17 - Putting Up Resistance: Maternal–Fetal Conflict over the Control of Uteroplacental Blood Flow pp. 135-141
By David Haig
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David Haig
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Publisher: Cambridge University Press
Print Publication Year: 2007
Online Publication Date:May 2010
Online ISBN:9780511546198
Hardback ISBN:9780521853767
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Chapter DOI: http://dx.doi.org/10.1017/CBO9780511546198.018
Subjects: Cell biology and developmental biology, Hematology
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All expenditures involve an opportunity cost. This is true in economics: Money spent on one activity is unavailable for other activities. But it is also true in evolutionary biology: Time, resources, or energy expended on one fitness-enhancing activity is unavailable for other fitness-enhancing activities. Organisms, like consumers, are faced by trade-offs. Beyond a certain level of reproductive expenditure on any particular offspring, a parent's resources are better allocated to other uses, say to fighting disease or laying down fat to survive the next winter. And these other uses, either directly or indirectly, translate into less investment in other offspring. An organism usually maximizes its expected number of surviving offspring, not by investing everything in a single offspring, but by spreading its reproductive effort across multiple offspring (1).
Trivers (2) recognized that the reproductive trade-off between continued investment in one particular offspring and investment in other offspring implied the existence of an evolutionary conflict between parents and offspring. A parent is equally related to all its offspring (a gene in the parent has a 50% chance of being transmitted to each offspring), but an offspring is more closely related to itself than to its sibs (a gene in an offspring is definitely present in that offspring but has only a probability of being present in the other offspring that compete for parental resources). Therefore, offspring will have evolved to extract more investment from parents than parents have evolved to supply. It should be emphasized that this is not a conflict in which every gain to the offspring is a loss to the parent, but one in which conflict arises over how much the parent supplies.
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pp. i-vi
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pp. vii-xx
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Editor, Associate Editors, Artistic Consultant, and Contributors: Read PDF
pp. xxi-xxxviii
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pp. xxxix-xl
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pp. 1-2
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1 - The Endothelium in History: Read PDF
pp. 3-20
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2 - Introductory Essay: Evolution, Comparative Biology, and Development: Read PDF
pp. 21-28
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3 - Evolution of Cardiovascular Systems and Their Endothelial Linings: Read PDF
pp. 29-49
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4 - The Evolution and Comparative Biology of Vascular Development and the Endothelium: Read PDF
pp. 50-58
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5 - Fish Endothelium: Read PDF
pp. 59-65
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6 - Hagfish: A Model for Early Endothelium: Read PDF
pp. 66-73
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7 - The Unusual Cardiovascular System of the Hemoglobinless Antarctic Icefish: Read PDF
pp. 74-78
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8 - The Fish Endocardium: A Review on the Teleost Heart: Read PDF
pp. 79-84
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9 - Skin Breathing in Amphibians: Read PDF
pp. 85-91
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10 - Avian Endothelium: Read PDF
pp. 92-93
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11 - Spontaneous Cardiovascular and Endothelial Disorders in Dogs and Cats: Read PDF
pp. 94-98
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12 - Giraffe Cardiovascular Adaptations to Gravity: Read PDF
pp. 99-106
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13 - Energy Turnover and Oxygen Transport in the Smallest Mammal: The Etruscan Shrew: Read PDF
pp. 107-112
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14 - Molecular Phylogeny: Read PDF
pp. 113-121
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15 - Darwinian Medicine: What Evolutionary Medicine Offers to Endothelium Researchers: Read PDF
pp. 122-128
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16 - The Ancestral Biomedical Environment: Read PDF
pp. 129-134
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17 - Putting Up Resistance: Maternal–Fetal Conflict over the Control of Uteroplacental Blood Flow: Read PDF
pp. 135-141
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18 - Xenopus as a Model to Study Endothelial Development and Modulation: Read PDF
pp. 142-149
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19 - Vascular Development in Zebrafish: Read PDF
pp. 150-160
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20 - Endothelial Cell Differentiation and Vascular Development in Mammals: Read PDF
pp. 161-166
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pp. 167-172
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22 - Pancreas and Liver: Mutual Signaling during Vascularized Tissue Formation: Read PDF
pp. 173-180
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23 - Pulmonary Vascular Development: Read PDF
pp. 181-196
