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Hemolysis

Hemoglobin S Hemoglobins Hemolysis Hemoperfusion Hemophan Hemophilia... [Pg.469]

E. Ponder, Hemolysis and Related Phenomena, Gmne and Stratton, New York and London, 1971, pp. 10—49. [Pg.406]

Hamo-chininshure, /. hemoquinic acid, -glo-binurie, /. hemoglobinuria, -lyse, /. hemolysis, haemolysis. [Pg.203]

Glucose- 6-phosphate dehydrogenase Low or absent enzyme activity in about 10% of African populations. Hemolysis following intake of a number of drugs which have electrophilic reactive metabolites, but also, carriers of this enzyme deficiency have a partial protection from malaria. [Pg.950]

Administration of dapsone may result in hemolysis (destruction of red blood cells), nausea, vomiting, anorexia, and blurred vision. [Pg.117]

In a broad evaluation also the sulfosuccinate disodium laureth sulfosuccinate (DLSS) was a part of a variety of surfactants tested for their dermatological mildness, and some different test methods were applied [16]. Products were compared applying in vitro methods (Zein test, hemolysis) and in vivo methods (Duhring-Chamber test, skin mildness by intracutaneous test on mice and topical application on hairless mice, mucous membrane irritation according to the Draize procedure on rabbit eyes). In the Duhring-Chamber test the DLSS elicited no reactions in the animal tests it ranged in the least irritant third of the 15 products tested. [Pg.537]

The interaction of irritating substance with the cell membrane can also be measured if red blood cells are used. With a photometric determination the hemolysis (L f) and denaturation (D f) is measured. The ratio LID is an expression for the dermatological compatibility. Low LID figures describe a certain irritation, high LID figures describe a substance as mild. Results found for the... [Pg.543]

Nei, T. (1981). Mechanism of freezing injury to erythrocytes Effect of initial cell concentration on the post-thaw hemolysis. Cryobiol. 18, 229-237. [Pg.383]

TBT and TFT are membrane-active molecules, and their mechanism of action appears to be strongly dependent on organotin(IV) lipophilicity. They function as ionophores and produce hemolysis, release Ca(II) from sarcoplasmic reticulum, alter phosphatodylseiine-induced histamine release, alter mitochondrial membrane permeability and perturb membrane enzymes. Organotin(IV) compounds have been shown to affect cell signaling they activate protein kinase and increase free arachidonic acid through the activation of phospholipase... [Pg.420]

In addition to chemical reactions, the isokinetic relationship can be applied to various physical processes accompanied by enthalpy change. Correlations of this kind were found between enthalpies and entropies of solution (20, 83-92), vaporization (86, 91), sublimation (93, 94), desorption (95), and diffusion (96, 97) and between the two parameters characterizing the temperature dependence of thermochromic transitions (98). A kind of isokinetic relationship was claimed even for enthalpy and entropy of pure substances when relative values referred to those at 298° K are used (99). Enthalpies and entropies of intermolecular interaction were correlated for solutions, pure liquids, and crystals (6). Quite generally, for any temperature-dependent physical quantity, the activation parameters can be computed in a formal way, and correlations between them have been observed for dielectric absorption (100) and resistance of semiconductors (101-105) or fluidity (40, 106). On the other hand, the isokinetic relationship seems to hold in reactions of widely different kinds, starting from elementary processes in the gas phase (107) and including recombination reactions in the solid phase (108), polymerization reactions (109), and inorganic complex formation (110-112), up to such biochemical reactions as denaturation of proteins (113) and even such biological processes as hemolysis of erythrocytes (114). [Pg.418]

Certain of these peptoid antibiotics are also selective for bacterial, rather than mammalian, cells. The selectivity of these peptoids has been measured in terms of their capacity to cause hemolysis of human erythrocytes at or near their MIC (Tab. 1.3). Interestingly, the amount of hemolysis induced by these peptoids correlates well with their hydrophobicity as there is an increasing extent of hemolysis as molecular hydrophobicity increases. These results suggest that highly hydro-phobic compounds of this class are poorly selective antibiotics. The most active antibacterial peptoids, T2-15 and T3-12, have quite low hemolytic activity near their MICs. Although highly antibacterial in vitro, T3-17 is also very hemolytic at its MIC value. [Pg.21]

THE PENTOSE PHOSPHATE PATHWAY GLUTATHIONE PEROXIDASE PROTECT ERYTHROCYTES AGAINST HEMOLYSIS... [Pg.166]

Impairment of the Pentose Phosphate Pathway Leads to Erythrocyte Hemolysis... [Pg.169]

