-depth analysis of how these mechanistic insights can be translated into actionable strategies for improving maize resistance and developing sustainable green management technologies. By identifying critical gaps in our molecular understanding, we delineate priority research trajectories aimed at deciphering the intricate pathogenic network and fostering the development of sustainable, green management strategies.
Stemphylium vesicarium
is an emerging multi-host fungal pathogen that increasingly threatens European and global horticulture. Initially recognized as the causal agent of brown spot of pear and Stemphylium leaf blight of onion, the pathogen is now associated with diseases of other economically important crops, inc...
M. Cortiello, A. Montorsi, F. Bellameche et al.· European journal of plant pa...· 0 citations
Rice (Oryza sativa L.), a cornerstone of global food security and trade, is increasingly threatened by the emerging fungal pathogen Curvularia lunata, which causes brown leaf spot, grain discoloration, kernel rot, and substantial yield and grain quality losses. This review synthesizes current knowledge on the biology,...
Naematullah Shah, G. H. Jatoi, M. A. Abro et al.· Plant Protection· 0 citations
Pantoea ananatis is an emerging bacterial pathogen in rice with increasing reports across global rice-growing regions. While previous studies have suggested its presence in the seed, direct evidence for seed-to-plant transmission in rice remains limited. In this study, we characterized P. ananatis isolates recovered fr...
Rodrigo Pedrozo, C. Nicolli, S. D. de Paula et al.· Phytopathology· 0 citations
ABSTRACT The soil-borne Gram-negative beta-proteobacterium Ralstonia solanacearum species complex (RSSC) causes bacterial wilt, a devastating plant disease that threatens crop production and food security worldwide. In this review, we first summarize current knowledge of RSSC pathogenicity and virulence, focusing on th...
Masayuki Tsuzuki, Y. Hikichi, Sora Tateda et al.· Virulence· 0 citations
Fire blight disease, caused by the highly virulent bacterial pathogen
Erwinia amylovora
, is a devastating disease that continues to spread to new regions worldwide. High-density planting systems for apple combined with large plantings of consumer-preferred but highly susceptible cultivars have fueled disease out...
George W. Sundin, Youfu Zhao, O. Emeriewen et al.· Journal of plant pathology· 0 citations
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