Diverse Sorghum bicolor accessions show marked variation in growth and transcriptional responses to arbuscular mycorrhizal fungi

生物 高粱 菌根 丛枝菌根 作物 共生 遗传变异 植物 营养物 基因型 基因 农学 生态学 遗传学 细菌
作者
Stephanie J. Watts‐Williams,Bryan D. Emmett,Veronique Lévesque-Tremblay,Allyson M. MacLean,Xuepeng Sun,James W. Satterlee,Zhangjun Fei,Maria Harrison
出处
期刊:Plant Cell and Environment [Wiley]
卷期号:42 (5): 1758-1774 被引量:66
标识
DOI:10.1111/pce.13509
摘要

Abstract Sorghum is an important crop grown worldwide for feed and fibre. Like most plants, it has the capacity to benefit from symbioses with arbuscular mycorrhizal (AM) fungi, and its diverse genotypes likely vary in their responses. Currently, the genetic basis of mycorrhiza‐responsiveness is largely unknown. Here, we investigated transcriptional and physiological responses of sorghum accessions, founders of a bioenergy nested association mapping panel, for their responses to four species of AM fungi. Transcriptome comparisons across four accessions identified mycorrhiza‐inducible genes; stringent filtering criteria revealed 278 genes that show mycorrhiza‐inducible expression independent of genotype and 55 genes whose expression varies with genotype. The latter suggests variation in phosphate transport and defence across these accessions. The mycorrhiza growth and nutrient responses of 18 sorghum accessions varied tremendously, ranging from mycorrhiza‐dependent to negatively mycorrhiza‐responsive. Additionally, accessions varied in the number of AM fungi to which they showed positive responses, from one to several fungal species. Mycorrhiza growth and phosphorus responses were positively correlated, whereas expression of two mycorrhiza‐inducible phosphate transporters, SbPT8 and SbPT9 , correlated negatively with mycorrhizal growth responses. AM fungi improve growth and mineral nutrition of sorghum, and the substantial variation between lines provides the potential to map loci influencing mycorrhiza responses.

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