2010Journal of Veterinary ClinicsRequires access

Blood electrolytes and metabolites in rat model of acute metabolic and respiratory alkalosis.

Shang‐Jin Kim, Mun-Young Lee, Jin‐Shang Kim, Hyung‐Sub Kang

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Abstract

The development of blood ionic changes could be precipitated in acid-base disorder and subsequent treatment. As technology for detecting circulating ionized Mg²? (the most interesting form with respect to physiological and biological properties) is now available in veterinary clinical medicine. This present study investigated the changes of whole blood ionized Mg²? correlated with acute metabolic and respiratory alkalosis in rodent model. Metabolic alkalosis was induced by intravenous infusion with NaHCO₃ and mechanical hyperventilation was applied for respiratory alkalosis. We founded that the blood ionized Mg²? could be reversibly decreased by the NaHCO₃-induced acute metabolic alkalosis but irreversibly increased by the mechanical hyperventilation-induced respiratory acidosis and respiratory acidosis. We suggested that the potential change in blood suggested that the potential change in blood ionized Mg²? should be counted in treatment of acid-base disorders.

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What this paper is about

The development of blood ionic changes could be precipitated in acid-base disorder and subsequent treatment. As technology for detecting circulating ionized Mg²? (the most interesting form with respect to physiological and biological properties) is now available in veterinary clinical medicine. This present study investigated the changes of whole blood ionized Mg²? correlated with acute metabolic and respiratory alkalosis in rodent model. Metabolic alkalosis was induced by intravenous infusion with NaHCO₃ and mechanical hyperventilation was applied for respiratory alkalosis. We founded that the blood ionized Mg²? could be reversibly decreased by the NaHCO₃-induced acute metabolic alkalosis but irreversibly increased by the mechanical hyperventilation-induced respiratory acidosis and respiratory acidosis. We suggested that the potential change in blood suggested that the potential change in blood ionized Mg²? should be counted in treatment of acid-base disorders.

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Available abstract

The development of blood ionic changes could be precipitated in acid-base disorder and subsequent treatment. As technology for detecting circulating ionized Mg²? (the most interesting form with respect to physiological and biological properties) is now available in veterinary clinical medicine. This present study investigated the changes of whole blood ionized Mg²? correlated with acute metabolic and respiratory alkalosis in rodent model. Metabolic alkalosis was induced by intravenous infusion with NaHCO₃ and mechanical hyperventilation was applied for respiratory alkalosis. We founded that the blood ionized Mg²? could be reversibly decreased by the NaHCO₃-induced acute metabolic alkalosis but irreversibly increased by the mechanical hyperventilation-induced respiratory acidosis and respiratory acidosis. We suggested that the potential change in blood suggested that the potential change in blood ionized Mg²? should be counted in treatment of acid-base disorders.

Key concepts: Respiratory alkalosis, Hyperventilation, Respiratory acidosis, Metabolic alkalosis, Alkalosis, Metabolic acidosis, Acidosis, Respiratory system

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Blood electrolytes and metabolites in rat model of acute metabolic and respiratory alkalosis. — Research Paper | ScholarLens