Xenopus : : from basic biology to disease models in the genomic era / / edited by Abraham Fainsod, Sally A. Moody.
"Xenopus is unique among the model animals used in the biology. Several books of protocols used Xenopus. Missing is a book taking an historical perspective documenting cell and developmental discoveries and illustrating how Xenopus contributes to the understanding of genes. These topics will be...
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Place / Publishing House: | Boca Raton : : Taylor & Francis,, 2022. ©2022 |
Year of Publication: | 2022 |
Language: | English |
Physical Description: | 1 online resource (360 pages) |
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Xenopus : from basic biology to disease models in the genomic era / edited by Abraham Fainsod, Sally A. Moody. Xenopus Boca Raton : Taylor & Francis, 2022. ©2022 1 online resource (360 pages) text txt rdacontent computer c rdamedia online resource cr rdacarrier Description based on: online resource; title from PDF information screen (JSTOR, viewed May 16, 2023). "Xenopus is unique among the model animals used in the biology. Several books of protocols used Xenopus. Missing is a book taking an historical perspective documenting cell and developmental discoveries and illustrating how Xenopus contributes to the understanding of genes. These topics will be covered in the proposed book"-- Provided by publisher. Includes bibliographical references and index. Section I. -- 1. A quick history of Xenopus. -- 2. The study of cell division controla and DNA replication in Xenopus egg extracts. -- 3. Maternal gene control of embryogenesis: germ cell determination and germ layer formation. -- 4. Signaling components in dorsal-ventral patterning and the Organizer. -- 5. Signaling pathways in anterior-posterior patterning. -- 6. Wnt signaling in tissue differentiation and morphogenesis. -- 7. Multiple functions of Notch signaling during early embryogenesis. -- 8. The development and evolution of the vertebrate neural crest: Insights from Xenopus. -- 9. The use of Xenopus oocytes to study the biophysics and pharmacological properties of receptors and channels. -- Section II. -- 10. The continuing evolution of the Xenopus genome. -- 11. Dynamics of chromatin remodeling during Xenopus development. -- 12. Gene regulatory networks controlling Xenopus embryogenesis. -- 13. The development of high-resolution proteomic analyses in Xenopus. -- 14. Advances in genome editing tools. -- Section III. -- 15. Formation of the left-right axis: insights from the Xenopus model. -- 16. Discovering the function of congenital heart disease genes. -- 17. Craniofacial development and disorders - contributions of Xenopus. -- 18. Modeling digestive and respiratory system development and disease in Xenopus. -- 19. Functional neurobiology and insights into human disease. -- 20. Leaping towards the understanding of spinal cord regeneration. -- 21. Studying tumor formation and regulation in Xenopus. -- 22. Xenopus: a model to study natural genetic variation and its disease implications. -- 23. Using Xenopus to understand pluripotency and reprogram cells for therapeutic use. Maternal gene control of embryogenesis. -- Chapter 8: Sex determination in Xenopus. -- Section II: Gene Discovery and Disease. -- Chapter 9: Xenopus and the discovery of developmental genes. -- Chapter 10: Systems Biology of Xenopus Embryogenesis. -- Chapter 11: Gene regulatory networks in craniofacial development. -- Chapter 12: Using Xenopus to discover regulation of GI development and disease. -- Chapter 13: Using Xenopus to discover the function of congenital heart disease genes. -- Chapter 14: Using Xenopus to discover the function of congenital kidney disease genes. -- Chapter 15: Using Xenopus to study genes involved in cancers. -- Section III: Evolution. Chapter 16: Evolution of amphibians. Chapter 17: Evolution of Xenopus communication. Chapter 18: Evolution of the immune system . -- Chapter 19: Evolution of the left-right axis. -- Chapter 20: Evolution of the Xenopus genome. Xenopus. 0-367-50534-7 Fainsod, Abraham, editor. Moody, Sally A., editor. |
language |
English |
format |
eBook |
author2 |
Fainsod, Abraham, Moody, Sally A., |
author_facet |
Fainsod, Abraham, Moody, Sally A., |
author2_variant |
a f af s a m sa sam |
author2_role |
TeilnehmendeR TeilnehmendeR |
title |
Xenopus : from basic biology to disease models in the genomic era / |
spellingShingle |
Xenopus : from basic biology to disease models in the genomic era / Section I. -- 1. A quick history of Xenopus. -- 2. The study of cell division controla and DNA replication in Xenopus egg extracts. -- 3. Maternal gene control of embryogenesis: germ cell determination and germ layer formation. -- 4. Signaling components in dorsal-ventral patterning and the Organizer. -- 5. Signaling pathways in anterior-posterior patterning. -- 6. Wnt signaling in tissue differentiation and morphogenesis. -- 7. Multiple functions of Notch signaling during early embryogenesis. -- 8. The development and evolution of the vertebrate neural crest: Insights from Xenopus. -- 9. The use of Xenopus oocytes to study the biophysics and pharmacological properties of receptors and channels. -- Section II. -- 10. The continuing evolution of the Xenopus genome. -- 11. Dynamics of chromatin remodeling during Xenopus development. -- 12. Gene regulatory networks controlling Xenopus embryogenesis. -- 13. The development of high-resolution proteomic