Learning Outcomes |
PO |
MME |
The students who succeeded in this course: |
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LO-1 |
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PO-1 PO-1 Have an advanced level of knowledge about the recent and best practices in Environmental Engineering, deepen and expand their knowledge on the expert level, conduct and assess the analyses by employing statistical methods
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LO-2 |
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PO-2 PO-2 Plan experiments and carry out original researches in the field by making use of the theoretical and practical knowledge at the expert level that they have obtained in their field
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LO-3 |
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PO-5 PO-5 Evaluate the knowledge and skills in a critical way in every activity regarding the field, thereby guiding their learning
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LO-4 |
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PO-8 PO-8 Transfer in a systematical way the latest developments in Environmental Engineering and their field of study reinforcing with qualitative and quantitative data to the groups either concerned with the field or not by verbal, visual and written means
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LO-5 |
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PO-9 PO-9 Monitor and supervise the social, scientific, cultural and ethical values in the process of collecting, interpreting, implementing and publishing the data related to the field of Environmental Engineering and teach those values
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PO: Programme Outcomes MME:Method of measurement & Evaluation |
Course Contents |
Within the scope of Physical Chemistry; Basic Concepts, Kinetic Gas Theory, Thermodynamic Laws, States of Matter. To teach information about Phase-Balances, Surface Thermodynamics and Chemical Kinetics |
Weekly Course Content |
Week |
Subject |
Learning Activities and Teaching Methods |
1 |
Gases. Liquefaction and critical events |
Description Method |
2 |
Liquids, vapor pressure, surface tension, viscosity |
Description Method |
3 |
Solid state, Classification of solids, Crystal energy, Chemical bonds |
Description Method |
4 |
Investigation of Molecular Structure; Molar refraction, Molar polarization of molecules, dipole moment and molecular structure, magnetic properties of bodies |
Description Method |
5 |
Molecular spectra, electronic spectra, absorption of light in liquids and solutions, spectroscopic methods |
Description Method |
6 |
Azeotropes, solubility of gases in liquids, solubility of solids in liquids |
Description Method |
7 |
Numerical properties of solutions: Vapor pressure decrease, boiling point rise, freezing point decrease, osmatic pressure |
Description Method |
8 |
mid-term exam |
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9 |
Definition of Chemical Equilibrium, Equilibrium constant-Law of mass effects, Equilibrium and equilibrium constant in Heterogen and homogeneous reactions, Relationship between Kp and Kc, Le Chatelier principle- Factors affecting balance, Variation of equilibrium with temperature |
Description Method |
10 |
Phase rule; definitions, Gibbs phase rule, one component systems: water, sulfur and carbon dioxide systems, two and three component systems |
Description Method |
11 |
Chemical Kinetic; Reaction rate, molecularity and order definition and measurement, first order reactions and relations |
Description Method |
12 |
Definition and correlations of second and third order reactions, pseudo-molecular reactions, Reversible and opposite reactions, sequential reactions, parallel reactions |
Description Method |
13 |
Temperature effect on reaction rate, Activation energy, Collision theory of bimolecular reactions, Collision theory of monomolecular reactions |
Description Method |
14 |
Absolute reaction rate theory, Chain reactions, Primary salt effect in ionic reactions. |
Description Method |
15 |
Definition of adsorption, Adsorption types, Adsorption isotherms |
Description Method |
16 |
final exam |
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Recommend Course Book / Supplementary Book/Reading |
1 |
Fizikokimya – R. G. Mortimer, O. Şanlı, H. İ. Ünal, Palme Yayınları, 2004, Ankara |
2 |
Jiang Lei; Lin Feng, 2010, Bioinspired Intelligent Nanostructured Interfacial Materials, World Scientific Publishing Company, James P. Allen, Biophysical Chemistry, Wiley-Blackwell) |
3 |
Physical Chemistry - P.W Atkins, Oxford University Press 1998 |
Required Course instruments and materials |
Projection and computer |