Thromboxane and prostacyclin changes during cardiopulmonary bypass with and without pulsatile flow. 1982

W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin

Nonpulsatile cardiopulmonary bypass, in patients with coronary artery disease, produces a significant increase in thromboxane, a potent platelet aggregant and putative coronary vasoconstrictor. Pulsatile flow may decrease the incidence of perioperative infarction and the hormonal stress response to bypass. This study assessed the effect of pulsatile blood flow on plasma thromboxane and prostacyclin profiles during cardiopulmonary bypass by serial measurement of their stable metabolites, thromboxane B2 (TxB2) and 6-keto-prostaglandin F1 alpha (6-keto-PGF1 alpha). Two groups of eight patients each were studied before, during, and after cardiopulmonary bypass. Eight patients had routine (nonpulsatile) bypass and eight had pulsatile flow. In the nonpulsatile group, the TxB2 concentration significantly increased during bypass (65 +/- 39 to 1,224 +/- 306 pg/ml, p less than 0.01) and rapidly returned to control. Prostacyclin also rose (53 +/- 20 to 613 +/- 132 pg/ml, p less than 0.01). In the pulsatile group, TxB2 rose during bypass (53 +/- 18 to 693 +/- 130 pg/ml, p less than 0.01), but peak concentration was significantly lower than in the nonpulsatile group (1,224 +/- 306 versus 693 +/- 130 pg/ml, p less than 0.05). Prostacyclin rose sharply during cardiopulmonary bypass in the pulsatile group (53 +/- 22 to 1,033 +/- 136 pg/ml, p less than 0.01) and was higher than in the nonpulsatile group (1,033 +/- 136 versus 325 +/- 33 pg/ml, p less than 0.01). There were no intragroup differences of plasma hemoglobin, hematocrit, or platelet count. These data demonstrate that pulsatile flow significantly alters prostacyclin and thromboxane profiles during cardiopulmonary bypass and favors production of the coronary vasodilator and platelet disaggregant prostacyclin. This may be an important factor in some of the clinical advantages previously reported with this modality.

UI MeSH Term Description Entries
D010976 Platelet Count The number of PLATELETS per unit volume in a sample of venous BLOOD. Blood Platelet Count,Blood Platelet Number,Platelet Number,Blood Platelet Counts,Blood Platelet Numbers,Count, Blood Platelet,Count, Platelet,Counts, Blood Platelet,Counts, Platelet,Number, Blood Platelet,Number, Platelet,Numbers, Blood Platelet,Numbers, Platelet,Platelet Count, Blood,Platelet Counts,Platelet Counts, Blood,Platelet Number, Blood,Platelet Numbers,Platelet Numbers, Blood
D002315 Cardiopulmonary Bypass Diversion of the flow of blood from the entrance of the right atrium directly to the aorta (or femoral artery) via an oxygenator thus bypassing both the heart and lungs. Heart-Lung Bypass,Bypass, Cardiopulmonary,Bypass, Heart-Lung,Bypasses, Cardiopulmonary,Bypasses, Heart-Lung,Cardiopulmonary Bypasses,Heart Lung Bypass,Heart-Lung Bypasses
D003327 Coronary Disease An imbalance between myocardial functional requirements and the capacity of the CORONARY VESSELS to supply sufficient blood flow. It is a form of MYOCARDIAL ISCHEMIA (insufficient blood supply to the heart muscle) caused by a decreased capacity of the coronary vessels. Coronary Heart Disease,Coronary Diseases,Coronary Heart Diseases,Disease, Coronary,Disease, Coronary Heart,Diseases, Coronary,Diseases, Coronary Heart,Heart Disease, Coronary,Heart Diseases, Coronary
D006400 Hematocrit The volume of packed RED BLOOD CELLS in a blood specimen. The volume is measured by centrifugation in a tube with graduated markings, or with automated blood cell counters. It is an indicator of erythrocyte status in disease. For example, ANEMIA shows a low value; POLYCYTHEMIA, a high value. Erythrocyte Volume, Packed,Packed Red-Cell Volume,Erythrocyte Volumes, Packed,Hematocrits,Packed Erythrocyte Volume,Packed Erythrocyte Volumes,Packed Red Cell Volume,Packed Red-Cell Volumes,Red-Cell Volume, Packed,Red-Cell Volumes, Packed,Volume, Packed Erythrocyte,Volume, Packed Red-Cell,Volumes, Packed Erythrocyte,Volumes, Packed Red-Cell
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D001026 Coronary Artery Bypass Surgical therapy of ischemic coronary artery disease achieved by grafting a section of saphenous vein, internal mammary artery, or other substitute between the aorta and the obstructed coronary artery distal to the obstructive lesion. Aortocoronary Bypass,Bypass, Coronary Artery,Bypass Surgery, Coronary Artery,Coronary Artery Bypass Grafting,Coronary Artery Bypass Surgery,Aortocoronary Bypasses,Artery Bypass, Coronary,Artery Bypasses, Coronary,Bypass, Aortocoronary,Bypasses, Aortocoronary,Bypasses, Coronary Artery,Coronary Artery Bypasses
D013928 Thromboxane A2 An unstable intermediate between the prostaglandin endoperoxides and thromboxane B2. The compound has a bicyclic oxaneoxetane structure. It is a potent inducer of platelet aggregation and causes vasoconstriction. It is the principal component of rabbit aorta contracting substance (RCS). Rabbit Aorta Contracting Substance,A2, Thromboxane
D013929 Thromboxane B2 A stable, physiologically active compound formed in vivo from the prostaglandin endoperoxides. It is important in the platelet-release reaction (release of ADP and serotonin). B2, Thromboxane
D013931 Thromboxanes Physiologically active compounds found in many organs of the body. They are formed in vivo from the prostaglandin endoperoxides and cause platelet aggregation, contraction of arteries, and other biological effects. Thromboxanes are important mediators of the actions of polyunsaturated fatty acids transformed by cyclooxygenase. Thromboxane
D015121 6-Ketoprostaglandin F1 alpha The physiologically active and stable hydrolysis product of EPOPROSTENOL. Found in nearly all mammalian tissue. 6-Keto-PGF1 alpha,6-Oxo-PGF1 alpha,6-Oxoprostaglandin F1 alpha,6 Ketoprostaglandin F1 alpha,6 Keto PGF1 alpha,6 Oxo PGF1 alpha,6 Oxoprostaglandin F1 alpha,F1 alpha, 6-Ketoprostaglandin,F1 alpha, 6-Oxoprostaglandin,alpha, 6-Keto-PGF1,alpha, 6-Ketoprostaglandin F1,alpha, 6-Oxo-PGF1,alpha, 6-Oxoprostaglandin F1

Related Publications

W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
January 1983, The Journal of thoracic and cardiovascular surgery,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
June 1986, The Journal of thoracic and cardiovascular surgery,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
November 2023, Journal of cardiothoracic and vascular anesthesia,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
January 1984, The Journal of cardiovascular surgery,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
November 2023, Journal of cardiothoracic and vascular anesthesia,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
April 1988, British journal of anaesthesia,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
August 1981, The Journal of thoracic and cardiovascular surgery,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
May 1983, The Annals of thoracic surgery,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
September 1983, The Journal of thoracic and cardiovascular surgery,
W D Watkins, and M B Peterson, and D L Kong, and K Kono, and M J Buckley, and F H Levine, and D M Philbin
October 2022, The Annals of thoracic surgery,
Copied contents to your clipboard!