Book contents
- Frontmatter
- Contents
- Editor, Associate Editors, Artistic Consultant, and Contributors
- Preface
- PART I CONTEXT
- 1 The Endothelium in History
- 2 Introductory Essay: Evolution, Comparative Biology, and Development
- 3 Evolution of Cardiovascular Systems and Their Endothelial Linings
- 4 The Evolution and Comparative Biology of Vascular Development and the Endothelium
- 5 Fish Endothelium
- 6 Hagfish: A Model for Early Endothelium
- 7 The Unusual Cardiovascular System of the Hemoglobinless Antarctic Icefish
- 8 The Fish Endocardium: A Review on the Teleost Heart
- 9 Skin Breathing in Amphibians
- 10 Avian Endothelium
- 11 Spontaneous Cardiovascular and Endothelial Disorders in Dogs and Cats
- 12 Giraffe Cardiovascular Adaptations to Gravity
- 13 Energy Turnover and Oxygen Transport in the Smallest Mammal: The Etruscan Shrew
- 14 Molecular Phylogeny
- 15 Darwinian Medicine: What Evolutionary Medicine Offers to Endothelium Researchers
- 16 The Ancestral Biomedical Environment
- 17 Putting Up Resistance: Maternal–Fetal Conflict over the Control of Uteroplacental Blood Flow
- 18 Xenopus as a Model to Study Endothelial Development and Modulation
- 19 Vascular Development in Zebrafish
- 20 Endothelial Cell Differentiation and Vascular Development in Mammals
- 21 Fate Mapping
- 22 Pancreas and Liver: Mutual Signaling during Vascularized Tissue Formation
- 23 Pulmonary Vascular Development
- 24 Shall I Compare the Endothelium to a Summer's Day: The Role of Metaphor in Communicating Science
- 25 The Membrane Metaphor: Urban Design and the Endothelium
- 26 Computer Metaphors for the Endothelium
- PART II ENDOTHELIAL CELL AS INPUT-OUTPUT DEVICE
- PART III VASCULAR BED/ORGAN STRUCTURE AND FUNCTION IN HEALTH AND DISEASE
- PART IV DIAGNOSIS AND TREATMENT
- PART V CHALLENGES AND OPPORTUNITIES
- Index
- Plate section
21 - Fate Mapping
from PART I - CONTEXT
Published online by Cambridge University Press: 04 May 2010
- Frontmatter
- Contents
- Editor, Associate Editors, Artistic Consultant, and Contributors
- Preface
- PART I CONTEXT
- 1 The Endothelium in History
- 2 Introductory Essay: Evolution, Comparative Biology, and Development
- 3 Evolution of Cardiovascular Systems and Their Endothelial Linings
- 4 The Evolution and Comparative Biology of Vascular Development and the Endothelium
- 5 Fish Endothelium
- 6 Hagfish: A Model for Early Endothelium
- 7 The Unusual Cardiovascular System of the Hemoglobinless Antarctic Icefish
- 8 The Fish Endocardium: A Review on the Teleost Heart
- 9 Skin Breathing in Amphibians
- 10 Avian Endothelium
- 11 Spontaneous Cardiovascular and Endothelial Disorders in Dogs and Cats
- 12 Giraffe Cardiovascular Adaptations to Gravity
- 13 Energy Turnover and Oxygen Transport in the Smallest Mammal: The Etruscan Shrew
- 14 Molecular Phylogeny
- 15 Darwinian Medicine: What Evolutionary Medicine Offers to Endothelium Researchers
- 16 The Ancestral Biomedical Environment
- 17 Putting Up Resistance: Maternal–Fetal Conflict over the Control of Uteroplacental Blood Flow
- 18 Xenopus as a Model to Study Endothelial Development and Modulation
- 19 Vascular Development in Zebrafish
- 20 Endothelial Cell Differentiation and Vascular Development in Mammals
- 21 Fate Mapping
- 22 Pancreas and Liver: Mutual Signaling during Vascularized Tissue Formation
- 23 Pulmonary Vascular Development
- 24 Shall I Compare the Endothelium to a Summer's Day: The Role of Metaphor in Communicating Science
- 25 The Membrane Metaphor: Urban Design and the Endothelium
- 26 Computer Metaphors for the Endothelium
- PART II ENDOTHELIAL CELL AS INPUT-OUTPUT DEVICE
- PART III VASCULAR BED/ORGAN STRUCTURE AND FUNCTION IN HEALTH AND DISEASE
- PART IV DIAGNOSIS AND TREATMENT
- PART V CHALLENGES AND OPPORTUNITIES
- Index
- Plate section
Summary
Endothelial cell (EC) precursors, termed angioblasts, form primitive vascular plexuses de novo, a process termed vasculogenesis (1–3). Cells of the primitive vascular plexus further differentiate into arterial, venous, endocardial, and lymphatic ECs. New vessels also sprout out from the existing vessels via angiogenesis. Angioblasts are highly migratory, often originating far from their destination (1,3). By tracking the migratory patterns and lineage specification of EC precursors, the mechanisms involved in EC commitment and diversity can be defined more precisely. The fate maps of groups of cells provide clues regarding the tissue–tissue interactions involved in EC differentiation and vessel development. Single-cell labeling and tracing can determine the specific timing and site of lineage segregation. This chapter describes the ontogeny of cardiac and noncardiac ECs as revealed by genetic and nongenetic fate mapping and lineage analysis.
CELL TAGGING METHODS
Successful fate mapping or lineage analysis depends on a reliable cell tagging method that allows researchers to label a defined group of cells and to restrict the labeling to its progeny without dilution or horizontal spread. Several methods of genetic and nongenetic cell labeling have been developed.
Nongenetic Approaches
Labeling with a lipophilic fluorescent dye, such as DiI (1,1′-dioctadecyl-3,3,3′,3′-tetramethyl-indocarbocyanine · perchlorate), is a widely used nongenetic cell labeling method for fate mapping studies (4,5). DiI stably integrates into cell membranes and generates a high fluorescent signal, but exhibits little diffusion to adjacent cells and insignificant cell toxicity. Because of their stable integration into the cell membrane, lipophilic dyes are passed mainly to the progeny of the labeled parental cells.
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- Chapter
- Information
- Endothelial Biomedicine , pp. 167 - 172Publisher: Cambridge University PressPrint publication year: 2007