
Plant Centromere Biology.
Title:
Plant Centromere Biology.
Author:
Jiang, Jiming.
ISBN:
9781118525555
Personal Author:
Edition:
1st ed.
Physical Description:
1 online resource (299 pages)
Contents:
Cover -- Title page -- Copyright page -- Contents -- Contributors -- Preface -- 1: Arabidopsis Centromeres -- Centromere DNA structure -- Cytosine methylation and heterochromatin -- Centromere proteins -- Functional domains -- Future prospects and conclusions -- Acknowledgments -- References -- 2: Rice Centromeres -- Discovery of the centromeric retrotransposon (CR) in cereal species -- CRR elements in rice centromeres -- Rice centromeres contain a centromere-specific satellite repeat CentO -- Genome-wide mapping of CENH3-associated DNA sequences in rice centromeres -- Genes in rice centromeres -- Epigenetic modification of centromeric DNA and centromeric chromatin in rice -- Future research -- Acknowledgments -- References -- 3: Maize Centromeres -- Molecular characterization of maize centromeres: the beginnings -- CENH3 -- The maize genome sequence -- CRM evolution -- CentC evolution -- Other tandem repeats near maize centromeres -- Enrichment of CentC and CRM in functional centromeres -- Mapping centromere BACs -- Delineation of the functional centromeres -- Arrangement of centromere repeats -- Centromere inactivation and reactivation -- B centromeres -- Sequence turnover at centromeres -- Epigenetics of maize centromeres -- Remaining questions -- Acknowledgments -- References -- 4: A Molecular Cytogenetic Analysis of the Structure, Evolution, and Epigenetic Modifications of Major DNA Sequences in Centromeres of Beta Species -- The genus Beta -- Genomes and chromosomes -- Diversity and evolution of satellite DNA as a major component of Beta centromeres -- Centromeric retrotransposons in the genus Beta -- The centromeres of Beta procumbens and alien fragment addition lines -- Epigenetic characterization of the sugar beet centromere -- References -- 5: Centromere Synteny among Brachypodium, Wheat, and Rice -- Centromeres of wheat.
Centromeres of Brachypodium distachyon -- Centromere synteny between wheat and rice -- Centromere synteny among Brachypodium, wheat, and rice -- Possible mechanism of centromere inactivation -- Acknowledgments -- References -- 6: CENH3 for Establishing and Maintaining Centromeres -- CENH3: detection and evolution -- Identification and localization studies of CENH3 in different plant species -- CENH3 duplication in alloploid and some diploid species -- Loading of CENH3 to plant centromeres during mitotic cell cycle -- Distribution of CENH3 in pollen nuclei and its resetting in the zygote -- Epigenetic regulation of kinetochore assembly -- Functional requirement of N- and C-terminal parts of CENH3 -- Recognition of A. thaliana centromeres by heterologous CENH3 -- Deregulation of CENH3 activity in plants -- Interaction of CENH3 with centromeric DNA -- Regulation of CENH3 expression by the E2F transcription factor family -- CENH3 levels at centromeres decline with the age of tissue -- CENH3, from basic research to agricultural application -- Acknowledgments -- References -- 7: Holokinetic Centromeres -- Occurrence and evolution of holocentric chromosomes -- Structure and composition of holokinetic centromeres -- Terminal position of NOR-sites: required for chromosome integrity? -- Centromeric DNA, heterochromatin, and repeat distribution in holocentrics -- Meiosis in holocentric organisms -- Acknowledgments -- References -- 8: Is the Heterochromatin of Meiotic Neocentromeres a Remnant of the Early Evolution of the Primitive Centromere? -- The historical relationship between heterochromatin and neocentric activity -- Genetic and environmental factors affecting neocentromeres -- Neocentric activity in animal meiotic chromosomes -- Presence of subtelomeric sequences at neocentromeres and centromeres.
Centromeres and telomeres in unicellular eukaryotic organisms -- Beginning at the ends? Capping and segregation at the ends of nascent linear chromosomes -- Acknowledgments -- References -- 9: Misdivision of Centromeres -- The mechanics of centric misdivision -- Univalency and centric misdivision -- Susceptibility of chromosomes to misdivision -- Symmetry of breakage -- Fusion of broken chromosome ends -- Separation of centromeric functions and the minimum chromosome size -- Centric fission-fusion versus Robertsonian translocations -- References -- 10: Female Meiotic Drive in Monkeyflowers: Insight into the Population Genetics of Selfish Centromeres -- Centromere-associated drive in monkeyflowers -- Open questions -- Does drive cause centromeric evolution? -- Do costs of centromere selfishness drive kinetochore protein evolution? -- Does centromeric drive contribute to the evolution of species barriers in plants? -- Acknowledgments -- References -- 11: Plant Centromere Epigenetics -- Structural features of plant centromeres -- Evidence for epigenetic regulation of plant centromeres -- Epigenetic marks of plant centromeres -- Why are plant centromeres under epigenetic control? -- Conclusion -- References -- 12: Centromere Evolution -- Centromeric satellite repeats and repeat-based centromeres -- Neocentromere activation -- Centromere repositioning -- Centromere evolution: from a neocentromere to a mature centromere -- What triggers the activation of neocentromeres? -- What is required to fix an ENC in a population? -- Acknowledgments -- References -- 13: Centromere-Mediated Generation of Haploid Plants -- Uniparental genome elimination is a widespread outcome of distant genetic crosses -- Mechanistic hypotheses to explain uniparental genome elimination -- Centromere functional defects underlie genome elimination in barley.
Genome elimination in Arabidopsis thaliana can be caused by parental CENH3 differences -- Mechanism of genome elimination caused by CENH3 alterations -- Can we create CENH3-based haploid inducers in crops? -- Potential applications of a CENH3-based haploid inducer in agricultural genetics -- References -- 14: Engineered Plant Chromosomes -- Chromosome components: centromeres, telomeres, and origins of replication -- Telomere truncation of plant chromosomes -- Meiotic behavior and transmission of small engineered chromosomes in plants -- Modification of engineered plant chromosomes -- Potential utility of engineered plant chromosomes -- Engineered plant chromosomes and ecological concerns of genetically modified plants -- References -- Index.
Abstract:
Plant Centromere Biology is dedicated to plant centromere research. Chapters cover the structure of centromeres from several plant species including Arabidopsis thaliana, rice, maize, wheat and beet, while other sections cover several unique characteristics associated with plant centromeres, including classical and modern neocentromeres, centromere drive and centromere misdivision. Additional chapters are dedicated to epigenetic modification and evolution of plant centromeres, and development and application of plant artificial chromosomes. Written by an international group of experts in the field, Plant Centromere Biology is a valuable handbook for all plant scientists working on plant genome research. Beyond the bench, it can also serve as a helpful reference tool or textbook for upper level college classes on cytogenetics or genome analysis.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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