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dc.contributor.editorMatilla, Angel J.
dc.date.accessioned2021-05-01T15:45:36Z
dc.date.available2021-05-01T15:45:36Z
dc.date.issued2020
dc.identifierONIX_20210501_9783039436538_1022
dc.identifier.urihttps://directory.doabooks.org/handle/20.500.12854/69276
dc.description.abstractThe appearance of the new generation in higher plants is ensured by the presence of viable seeds in the mother plant. A good number of signaling networks is necessary to provoke germination. Phytohormones play a key role in all stages of seed development, maturation, and dormancy acquisition. The dormancy of some seeds can be relieved through a tightly regulated process called after-ripening (AR) that occurs in viable seeds stored in a dry environment. Although ABA is directly involved in dormancy, recent data suggest that auxin also plays a preponderant role. On the other hand, the participation of reactive oxygen species (ROS) in the life of the seed is becoming increasingly confirmed. ROS accumulate at different stages of the seed’s life and are correlated with a low degree of dormancy. Thus, ROS increase upon AR and dormancy release. In the last decade, the advances in the knowledge of seed life have been noteworthy. In this Special Issue, those processes regulated by DOG1, auxin, and nucleic acid modifications are updated. Likewise, new data on the effect of alternating temperatures (AT) on dormancy release are here present. On the one hand, the transcriptome patterns stimulated at AT that encompasses ethylene and ROS signaling and metabolism together with ABA degradation were also discussed. Finally, it was also suggested that changes in endogenous γ-aminobutyric acid (GABA) may prevent seed germination.
dc.languageEnglish
dc.subject.classificationthema EDItEUR::G Reference, Information and Interdisciplinary subjects::GP Research and information: generalen_US
dc.subject.classificationthema EDItEUR::P Mathematics and Science::PS Biology, life sciencesen_US
dc.subject.otherchestnut
dc.subject.otherGABA
dc.subject.otherseed germination
dc.subject.othercarbon metabolism
dc.subject.othernitrogen metabolism
dc.subject.otherDOG1
dc.subject.otherseed dormancy
dc.subject.otherABA
dc.subject.otherethylene
dc.subject.otherclade-A PP2C phosphatase (AHG1
dc.subject.otherAHG3)
dc.subject.otherafter-ripening
dc.subject.otherasDOG1
dc.subject.otherheme-group
dc.subject.otherassociation mapping
dc.subject.otherclimate adaptation
dc.subject.othergermination
dc.subject.othergenomics
dc.subject.otherlegumes
dc.subject.otherMedicago
dc.subject.otherplasticity
dc.subject.otherphysical dormancy
dc.subject.otherDNA methylation
dc.subject.otheroxidation
dc.subject.otherRNA stability
dc.subject.otherseed vigour
dc.subject.otherROS
dc.subject.otherprimary dormancy
dc.subject.otherABI3
dc.subject.otherauxin
dc.subject.otherYUC
dc.subject.otherPIN
dc.subject.otherARF
dc.subject.otherendosperm
dc.subject.otherinteguments
dc.subject.otherAGL62
dc.subject.otherPRC2
dc.subject.otherRNA-Seq
dc.subject.otherdormancy termination
dc.subject.othergene expression
dc.subject.otherantioxidants
dc.subject.otherethylene signaling
dc.subject.otherenvironmental signals
dc.subject.otherlong-lived mRNA
dc.subject.othermonosomes
dc.subject.otherauxin and ABA
dc.subject.otheralternating temperatures
dc.titleSeed Dormancy
dc.title.alternativeMolecular Control of Its Induction and Alleviation
dc.typebook
oapen.identifier.doi10.3390/books978-3-03943-654-5
oapen.relation.isPublishedBy46cabcaa-dd94-4bfe-87b4-55023c1b36d0
oapen.relation.isbn9783039436538
oapen.relation.isbn9783039436545
oapen.pages124
oapen.place.publicationBasel, Switzerland


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