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Genetic mechanisms underlying diverse panicle architecture in rice
Ayumi Agata1,2
1Graduate School of Bioagricultural Sciences, Nagoya University, Chikusa, Nagoya, Japan.
Abstract:
Rice panicle architecture exhibits remarkable diversity and is crucial in determining grain production. Recent advances in the understanding of the genetic mechanisms underlying panicle morphogenesis offer promising avenues for improving rice productivity. Here, I reviewed recent studies on the developmental regulatory genes responsible for panicle architecture and explored how these findings can be applied to crop breeding. I also discuss the potential of using wild Oryza genetic resources, highlighting their value not only for scientific exploration but also for breeding innovation. Isolating novel genes related to panicle development and understanding their function are essential for designing diverse panicle architectures by quantitative trait locus pyramiding or genome editing technology. The use of these genetic resources offers a sustainable means to improve rice plant architecture and their resilience to climate change.
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