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24 - Shall I Compare the Endothelium to a Summer's Day: The Role of Metaphor in Communicating Science: Read PDF
pp. 197-210
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25 - The Membrane Metaphor: Urban Design and the Endothelium: Read PDF
pp. 211-214
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26 - Computer Metaphors for the Endothelium: Read PDF
pp. 215-222
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PART II - ENDOTHELIAL CELL AS INPUT-OUTPUT DEVICE: Read PDF
pp. 223-224
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27 - Introductory Essay: Endothelial Cell Input: Read PDF
pp. 225-229
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28 - Hemodynamics in the Determination of Endothelial Phenotype and Flow Mechanotransduction: Read PDF
pp. 230-245
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29 - Hypoxia-Inducible Factor 1: Read PDF
pp. 246-255
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30 - Integrative Physiology of Endothelial Cells: Impact of Regional Metabolism on the Composition of Blood-Bathing Endothelial Cells: Read PDF
pp. 256-260
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31 - Tumor Necrosis Factor: Read PDF
pp. 261-265
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32 - Vascular Permeability Factor/Vascular Endothelial Growth Factor and Its Receptors: Evolving Paradigms in Vascular Biology and Cell Signaling: Read PDF
pp. 266-284
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33 - Function of Hepatocyte Growth Factor and Its Receptor c-Met in Endothelial Cells: Read PDF
pp. 285-290
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34 - Fibroblast Growth Factors: Read PDF
pp. 291-303
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35 - Transforming Growth Factor-β and the Endothelium: Read PDF
pp. 304-323
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36 - Thrombospondins: Read PDF
pp. 324-336
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37 - Neuropilins: Receptors Central to Angiogenesis and Neuronal Guidance: Read PDF
pp. 337-344
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38 - Vascular Functions of Eph Receptors and Ephrin Ligands: Read PDF
pp. 345-351
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39 - Endothelial Input from the Tie1 and Tie2 Signaling Pathway: Read PDF
pp. 352-359
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40 - Slits and Netrins in Vascular Patterning: Taking Cues from the Nervous System: Read PDF
pp. 360-367
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41 - Notch Genes: Orchestrating Endothelial Differentiation: Read PDF
pp. 368-374
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42 - Reactive Oxygen Species: Read PDF
pp. 375-383
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43 - Extracellular Nucleotides and Nucleosides as Autocrine and Paracrine Regulators within the Vasculature: Read PDF
pp. 384-395
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pp. 396-402
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45 - Sphingolipids and the Endothelium: Read PDF
pp. 403-409
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46 - Endothelium: A Critical Detector of Lipopolysaccharide: Read PDF
pp. 410-418
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47 - Receptor for Advanced Glycation End-products and the Endothelium: A Path to the Complications of Diabetes and Inflammation: Read PDF
pp. 419-429
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pp. 430-443
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49 - Kallikrein-Kinin System: Read PDF
pp. 444-450
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50 - Opioid Receptors in Endothelium: Read PDF
pp. 451-460
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51 - Snake Toxins and Endothelium: Read PDF
pp. 461-470
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52 - Inflammatory Cues Controlling Lymphocyte–Endothelial Interactions in Fever-Range Thermal Stress: Read PDF
pp. 471-479
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53 - Hyperbaric Oxygen and Endothelial Responses in Wound Healing and Ischemia–Reperfusion Injury: Read PDF
pp. 480-488
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pp. 489-496
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55 - Endothelium and Diving: Read PDF
pp. 497-505
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56 - Exercise and the Endothelium: Read PDF
pp. 506-515
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57 - The Endothelium at High Altitude: Read PDF
pp. 516-519
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58 - Endothelium in Space: Read PDF
pp. 520-526
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59 - Toxicology and the Endothelium: Read PDF
pp. 527-535
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60 - Pericyte–Endothelial Interactions: Read PDF
pp. 536-544
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61 - Vascular Smooth Muscle Cells: The Muscle behind Vascular Biology: Read PDF
pp. 545-561
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62 - Cross-Talk between the Red Blood Cell and the Endothelium: Nitric Oxide as a Paracrine and Endocrine Regulator of Vascular Tone: Read PDF
pp. 562-575
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63 - Leukocyte–Endothelial Cell Interactions: Read PDF
pp. 576-586
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64 - Platelet–Endothelial Interactions: Read PDF
pp. 587-601
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65 - Cardiomyocyte–Endothelial Cell Interactions: Read PDF
pp. 602-608
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66 - Interactions between Hepatocytes and Liver Sinusoidal Endothelial Cells: Read PDF
