TL;DR
Three candidate transcription factor genes are found as potential regulators linking isoflavonoid metabolism and lipid barrier formation, providing molecular insights for soybean resistance breeding.
The resistant mutant achieves rust resistance by strengthening physical defense through cell wall reinforcement and by enhancing chemical defense through the accumulation of antimicrobial metabolites, under the control of AP2/ERF members.
Together, these findings highlight coordinated molecular and metabolic reprogramming that strengthens rice resistance to RFS, providing valuable candidate genes and metabolites for breeding programs.
This multi-omics framework provides detailed lipidomic and transcriptomic signatures to identify candidate genes and lipid biomarkers for marker-assisted breeding of bacterial wilt-resistant peanut varieties.
The findings provide valuable insights into the role of terpene-mediated responses in rice plants during interactions with BPH, highlighting OsTPS10 as a promising target for future research on sustainable pest management and resistance breeding.
Enhanced phenolic chemical defense is identified as a major component of resistance to multiple SCN populations in wild soybean and highlight wild soybean as a valuable source of molecular and biochemical diversity for SCN resistance.
This study characterized theaflavins as potent, JA-inducible defenses with structure-dependent efficacy at a low dose (1.25 μg/g), and identified key peroxidases and laccases involved in their biosynthesis.
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