Nuclear Medicine
1600-Lek5MNU-J
Classes conducted in the form of lectures and practical exercises.
During lectures, students gain theoretical knowledge about ionizing radiation, radiopharmaceutical production, the construction of basic devices used in nuclear medicine facilities, and legal aspects.
The exercises focus on developing practical skills related to duties in a nuclear medicine facility: radiopharmaceutical production, safety principles for staff and patients, performing basic mathematical calculations required for working with ionizing radiation, operating basic nuclear medicine equipment, understanding fundamental medical procedures, and fulfilling legal requirements.
Total student workload
Mandatory hours conducted with the teacher
Time spent by the student on individual work – reading literature and educational materials
Time required for preparation in the assessment process
Learning outcomes - knowledge
Understands and comprehends:
W1 – physical aspects of electroradiology, particularly the physics of ionizing radiation – K_W03
W2 – radiobiology and the physical, biological, and pathophysiological foundations of radiotherapy – K_W04
W3 – issues of data analysis in informatics, mathematics, and statistics essential in electroradiology – K_W05
W4 – legal conditions related to medical procedures – K_W09
W5 – principles of organizing diagnostic imaging labs, documentation rules in the facility; rights, duties, and responsibilities of technicians in the facility – K_W11
W6 – operational principles and structure of nuclear medicine diagnostic equipment – K_W12
W7 – procedures for conducting tests in nuclear medicine – K_W13
W8 – structure and operational principles of a cyclotron – K_W19
W9 – organization of radioisotope labs, nuclear medicine facilities, and radioisotope treatment departments, documentation rules; the role, importance of rights, duties, and responsibilities of an electroradiologist in the nuclear medicine team – K_W22
W10 – structure and operational principles of nuclear medicine equipment: single- and multi-channel counters, well counters, dose calibrators, scintillation probes, gamma cameras, PET scanners, hybrid equipment: SPECT/CT, PET/CT, PET/MRI – K_W23
W11 – principles of single-photon emission computed tomography (SPECT) and positron emission tomography (PET) – K_W24
W12 – principles of in vitro radioisotope studies (RIA, IRMA) and non-imaging tests – K_W25
W13 – principles of static and dynamic scintigraphy, gated studies – K_W26
W14 – principles of radiopharmacology, types of radiopharmaceuticals – labeling techniques and quality control – K_W27
W15 – principles of radioisotopic organ imaging: endocrine system, circulatory, digestive, musculoskeletal, central nervous, urinary systems, and others; imaging of neoplastic changes; molecular imaging; radiopeptides; indications and contraindications, test interpretation – K_W28
W16 – principles of isotope therapy: treatment of hyperthyroidism and thyroid cancers, treatment of skeletal metastases, radioisotopic synoviorthesis, radioimmunotherapy, receptor therapy, indications, treatment outcomes, complications – K_W29
W17 – recommendations for patients and staff during radioisotope diagnostics and therapy – K_W30
W18 – interaction of ionizing radiation with inanimate matter and biological medium: understands physical phenomena during ionizing radiation interaction, knowledge of genetic and molecular foundations of carcinogenesis, elements of radiobiology, biological effects of ionizing radiation on the living organism; understands the concept of relative biological effectiveness of different types of ionizing radiation – K_W31
W19 – quantities and units used in radiological protection, doses of ionizing radiation – K_W33
W20 – organization of radiological protection in Poland, radiological protection principles, dose limits – K_W34
W21 – radiological protection of the patient, reference levels, staff responsibility, conditions for the safe use of ionizing radiation for medical purposes, and methods to reduce patient exposure – K_W35
W22 – national and European Union legislation on radiological protection – K_W36
W23 – basic types of detectors, structure and operation of ionization chambers, thermoluminescent and semiconductor detectors, types, and construction of dosimeters – K_W37
W24 – principles of dose measurement based on national and international recommendations (ICRU) – K_W38
W25 – quality management systems, principles of clinical audits in nuclear medicine, quality control tests in nuclear medicine, principles of measurement and error analysis in electroradiology – K_W45
Learning outcomes - skills
Is able to:
U1 – explain to the patient the procedure of the upcoming diagnostic examination and the post-examination behavior rules based on environmental radiological protection principles – K_U02
U2 – communicate with colleagues and other healthcare workers – K_U03
U3 – plan and perform diagnostic and therapeutic procedures using ionizing radiation according to medical indications – K_U04
U4 – operate nuclear medicine equipment: organ scintigraphy, whole-body scintigraphy, tomographic examinations: SPECT and PET, hybrid equipment examinations SPECT/CT and PET/CT, iodine uptake studies; possesses knowledge of basic radiopharmacology and principles of performing radioisotope therapy – K_U08
U5 – skillfully assess and interpret examinations within the competencies of technical personnel in electroradiology – K_U10
U6 – anticipate potential errors in examinations, their artifacts and variations, and prevent them – K_U11
U7 – define quality control principles for electromedical equipment, define diagnostic lab organization principles, and manage their documentation – K_U12
U8 – process and record examination and procedure results and prepare examination and procedure documentation in imaging diagnostics – K_U14
U9 – obtain information from literature, databases, and other sources, integrate, interpret, draw conclusions, and form opinions – K_U15
U10 – communicate with the patient and work in a team – K_U17 and K_U18
Learning outcomes - social competencies
Is prepared to:
K1 – continuously improve themselves – K_K01
K2 – assess situations where expert assistance is required – K_K02
K3 – operate under conditions of uncertainty and stress – K_K03
K4 – work with patients – K_K04, K_K05
Teaching methods
informative lecture
problem-based lecture
seminar lecture
didactic discussion
case analysis
group work
expert table method
problem-solving
Expository teaching methods
- informative (conventional) lecture
Type of course
compulsory course
Prerequisites
Knowledge of radiological protection principles and behavior in medical facilities
General knowledge of ionizing radiation
Course coordinators
Assessment criteria
Exam – W1-W25, U1-U10
Activity in exercises – K1-K8
Practical placement
Bibliography
1. D.L. Bailey, J.L. Humm, A.Todd-Pokropek, A.van Aswegen „Nuclear Medicine Physics a handbook for teachers and students”
2. E.B. Podgorsak „Radiation Oncology Physics:A Handbook for Teachers and Students”
3. M. Joiner and A. van der Kogel „Basic clinical radiobiology” (4th edition)
Medycyna nuklearna red. Z.Toth, J.Przedlacki, PZWL Warszawa 1983
Scyntygrafia kliniczna W.Jasiński, T.Górowski, O.A.Chomicki, PZWL Warszawa 1981
Additional information
Additional information (registration calendar, class conductors,
localization and schedules of classes), might be available in the USOSweb system: