Physical Chemistry I

 

 

FACULTY

ENGINEERING

DEPARTMENT

CHEMICAL ENGINEERING

LEVEL OF STUDY

UNDERGRADUATE

SEMESTER OF STUDY

2o

COURSE TITLE

Physical Chemistry I
COURSEWORK BREAKDOWNTEACHING WEEKLY HOURSECTS Credits
Lectures5
Laboratory0
Projects0

TOTAL

5
COURSE TYPE
PREREQUISITES
LANGUAGE OF INSTRUCTION/EXAMSGreek
COURSE DELIVERED TO ERASMUS STUDENTSYes (in English)

MODULE WEB PAGE (URL)

https://eclass.uowm.gr


2. LEARNING OUTCOMES

Learning Outcomes


Upon successful completion of the Course, students will:
- have understood the importance of Physical Chemistry and its role as an important instrument of theoretical and applied research in the context of academic education and the scientific and professional activity of the Chemical Engineer,
- have been got in touch with the methodology of Physical Chemistry and the way to study problems (being physical on the basis and statistical from a chemical point of view) under the specific knowledge approach of Physical Chemistry, which deals with the Structure and States of Matter,
- be able to understand physicochemical phenomena that take place in a variety of physical and chemical processes, and
- have cultivated analytical thinking to be able to solve problems relevant to the course and applications referring to the science and profession of the Chemical Engineer


General Skills


• Autonomous Work
• Teamwork
• Planning and Project Management
• Work in an interdisciplinary environment
• Respect for the natural environment


3. COURSE CONTENTS


- Introduction. Aim of the course. Introduction to the subject and importance of Physical Chemistry and particularly to the content of the Course Physical Chemistry I
- Study of the properties of matter, its physical changes and the laws that apply to them and their interpretation.
- Μatter examined is in the form of: gases, Liquids, Solids, or even in the form of a System resulting from a combination of various substances that are in the same or different physical states and without chemical reaction between them - i.e. in the form of: Solution, Colloidal System, or Plasma .
- Presentation of the necessary theories for the study of the above matter forms:
General and Chemical Thermodynamics, Kinetic Theory, Quantum Theory, Theory of Dissolution in Liquids, Diffusion and Osmosis Theories, Debye-Hückel Theory of Strong Electrolytes, Sorption Theory, Disorder Theory of Solids


4. TEACHING METHODS – ASSESSMENT

MODE OF DELIVERY
Classroom / Face to face
USE OF INFORMATION AND COMMUNICATION TECHNOLOGY
• Extensive use of electronic bibliographic databases (Scopus, ScienceDirect, Springerlink) during Lectures, Individual/Group Work
• Support of the learning process through the e-class electronic platform
• Constant teacher-student communication and collaboration via e-mail

TEACHING METHODS
Method descriptionSemester Workload
A) Lectures (Total: A+B: 13x5=65)65
B) Course work Study and Presentation of a peer-reviewed published manuscript (in constant communication and cooperation with the Professor, using the course material and striving to develop critical thinking, via: the integration into the educational process of relevant, beyond the state of the art, research material, be exposing the students to reputable International and Greek bibliography such as publications from peer-reviewed international journals and proceedings of International and Greek conferences/workshops)
Course work presentation3
Course assessment2
Self study55
Course Total
ASSESSMENT METHODS Students can choose from two examination method:
a) final written exam, with 10 short-answer questions covering the entire scope of the material or
b) evaluation of the assigned coursework (choosing to carry out coursework is optional). The coursework grade will be a result of the written report produced and of the presentation of the work.


5. RESOURCES

Suggested bibliography :

Indicatively:
- Physical Chemistry by Atkins Peter - de Paula Julio
- www.scopus.com
- www.sciencedirect.com
- www.springerlink.com

Related academic journals: