Course - Thermo- and Fluid Dynamics, Specialisation Project - TEP4541
Thermo- and Fluid Dynamics, Specialisation Project
Choose study yearAbout
About the course
Course content
The student will do an in-depth project in fundamental or applied thermo- and/or fluid dynamics, on a contemporary research topic. Although the projects will be supervised, they are expected to work independently. The research project will generally fall within one or more of the following areas:
- turbulent flow and aerodynamics (e.g., boundary layers, wind turbines, aero foils, racing cars)
- reacting flows/thermal energy (e.g., turbulent combustion, e-fuels, biomass)
- multi-phase flows (e.g., flows with droplets, bubbles and particles)
- internal flows (e.g., flows in channels and pipes)
- external flow (e.g., flow over turbine blades, bluff body flows and wakes)
- methods for computational fluid dynamics
- interfacial flows and waves
- heat and mass transfer
The main supervisor for the project should be among the listed course teachers, or affiliated with the thermo-fluids research group.
Learning outcome
Knowledge: After completion of this subject the student will have specialist knowledge of a research-relevant topic in one or more of the following fields: general fluid mechanics, aerodynamics, wind turbines, computational fluid dynamics, experimental fluid dynamics, multiphase flows.
Skills: After completion of this subject the student will have these skills: Ability to plan and execute a research project, including acquiring background knowledge and literature, formulating a research question and research objectives, identify the specific methods, techniques, software or tools to be used, and adequately master these, perform scientific and technical analysis of an advanced problem, critically assess the reliability of data produced by the student or others, identify sources of error, discuss uncertainties in results and conclusions, and how to present their work both in oral presentation and in a project report.
General competence: Discussing and solving scientific and technical problems as well as formal reporting on achieved results within analyses, design and operation of thermo-fluids engineering components and systems.
Learning methods and activities
Independent project work with supervision.
Compulsory activity: oral presentation.
Specific conditions
Admission to a programme of study is required:
Energy and the Environment (MIENERG)
Energy and the Environment (MTENERG)
Mechanical Engineering (MIPROD)
Mechanical Engineering (MTPROD)
Sustainable Energy (MSSE)
Recommended previous knowledge
Second-level fluid mechanics equivalent to TEP4135 Fluid Mechanics 2 is highly recommended.
Students should have taken 2 or more of the courses below
- TEP4156 Viscous Flows and Boundary Layers
- TEP4112 Turbulent Flows
- TEP4130 Heat and Mass Transfer
- TEP4165 Computational Heat and Fluid Flow
TEP4280 Introduction of Computational Fluid Dynamics
Required previous knowledge
A strong foundation in fluid mechanics and thermodynamics equivalent to TEP4100, TEP4120.
Course materials
To be agreed with supervisor.
Subject areas
- Applied Mechanics, Thermodynamics and Fluid Dynamics
- Ocean-wave Physics
- Thermodynamics
- Applied Mechanics - Fluid Mechanics
- Internal Combustion Engines
- Engineering Fluid Flow Processes
- Applied Mechanics - Fluid Mechanics
- Applied Mechanics, Thermo- and Fluid Dynamics - Multi Phase Flow
- Applied Mechanics, Thermo- and Fluid Dynamics - Heat and Combustion Engineering
Contact information
Course coordinator
Lecturers
- Carlos Alberto Dorao
- Corinna Netzer
- Ivar Ståle Ertesvåg
- James Richard Dawson
- Jonas Moeck
- Luca Brandt
- Maria Fernandino
- Nicholas Alexander Worth
- Quang Khanh Tran
- Reidar Kristoffersen
- Robert Jason Hearst
- Tania Kalogiannidis Bracchi
- Terese Løvås