RAD210 Radioactivity and Radiation Protection

Credits (ECTS):10

Course responsible:Lindis Skipperud

Campus / Online:Taught campus Ås

Teaching language:Engelsk

Limits of class size:Maximum 20 and minimum 5 students. See notes!

Course frequency:Annually

Nominal workload:250 hours.

Teaching and exam period:This course starts in Autumn parallel. This course has teaching/evaluation in Autumn parallel.

About this course

Lectures: Properties of radioactive nuclides, half-life, radiation types, nuclear reactions, energy, radiological toxicity, interaction of radiation with material and biological effects, radiation protection, ALARA, laws and regulations, measurement methods. History of radiation protection: ICRP, ICRU, UNSCEAR and IAEA, and the role of the International Organisation for Radiation Protection. Norwegian laws and regulations for the use of radioactivity, storage and radioactive waste.

Laboratory exercises: Practical radiation protection in the laboratory, Radiation protection using radioactive tracers, ALARA and introduction to measurement methods for alpha, beta and gamma radiation for qualitative and quantitative analysis.

Learning outcome

Knowledge: The students should understand the properties of radioactive nuclides, including half-life, radiation types and radiotoxicity, as well as have gained insight into the biological effects and effective radiation protection. The students should have insight into measurement methods for alpha-, beta- and gamma-radiation for qualitative and quantitative analysis. The students should understand that radioactivity is a phenomenon that humans have always been exposed to, that radioactivity can be used for good purposes (such as cancer therapy) and that measures can be taken to reduce the unwanted effects of radioactive radiation. Students should also understand that knowledge is important to reduce unnecessary worry and concerns related to radioactivity by the general population.

Skills: The students should be able to use radiation protection principles in working with radioactive tracers and understand radiological measurement methods in their own work. They must comply with necessary laws and regulations when working with open radioactive sources, as well as understand the Radiation Protection Act and its regulations for use in their own work. Real-life case studies and problem-solving exercises involving radiation protection scenarios will stimulate students to analyse and apply their theoretical knowledge in practical situations. Group projects will allow students to develop teamwork and presentation skills. Critical reviews will help students recognise sources of scientific consensus and controversy surrounding the effects of ionising radiation.

General competence: The course gives competence for independent use of open ionising radiation sources. The students should be able to choose the best possible radioactive nuclide for their studies based on energy, half-life and suitability. They should be able to choose the best possible measurement technique, as well as apply the right radiation protection principles in their own work. Using case studies and laboratory assignments, students should be able to prepare and present technical and scientific information, both orally and in writing.

  • Learning activities
    Knowledge of radioactive radiation and radiation protection is an experimental subject where lectures and laboratory exercises are carefully integrated. The lectures are used to develop a basic understanding of the atomic nucleus and the nature of radiation, and how we can use the properties of the atomic nucleus for qualitative and quantitative analysis. The lectures, case studies and laboratory exercises are closely linked so that the theories presented in course lectures are applied to practical laboratory work and to the case studies. Through written laboratory journals and oral presentations of research questions, the students' learning ability is monitored so that misunderstandings can be corrected throughout the course progression. Through laboratory assignments and problem-solving assignments, the student will have a practical introduction to all key parts of the curriculum. Passing the exam gives students permission for the use of ionising sources in their research tasks.
  • Teaching support
    Lectures, laboratory guidance, literature (textbook and professional articles, laws and regulations), supervision.
  • Prerequisites
    KJM100, KJM120.
  • Recommended prerequisites
    MATH100, FYS100, MILJØ200, RAD200
  • Assessment method

    Total assessment

    • Lab reports counts 30%
    • Written exam counts 70%

    Both parts must be passed.

    Grading system: A-E/Not passed.



  • Examiner scheme
    An external examiner will be used to evaluate the exam.
  • Mandatory activity
    The first lecture, case-presentation and all laboratory exercises are mandatory. Approval of lab reports.
  • Notes
    Students who want to take the course must apply for admission in Studentweb no later than August 31st. After that, the places in the course will be distributed.
  • Teaching hours

    Lectures: 35-40 hours (3h per week).

    Laboratory exercises and case studies (presentations) approx. 40-50 hours contact time (1 day a week)

    Individual journal writing, group work and follow-up.

  • Preferential right
    B-RAMI, M-RAMI
  • Reduction of credits
    5 ECTS for KJM350
  • Admission requirements
    Science.