analyses in Xenopus. -- 14. Advances in genome editing tools. -- Section III. -- 15. Formation of the left-right axis: insights from the Xenopus model. -- 16. Discovering the function of congenital heart disease genes. -- 17. Craniofacial development and disorders - contributions of Xenopus. -- 18. Modeling digestive and respiratory system development and disease in Xenopus. -- 19. Functional neurobiology and insights into human disease. -- 20. Leaping towards the understanding of spinal cord regeneration. -- 21. Studying tumor formation and regulation in Xenopus. -- 22. Xenopus: a model to study natural genetic variation and its disease implications. -- 23. Using Xenopus to understand pluripotency and reprogram cells for therapeutic use. Maternal gene control of embryogenesis. -- Chapter 8: Sex determination in Xenopus. -- Section II: Gene Discovery and Disease. -- Chapter 9: Xenopus and the discovery of developmental genes. -- Chapter 10: Systems Biology of Xenopus Embryogenesis. -- Chapter 11: Gene regulatory networks in craniofacial development. -- Chapter 12: Using Xenopus to discover regulation of GI development and disease. -- Chapter 13: Using Xenopus to discover the function of congenital heart disease genes. -- Chapter 14: Using Xenopus to discover the function of congenital kidney disease genes. -- Chapter 15: Using Xenopus to study genes involved in cancers. -- Section III: Evolution. Chapter 16: Evolution of amphibians. Chapter 17: Evolution of Xenopus communication. Chapter 18: Evolution of the immune system . -- Chapter 19: Evolution of the left-right axis. -- Chapter 20: Evolution of the Xenopus genome. |
title_sub |
from basic biology to disease models in the genomic era / |
title_full |
Xenopus : from basic biology to disease models in the genomic era / edited by Abraham Fainsod, Sally A. Moody. |
title_fullStr |
Xenopus : from basic biology to disease models in the genomic era / edited by Abraham Fainsod, Sally A. Moody. |
title_full_unstemmed |
Xenopus : from basic biology to disease models in the genomic era / edited by Abraham Fainsod, Sally A. Moody. |
title_auth |
Xenopus : from basic biology to disease models in the genomic era / |
title_alt |
Xenopus |
title_new |
Xenopus : |
title_sort |
xenopus : from basic biology to disease models in the genomic era / |
publisher |
Taylor & Francis, |
publishDate |
2022 |
physical |
1 online resource (360 pages) |
contents |
Section I. -- 1. A quick history of Xenopus. -- 2. The study of cell division controla and DNA replication in Xenopus egg extracts. -- 3. Maternal gene control of embryogenesis: germ cell determination and germ layer formation. -- 4. Signaling components in dorsal-ventral patterning and the Organizer. -- 5. Signaling pathways in anterior-posterior patterning. -- 6. Wnt signaling in tissue differentiation and morphogenesis. -- 7. Multiple functions of Notch signaling during early embryogenesis. -- 8. The development and evolution of the vertebrate neural crest: Insights from Xenopus. -- 9. The use of Xenopus oocytes to study the biophysics and pharmacological properties of receptors and channels. -- Section II. -- 10. The continuing evolution of the Xenopus genome. -- 11. Dynamics of chromatin remodeling during Xenopus development. -- 12. Gene regulatory networks controlling Xenopus embryogenesis. -- 13. The development of high-resolution proteomic analyses in Xenopus. -- 14. Advances in genome editing tools. -- Section III. -- 15. Formation of the left-right axis: insights from the Xenopus model. -- 16. Discovering the function of congenital heart disease genes. -- 17. Craniofacial development and disorders - contributions of Xenopus. -- 18. Modeling digestive and respiratory system development and disease in Xenopus. -- 19. Functional neurobiology and insights into human disease. -- 20. Leaping towards the understanding of spinal cord regeneration. -- 21. Studying tumor formation and regulation in Xenopus. -- 22. Xenopus: a model to study natural genetic variation and its disease implications. -- 23. Using Xenopus to understand pluripotency and reprogram cells for therapeutic use. Maternal gene control of embryogenesis. -- Chapter 8: Sex determination in Xenopus. -- Section II: Gene Discovery and Disease. -- Chapter 9: Xenopus and the discovery of developmental genes. -- Chapter 10: Systems Biology of Xenopus Embryogenesis. -- Chapter 11: Gene regulatory networks in craniofacial development. -- Chapter 12: Using Xenopus to discover regulation of GI development and disease. -- Chapter 13: Using Xenopus to discover the function of congenital heart disease genes. -- Chapter 14: Using Xenopus to discover the function of congenital kidney disease genes. -- Chapter 15: Using Xenopus to study genes involved in cancers. -- Section III: Evolution. Chapter 16: Evolution of amphibians. Chapter 17: Evolution of Xenopus communication. Chapter 18: Evolution of the immune system . -- Chapter 19: Evolution of the left-right axis. -- Chapter 20: Evolution of the Xenopus genome. |
isbn |
0-367-50534-7 |
callnumber-first |
Q - Science |
callnumber-subject |
QL - Zoology |
callnumber-label |
QL668 |
callnumber-sort |
QL 3668 E265 X466 42022 |
illustrated |
Not Illustrated |
dewey-hundreds |
500 - Science |
dewey-tens |
590 - Animals (Zoology) |
dewey-ones |
597 - Cold-blooded vertebrates; fishes |
dewey-full |
597.8654 |
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3597.8654 |
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