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Modelling Methods for Applied Physics

Semester 2 · 46013 · PhD Programme in Sustainable Energy and Technologies · 3CP · EN


1. mastering the most important concepts about modelling physical systems

2. developing simulation models based on the mathematical description of physical systems

3. applying the concepts to case studies

4. understanding potential and limitations of simulation for applications

Teaching Hours: 20
Lab Hours: 0
Mandatory Attendance: Not compulsory

Course Topics
List of topics covered Modeling and simulating: Calculation vs. simulation. Model accuracy. Model validation. Model definition: Definition of model for physical systems. Analytical vs numerical solutions. Model refinement and extension. Finite difference approaches: Solution of partial derivatives differential equations with finite difference approaches. Consistency, stability and convergence. First order schemes (forward, backward). Second order schemes (central, Crank-Nicolson) Applications: Development of case studies. Examples from thermal and thermodynamic systems. Modelling of systems and solutions of control problems.

Teaching format
Lectures (blackboard and/or slides) and spreadsheet implementation.

Educational objectives
(1) Knowledge and understanding: - Modelling and simulation vs calculations - Derivation of models for physical systems - Numerical solutions of differential equations (2) Applying Knowledge and understanding: - Defining models for case studies - Applying simulations to understand system behavior - Calculating multiple performance aspects (3) Making judgments: - Comparing different modelling approaches - Deciding the degree of accuracy required for the specific application - Optimizing the design or behavior of a system using modelling approaches (4) Communication skills: - Using the appropriate technical vocabulary related to the topic - Preparing a report representing and summarizing complex results and providing appropriate interpretation (5) Learning skills: - Decomposing a complex problem into sub- problems - Finding the analytical expression and the numerical solution - Comparing different methods and sources

Evaluation criteria
Marks are attributed according to the following assessment aspects: - Synthesis ability to explain the fundamental aspects of the problem (0=nothing, 1=insufficient; 2=sufficient; 3=full) - Analysis ability to describe details and specific formulas/models (0=nothing, 1=insufficient; 2=sufficient; 3=full) - Application ability to implement the principles and formulas and to solve practical cases (0=nothing, 1=insufficient; 2=sufficient; 3=full) - Reporting ability to represent and summarize the main results and to provide an appropriate interpretation

Required readings

- Teaching material, handouts, booklets from the

reserve collection



Supplementary readings

- Carl-Eric Hagentoft, 2001, Introduction to Building Physics, Professional Pub Service




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