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  1. Flow enhances the agonist-induced responses of the bradykinin receptor (B2) because of its lectinic nature: Role of its oligosaccharide environment
  2. Candida glabrata binds to glycosylated and lectinic receptors on the coronary endothelial luminal membrane and inhibits flow sense and cardiac responses to agonists
  3. G protein-coupled receptors mediate coronary flow- and agonist-induced responses via lectin-oligosaccharide interactions
  4. Molecular weight of different angiotensin II polymers directly determines: Density of endothelial membrane AT1 receptors and coronary vasoconstriction
  5. The coronary endothelium behaves as a functional diffusion barrier for intravascular Angiotensin II
  6. Cardiac Ischemia and Ischemia/Reperfusion Cause Wide Proteolysis of the Coronary Endothelial Luminal Membrane: Possible Dysfunctions
  7. Luminal endothelial lectins with affinity for N-acetylglucosamine determine flow-induced cardiac and vascular paracrine-dependent responses
  8. Two dissimilar AT1 agonists distinctively activate AT1 receptors located on the luminal membrane of coronary endothelium
  9. Effects of prolactin and vasoinhibins on nitric oxide synthase activity in coronary endothelial cells and vessels in isolated perfused guinea pig hearts
  10. Differential Distribution of Purine Metabolizing Enzymes Between Glia and Neurons
  11. Production, Metabolism and Possible Functions of Adenosine in Brain Tissuein situ
  12. Mannose polymer induces vasodilation through a luminal mannose receptor in rat mesenteric arteries
  13. Involvement of endothelial Man and Gal-binding lectins in sensing the flow in coronary arteries
  14. Enzymatic hydrolysis of luminal coronary glycosidic structures uncovers their role in sensing coronary flow
  15. Intracoronary Angiotensin II causes inotropic and vascular effects via different paracrine mechanisms
  16. Coronary flow-induced inotropism is modulated by binding of dextrans to the endothelial luminal surface
  17. Coculture of Astroglial and Vascular Endothelial Cells as Apposing Layers Enhances the Transcellular Transport of Hypoxanthine
  18. Possible Role of Nitric Oxide in Catecholamine Secretion by Chromaffin Cells in the Presence and Absence of Cultured Endothelial Cells
  19. Sole activation of three luminal adenosine receptor subtypes in different parts of coronary vasculature
  20. Effects of arginine vasopressin in the heart are mediated by specific intravascular endothelial receptors
  21. Role of the endothelial glycocalyx in dromotropic, inotropic, and arrythmogenic effects of coronary flow
  22. Intravascular adenosine: the endothelial mediators of its negative dromotropic effects
  23. Endothelium-mediated negative dromotropic effects of intravascular acetylcholine
  24. Coronary flow stimulates auricular-ventricular transmission in the isolated perfused guinea pig heart
  25. C14 Regulation of cardiac glycolysis by adenosine
  26. Functional role of intravascular coronary endothelial adenosine receptors
  27. C05 Differential distribution of purine metabolizing enzymes between glia and neurons
  28. Regulation of glycolytic flux by coronary flow in guinea pig heart. Role of vascular endothelial cell glycocalyx
  29. Time-dependent effects of theophylline on myocardial reactive hyperaemias in the anaesthetized dog
  30. Adenosine Formation and Release by Embryonic Chick Neurons and Glia in Cell Culture
  31. The Effect of Local Infusion of Adenosine and Adenosine Analogues on Local Cerebral Blood Flow
  32. Brain Interstitial Adenosine and Sagittal Sinus Blood Flow during Systemic Hypotension in Piglet
  33. Intracellular adenosine formation and its carrier-mediated release in cultured embryonic chick heart cells
  34. Interstitial Fluid Adenosine and Sagittal Sinus Blood Flow during Bicuculline-Seizures in Newborn Piglets
  35. Increased Brain Interstitial Fluid Adenosine Concentration during Hypoxia in Newborn Piglet
  36. Extraction of adenine nucleotides from cultured endothelial cells
  37. Increases in Cerebral Interstitial Fluid Adenosine Concentration during Hypoxia, Local Potassium Infusion, and Ischemia
  38. Uptake and release of adenosine by cultured rat aortic smooth muscle
  39. Effect of chronic denervation on pharmacological responsiveness of coronary vessels
  40. Calcium-dependent atrial slow action potentials generated with phosphatidic acid or phospholipaseD
  41. Intracellular adenosine in isolated rat liver cells
  42. Measurements of coronary plasma and pericardial infusate adenosine concentrations during exercise in conscious dog: Relationship to myocardial oxygen consumption and coronary blood flow
  43. Regulatory Function of Adenosine
  44. Metabolic Fate of Adenosine in Cerebrospinal Fluid
  45. Blood Flow Regulation by Adenosine in Heart, Brain, and Skeletal Muscle
  46. Mechanisms of Action of Adenosine on Vascular Smooth Muscle and Cardiac Cells
  47. The local regulation of cerebral blood flow
  48. The Role of Adenosine in the Regulation of Cerebral Blood Flow
  49. Regional differences in transmembrane action potential (AP) in guinea pig heart during global ischemia
  50. Blockade of Ca2+ dependent rat atrial slow action potentials by adenosine and lanthanum
  51. Restoration of inward slow current in hypoxic heart muscle by alkaline pH
  52. Circulatory Effects of Tissue Oxygen Tension Sensors
  53. Regulation of coronary blood flow
  54. Release of adenosine and lack of release of ATP from contracting skeletal muscle
  55. Challenges to the Adenosine Hypothesis for the Regulation of Coronary Blood Flow
  56. Penetration of horseradish peroxidase into the terminal cisternae of frog skeletal muscle fibers and blockade of caffeine contracture by Ca++ depletion
  57. Penetration of horseradish peroxidase into the terminal cisternae of frog skeletal muscle fibers and blockade of caffeine contracture by Ca++ depletion
  58. Acute coronary occlusion: Early changes that induce coronary dilatation and the development of collateral circulation∗
  59. Regulation of Coronary Blood Flow1
  60. Role of Adenosine, Adenosine Triphosphate and Inorganic Phosphate in Resistance Vessel Vasodilatation