Process Design for Energy Efficiency
Courses included in the programme:
Apply before Jan 1, 2019
The aim of the course is to give the participants an overwiew of new energy (more) sustainable energy technologies and their advantages and disadvantages. Present state and global trends are discussed. Technologies treated are solar thermal energy (collectors and concentrators), solar photovoltaics, biomass, fuel cells, wind energy, wave and tidal energy, geothermal energy and osmotic power. The course also treats operation principles, efficiency and practical realizations of the technologies, and illustrates the performance through a set of small numerical examples and assignments.
Apply before Mar 3, 2019
The student will obtain knowledge and skills with more modern concepts of advanced thermodynamics, from a viewpoint of more sustainable energy technology and more energy efficient (chemical) process engineering. Topics: 1) Exergy analysis; 2) Heat radiation 3) Solar energy (PV, thermal) 4) Separation process thermodynamics, 5) Irreversible thermodynamics 6) Energy Storage 7) Exercises.
The aim of the course is to make the student acquainted with the foundations of thermodynamics, and how these can be used to tackle some engineering problems using mathematical models. Key topics in the course are the use of macro balances for additive quantities, the basic principles of modeling, and the practical implications of the laws of thermodynamics. The students will gain understanding of problems in energy technology and estimation and calculation of thermodynamic quantities needed. They will also learn commonly accepted computational simplifications which make it possible to tackle problems in the systems studied.
Study method online or contact learning.
The course consists of lectures, exercises, and seminar presentations. The main topics of the course are mass and momentum balances, the Navier-Stokes equations, potential flow, numerical computation of flow fields, introduction to turbulence models and multiphase flows. The final part of the course is devoted to CFD modeling using a software.
The Aim of the course is to give the participants a deeper knowledge of the theory of fluid mechanics. It is in particular intended for postgraduate students who are familiar with the elements of engineering fluid dynamics (e.g., use of energy balances, calculation of pressure drops in pipe flow, and estimation of drag forces on obstacles) but feel that they need deeper theoretical insight to be able to enter the field of computational fluid dynamics.
After registration you will be able to login: moodle.abo.fi
Professor in charge: Henrik Saxén, Åbo Akademi (email@example.com)
Contact person in practical matters: Mikko Helle, Åbo Akademi (firstname.lastname@example.org)
Ron Zevenhoven, Åbo Akademi
Mikko Helle, Åbo Akademi