Eskisehir Technical University Info Package Eskisehir Technical University Info Package
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About the Program Educational Objectives Key Learning Outcomes Course Structure Diagram with Credits Field Qualifications Matrix of Course& Program Qualifications Matrix of Program Outcomes&Field Qualifications
  • Institute of Graduate Programmes
  • Department of Chemistry
  • Master of Science (MS) Degree
  • Program in Physical Chemistry
  • Course Structure Diagram with Credits
  • Chemical Kinetics
  • Learning Outcomes
  • Description
  • Learning Outcomes
  • Course's Contribution to Prog.
  • Learning Outcomes & Program Qualifications
  • ECTS Credit Load

  • will be able to interpret the chemical reaction rates and orders.
  • EN: Uses the terminology of chemical reaction rates.
  • EN: Applies several simple rate laws and solve a variety of problems related to these solutions.
  • EN: Applies experimental techniques to the determination of rate laws and rate constants.
  • will be able to analyze the kinetics of complex reactions.
  • EN: EN: Relates the change in intermediate concentration over time in consecutive reaction.
  • EN: Describes the initiation, propagation, branching, and termination steps of chain reactions.
  • EN: Applies the steady-state approximation and pre-equilibrium approximation to complex mechanisms.
  • Explains explosion limits in chain reactions.
  • will be able to explain the factors that affect reaction rate and the collision theory.
  • Explains the effect of temperature, concentration, pressure, and surface area on reaction rate with their physical foundations.
  • Calculates the activation energy using the Arrhenius equation and interprets the effect of temperature on the rate constant.
  • Explains collision number, steric factor, and activation energy within the framework of collision theory.
  • EN: Evaluates the results obtained from collision theory.
  • EN: Explains the relationship between activation enthalpy, entropy, and Gibbs energy in the activated complex theory.
  • will be able to distinguish energy and energy distribution from a statistical mechanics perspective.
  • 1. Explains the population distribution of molecules among energy levels (vibrational, rotational, translational) using the Boltzmann distribution law.
  • 2. Relates the threshold energy required for molecular activation to the density of states and partition function in statistical mechanics.
  • 3. Interprets that the efficiency of intermolecular energy transfer depends on energy level matching (resonance) and statistical probabilities.
  • 4. Quantitatively explains the effect of temperature on the fraction of activated molecules in the context of Maxwell-Boltzmann speed and energy distributions.
  • Will be able to recognize the factors affecting the rates of reactions in solution.
  • Test kinetics experimeriments that give molecular information.

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