Genetic deficiency of glucose-6-phosphate dehydrogenase, with consequent impairment of the generation of NADPH, is common in populations of Mediterranean and Afro-Caribbean origin. The defect is manifested as red cell hemolysis (hemolytic anemia) when susceptible individuals are subjected to oxidants, such as the an-timalarial primaquine, aspirin, or sulfonamides or when... [Pg.169]

In erythrocytes, the pathway has a major function in preventing hemolysis by providing NADPH to maintain glutathione in the reduced state as the substrate for glutathione peroxidase. [Pg.172]

Hemolytic anemias are important causes of unconjugated hyperbihmbinemia, though unconjugated hyper-bihmbinemia is usuaUy only shght (< 4 mg/dL < 68.4 Imol/L) even in the event of extensive hemolysis because of the healthy hver s large capacity for handhng bihmbin. [Pg.282]

In jaundice secondary to hemolysis, the increased production of bilirubin leads to increased production of urobilinogen, which appears in the urine in large amounts. Bilirubin is not usually found in the urine in hemolytic jaundice (because unconjugated bihmbin does not pass into the urine), so that the combination of increased urobilinogen and absence of bihmbin is suggestive of hemolytic jaundice. Increased blood destruction from any cause brings about an increase in urine urobilinogen. [Pg.284]

Palytoxin (PTX) is one of the most potent marine toxins known and the lethal dose (LD q) of the toxin in mice is 0.5 Mg/kg when injected i.v. The molecular structure of the toxin has been determined fully (1,2). PTX causes contractions in smooth muscle (i) and has a positive inotropic action in cardiac muscle (4-6). PTX also induces membrane depolarization in intestinal smooth (i), skeletal (4), and heart muscles (5-7), myelinated fibers (8), spinal cord (9), and squid axons (10). PTX has been demonstrated to cause NE release from adrenergic neurons (11,12). Biochemical studies have indicated that PTX causes a release of K from erythrocytes, which is followed by hemolysis (13-15). The PTX-induced release of K from erythrocytes is depress by ouabain and that the binding of ouabain to the membrane fragments is inhibited by PTX (15). [Pg.219]

Homogenates of MetruUum senile, possibly the world s most common large sea anemone, yield extracts that are powerfully hemolytic for washed mammalian erythrocytes (22). The active substance, metridiolysin, is a protein of molecular weight approximately 80,000. In contrast to the sphingomyelin-inhibitable toxins, metridiolysin is an acidic protein having a pi of about 5. It is thermolabile and is inactivat by proteolytic enzymes. The optimal pH for hemolysis is between 5 and 6, and at pH 8 the lysin is inactive. It can be dissociated into two subunits of unequal size. Besides being cytolytic in vitro, metridiolysin is lethal when injected intravenously into mice. As shown in Table IV erythrocytes from the horse or dog are about a hundred times as sensitive to lysis as those from the mouse, and erythrocytes from other animals tested are intermediate in sensitivity. [Pg.308]


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Allergic hemolysis

Arsine hemolysis caused

Autoimmune hemolysis

Blood hemolysis

Blood oxygenators hemolysis

Chronic hemolysis

Copper induced hemolysis

Erythrocytes peroxide hemolysis

Extravascular hemolysis

Hemolysis 746 INDEX

Hemolysis Fischer

Hemolysis Histidin

Hemolysis Lecithin

Hemolysis Nutrition

Hemolysis analysis

Hemolysis and Lipemia

Hemolysis assay

Hemolysis ceftriaxone

Hemolysis cephalosporins

Hemolysis chemical action

Hemolysis ciprofloxacin

Hemolysis colloids

Hemolysis commercial

Hemolysis composition

Hemolysis dapsone

Hemolysis deficiency

Hemolysis depressant

Hemolysis elevated liver enzymes low platelets

Hemolysis enzymes

Hemolysis hemolytic anemia

Hemolysis icterus

Hemolysis immunoglobulin

Hemolysis in glucose-6-phosphate dehydrogenase

Hemolysis influences

Hemolysis intravenous

Hemolysis measurements

Hemolysis methyldopa

Hemolysis of red blood cells

Hemolysis pancreatic

Hemolysis peptides

Hemolysis phenomenon

Hemolysis preparation

Hemolysis properties

Hemolysis rifampicin

Hemolysis study, blood

Hemolysis tests

Hemolysis, clinical features

Hemolysis, drug induced

Hemolysis, erythrocytic, assay

Hemolysis, intravascular

Hemolysis, menadione

Hemolysis, menadione vitamin

Hypotonic hemolysis

In hemolysis

Induced Allergic Hemolysis

Intravenous immunoglobulin hemolysis

Peroxide hemolysis

Pharmaceutical hemolysis

Red blood cell hemolysis

Saponin hemolysis

Toxin Production and Hemolysis

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