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
  • Faculty of Science
  • Department of Chemistry (30% English)
  • Course Structure Diagram with Credits
  • Physical Chemistry II
  • Learning Outcomes
  • Description
  • Learning Outcomes
  • Course's Contribution to Prog.
  • Learning Outcomes & Program Qualifications
  • ECTS Credit Load
  • Will be able to explain the fundamental concepts of chemical kinetics.
  • Expresses reaction rates.
  • Uses integrated rate equations for reactions of different orders.
  • Applies simple rate laws.
  • Applies experimental techniques in the determination of rate laws and rate constants.
  • Will be able to analyze complex reaction mechanisms of different types.
  • Distinguishes the relationship between reaction order and molecularity.
  • Derives the rate law for a proposed mechanism.
  • Will be able to explain the fundamental theories describing chemical kinetics.
  • Interprets the relationship between activation energy and temperature.
  • Comprehends the basic principles of collision theory.
  • Explains transition state theory and the concept of the activated complex.
  • Determines rate expressions for diffusion-controlled reactions.
  • Compares chemical and enzyme catalysis.
  • Will be able to correlate surface and interfacial phenomena.
  • Interprets factors affecting surface tension.
  • Uses the Laplace equation.
  • Examines the adsorption phenomenon and types of adsorption.
  • Describes adsorption isotherms.
  • Will be able to discuss electrical concepts and the causes of electrical conductivity in electrolyte solutions.
  • Comprehends Ohm’s law and electrical conductivity.
  • Describes Faraday’s laws.
  • Interprets the thermodynamic properties of electrolyte solutions.
  • Emphasizes the importance of the concept of activity in electrolyte solutions.
  • States the Debye-Hückel Theory.
  • Explains the effect of concentration on the conductivity of electrolyte solutions.
  • Evaluates colligative properties for electrolytic and non-electrolytic solutions.
  • Will be able to interpret the concepts of ionic mobility and transport numbers.
  • Describes transport numbers and their experimental determination methods.
  • Correlates ionic mobility and ionic conductivity with transport numbers.
  • Will be able explain the structure and thermodynamics of electrochemical cells.
  • Classifies electrochemical cells.
  • Calculates cell potentials using the Nernst equation and standard electrode potentials.
  • Identifies reference electrodes.
  • Relates Gibbs free energy and the equilibrium constant using cell potential.
  • Explains various applications of EMF measurements and corrosion mechanisms.
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