pp. 609-615
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67 - Stellate Cell–Endothelial Cell Interactions: Read PDF
pp. 616-619
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68 - Podocyte–Endothelial Interactions: Read PDF
pp. 620-626
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69 - Introductory Essay: Endothelial Cell Coupling: Read PDF
pp. 627-631
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70 - Endothelial and Epithelial Cells: General Principles of Selective Vectorial Transport: Read PDF
pp. 632-642
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71 - Electron Microscopic–Facilitated Understanding of Endothelial Cell Biology: Contributions Established during the 1950s and 1960s: Read PDF
pp. 643-656
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72 - Weibel-Palade Bodies: Vesicular Trafficking on the Vascular Highways: Read PDF
pp. 657-663
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73 - Multiple Functions and Clinical Uses of Caveolae in Endothelium: Read PDF
pp. 664-678
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74 - Endothelial Structures Involved in Vascular Permeability: Read PDF
pp. 679-688
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75 - Endothelial Luminal Glycocalyx: Protective Barrier between Endothelial Cells and Flowing Blood: Read PDF
pp. 689-695
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76 - The Endothelial Cytoskeleton: Read PDF
pp. 696-706
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77 - Endothelial Cell Integrins: Read PDF
pp. 707-713
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78 - Aquaporin Water Channels and the Endothelium: Read PDF
pp. 714-720
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79 - Ion Channels in Vascular Endothelium: Read PDF
pp. 721-728
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80 - Regulation of Angiogenesis and Vascular Remodeling by Endothelial Akt Signaling: Read PDF
pp. 729-736
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81 - Mitogen-Activated Protein Kinases: Read PDF
pp. 737-745
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82 - Protein Kinase C: Read PDF
pp. 746-752
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83 - Rho GTP-Binding Proteins: Read PDF
pp. 753-763
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84 - Protein Tyrosine Phosphatases: Read PDF
pp. 764-772
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85 - Role of β-Catenin in Endothelial Cell Function: Read PDF
pp. 773-783
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86 - Nuclear Factor-κB Signaling in Endothelium: Read PDF
pp. 784-795
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87 - Peroxisome Proliferator-Activated Receptors and the Endothelium: Read PDF
pp. 796-805
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88 - GATA Transcription Factors: Read PDF
pp. 806-811
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89 - Coupling: The Role of Ets Factors: Read PDF
pp. 812-817
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90 - Early Growth Response-1 Coupling in Vascular Endothelium: Read PDF
pp. 818-821
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91 - KLF2: A “Molecular Switch” Regulating Endothelial Function: Read PDF
pp. 822-827
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92 - NFAT Transcription Factors: Read PDF
pp. 828-833
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93 - Forkhead Signaling in the Endothelium: Read PDF
pp. 834-846
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94 - Genetics of Coronary Artery Disease and Myocardial Infarction: The MEF2 Signaling Pathway in the Endothelium: Read PDF
pp. 847-854
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95 - Vezf1: A Transcriptional Regulator of the Endothelium: Read PDF
pp. 855-860
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96 - Sox Genes: At the Heart of Endothelial Transcription: Read PDF
pp. 861-867
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97 - Id Proteins and Angiogenesis: Read PDF
pp. 868-876
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98 - Introductory Essay: Endothelial Cell Output: Read PDF
pp. 877-880
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99 - Proteomic Mapping of Endothelium and Vascular Targeting in Vivo: Read PDF
pp. 881-897
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100 - A Phage Display Perspective: Read PDF
pp. 898-908
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101 - Hemostasis and the Endothelium: Read PDF
pp. 909-914
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102 - Von Willebrand Factor: Read PDF
pp. 915-921
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103 - Tissue Factor Pathway Inhibitor: Read PDF
pp. 922-931
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104 - Tissue Factor Expression by the Endothelium: Read PDF
pp. 932-938
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105 - Thrombomodulin: Read PDF
pp. 939-946
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106 - Heparan Sulfate: Read PDF
pp. 947-959
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pp. 960-972
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pp. 973-981
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109 - Vitamin K–Dependent Anticoagulant Protein S: Read PDF
pp. 982-987
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110 - Nitric Oxide as an Autocrine and Paracrine Regulator of Vessel Function: Read PDF
pp. 988-993
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111 - Heme Oxygenase and Carbon Monoxide in Endothelial Cell Biology: Read PDF
pp. 994-1003
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112 - Endothelial Eicosanoids: Read PDF
pp. 1004-1014
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113 - Regulation of Endothelial Barrier Responses and Permeability: Read PDF
pp. 1015-1029
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114 - Molecular Mechanisms of Leukocyte Transendothelial Cell Migration: Read PDF
pp. 1030-1036
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115 - Functions of Platelet-Endothelial Cell Adhesion Molecule-1 in the Vascular Endothelium: Read PDF
pp. 1037-1048
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pp. 1049-1057
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117 - Intercellular Adhesion Molecule-1 and Vascular Cell Adhesion Molecule-1: Read PDF
pp. 1058-1070
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pp. 1071-1080
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119 - Endothelial Cell Apoptosis: Read PDF
pp. 1081-1097
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120 - Endothelial Antigen Presentation: Read PDF
pp. 1098-1108
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PART III - VASCULAR BED/ORGAN STRUCTURE AND FUNCTION IN HEALTH AND DISEASE: Read PDF
pp. 1109-1110
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121 - Introductory Essay: The Endothelium in Health and Disease: Read PDF
pp. 1111-1112
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122 - Hereditary Hemorrhagic Telangiectasia: A Model to Probe the Biology of the Vascular Endothelium: Read PDF
pp. 1113-1123
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123 - Blood–Brain Barrier: Read PDF
pp. 1124-1139
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124 - Brain Endothelial Cells Bridge Neural and Immune Networks: Read PDF
pp. 1140-1153
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125 - The Retina and Related Hyaloid Vasculature: Developmental and Pathological Angiogenesis: Read PDF
pp. 1154-1160
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126 - Microheterogeneity of Lung Endothelium: Read PDF
pp. 1161-1170
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127 - Bronchial Endothelium: Read PDF
pp. 1171-1177
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128 - The Endothelium in Acute Respiratory Distress Syndrome: Read PDF
pp. 1178-1192
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129 - The Central Role of Endothelial Cells in Severe Angioproliferative Pulmonary Hypertension: Read PDF
pp. 1193-1198
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130 - Emphysema: An Autoimmune Vascular Disease?: Read PDF
pp. 1199-1201
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131 - Endothelial Mechanotransduction in Lung: Ischemia in the Pulmonary Vasculature: Read PDF
pp. 1202-1213
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132 - Endothelium and the Initiation of Atherosclerosis: Read PDF
pp. 1214-1225
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133 - The Hepatic Sinusoidal Endothelial Cell: Read PDF
pp. 1226-1238
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134 - Hepatic Macrocirculation: Portal Hypertension As a Disease Paradigm of Endothelial Cell Significance and Heterogeneity: Read PDF
pp. 1239-1247
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135 - Inflammatory Bowel Disease: Read PDF
pp. 1248-1254
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136 - The Vascular Bed of Spleen in Health and Disease: Read PDF
pp. 1255-1264
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137 - Adipose Tissue Endothelium: Read PDF
pp. 1265-1270
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138 - Renal Endothelium: Read PDF
pp. 1271-1277
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pp. 1278-1286
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140 - The Influence of Dietary Salt Intake on Endothelial Cell Function: Read PDF
pp. 1287-1293
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141 - The Role of the Endothelium in Systemic Inflammatory Response Syndrome and Sepsis: Read PDF
pp. 1294-1302
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142 - The Endothelium in Cerebral Malaria: Both a Target Cell and a Major Player: Read PDF
pp. 1303-1310
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143 - Hemorrhagic Fevers: Endothelial Cells and Ebola-Virus Hemorrhagic Fever: Read PDF
pp. 1311-1319
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144 - Effect of Smoking on Endothelial Function and Cardiovascular Disease: Read PDF
pp. 1320-1331
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145 - Disseminated Intravascular Coagulation: Read PDF
pp. 1332-1336
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146 - Thrombotic Microangiopathy: Read PDF
pp. 1337-1343
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147 - Heparin-Induced Thrombocytopenia: Read PDF
pp. 1344-1351
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148 - Sickle Cell Disease Endothelial Activation and Dysfunction: Read PDF
pp. 1352-1359
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149 - The Role of Endothelial Cells in the Antiphospholipid Syndrome: Read PDF
pp. 1360-1369
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pp. 1370-1385
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151 - The Role of the Endothelium in Normal and Pathologic Thyroid Function: Read PDF
pp. 1386-1396
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152 - Endothelial Dysfunction and the Link to Age-Related Vascular Disease: Read PDF
pp. 1397-1404
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153 - Kawasaki Disease: Read PDF
pp. 1405-1410
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154 - Systemic Vasculitis Autoantibodies Targeting Endothelial Cells: Read PDF
pp. 1411-1418
