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. 1995 Apr 15;307(Pt 2):433–438. doi: 10.1042/bj3070433

Methane-induced haemolysis of human erythrocytes.

H Batliwala 1, T Somasundaram 1, E E Uzgiris 1, L Makowski 1
PMCID: PMC1136667  PMID: 7733880

Abstract

Human erythrocytes were exposed to high concentrations of methane and nitrogen through the application of elevated partial pressures of these gas molecules. Cell leakage (haemolysis) was measured for cells exposed to these gases under a wide range of experimental conditions. Application of methane produces haemolysis at pressures far below the hydrostatic pressures known to disrupt membrane or protein structure. The effects of changes in buffer, temperature, diffusion rate and detergents were studied. Methane acts co-operatively with detergents to produce haemolysis at much lower detergent concentration than is required in the absence of methane or in the presence of nitrogen. At sufficiently high concentrations of methane, all cells are haemolysed. Increased temperature enhances the effect. Methane produces 50% haemolysis at a concentration of about 0.33 M compared with about 7.5 M methanol required for the same degree of haemolysis.

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Selected References

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