Learning Outcomes
The course
• Provides specialized background in the field of applied thermodynamics, which enhances the capability for comprehension and successful application of existing technological know-how and development of novel methods in the field
• The students become capable of the utilization of the obtained knowledge for the solution of interdisciplinary problems which relate to applied thermodynamics, while taking into consideration environmental, energy-related issues and ethical issues that may emerge during this process.
• Enhances their ability to write technical essays after validation of experimental and/or theoretical data related to the study area of the course
Course Content (Syllabus)
Summary of Thermodynamic Relationships
The First and the second law and other basic concepts
The thermodynamic state functions
Phase Equilibria and Phase Stability
Chemical Equilibrium
Introduction to Statistical Thermodynamics
-Quantum states and partition functions
-The canonical ensembe
-The microcanonical ensemble
-The grand canonical ensemble
-The NPT ensemble
-Partition function for an ideal gas
-Partition function for a real fluid
-Equations of state from statistical thermodynamics
Applications of Thermodynamics:
Phase Equilibria for separation processes
-Vapor-Liquid and Liquid-Liquid Equilibrium
-Three phase equilibrium
-Phase diagrams (Types I-VI according to Scott and van Konynenburg classification).
-Solid-Liquid Equilibrium
-Metastable Equilibrium
-Modeling of phase equilibria using statistical thermodynamic models
Polymer and biopolymer Solutions
Thermodynamics of surfaces and nanosystems
Thermodynamics of electrolyte solutions
Thermodynamics of biological processes
Environmental Thermodynamics
Thermodynamics of Energy production systems
Keywords
Statistical Thermodynamics, Equilibrium and Stability, Thermodynamics of Solutions and Macromolecular Systems