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155 - High Endothelial Venule-Like Vessels in Human Chronic Inflammatory Diseases: Read PDF
pp. 1419-1430
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156 - Endothelium and Skin: Read PDF
pp. 1431-1443
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pp. 1444-1456
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158 - Tumor Blood Vessels: Read PDF
pp. 1457-1470
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159 - Kaposi's Sarcoma: Read PDF
pp. 1471-1478
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160 - Endothelial Mimicry of Placental Trophoblast Cells: Read PDF
pp. 1479-1487
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161 - Placental Vasculature in Health and Disease: Read PDF
pp. 1488-1500
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162 - Endothelialization of Prosthetic Vascular Grafts: Read PDF
pp. 1501-1505
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163 - The Endothelium's Diverse Roles Following Acute Burn Injury: Read PDF
pp. 1506-1512
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164 - Trauma-Hemorrhage and Its Effects on the Endothelium: Read PDF
pp. 1513-1522
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165 - Coagulopathy of Trauma: Implications for Battlefield Hemostasis: Read PDF
pp. 1523-1532
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166 - The Effects of Blood Transfusion on Vascular Endothelium: Read PDF
pp. 1533-1540
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167 - The Role of Endothelium in Erectile Function and Dysfunction: Read PDF
pp. 1541-1549
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168 - Avascular Necrosis: Vascular Bed/Organ Structure and Function in Health and Disease: Read PDF
pp. 1550-1552
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169 - Molecular Control of Lymphatic System Development: Read PDF
pp. 1553-1567
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170 - High Endothelial Venules: Read PDF
pp. 1568-1588
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171 - Hierarchy of Circulating and Vessel Wall–Derived Endothelial Progenitor Cells: Read PDF
pp. 1589-1596
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PART IV - DIAGNOSIS AND TREATMENT: Read PDF
pp. 1597-1598
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172 - Introductory Essay: Diagnosis and Treatment: Read PDF
pp. 1599-1601
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173 - Circulating Markers of Endothelial Function: Read PDF
pp. 1602-1611
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174 - Blood Endothelial Cells: Read PDF
pp. 1612-1620
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175 - Endothelial Microparticles: Biology, Function, Assay and Clinical Application: Read PDF
pp. 1621-1636
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176 - Molecular Magnetic Resonance Imaging: Read PDF
pp. 1637-1653
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177 - Real-Time Imaging of the Endothelium: Read PDF
pp. 1654-1658
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178 - Diagnosing Endothelial Cell Dysfunction: Read PDF
pp. 1659-1667
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pp. 1668-1673
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180 - Steroid Hormones: Read PDF
pp. 1674-1681
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181 - Organic Nitrates: Exogenous Nitric Oxide Administration and Its Influence on the Vascular Endothelium: Read PDF
pp. 1682-1689
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182 - Therapeutic Approaches to Altering Hemodynamic Forces: Read PDF
pp. 1690-1697
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183 - Stent- and Nonstent-Based Cell Therapy for Vascular Disease: Read PDF
pp. 1698-1711
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184 - Building Blood Vessels: Read PDF
pp. 1712-1724
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185 - Gene Transfer and Expression in the Vascular Endothelium: Read PDF
pp. 1725-1733
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186 - Drug Targeting to Endothelium: Read PDF
pp. 1734-1746
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PART V - CHALLENGES AND OPPORTUNITIES: Read PDF
pp. 1747-1748
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187 - Introductory Essay: Complexity and the Endothelium: Read PDF
pp. 1749-1753
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188 - Agent-Based Modeling and Applications to Endothelial Biomedicine: Read PDF
pp. 1754-1759
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189 - Scale-Free Networks in Cell Biology: Read PDF
pp. 1760-1766
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190 - Cell Fates as Attractors: Stability and Flexibility of Cellular Phenotypes: Read PDF
pp. 1767-1779
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191 - Equation-Based Models of Dynamic Biological Systems: Read PDF
pp. 1780-1785
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192 - Vascular Control through Tensegrity-Based Integration of Mechanics and Chemistry: Read PDF
pp. 1786-1792
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193 - Simulating the Impact of Angiogenesis on Multiscale Tumor Growth Dynamics Using an Agent-Based Model: Read PDF
pp. 1793-1798
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194 - New Educational Tools for Understanding Complexity in Medical Science: Read PDF
pp. 1799-1806
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195 - Endothelial Biomedicine: The Public Health Challenges and Opportunities: Read PDF
pp. 1807-1814
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pp. 1815-1816
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pp. 1817-1856
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