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Excerpt
Why should one study a worm? This simple creature is one of several “model” organisms that together have provided tremendous insight into how all organisms are put together. It has become increasingly clear over the past two decades that knowledge from one organism, even one so simple as a worm, can provide tremendous power when connected with knowledge from other organisms. And because of the experimental accessibility of nematodes, knowledge about worms can come more quickly and cheaply than knowledge about higher organisms.
Contents
- Reviewers
- Preface
- Foreword
- Chapter 1. Introduction to C. elegansDonald L Riddle, Thomas Blumenthal, Barbara J Meyer, and James R Priess.
- Chapter 2. The GenomeRobert H Waterston, John E Sulston, and Alan R Coulson.
- Chapter 3. Chromosome Organization, Mitosis, and MeiosisDonna G Albertson, Ann M Rose, and Anne M Villeneuve.
- Chapter 4. MutationRobert C Johnsen and David L Baillie.
- Chapter 5. TransposonsRonald H A Plasterk and Henri G A M van Luenen.
- Chapter 6. RNA Processing and Gene StructureThomas Blumenthal and Keith Steward.
- I Introduction
- II Cis -Splicing in Worms
- III Trans -Splicing
- IV SL2 Trans -Splicing and Operons
- V Trans -Splicing in Vitro
- VI Frequency of Operons and Trans -Splicing
- VII Organization and Transcription of Spliced Leader RNA Genes
- VIII 3′-End Formation
- IX Translation Initiation and Termination Signals
- X Conclusions
- Acknowledgments
- Chapter 7. Transcription Factors and Transcriptional RegulationJames D McGhee and Michael W. Krause.
- Chapter 8. mRNA and TranslationPhilip Anderson and Judith Kimble.
- Chapter 9. Sex Determination and X Chromosome Dosage CompensationBarbara J Meyer.
- I Introduction
- II Sexual Dimorphism
- III The Primary Sex-Determination Signal and its Gene Target
- IV Hermaphrodite-Specific Genes that Coordinately Control Sex Determination and Dosage Compensation
- V X Chromosome Dosage Compensation
- VI Somatic Sex Determination
- VII Sex Determination in The Germ Line Versus the Soma
- VIII Concluding Remarks
- Acknowledgments
- Chapter 10. Developmental Genetics of the Germ LineTim Schedl.
- I Introduction
- II Summary of Anatomy and Development of the Germ Line
- III Genetic Analysis of Germ-Line Development
- IV Somatic Gonad
- V Germ-Line Specification and Survival
- VI Germ-Line Sex Determination
- VII Control of Proliferation and Entry into the Meiotic Pathway
- VIII Meiotic Prophase Progression and Gametogenesis
- IX Oocyte Development, Maturation, and Ovulation
- X Future Prospects
- Acknowledgments
- Chapter 11. SpermatogenesisSteven W L'Hernault.
- Chapter 12. Male Development and Mating BehaviorScott W Emmons and Paul W Sternberg.
- Chapter 13. Fertilization and Establishment of Polarity in the EmbryoKenneth J Kemphues and Susan Strome.
- Chapter 14. Specification of Cell Fates in the Early EmbryoRalf Schnabel and James R Priess.
- Chapter 15. Cell DeathMichael O Hengartner.
- Chapter 16. Muscle: Structure, Function, and DevelopmentDonald G Moerman and Andrew Fire.
- Chapter 17. Extracellular MatrixJames M Kramer.
- Chapter 18. Heterochronic GenesVictor Ambros.
- Chapter 19. Development of the VulvaIva Greenwald.
- Chapter 20. Patterning the Nervous SystemGary Ruvkun.
- Chapter 21. Cell and Growth Cone MigrationsAdam Antebi, Carolyn R Norris, Edward M Hedgecock, and Gian Garriga.
- I Introduction
- II Neuroglia and Pioneers
- III Netrins Guide Circumferential Migrations
- IV Hierarchies Of Guidance Cues
- V Genetic Requirements for Axonal Growth
- VI Cell Migration and other Aspects of Cellular Phenotype
- VII Muscle Positioning on the Body Wall and Muscle Arm Chemotropism
- VIII Future Directions
- Acknowledgments
- Chapter 22. Synaptic TransmissionJames B Rand and Michael L Nonet.
- Chapter 23. MechanotransductionMonica Driscoll and Joshua Kaplan.
- Chapter 24. Feeding and DefecationLeon Avery and James H Thomas.
- Chapter 25. Chemotaxis and ThermotaxisCornelia I Bargmann and Ikue Mori.
- I Introduction
- II C. elegans Responds to a Variety of Chemicals
- III The Behavioral Mechanism of Chemotaxis and Thermotaxis
- IV Cellular Analysis of Chemosensory and Thermosensory Neurons
- V Genetic and Molecular Analysis of Chemosensation and Thermosensation
- VI Regulation of Chemotaxis and Thermotaxis by Experience
- VII Conclusions and Prospects
- Acknowledgments
- Chapter 26. Genetic and Environmental Regulation of Dauer Larva DevelopmentDonald L Riddle and Patrice S Albert.
- Chapter 27. Neural PlasticityErik M Jorgensen and Catharine Rankin.
- Chapter 28. Environmental Factors and Gene Activities That Influence Life SpanCynthia Kenyon.
- Chapter 29. EvolutionDavid H A Fitch and W. Kelley Thomas.
- Chapter 30. Parasitic NematodesMark Blaxter and David Bird.
- Appendix 1 GeneticsJonathan Hodgkin.
- Appendix 2 Neurotransmitter Assignments for Specific NeuronsJames B Rand and Michael L Nonet.
- Appendix 3 Codon Usage in C. elegansPaul M Sharp and Keith R Bradnam.
- Appendix 4 On-line C. elegans ResourcesMark L Edgley, Carolyn A Turner, and Donald L Riddle.
- Bibliography
- NLM CatalogRelated NLM Catalog Entries
- Perceptions and actions of Dutch sheep farmers concerning worm infections.[Vet Parasitol. 2016]Perceptions and actions of Dutch sheep farmers concerning worm infections.Ploeger HW, Antonis AFG, Verkaik JC, Vellema P, Bokma-Bakker MH. Vet Parasitol. 2016 Oct 15; 229:150-158. Epub 2016 Oct 18.
- Macrofilaricidal activity of tetracycline against the filarial nematode Onchocerca ochengi: elimination of Wolbachia precedes worm death and suggests a dependent relationship.[Proc Biol Sci. 2000]Macrofilaricidal activity of tetracycline against the filarial nematode Onchocerca ochengi: elimination of Wolbachia precedes worm death and suggests a dependent relationship.Langworthy NG, Renz A, Mackenstedt U, Henkle-Dührsen K, de Bronsvoort MB, Tanya VN, Donnelly MJ, Trees AJ. Proc Biol Sci. 2000 Jun 7; 267(1448):1063-9.
- Review Caenorhabditis elegans as an alternative model to study senescence of host defense and the prevention by immunonutrition.[Adv Exp Med Biol. 2012]Review Caenorhabditis elegans as an alternative model to study senescence of host defense and the prevention by immunonutrition.Komura T, Ikeda T, Hoshino K, Shibamura A, Nishikawa Y. Adv Exp Med Biol. 2012; 710:19-27.
- Worm chips: microtools for C. elegans biology.[Lab Chip. 2010]Worm chips: microtools for C. elegans biology.Chronis N. Lab Chip. 2010 Feb 21; 10(4):432-7. Epub 2009 Dec 1.
- Review Stressed worms: responding to the post-genomics era.[Mol Biochem Parasitol. 2005]Review Stressed worms: responding to the post-genomics era.Gal TZ, Glazer I, Koltai H. Mol Biochem Parasitol. 2005 Sep; 143(1):1-5.
- C. elegans IIC. elegans II
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