After completion of the course the student should be able to
discuss the principles behind energy conversion in solar cells and solar fuel systems.
discuss different methods for solar fuel production.
explain the conditions for photobiological fuel production, and discuss strategies for enhancing the photosynthetic yield.
explain the function of different kinds of solar cells and their mechanisms for charge separation.
perform measurements and calculations of efficiency and quantum yield forsolar cells.
explain the different functions and fields of application of various kinds of batteries, the importance of the material chemistry for their function, as well as their role in the energy system.
describe the present research challenges in the field of chemical energy conversion and storage.
present, both in writingand orally, a relevant research topic for different audiences.
A. Photobiology and photobiochemistry Artificial photosynthesis, catalysts for solar fuel production , genetic modification of photosynthetic organisms, photobiological fuel production.
B. Solar cells Principles for conversion of solar energy to electricity, fundamental calculations and measurement of efficiency of solar cells, different solar cell technologies (inorganic, inorganic, hybrid), charge separation and transport.
C. Batteries Electrochemical processes in different batteries, battery materials (bulk, interfaces and nanoproperties), safety and reliability of batteries.
E. Individual assignment Individual project (consisting of laboratory practice or literature study) including oral and written report.
Lectures, tutorials, problem solving classes, demonstrations, seminars, projects and laboratory exercises.
Written examination (10 credits) at the end of the course. The laboratory course and seminars correspond to 1 credit, and the project correspond to 4 credits. The final grade corresponds to a weighted sum of all of these components.