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Peer reviewedBauer, S. H. – Journal of Chemical Education, 1986
Proposes a model for kinetic processes said to be similar in computational effort and yielding similar results to conventional transition state theory (TST), while maintaining parsimony and credulity. Argues that partitioning of states into groups be limited to energy space in contrast to TST. (JM)
Descriptors: Chemical Bonding, Chemical Reactions, Chemistry, College Science
Peer reviewedLin, King-Chuen – Journal of Chemical Education, 1988
Discusses the concept of kinetic versus thermodynamic control of reactions. Explains on the undergraduate level (1) the role of kinetic and thermodynamic control in kinetic equations, (2) the influence of concentration and temperature upon the reaction, and (3) the application of factors one and two to synthetic chemistry. (MVL)
Descriptors: Chemical Equilibrium, Chemical Reactions, Chemistry, College Science
Peer reviewedRios, Angel; And Others – Journal of Chemical Education, 1986
Describes a method of flow injection analysis intended for calculation of complex-formation and redox reaction stoichiometries based on a closed-loop configuration. The technique is suitable for use in undergraduate laboratories. Information is provided for equipment, materials, procedures, and sample results. (JM)
Descriptors: Chemical Reactions, Chemistry, College Science, Higher Education
Peer reviewedMata-Perez, Fernando; Perez-Benito, Joaquin F. – Journal of Chemical Education, 1987
Presented is a method of obtaining accurate rate constants for autocatalytic reactions. The autocatalytic oxidation of dimethylamine by permanganate ion in aqueous solution is used as an example. (RH)
Descriptors: Chemical Reactions, Chemistry, College Science, Kinetics
Peer reviewedMitchell, Richard S. – Journal of Chemical Education, 1996
Describes a combination of solutions that can be used in the study of kinetics using the iodine clock reaction. The combination slows down degradation of the prepared solutions and can be used successfully for several weeks. (JRH)
Descriptors: Chemical Reactions, Chemistry, Higher Education, Kinetics
Peer reviewedWeston, Ralph E., Jr. – Journal of Chemical Education, 1988
Reviews some important properties of the bimolecular reaction between the hydroxyl radical and carbon monoxide. Investigates the kinetics of the reaction, the temperature and pressure dependence of the rate constant, the state-to-state dynamics of the reaction, and the reverse reaction. (MVL)
Descriptors: Chemical Equilibrium, Chemical Reactions, Chemistry, College Science
Peer reviewedHall, L.; Goberdhansingh, A. – Journal of Chemical Education, 1988
Describes a simple redox reaction that occurs between potassium permanganate and oxalic acid that can be used to prepare an interesting disappearing ink for demonstrating kinetics for introductory chemistry. Discusses laboratory procedures and factors that influence disappearance times. (CW)
Descriptors: Chemical Reactions, Chemistry, College Science, Demonstrations (Educational)
Peer reviewedChesick, John P. – Journal of Chemical Education, 1988
Describes a Pascal-language based kinetics rate package for the microcomputer. Considers possible ecological uses for the program and illustrates results for several rate laws. Discusses hardware and software needs for adequate operation. (ML)
Descriptors: Chemical Reactions, Chemistry, College Science, Computer Software
Peer reviewedWotiz, John H., Ed.; Pearson, Ralph G. – Journal of Chemical Education, 1978
Describes the scientists and the work they did to study mechanisms of stable complexes of cobalt (III) using kinetic methods. Traces the work from 1946 to the present. (MA)
Descriptors: Chemical Reactions, Chemistry, Kinetics, Mechanics (Process)
Peer reviewedTruhlar, Donald G. – Journal of Chemical Education, 1985
Presents a parallel treatment of the same phenomena by two approaches (steady-state approximation and approximate solution of the appropriate diffusion equation) to clarify the physical meaning of the important radiation boundary condition in the diffusional derivation. (JN)
Descriptors: Chemical Reactions, Chemistry, College Science, Higher Education
Peer reviewedSeeman, Jeffrey I. – Journal of Chemical Education, 1986
Discusses: (1) the Curtin-Hammett (C-H) equation; (2) a direct relationship between product ratio and conformer distribution; (3) the Winstein-Holness (W-H) equation; (4) a combined kinetic treatment using a C-H/W-H utility; and (5) extensions of the C-H/W-H concepts. (JN)
Descriptors: Chemical Equilibrium, Chemical Reactions, Chemistry, Higher Education
Peer reviewedAlvarino, Jose M.; Martinez, E. – Journal of Chemical Education, 1983
Discusses how, in some circumstances, a two-body reaction (association in absence of a third body) is the only possible association, and how reactions proceed in this case. Taking competition between two/three-body reactions into account, considers relative importance of such combinations and conditions under which the former can be competitive.…
Descriptors: Chemical Reactions, Chemistry, College Science, Higher Education
Peer reviewedLobo, L. S.; Bernardo, C. A. – Journal of Chemical Education, 1974
Explains an error that occurs in calculating the conditions for a maximum value of a rate expression for a bimolecular reaction. The rate expression is derived using the Langmuir adsorption isotherm to relate gas pressures and corresponding surface coverages. (GS)
Descriptors: Chemical Reactions, Chemistry, College Science, Instructional Materials
Peer reviewedGlasser, L. – Journal of Chemical Education, 1979
The Langmuir-Hinshelwood equation is fundamental to the study of heterogeneous catalysis, and forms a basis of the study of bimolecular heterogeneous reaction rates. (BB)
Descriptors: Chemical Equilibrium, Chemical Reactions, Chemistry, Kinetics
Peer reviewedWoolf, Alfred A. – Journal of Chemical Education, 1978
Compares the preparation and decomposition of potassium dibromoiodate and of phenyl iodine dichloride in a flexible experiment which accustoms the student to handle halogens, to test for halogens in mixtures, and to appreciate the difference between thermodynamic and kinetic control of reactions. (Author/MA)
Descriptors: Chemical Reactions, Chemistry, Kinetics, Laboratory Experiments


