Scientific Reports · 2018 · 183 citations · 73 references
Life SciencesPlant BiologyPlant SciencesPlant Molecular BiologyPlant PhysiologyTranscriptomicsBud DormancyPlant EnzymesPlant Hormone PhysiologyPlant Hormone SignalingPlant HormonesPlant TranscriptomicsCarbohydrate Metabolism During DormancyDormancy TranscriptomicsGene Expression During DormancyHormonal Regulation Of DormancyPlant Carbohydrate MetabolismTemperature Effects On DormancyTranscriptome AnalysisTranscriptomics Of Bud Dormancy
Bud dormancy transition is a vital developmental process for perennial plant survival. The process is precisely regulated by diverse endogenous genetic factors and environmental cues, but the mechanisms are not yet fully understood. Prunus mume is an ideal crop for bud dormancy analysis because of its early spring-flowering characteristics and small sequenced genome. Here, we analyzed the transcriptome profiles at the three endodormancy stages and natural flush stage using RNA sequencing combined with phytohormone and sugar content measurements. Significant alterations in hormone contents and carbohydrate metabolism have been observed, and α-amylases, Glucan Hydrolase Family 17 and diphosphate-glycosyltransferase family might play crucial roles in the interactions between hormones and sugars. The following hypothetical model for understanding the molecular mechanism of bud dormancy in Prunus mume is proposed: low temperatures exposure induces the significant up-regulation of eight C-repeat binding factor genes, which directly promotes all six dormancy-associated MADS-box genes, resulting in dormancy establishment. The prolonged cold and/or subsequently increasing temperature then decreases the expression levels of these two gene families, which alleviates the inhibition of FLOWERING LOCUS T and reopens the growth-promoting pathway, resulting in dormancy release and the initiation of the bud break process.
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Patrick Achard, Fan Gong, Soizic Cheminant et al. · The Plant Cell · 2008 · 842 citations · Full text
“Endo-, Para, and Ecodormancy: Physiological Terminology and Classification for Dormancy Research”
Gregory A. Lang, Jack D. Early, George C. Martin et al. · HortScience · 1987 · 728 citations · Full text
Life Sciences, Biology, Physiology +15
Optimizing illumina next-generation sequencing library preparation for extremely at-biased genomes
Samuel O. Oyola, Thomas D. Otto, Yong Gu et al. · BMC Genomics · 2012 · 668 citations · Full text