On the Temperature Dependence of the Formation Constant of Thiocyanatopentaaquochromium (III) in Acidic Solution.
J. WARD
Abstract
J. WARD
Abstract
The equilibrium constants for the ionization of carboxylic acids in water pass through a maximum as temperature changes. If the equilibrium constant represents a one-step process, then the attendant thermodynamic properties such as enthalpy and entropy are also temperature dependent. Blandamer and co-workers in the United Kingdom and Canada have recently concluded that the ionization of the carboxylic acids is a multistage process and the temperature dependence of the observed equilibrium constant can be fit by combination of the equilibrium constants of the individual steps, each such equilibrium constant having temperature-independent enthalpy. Blandamer and his co-workers also derived an expression to test the temperature dependence of the enthalpy.
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The equilibrium constants for the ionization of carboxylic acids in water pass through a maximum as temperature changes. If the equilibrium constant represents a one-step process, then the attendant thermodynamic properties such as enthalpy and entropy are also temperature dependent. Blandamer and co-workers in the United Kingdom and Canada have recently concluded that the ionization of the carboxylic acids is a multistage process and the temperature dependence of the observed equilibrium constant can be fit by combination of the equilibrium constants of the individual steps, each such equilibrium constant having temperature-independent enthalpy. Blandamer and his co-workers also derived an expression to test the temperature dependence of the enthalpy.
Key concepts: Enthalpy, Equilibrium constant, Thermodynamics, Chemistry, Constant (computer programming), Chemical equilibrium, Entropy (arrow of time), Ionization