FK017 Luminescence Dosimeters I

5 ECTS - 3-0 Duration (T+A)- 1. Semester- 3 National Credit

Information

Unit INSTITUTE OF NATURAL AND APPLIED SCIENCES
PHYSICS (MASTER) (WITH THESIS)
Code FK017
Name Luminescence Dosimeters I
Term 2018-2019 Academic Year
Term Fall
Duration (T+A) 3-0 (T-A) (17 Week)
ECTS 5 ECTS
National Credit 3 National Credit
Teaching Language Türkçe
Level Belirsiz
Type Normal
Mode of study Yüz Yüze Öğretim
Catalog Information Coordinator Prof. Dr. ZEHRA YEĞİNGİL
Course Instructor
The current term course schedule has not been prepared yet.


Course Goal / Objective

It was aimed at forming a bridge between the microdosimetric theories dealing with ionizing radiation interaction with solid state and biological systems

Course Content

Dose Response of Biological Systems to Low- and High-LET Radiation, A Unified and Comprehensive Theory of the TL Dose Response of Thermoluminescent Systems Applied to LiF:Mg,Ti, Dose Dependence of Thermoluminescence (TL) and Optically Stimulated Luminescence with Uniform Excitation, Cavity Theory,

Course Precondition

Resources

Notes



Course Learning Outcomes

Order Course Learning Outcomes
LO01 General aspects of radiation damage to cells and tissues were learned
LO02 Response of biological systems to low-LET radiation and Response of biological systems to high-LET radiation were learned
LO03 Modeling the dose response of biological systems were learned
LO04 The LiF:Mg,Ti systems were learned
LO05 The unified interaction model (UNIM) was learned
LO06 Heavy charged particle TL fluence response, HCP thermoluminescent efficiency were learned
LO07 Thermoluminescence dose dependence were learned
LO08 Optically stimulated luminescence (OSL) and related phenomena were learned
LO09 Dose-rate effect, Sensitization effects, Fading effects were learned
LO10 Fundamentals of cavity theory, Cavity theory equation for photon beams were learned
LO11 Small cavity theory and perturbation factors, Large cavity theory equation were learned
LO12 Cavity theory and charged particle beams, Small cavity theory equation and solid state cavities in electron beams were learned
LO13 Methods of determining mass collision stopping power ratios, Evaluation of the mass energy absorption coefficient ratio were learned
LO14 Semiconductor Radiation Detectors in Modern Radiation Therapy were learned
LO15 Applications of Thermoluminescent Dosimeters in Medicine were learned


Relation with Program Learning Outcome

Order Type Program Learning Outcomes Level
PLO01 - Has sufficient infrastructure in various subjects of Physics.
PLO02 - Demonstrate the knowledge of appropriate mathematical techniques used in physics.
PLO03 - Interpret observational and experimental results.
PLO04 - Makes use of the conceptual and practical knowledge acquired in the physics field at mastery level.
PLO05 - Has a knowledge about the logic of scientific research.
PLO06 - Report the solution of a physics problem, experimental results or projects in a written format or orally.
PLO07 - Chooses and uses the necessary publications, books and methods for a scientific research.
PLO08 - Accesses a knowledge about a subject in physics, does literature search and uses other sources for this purpose.
PLO09 - Provides solutions to the problems encountered in the physics field applying research methods.
PLO10 - Can perform an independent research.
PLO11 - Can perform group work effectively in a research or industrial projects.
PLO12 - Becomes conscious of the necessity of lifelong learning.
PLO13 - To keep track of the developments in physics and updates himself/herself invariably.
PLO14 - Shares his/her ideas and suggestions for solutions to the physical problems with experts and non-experts by supporting them with quantitative and qualitative data.
PLO15 - Can make an effective written or oral presentation of the results obtained in a study.
PLO16 - Makes use of the knowledge, problem solving and / or application skills acquired in the physics field in interdisciplinary studies.
PLO17 - Has a foundation necessary to work in a research and development organizations.


Week Plan

Week Topic Preparation Methods
1 General aspects of radiation damage to cells and tissues The proposed subjects are studied
2 Response of biological systems to low-LET radiation and Response of biological systems to high-LET radiation The proposed subjects are studied
3 Modeling the dose response of biological systems The related homework is prepared
4 The LiF:Mg,Ti systems Example problems are prepared to be solved in the classroom
5 The unified interaction model (UNIM) The homework problems are solved
6 Heavy charged particle TL fluence response, HCP thermoluminescent efficiency The related homework is prepared
7 Thermoluminescence dose dependence The previous chapters are repeated
8 Mid-Term Exam Mid-term exam problems and solutions are prepared
9 Optically stimulated luminescence (OSL) and related phenomena The new subjects are mentioned and are prepared
10 Dose-rate effect, Sensitization effects, Fading effects The proposed subjects are studied
11 Fundamentals of cavity theory, Cavity theory equation for photon beams The proposed subjects are studied
12 Small cavity theory and perturbation factors, Large cavity theory equation The related homework is prepared
13 Methods of determining mass collision stopping power ratios, Evaluation of the mass energy absorption coefficient Various problems are prepared and solved
14 Semiconductor Radiation Detectors in Modern Radiation Therapy The related homework is prepared
15 Applications of Thermoluminescent Dosimeters in Medicine Previously studied subjects are prepared to repeat
16 Term Exams Final exam questions and answers are prepared
17 Term Exams Final exam questions and answers are prepared

Update Time: 01.02.2019 10:30