Course content

This course describes models for the constituents and properties of nuclei, nuclear reactions and radioactivity, description of various mechanisms for interaction between ionizing radiation and matter, and introduction to radiation dosimetry. The course includes applications such as detection of radiation, nuclear power generation, environmental exposure to ionizing radiation, risk assessment, and radiation protection.

Learning outcome

The student acquires knowledge of constituents and properties of nuclei, nuclear reactions and accompanying radiations, as well as mechanisms for the interaction of radiation with matter. This includes: nuclear models and nuclear properties, nuclear reactions, with emphasis on alpha, beta and gamma radiation related to strong, weak and electromagnetic interactions, mechanisms for the interaction of radiation with matter, radiation dosimetry, biological effects of ionizing radiation, radiation protection, nuclear power, fusion reactions, industrial and medical applications og nuclear methods and ionizing radiation.
Students will be able to find and use relevant data to assess and evaluate the occurrence and effects of nuclear processes and ionizing radiation, as well as acquire skills in spectroscopic analysis of beta and gamma radioactivity and the radiation’s interaction with matter, using NaI and HPGe detectors combined with computer-based multichannel analysis. The student will acquire skills in analyzing and interpreting registered radiation spectra, and communicate the result of such investigations in writing.

Learning methods and activities

Lectures, problem solving, mandatory laboratory assignments. Teaching will be in English if students on international master programs are attending the course. Mid-term exam weighs 20% in total grade score. A re-sit examination may be changed from written to oral.

Compulsory assignments

• Calculation exercises
• Laboratory exercises

Recommended previous knowledge

Course TFY4250/FY2045, or equivalent.

Course materials

J. Lilley: Nuclear Physics, John Wiley og Sons, 2001. Some supplementary material.

Credit reductions